Upload
others
View
3
Download
0
Embed Size (px)
Citation preview
SHALE GAS MONITORING PROCEDURE MANUAL
Shale Gas Monitoring Manual
April2017
InventoryandMonitoringSection
SHALE GAS MONITORING PROCEDURE MANUAL
ii
Copyrightandthird‐partyinformationasrequired
SHALE GAS MONITORING PROCEDURE MANUAL
iii
Table of Contents Introduction...............................................................................................................................................................................1
ScopeandPurpose........................................................................................................................................................................2
ProcessOverview...........................................................................................................................................................................3
WaterQualityMonitoring....................................................................................................................................................4
FieldChemistryMeasurements...............................................................................................................................................5
Purpose......................................................................................................................................................................................................5
EquipmentNeeds..................................................................................................................................................................................5
Calibration................................................................................................................................................................................................5
TakingMeasurements......................................................................................................................................................................11
DataManagement..............................................................................................................................................................................14
SurfaceWaterGrabSamplingandFlowMeasurement...........................................................................................15
Purpose...................................................................................................................................................................................................15
EquipmentNeeds...............................................................................................................................................................................15
Procedures.............................................................................................................................................................................................16
FieldChemistryMeasurement.....................................................................................................................................................18
BottleSampling...................................................................................................................................................................................19
FlowMeasurement............................................................................................................................................................................21
ProcessingandPackaging..............................................................................................................................................................24
QualityControl.....................................................................................................................................................................................24
DataManagement..............................................................................................................................................................................29
Temperature‐ConductivityProbe(Hobo)Maintenance...........................................................................................30
Purpose...................................................................................................................................................................................................30
EquipmentNeeds...............................................................................................................................................................................30
Procedure...............................................................................................................................................................................................31
HoboCleaning......................................................................................................................................................................................32
HoboDataDownload........................................................................................................................................................................33
HoboCalibrationChecks.................................................................................................................................................................33
HoboRe‐deployment........................................................................................................................................................................35
FinalSide‐by‐SideMeasurement.................................................................................................................................................35
SHALE GAS MONITORING PROCEDURE MANUAL
iv
DataManagement..............................................................................................................................................................................36
WidespreadSampling...............................................................................................................................................................37
Purpose...................................................................................................................................................................................................37
EquipmentNeeds...............................................................................................................................................................................37
Procedures.............................................................................................................................................................................................37
QualityControl.....................................................................................................................................................................................40
DataManagement..............................................................................................................................................................................41
PebbleCount.................................................................................................................................................................................42
Purpose...................................................................................................................................................................................................42
EquipmentNeeds...............................................................................................................................................................................42
EstablishingtheSampleReach.....................................................................................................................................................42
ConductingthePebbleCount........................................................................................................................................................43
ContingencyMeasures.....................................................................................................................................................................47
DataManagement..............................................................................................................................................................................48
BenthicMacroinvertebrateCollection..............................................................................................................................49
Purpose...................................................................................................................................................................................................49
EquipmentNeeds...............................................................................................................................................................................49
Procedures.............................................................................................................................................................................................49
QualityControl.....................................................................................................................................................................................56
DataManagement..............................................................................................................................................................................56
BenthicMacroinvertebrateProcessing............................................................................................................................58
Purpose...................................................................................................................................................................................................58
EquipmentNeeds...............................................................................................................................................................................58
Procedures.............................................................................................................................................................................................59
QualityControl.....................................................................................................................................................................................65
DataManagement..............................................................................................................................................................................65
PadMonitoring......................................................................................................................................................................66
PadInfrastructureandPostConstructionStormwaterManagement(PCSM).............................................67
Purpose...................................................................................................................................................................................................67
EquipmentNeeds...............................................................................................................................................................................67
Procedures.............................................................................................................................................................................................67
DataManagement..............................................................................................................................................................................74
WellPadVegetationAssessment.........................................................................................................................................75
SHALE GAS MONITORING PROCEDURE MANUAL
v
Purpose...................................................................................................................................................................................................75
EquipmentNeeds...............................................................................................................................................................................75
Procedures.............................................................................................................................................................................................75
NativeSpeciesColonizationWalkaboutSampling(Disturbededge).........................................................................79
Non‐NativeSpeciesColonizationWalkaboutSampling(Forestedge).......................................................................79
DataManagement..............................................................................................................................................................................80
WellPadWildlifeHabitatAssessment..............................................................................................................................81
Purpose...................................................................................................................................................................................................81
EquipmentNeeds...............................................................................................................................................................................81
Procedures.............................................................................................................................................................................................81
DataManagement..............................................................................................................................................................................85
SoilFertilitySampling..............................................................................................................................................................86
Purpose...................................................................................................................................................................................................86
EquipmentNeeds...............................................................................................................................................................................86
Procedures.............................................................................................................................................................................................86
SampleProcessing.............................................................................................................................................................................88
DataManagement..............................................................................................................................................................................88
RoadMonitoring...................................................................................................................................................................89
RoadsideVegetationCommunityMonitoring...............................................................................................................90
Purpose...................................................................................................................................................................................................90
EquipmentNeeds...............................................................................................................................................................................90
Procedures.............................................................................................................................................................................................90
DataManagement..............................................................................................................................................................................94
RoadsideInvasivePlantMonitoring..................................................................................................................................95
Purpose...................................................................................................................................................................................................95
EquipmentNeeds...............................................................................................................................................................................95
Procedures.............................................................................................................................................................................................95
QualityControl.....................................................................................................................................................................................97
DataManagement..............................................................................................................................................................................97
RoadConditionMonitoring....................................................................................................................................................98
Purpose...................................................................................................................................................................................................98
EquipmentNeeds...............................................................................................................................................................................98
Procedures.............................................................................................................................................................................................98
SHALE GAS MONITORING PROCEDURE MANUAL
vi
RoadDataManagement................................................................................................................................................................110
Resamples...........................................................................................................................................................................................110
RoadTriggerPoints........................................................................................................................................................................111
PostConstructionStormwaterManagement(PCSM)onRoads.................................................................................111
PCSMProcedures............................................................................................................................................................................111
PCSMDataManagement..............................................................................................................................................................113
PCSMTriggerPoints.......................................................................................................................................................................113
Road‐StreamCrossingAssessment..................................................................................................................................114
Purpose................................................................................................................................................................................................114
DataManagement...........................................................................................................................................................................114
PlantSupportingProcedures.......................................................................................................................................115
BaselineVegetativeInventory...........................................................................................................................................116
Purpose................................................................................................................................................................................................116
EquipmentNeeded.........................................................................................................................................................................116
Procedures..........................................................................................................................................................................................116
MilacreVegetationPlotProcedure.................................................................................................................................119
Purpose................................................................................................................................................................................................119
Habitat/VegetationType...........................................................................................................................................................119
VegetationData................................................................................................................................................................................119
OverstoryPlotProcedure.....................................................................................................................................................124
Purpose................................................................................................................................................................................................124
EquipmentNeeds............................................................................................................................................................................124
EstablishingPlotCenter...............................................................................................................................................................124
PlotData..............................................................................................................................................................................................125
EstablishingPrismPlotTrees....................................................................................................................................................128
PrismPlotTreeData......................................................................................................................................................................130
SpecialDBHSituations..................................................................................................................................................................134
DataManagement...........................................................................................................................................................................141
InvasivePlantSpeciesEarlyDetectionandRapidResponse(EDRR).............................................................142
Purpose................................................................................................................................................................................................142
InvasiveSpeciesHighPriorityList..........................................................................................................................................142
EquipmentNeeds............................................................................................................................................................................142
Procedures..........................................................................................................................................................................................143
SHALE GAS MONITORING PROCEDURE MANUAL
vii
DataManagement...........................................................................................................................................................................149
PipelineROWMonitoring..............................................................................................................................................151
GrasslandBirdNestSurveys...............................................................................................................................................152
Purpose................................................................................................................................................................................................152
EquipmentNeeds............................................................................................................................................................................152
Procedures..........................................................................................................................................................................................152
DataManagement...........................................................................................................................................................................154
PipelineROWVegetationMonitoring............................................................................................................................155
Purpose................................................................................................................................................................................................155
EquipmentNeeds............................................................................................................................................................................155
Procedures..........................................................................................................................................................................................155
QualityControl..................................................................................................................................................................................159
DataManagement...........................................................................................................................................................................159
Pipeline‐StreamCrossingMonitoring............................................................................................................................160
Purpose................................................................................................................................................................................................160
EquipmentNeeds............................................................................................................................................................................160
Procedures..........................................................................................................................................................................................160
QualityControl..................................................................................................................................................................................163
DataManagement...........................................................................................................................................................................163
SocialMonitoring...............................................................................................................................................................164
SoundMonitoring....................................................................................................................................................................165
Purpose................................................................................................................................................................................................165
EquipmentNeeds............................................................................................................................................................................165
Calibration..........................................................................................................................................................................................165
Deployment........................................................................................................................................................................................166
SetupforRecording........................................................................................................................................................................167
Retrieval..............................................................................................................................................................................................167
SoftwareCommunications..........................................................................................................................................................167
ProcessRecordedData.................................................................................................................................................................168
ClearingData.....................................................................................................................................................................................168
AdditionalDataManagement....................................................................................................................................................168
AppendixASupportingDocuments...........................................................................................................................170
ObservedPollutionorSuspectedPollutionEvents...................................................................................................171
SHALE GAS MONITORING PROCEDURE MANUAL
viii
Introduction.......................................................................................................................................................................................171
ObserverActionsandNotifications.........................................................................................................................................171
ResourceInventoryandMonitoringAssistantProgramManagerRoles...............................................................172
Follow‐upDocumentationandMonitoring.........................................................................................................................172
DisinfectionofDidymo(Didymospheniageminata)InfectedEquipment.....................................................173
Purpose................................................................................................................................................................................................173
EquipmentNeeds............................................................................................................................................................................173
Procedures..........................................................................................................................................................................................173
PreparingGrabSamplesforCourierPickup...............................................................................................................175
Purpose................................................................................................................................................................................................175
EquipmentNeeds............................................................................................................................................................................175
Procedures..........................................................................................................................................................................................175
PreparingtheCoolerforPickup...............................................................................................................................................177
HowtoCollectandPressPlants........................................................................................................................................179
Purpose................................................................................................................................................................................................179
EquipmentNeeds............................................................................................................................................................................179
CollectingEthics...............................................................................................................................................................................179
CollectionProcedure......................................................................................................................................................................179
PressingProcedure.........................................................................................................................................................................181
DataManagement...........................................................................................................................................................................185
CanopyPhotoSoftwareProcedure..................................................................................................................................186
Purpose................................................................................................................................................................................................186
EquipmentNeeds............................................................................................................................................................................186
Procedures..........................................................................................................................................................................................186
DataManagement...........................................................................................................................................................................188
CheckingIn/CheckingOutDataforArcPad................................................................................................................189
Purpose/Background....................................................................................................................................................................189
“CheckingOut”DataforArcPad................................................................................................................................................189
“CheckingIn”DataforArcPad...................................................................................................................................................192
SpeciesCodes–All...................................................................................................................................................................195
SpeciesCodes–Invasives.....................................................................................................................................................219
SpeciesCodes–WellPadSpecies.....................................................................................................................................222
SHALE GAS MONITORING PROCEDURE MANUAL
ix
DissolvedOxygen(mg/L)100%SaturationChartforFreshWater................................................................224
AppendixBDatasheets...................................................................................................................................................226
Datasheets...................................................................................................................................................................................227
DEPLabSampleSubmissionSheet.........................................................................................................................................227
MacroinvertebrateCollectionHabitatFieldForm............................................................................................................227
WidespreadSampling....................................................................................................................................................................227
PebbleCount......................................................................................................................................................................................227
PostConstructionStormwaterManagement(PCSM).....................................................................................................227
WellPadVegetationAssessment.............................................................................................................................................227
PadInvasivesWalkabout.............................................................................................................................................................227
RoadsideVegetationCommunityMonitoring....................................................................................................................227
RoadsideInvasivePlantMonitoring.......................................................................................................................................227
RoadConditionMonitoring........................................................................................................................................................227
InvasivePlantSpeciesEarlyDetectionandRapidResponse(EDRR).....................................................................227
PlantCollection.................................................................................................................................................................................227
Coverboards.......................................................................................................................................................................................227
GrasslandBirdNestSurveys......................................................................................................................................................227
PipelineROWVegetationMonitoring....................................................................................................................................227
Pipeline‐StreamCrossingMonitoring....................................................................................................................................227
Road‐StreamCrossingAssessment.........................................................................................................................................227
Definitions............................................................................................................................................................................228
Definitions...................................................................................................................................................................................229
Bibliography........................................................................................................................................................................232
Bibliography...............................................................................................................................................................................233
SHALE GAS MONITORING PROCEDURE MANUAL
Introduction
SHALE GAS MONITORING PROCEDURE MANUAL
2
Scope and Purpose Withapotential10,000naturalgaswellstobedrilledonStateForestlandinthenextdecade,Marcellusshaledevelopmenthasthepotentialtoimpactawiderangeofenvironmentalandsocialvaluesofthestateforestsystemincludingwaterqualityandquantity,plantandanimalhabitats,increasedfragmentation,invasivespecies,recreationandaesthetics,soillossandquality,andairquality.Acomprehensiveandsystematicprogramtotrack,detect,andreportontheseandotherunknownimpactsiscriticalforcontinuedsustainableandadaptivemanagementofPennsylvania’sStateForests.MonitoringandcommunicatingtheimpactsofMarcellusshaledevelopmentwillaidinthedevelopmentofadditionalbestmanagementpracticesforoilandgasdevelopment.
Monitoringenvironmentalandsocialimpactsofoilandgasdevelopmentonstateforestlandsrequiresablendofplanning,on‐the‐groundmanagement,datacollectionandanalysis,research,andreporting.Morespecifically,monitoringincludesdetectingchanges,trackingactivities,reportingonthefindings,andmodifyingpracticeswhereapplicable.
DCNRhasdevelopedathree‐tieredapproachtoimplementingacomprehensiveOilandGasMonitoringProgram,consistingof:
1. On‐the‐groundmanagementactivities;
2. Researchandexternalpartnercollaboration;and
3. Anintegratedanddedicatedmonitoringprogram.
Thissetofproceduresoutlinesthosecomponentsof#3,anintegratedanddedicatedmonitoringprogram.
SHALE GAS MONITORING PROCEDURE MANUAL
3
Process Overview ThismanualistobeusedasafieldguideencompassingallthestepsrequiredforDCNR’smonitoringfieldstafftoconductshalegasmonitoringonstateforestlands.Itwillbeprintedinthespring,whenamajorityoffieldworkbegins,updatedeverywinterwithrevisedand/ornewprocedures,andreprintedinthespringforthenewfieldseason.
Monitoringspecialistswillmakerevisionstotheirrespectiveproceduresasneededbutallofficialmanualupdateswillbemadebythemonitoringfieldstaffand/orsupervisor.Updateswillnotbeincorporatedintothemanualuntiltheyhavebeenpilotedinthefieldanddiscussedbymembersoftheintegratedanddedicatedmonitoringprogram.Themanualandallfilesassociatedwithitanditsmanagementwillbehousedonaserverlocaltothefieldstaff.Thiscanbefoundat\\nrford12ds1\RPI\RPI_RAID\MonitoringProtocolsandManuals.Adocumententitled“ManualandProtocolFileManagement”providingmoredetailonthemanagementofthismanualcanbefoundattheabovelocation.
Water Quality Monitoring
4
Water Quality Monitoring
Water Quality Monitoring‐Field Chemistry Measurements
5
Field Chemistry Measurements
Purpose Fieldchemistrymeasurementgivesadiscreterepresentationofbasicwaterqualityparameters:—liketemperature,pH,conductivity,dissolvedoxygen,alkalinity,andturbidity.Fieldchemistryprocedureswillbeusedinavarietyofapplicationswithinthewatermonitoringprogram.Itwillbeusedasastand‐alonemethodwhenmonitoringwidespreadsamplingpointsthroughoutthegasdistricts.Itwillbeusedasaqualitycontrolcheckduringthecollectionofsurfacewatergrabsamples,andthemaintenanceofdeployedwaterqualitydataloggers.Fieldchemistrymeasurementsmightalsobeusedinavarietyofdifferentapplicationsastheyariseinthewatermonitoringprogram.
Equipment Needs YSIProPlus(orsimilarinstrument)
Meter‐specificcalibrationlogsheet
pHandconductivitycalibrationsolutions(forcalibration)
squirtbottleofdistilled/deionizedwater
Muckbootsorwaders
Datasheets,fieldnotebook,ortabletcomputer
Kimwipes(forTurbidityandAlkalinity)
Hach2100QTurbiditycolorimeterkit
HannaInstrumentsHI755CheckerHCHandheldColorimeterkit(ifnotcollectinggrabsamples)
Whenconductingworkinstreamswithsuspectedorconfirmeddidymopopulations,disinfectallapplicableequipmentaccordingtoproceduresfoundinDisinfectionofDidymoInfectedEquipment
Calibrationispreferablydoneinastable,temperaturecontrolledenvironment(thecalibrationstandardsshouldnotbechangingtemperature).DissolvedOxygen(DO)shouldbedoneinthefieldnearthesamplingsite,andwillneedre‐calibratedifthebarometricpressurechangesduetoweatherortoachangeinelevation.
Calibration AtthebeginningofeachdaythataYSIProPlus(orsimilarinstrument)fieldmeteristobeused,printoutablankcopyofthecalibrationlogsheetforthemeterbeingused.Blankcopiesforeachmetercanbefoundatthefollowinglocation:\\nrford12ds1\RPI\RPI_RAID\Water\CalibrationLogs.Clickonthefirsttabofthe
Water Quality Monitoring‐Field Chemistry Measurements
6
spreadsheetfora“blank”copy.Filloutsheetaccordinglywhencalibratingperthefollowingprocedures.
Turbiditycalibrationvaluesneednotbefilledoutonthecalibrationlogsheet
Temperature Temperaturecalibrationisnotrequired,norisitavailable.Thetemperaturesensorislocatedontheconductivitysensor(Figure2.1).
Conductivity Fillthecalibrationcupwithabout1/2inchof1000μS/cmcalibrationsolution.
Tightenthecup.Shakethecupforseveralseconds,beingsurethatthetemperature‐conductivitysensorissplashedwiththesolutionrepeatedly.Openthecupanddiscardthesolution.Repeatthisprocessonce.
Fillthecupabout1/2ofthewaytothetopwithcalibrationsolutionandtighten
thecup.Shakethecupagainandbesureafterthefinalshakethatthetemperature‐conductivitysensorisimmersedinsolution(Figure2.1).Turnandgentlytapthecupseveraltimestobesurenoairbubblesaretrappedinthesensor.
PresstheCALbutton.Select‘None’ifpromptedforaUserID. Highlight‘Conductivity’andpressENTER. Highlight‘Sp.Conductance’andpressENTER. Choosetheunitsas‘SPC‐μs/cm’andpressENTER. Highlight‘Calibrationvalue’andpressENTER. Inputthevalueofthecalibrationsolution(probably1000μS/cm)andpress
ENTER. Waitforthespecificconductancevalueunder‘ActualReadings’tostabilize(stay
thesamefor5seconds) Readandrecordthetemperatureandspecificconductivityvalueinthemeter’s
calibrationlogsheetas“Temp(°C)”and“Reads”respectively Highlight‘AcceptCalibration’andpressENTERtocalibratetheunit.Ifthereisa
problemwiththecalibration,youcanpressESCatthisstagetocancelthecalibration,andthenseetheusermanualforguidanceonhowtoproceed.
Water Quality Monitoring‐Field Chemistry Measurements
7
Readandrecordthespecificconductivityvalueinthemeter’scalibrationlogsheetas“Adjusted”
Next,performacheckofthecalibrationat100μS/cm.(Note:Thischeckshould
notbedoneifusingtheYSI63Model.)Youwillnotrecalibratenordoatwo‐pointcalibration;thisisjustachecktoseetheunit’saccuracyat100μS/cm.
Fillthescrew‐onplasticcupwithabout1/2inchof100uS/cmcalibrationsolution.Tightenthecup.Shakethecupforseveralseconds,beingsurethatthetemperature‐conductivitysensorissplashedwiththesolutionrepeatedly.Openthecupanddiscardthesolution.Repeatthisprocessonce.
Fillthecupabout1/2ofthewaytothetopwithcalibrationsolutionandtighten
thecup.Shakethecupagainandbesureafterthefinalshakethatthetemperature‐conductivitysensorisimmersedinsolution.Turnandgentlytapthecupseveraltimestobesurenoairbubblesaretrappedinthesensor.
Withoutpressinganycalibrationbuttons,readandrecordthespecific
conductivityvalueinthemeter’scalibrationlogsheetas“Reads.”Alsorecordtemperatureas“Temp(°C)”.Openthecupanddiscardthesolution.
Thespecificconductancereadingshouldbewithin95to105μS/cm,orthemetershouldberecalibrated. Finally,performacheckofspecificconductivityinair.Rinsethesensorswith
distilledwater,shakingoffexcess.Blowthroughtheconductivitysensorportholes,attemptingtoclearthemofanyexcessliquid.Thespecificconductivityreadingshouldsettleatornear“zero”.Whenitdoes,readandrecordthespecificconductivityvalueinthemeter’scalibrationlogsheetas“Reads”.
Finishfillingoutthespecificconductancesectionofthecalibrationlogsheet
withthecalibrationstandardinformation,calibrationlocation,andyourinitials.
pH Fillthecalibrationcupwithabout1/2inchofpH7calibrationsolution.Tighten
thecup.Shakethecupforseveralseconds,beingsurethatthepHsensorissplashedwiththesolutionrepeatedly.Openthecupanddiscardthesolution.
Fillthecupabout1/2ofthewaytothetopwithcalibrationsolutionandtighten
thecup.ShakethecupagainandbesureafterthefinalshakethatthepHsensorisimmersedinsolution(Figure2.1).Turnandgentlytapthecupseveraltimestobesurenoairbubblesaretrappedinthesensor.
PresstheCALbutton.Select‘None’ifpromptedforaUserID.
Water Quality Monitoring‐Field Chemistry Measurements
8
Highlight‘ISE1pH’andpressENTER. TheinstrumentshouldautomaticallyrecognizethepHbuffervalueanddisplay
itatthetopofthescreen.Ifnecessary,highlight‘Calibrationvalue’andpressENTER.TheninputthevalueofthecalibrationsolutionandpressENTER.
OncethepHandtemperaturereadingsstabilize,readandrecordthe
temperature,pHvalue,andpHmillivoltsinthemeter’scalibrationlogsheetas“Temp(°C)”,“Reads”,and“Millivolts”respectively.“Adjusted”shouldnotbefilledoutforpH7buffer.
Highlight‘AcceptCalibration’andpressENTER.Themessagelinewillthen
display,‘Readyforpoint2.’ RepeattherinsingandfillingofthecalibrationcupwithpH4solution. TheinstrumentshouldautomaticallyrecognizethepHbuffervalueanddisplay
itatthetopofthescreen.Ifnecessary,highlight‘Calibrationvalue’andpressENTER.TheninputthevalueofthecalibrationsolutionandpressENTER.
OncethepHandtemperaturereadingsstabilize,readandrecordthetemperature,pHvalue,andpHmillivoltsinthemeter’scalibrationlogsheetas“Temp(°C)”,“Reads”,and“Millivolts”respectively.“Adjusted”shouldnotbefilledoutforpH4buffer.
Highlight‘AcceptCalibration’andpressENTER.Themessagelinewillthen
display,‘Readyforpoint3.’ RepeattherinsingandfillingofthecalibrationcupwithpH10solution. TheinstrumentshouldautomaticallyrecognizethepHbuffervalueanddisplay
itatthetopofthescreen.Ifnecessary,highlight‘Calibrationvalue’andpressENTER.TheninputthevalueofthecalibrationsolutionandpressENTER.
OncethepHandtemperaturereadingsstabilize,readandrecordthe
temperature,pHvalue,andpHmillivoltsinthemeter’scalibrationlogsheetas“Temp(°C)”,“Reads”,and“Millivolts”respectively.
Highlight‘AcceptCalibration’andpressENTER.Afteracceptingcalibrationon
pH10,pressCALtofinalizethecalibration.Ifthereisaproblemwiththecalibration,youcanpressESCatthisstagetocancelthecalibration,andthenseetheusermanualforguidanceonhowtoproceed.
Water Quality Monitoring‐Field Chemistry Measurements
9
Afterfinalizingcalibration,themeterwillreturntothemainscreen.WhilethesensorisstillimmersedinthepH10buffer,recordthedisplayedpHvalueonthecalibrationlogsheetas“Adjusted”inthepH10bufferrow
FinishfillingoutthepHsectionofthecalibrationlogsheetwiththebuffer
information,calibrationlocation,andyourinitials.Ignorethe“Slope”column.
Dissolved Oxygen DissolvedOxygenwillbecalibrated(ifapplicable)usingawater‐saturatedair
method.Thesuppliedscrew‐onplasticcupwillbeusedforcalibration(i.e.,thecalibrationcup).
AllDOcalibrationsshouldbecompletedonsiteorverynearthesitewherethefieldmeteristobeused!
Placeabout1/8inchofwaterinthebottomofthecalibrationcup. MakesuretherearenowaterdropletsontheDOmembraneortemperature
sensor.Theninstallthecupoverthesensors.Screwthecupallthewayontothecable,andthendisengageoneortwothreadstoensureatmosphericventing.MakesuretheDOandtemperaturesensorisnotimmersedinwater(Figure2.1).
Turntheinstrumentonandwaitapproximately5‐10minutesforthecupto
becomecompletelysaturatedandtoallowthesensorstostabilize.
Oncethereadingsstabilize,readandrecordtheDO%andDOmg/Lvaluesinthemeter’scalibrationlogsheetas“Reads”.
PresstheCALbutton.Select‘None’ifpromptedforaUserID. Highlight‘DO’andpressENTER. Highlight‘DO%’andpressENTER. WaitforthetemperatureandDO%valuesunder‘ActualReadings’tostabilize
(staythesamefor5seconds),thenhighlight‘AcceptCalibration’andpressENTERtocalibratetheunit.Ifthereisaproblemwiththecalibration,youcanpressESCatthisstagetocancelthecalibration,andthenseetheusermanualforguidanceonhowtoproceed.
Uponreturningtothemainscreen,readandrecordthetemperatureandbarometricpressureas“Temp(°C)”and“Baro.Pressure”respectively
Water Quality Monitoring‐Field Chemistry Measurements
10
TheDOmg/Lvalueafterthecalibrationshouldbecomparedtothechartof
DissolvedOxygen(mg/L)100%SaturationValuesfoundinthesupportingdocumentssectionofthismanual.BasedonthetemperatureandbarometricpressurereadfromtheProPlus,thetheoreticalvalueisobtainedfromthechart.Recordthetheoreticalvalueobtainedfromthechartinthemeter’scalibrationlogsheetas“Thero.Value”
ReadandrecordthefinalDO%andDOmg/Lvaluesinthemeter’scalibrationlogsheetas“Final”.
Thetheoreticalvalueshouldbewithin0.5mg/Lofthepost‐calibrationvalueontheProPlus.Ifnot,theProPlusshouldberecalibratedfordissolvedoxygen.
Finishfillingoutthedissolvedoxygensectionofthecalibrationlogsheetwiththecalibrationlocation(i.e.streamname),yourinitials,andanyadditionalsitesforthedaytheprecededcalibrationinformationisrelevantfor(ifapplicable).Useadditionaldissolvedoxygensectionsatthebottomofcalibrationlogsheetasneeded.
Turbidity Calibratetheturbiditymeter(canalsobedonebeforeleavingtheofficeorinthe
field).o Turnonthe2100Qwiththebluepowerbutton.
o Pressthecalibrationbutton .(Note:The2100Qneedonlybecalibratedoncedaily.)
o Removethe20NTUcalibrationcellfromthecase.Invertitseveraltimestoensuregoodmixing.Applyonedropofsiliconeoilandwipewiththeblackcloth.
o Insertthe20NTUcalibrationcellintothe2100Q,makingsurethatthearrowfacesdirectlytowardthefrontoftheunit.Closetheliduntilitclicks.PresstheReadbutton.Waitfortheunittostabilize.Theunitwillpromptyouwhenreadyforthenextcalibrationstandard.
o Repeatthesestepsforthe100NTUand800NTUcalibrationcells.o PressDonetoreviewandsavetheresults.PressStore.o Removethe10NTUverificationstandardcellfromthecase.Invertis
severaltimestoensuregoodmixing.Applyonedropofsiliconeoilandwipewiththeblackcloth.
o Insertthe10NTUverificationstandardcellintothe2100Q,makingsurethatthearrowfacesdirectlytowardthefrontoftheunit.Closetheliduntilitclicks.PresstheReadbutton.Waitfortheunittostabilize.Iftheverificationfails,tryrecalibratingtheunit.Ifitissuccessful,pressDone.
o Theturbiditymeterisnowcalibrated.
Water Quality Monitoring‐Field Chemistry Measurements
11
Figure2.1YSIProPlussensors
Taking Measurements TurntheYSIProplus(orsimilarinstrument)on.Ifyouhavemovedtoanew
samplinglocation,youshouldrecalibrateetheDOsensor,ifapplicable.Thisisbecausethebarometricpressuremayhavechangedfromyourlastsamplinglocationtothenextduetochangeinweatherorelevation.
Installthemetalsensorguard(withholesinit). Enterthestreamdownstreamfromyourmonitoringpointtoavoidintroducing
disturbedsedimenttothemonitoringpoint. Placetheprobenearthecenterofthecurrent,inanareaofuniform,well‐mixed
flow.Theprobeshouldbeawayfromthestreambankandinthecurrent(i.e.,donotsamplestagnantornon‐flowingwater).
Water Quality Monitoring‐Field Chemistry Measurements
12
Oncetheprobeisinplace,givethecordaslighttwistandshaketodislodgeanyairbubblestrappedinthesensors.IfmeasuringDO,itisbesttolaythesensorguardperpendiculartoflow,suchthatwaterwillbeflowingpastthetipoftheDOsensor.
Oncereadingsstabilize(staythesamefor5seconds),recordtheminafield
notebook,datasheet,ortabletcomputer.
Attheconclusionofeachday,ensuretheProPlusisstoredwithasmallamountofwaterinthebottomofthecalibrationcupandthecupistightenedontheQuatrocablebulkhead.
Forlongtermstorage(i.e.>1month),refertousermanual.
FillaturbiditysamplevialforlaterreadingbytheHach2100Qturbiditymeter.o Rinsethesamplevialandcapthreetimeswithstreamwaterinanareaof
goodflow.o Tofillthevial,holdthesamplevialawayfromyourbodyasfarupstreamas
possible.Holdthevialupsidedown,dipitintothewateruntilitisapproximatelyatmid‐depthofthewater,turnthevialtofaceupstream,andletitfill.Takecarenottodisturbthestreambottom,asyoumayintroducesedimentordebrisintothesample.Besuretofillthevialtothewhitelineandscrewonthecap.
ReadturbidityusingtheHACH2100Qturbiditymeter.o Drytheturbiditysamplevial(theonewiththesamplewater)withakim
wipe.o Thenapplyonedropofsiliconeoilandwipewiththeblackcloth.o Invertthesamplecellseveraltimestoensuregoodmixing,theninsertthe
samplecellintothe2100Q,makingsurethatthearrowfacesdirectlytowardthefrontoftheunit.Closetheliduntilitclicks.PresstheReadbutton.Recordtheresultintheappropriateplaceinthefieldnotebook.
o Iftheresultisgreaterthan20NTU,thenpresstheOptionsbutton.ChangetheReadModetoRapidlySettlingTurbidity.(Note:Resultsbelow20NTUshouldusetheSignalAverageReadMode.)Thenre‐readthesample.RecordthesecondresultinthefieldnotebookwithanotationthatitwasRapidlySettlingTurbiditymode.
o Oncereadingiscompleted,emptythesamplecell.Rinseitoncewithdistilledwater,fillittothelinewithdistilledwater,andscrewonthecap.Thesamplecellshouldalwaysbestoredfilledwithdistilledwater.
Alkalinity Alkalinitytestingwillonlybedoneifnograbsampleswillbetaken,suchasinWide‐SpreadMonitoring,adhocmonitoring,orincidentscreening.
Water Quality Monitoring‐Field Chemistry Measurements
13
Turnthemeteronbypressingthebutton,allsegmentswillbedisplayed.When
thedisplayshows‘’Add’’,‘’C.1’’with‘’Press’’blinking,themeterisready.
Fillthecuvettewith10mLofunreactedsampleaccordingtostandardrinsefillproceduresandreplacethecap.
Drythecuvettewithakimwipe,makingsureitisfreeoffingerprints,oiland/or
dirt
Ifbubblesarepresentinthesample,gentlyswirlortaptodislodgethebubbles.DONOTSHAKEasahigherreadingcanbegenerated.
Placethecuvetteintothemeterandclosethemeter’scap
Pressthebutton.Whenthedisplayshows“Add”,“C.2”with“Press”blinkingthemeteriszeroed
Removethecuvette,openit,andusinga1mLsyringecarefullyaddexactly1.00
mLofAlkalinityReagenttothesample
Usethecurvedplasticattachmentonlyasaprotectivecap;donotuseitwhencollectingreagent.Donotletthereactedsamplestandfortoolongafterreagentisadded,asaccuracywillbeaffected.
Replacethecapandgentlyinvert5times.Placethecuvettebackintothemeter
Pressthebutton.Theinstrumentdirectlydisplaystheconcentrationof
alkalinityinppmofCaCO3.
Afterthereadingitisimportanttodiscardthesampleimmediately,otherwisetheglassmightbecomepermanentlystained.
Water Quality Monitoring‐Field Chemistry Measurements
14
Figure2.2AlkalinityHandheldColorimeterKit
Data Management Thiswillvarydependingontheapplication. IfusingatabletcomputercoincidentwithanArcPadapplication,asinthe
widespreadsampling,refertothesupportingdocumentssectionofthismanualforinstructionsonCheckingIn/CheckingOutDataforArcPad.
Otherapplicationsmayalsorequirefieldchemistrydatabekeptinadesignated
fieldnotebook,aswiththesurfacewatergrabsamplingandHOBOmaintenanceapplications.
Enterallcalibrationdatafromthecalibrationlogsheetintotheappropriateexcelspreadsheetforthefieldmeterusedatthefollowinglocation:\\nrford12ds1\RPI\RPI_RAID\Water\CalibrationLogs.Simplymakeacopyofthe“PlaceDateHere‐BLANK”logsheet,placeitattheendofthetabs,renamethetabwiththedateofcalibrationusingtheformatday‐month‐year(e.g.18July2014),fillintheinformation,andsavethespreadsheet.
Cuvettes
AlkalinityReagent
ProtectiveCap
Syringe
Water Quality Monitoring‐Surface Water Grab Sampling and Flow Measurements
15
Surface Water Grab Sampling and Flow Measurement
Purpose Surfacewatergrabsamplingandflowmeasurementisemployedtoobtainadiscreteanalysisofchemicalconstituentsandflowatagivenpointinastream.Thisinformationcanbeusedtoidentifypollutantsand/ortocharacterizethebackgroundchemicalandhydrologicalcharacteristicsofthestream.Althoughonlyrepresentativeofapointintimeatasinglelocation,thesetechniquesprovidetheopportunitytoaccuratelymeasuretheconcentrationsofvariousparametersinastream.Surfacewatergrabsamplingandflowmeasurementwillbeemployedalongsidecontinuousmonitoringdevices(e.g.,sondes,Hobos)tocomplimentandverifythedatafromthecontinuousmonitoringdevices.
Equipment Needs YSIProPlus(orsimilarinstrument) ConductivityandpHcalibrationsolutions(forcalibrationofProPlusunit) squirtbottleofdistilled/deionizedwater Ultrapurewater(ifcollectinganequipmentblank) Lint‐freewipes(e.g.,Kimwipes) Papertowels 500mLplasticsamplebottles(#neededdependsonnumberandtypeof
samples) 125mlplasticsamplebottles(#neededdependsonnumberandtypeof
samples) 1Lglasssamplebottles(ifdoingorganics) 40mlVOAvials(ifdoingorganics) Flowmeter Wadingrodforflowmeter 50‐foot+measuringtape,with1/10footincrements HACH2100Qturbiditymeter Permanentmarker(Sharpie–finepoint) Clearpackagingtape Bottlelabels(ifdoingorganics) DEPLabsamplesubmissionsheet 1gal.clearZiplocbag Ice Cooler Preservatives(alwaysnitricacidformetals,sulfuricacidifdoingnutrients,and
hydrochloricacidifdoingorganics) Disposablelatexgloves(i.e.surgicalgloves) Muckbootsorwaders Fieldnotebook
Water Quality Monitoring‐Surface Water Grab Sampling and Flow Measurements
16
Nylonmeshbag(forkeepingsamplescoolinstream) Waterproofpenorpencil
Whenconductingworkinstreamswithsuspectedorconfirmeddidymopopulations,disinfectallapplicableequipmentaccordingtoproceduresfoundinDisinfectionofDidymoInfectedEquipment
Procedures
Preparation and Staging CalibratetheYSIProPlusaccordingtotheCalibrationprocedureoutlinedinthe
FieldChemistryMeasurementssectionofthismanual..REMEMBER:AcalibrationlogsheetwillneedtobefilledouteachdayaYSIProPlus(orsimilarinstrument)isused
ItisrecommendedtocalibratetheYSIProPlusforconductivityandpHbeforeleavingtheoffice,butthiscouldalsobedoneinthefieldifenoughcalibrationsolutionistaken.ALWAYSCALIBRATEDISSOLVEDONSITEORATVEHICLENEARSITE.
IFSHIPPINGGRABSAMPLESVIACOMMERCIALCOURIER,besuretocallcourierservicebeforeleavingtheofficetosetupdeliveryaccordingtothePreparingGrabSamplesviaCommercialCarrierprocedurefoundintheappendixofthismanual.
Calibratetheturbiditymeter(canalsobedonebeforeleavingtheofficeorinthefield).o Turnonthe2100Qwiththebluepowerbutton.
o Pressthecalibrationbutton .(Note:The2100Qneedonlybecalibratedoncedaily.)
o Removethe20NTUcalibrationcellfromthecase.Invertitseveraltimestoensuregoodmixing.Applyonedropofsiliconeoilandwipewiththeblackcloth.
o Insertthe20NTUcalibrationcellintothe2100Q,makingsurethatthearrowfacesdirectlytowardthefrontoftheunit.Closetheliduntilitclicks.PresstheReadbutton.Waitfortheunittostabilize.Theunitwillpromptyouwhenreadyforthenextcalibrationstandard.
o Repeatthesestepsforthe100NTUand800NTUcalibrationcells.o Press“Done”toreviewandsavetheresults.Press“Store”.o Removethe10NTUverificationstandardcellfromthecase.Invertis
severaltimestoensuregoodmixing.Applyonedropofsiliconeoilandwipewiththeblackcloth.
Water Quality Monitoring‐Surface Water Grab Sampling and Flow Measurements
17
o Insertthe10NTUverificationstandardcellintothe2100Q,makingsurethatthearrowfacesdirectlytowardthefrontoftheunit.Closetheliduntilitclicks.PresstheReadbutton.Waitfortheunittostabilize.Iftheverificationfails,tryrecalibratingtheunit.Ifitissuccessful,pressDone.
o Theturbiditymeterisnowcalibrated.
Uponarrivaltositeofinterest,gatherandlabelnecessarysamplebottlesatvehicle.o IfdoingSAC972:one500mLplasticbottle,andone125mLplasticbottleo IfdoingSAC046:three500mLplasticbottles,andtwo125mLplasticbottleo Ifdoingorganics:six40mLglassambervials,andtwo1Lglassamberbottleo IfONLYdoingmethane:two40mlglassambervials
Labelsamplebottlesasfollows:
o Forplasticbottles,useapermanentmarker.o Forglassbottles,useaninkpenandbottlelabels.o Forallsamplebottles,include: Onthefirstline:yourpersonalCollectorID,adash,andthesequence
number(thenextsequentialnumberofsamplesforthecollector,obtainedfromfieldnotebook)
Onthesecondline:thetypeofanalysis(e.g.,“GenChem”forGeneralChemistry)andnumberofbottlesifmorethantwo(e.g.,1/2or2/2)
Onthethirdline:thepreservative,ifapplicableo IfdoingSAC972: Labela500mLbottleasGenChemwithnopreservative Labela125mLbottleasMetalswithHNO3preservative
o IfdoingSAC046: Labelthree500mLbottlesasGenChemwithnopreservative Labela125mLbottleasMetalswithHNO3preservative Labela125mLbottleasNutrientswithH2SO4preservative
o Ifdoingorganics: Labeltwo40mLvialsasVOASWwithHCLpreservative Labeltwo40mLvialsasWSOLwithnopreservative Labeltwo40mLvialsasMETHwithnopreservative Labeltwo1LglassbottlesasSV‐SWwithnopreservative
o Covereachlabelwithclearpackagingtape.
Gatherthefollowingequipment,andhiketothewatersamplingsiteofinterest:o YSIProPlus(orsimilarinstrument),besuretohavemetalsensorguardo Labeledsamplebottleso Samplevial(s)fromturbiditymetero Flowmetero Wadingrodforflowmeter
Water Quality Monitoring‐Surface Water Grab Sampling and Flow Measurements
18
o 50‐foot+measuringtape,with1/10footincrementso Fieldnotebookandpen/pencilo Nylonmeshbag
Onceonsitewherethegrabsampleswillbetaken,writethedate,stream
name/location,timeonsite(militaryformat),andthelastnamesofthesamplingcrewinthefieldnotebook.
NotethecollectorID,sequencenumber,andwhatSACororganicssamplingarebeingperformed[e.g.Sample9931‐114SAC972(GenChem,Metals)]
Recordtheequipment’sserialnumberfortheYSIProPlus(orotherfieldmeter)
beingusedinthefieldnotebook
Forthisinformationandsubsequentinformationtobenotedinthefieldnotebookfollowformattingpreviouslyestablishedinthefieldnotebook.(Figure2.4)
Field Chemistry Measurement MeasurementswiththeYSIProPlusshouldbetakeninthemid‐channelof
wherethegrabsampleswillbetaken.Thisshouldbedoneslightlydownstreamofthecross‐sectionwherethegrabsampleswillbetakensoasnottodisturbthesamplingarea.
IfcoincidentwithaHobodeploymentsite,takemeasurementsasclosetoHoboaspossible
FromtheProPlus,takeareadingoftemperature,dissolvedoxygen(%),dissolvedoxygen(mg/L),specificconductance,conductivity,andpHaccordingtotheTakingMeasurementssectionoftheFieldChemistryMeasurementsprocedure.THETIME(MILITARYFORMAT)OFTHISMEASUREMENTSHOULDBERECORDEDASWELL.Recordthisinformationintheappropriatelocationinthefieldnotebook.
AlkalinityneednotbemeasuredsincethisinformationwillbeanalyzedattheDEPlab.
RemovetheProPlussensorfromthestream. FillturbiditysamplevialforlaterreadingbytheHach2100Qturbiditymeter.
o Rinsethesamplevialandcapthreetimeswithstreamwaterinanareaofgoodflow.
o Tofillthevial,holdthesamplevialawayfromyourbodyasfarupstreamaspossible.Holdthevialupsidedown,dipitintothewateruntilitis
Water Quality Monitoring‐Surface Water Grab Sampling and Flow Measurements
19
approximatelyatmid‐depthofthewater,turnthevialtofaceupstream,andletitfill.Takecarenottodisturbthestreambottom,asyoumayintroducesedimentordebrisintothesample.Besuretofillthevialtothewhitelineandscrewonthecap.
o IfHachmetermalfunctionsorwasforgotten,youcanhavethelabperformthistestbywriting“ADDTURBIDITY”inthe“AdditionalComments”sectionofthesamplesubmissionform.
Bottle Sampling
Typical Sampling (for Gen Chem, Metals, and Nutrients)
NeitherSAC046norSAC972normallytestforMETH,whichwillneedcollectedwheneveragrabsampleistaken.Referto“METHandWSOLSampling”belowforinstructionsonfillingMETHbottles.Besuretowrite“ADDMETH”inthe“AdditionalComments”sectionofthesamplesubmissionform
Recordthetime(militaryformat)thegrabsamplesaretakenintheappropriate
placeinthefieldnotebook
Rinseasamplebottleandcapthreetimeswithstreamwaterinanareaofgoodflow.
Tosample,holdthesamplingbottleawayfromyourbodyasfarupstreamaspossible.Holdthebottleupsidedown,dipitintothewateruntilitisapproximatelyatmid‐depthofthewater,turnthebottletofaceupstream,andletitfill.Takecarenottodisturbthestreambottom,asyoumayintroducesedimentordebrisintothesample.Eachbottleshouldbefilledtothebottomoftheneckofthebottle,leavingsomespaceatthetop.
Repeatthisfillingprocedureforadditionalbottles
Putonlatexgloves.Addpreservatives(ifapplicable)asindicatedonthelabel
bypouringoneampule(2ml)ofpreservativeintothebottle. Preservativecanalsobeaddedfrombulkacidsupplyusingapipette.Firstuse
thepipettetoacquire2mLofbulkacidfromtheappropriatesupply,thenaddtotheappropriatesample.
Eachpipetteisstoreditsown500mlbottlelabelledHNO3orH2SO4,respectively.TheHNO3andH2SO4arestoredin500mlbottlessuppliedbytheDEPlab(askEcologicalProgramSpecialistforwatermonitoringtoacquirethesepreservatives
Water Quality Monitoring‐Surface Water Grab Sampling and Flow Measurements
20
fromthelab).Periodicallycleancarrierandreplacepipettesfrequentlytohelpavoidcontamination.
Capthebottletightlyandinvertseveraltimestomixthepreservativeintothe
samplewater.
Forsamplebottlesthatrequirepreservative,thiscanbedoneonsiteorbackatthevehicle.Backatthevehicleisrecommendedasitminimizeswhatyouneedtocarryintothesamplesite.Whicheveroptionisdecided,itisimportanttorememberthatsamplesshouldbepreservedandchilledassoonaspossible.Theintegrityofthesampledeterioratesthemoretimethatelapsesbetweensamplingandpreservation/chilling.Thisbecomesincreasinglyimportantinwarmertemperatures.Becauseyou’lltakegrabsamplesbeforeconductingothertaskslikeflowmeasurementormacroinvertebratecollection,placebottlesinnylonmeshbagtokeepin‐streamuntilyouarereadytoleave.
VOASW Sampling Rinsea1Lglassbottleandcapthreetimeswithstreamwaterinanareaofgood
flow. Fillthe1Lglassbottleasindicatedaboveandreplacecap. Rinseeach40mLglassvialandcapthreetimeswithstreamwater.
Putonlatexgloves.
AddoneHCLampuletoeachofthe40mLvials. Foreach40mLvial,carefullypourwaterfromthe1Lglassbottleintothevial,
beingcarefulnottooverfill.Ifnecessary,fillthecapofthe1Lglassbottlewithsamplewatertogentlyfinishthefilling.Fillthevialuntilaslightmeniscusoccursabovethetopofthevial,thentightlyscrewonthecap.Invertthevialandtapitgentlyonyourwrist,makingcertainthatnoairbubblesappear.Ifairbubblesappear,unscrewthecapandgentlypouradditionalwatertocreatethemeniscusagain,thenscrewoncapandretestforairbubbles.
Againthisprocedurecanbedoneonsiteoratthevehicle.Iffilling40mLvialsatthevehicle,streamwaterfromthe1Lbottlewillneedtobeusedforrinsing.Takeandfillanadditionalbottlewithstreamwateronsiteifneeded.
SV-SW Sampling Rinsea1Lbottleandcapthreetimeswithstreamwaterinanareaofgoodflow.
Water Quality Monitoring‐Surface Water Grab Sampling and Flow Measurements
21
Fillthe1LglassbottleasindicatedaboveintheTypicalSamplingsection,uptotheneckofthebottle.
Repeatrinsingandfillingprocedureforsecondbottle.
METH and WSOL Sampling Rinsea40mLvialandcapthreetimeswithstreamwaterinanareaofgood
flow. FillthevialasindicatedaboveintheTypicalSamplingsection. Ifnecessary,fillthecapofthevialwithstreamwatertogentlyfinishthefilling.
Fillthevialuntilaslightmeniscusoccursabovethetopofthevial,thentightlyscrewonthecap.Invertthevialandtapitgentlyonyourwrist,makingcertainthatnoairbubblesappear.Ifairbubblesappear,unscrewthecapandgentlypouradditionalwatertocreatethemeniscusagain,thenscrewoncapandretestforairbubbles.
Repeatrinsingandfillingforadditionalbottles.
Youneedtwoofthese40mlvialsforoneMETHsample.
Flow Measurement Selectacross‐sectionofthestreamthathasrelativelyuniform,evenflow.This
willtypicallybeinastraightsectionofthestream(usuallyarun).Removeanycobbles,twigs,orotherobstructionsthatwillinterferewiththeflowmeasurement.Youshouldaimtohaveasuniformastream‐bottomaspossible,withoutrocksobstructingflowimmediatelyunder,upstream,ordownstreamofthetagline(seenextbullet).Anidealcross‐sectionforflowwouldbearectangle.
Anchorameasuringtape(with1/10footincrements)acrossthestream.This
willserveasthe“tagline”fortheflowmeasurement.Thetapeshouldbesecuredonefootorsoabovethewaterlevelandastightlyaspossible.Wrappingthetapearoundacobbleandlayingthecobbleonthebankisoftenagoodapproachforsecuringthetape.
Begintopreparetheflowmeterbyattachingthesensortothebaseofthe
wadingrod.Besurethatthemetalbackofthesensorisflushwiththemountonthewadingrodbeforetighteningthescrewonthesensortosecureit.
Water Quality Monitoring‐Surface Water Grab Sampling and Flow Measurements
22
Connectthesensorcabletothetopofthehandhelddevicemakingsurethenotchinsidethesensorcableendlinesupwiththeslotonthehandhelddevice.Hand‐tightenuntilsnug(donotuseawrench,donotovertighten).
Attachtheplasticclamptothehandhelddevice. Attachtheclamptothewadingrodnearthebaseoftheyellowhandle(just
belowthe“0”mark).Besurenottotightenclampagainstthedepthrod,astherodwillbenotbeabletoslidetoadjustfordepth.
Turnonthehandheld,allowittoselftest(withtheunitoutofthewater),and
pressOK.Ifselftestfails,callthemanufacturer. SelectPROFILER.Enteryourintitialsoremployeenumber.PressOK. SelectSTREAM.Enternameofstream.PressOK. STAGEREFERENCEreferstoanestablishedgaugingstationthepointwhere
flowistaken,ifonewasestablished.WhereeveraHoboordataloggerisemplaced,theSTAGEREFERENCEwillbethedepthattheHobo,whichisfoundbyplacingtheflowdepthtransducerontoptheHoboshroud.WhenpromptedtoenterSTAGEREFERENCE,enterthisvalue,or“0”ifthereisnoHoboemplacedatthesite.
Enterstreamwidthattaglinebyreadingthetapewhereitoverlapsthewater’s
edge(thehigherofthetwotapevalues).PressOK. Entertaglineoffsetbyreadingthetapewhereitoverlapsthewater’sedgeon
theothersideofthestream(thelowerofthetwotapevalues).PressOK. Enterthenumberofstations.Ideally,22stationsshouldbeperformed.Ifthisis
notreasonable,duetohownarrowthestreamis,thenfewerstationscanbeperformed.Forstreamslessthan6feetwide,usethefollowingequationtodeterminethenumberofstations:(approximatestreamwidthinfeet*2)+2.PressOK.
Beginatstationone.Stationonewillbeonthelowerendofthetagline.Select
EDGE/OBSTRUCTIONandpressOK,identifythisstationasLeftorRightBank(asyoufacedownstream).PressOK.
Water Quality Monitoring‐Surface Water Grab Sampling and Flow Measurements
23
Flowwilltypicallybe“0”forthefirstandlaststationsonmostcross‐sections.Noflowmeasurementistakenhere.
SelectNEXTtomovetoStation2.o SelectDISTANCETOVERTICAL.Thiswilltellyouwerealongthetaglineto
positionthewadingrodforStation2.Onceproperlypositioned,selectOKtoreturntothepreviousmenu.
o SelectSETDEPTHanddropthesensortothebottomofthestreambyslidingthedepthroddownasfarasitwillgo.Thedepthofthestreamatthispointwillbedisplayed.PressOKtoreturntomainscreen.
o SelectMEASUREVELOCITY,thenONEPOINT,then“0.6,”pressOK.
Thenextscreenreferstowherethesensorisinthestreamchannel—60%offofthebottom.Ifstreamportionisdeeperthantwofeet,itisrecommendedtodoaTWOPOINTat0.2and0.8(20%and80%,respectively).
o Adjustdepthrodupuntilthesensorispositionedinthe“capturezone”.
Whenitis,theindicatorwillturngreen,andthesensordepthshouldreadveryclosetotargetdepthindicatedonthescreen.
o Atthispoint,themeterisabouttocapturevelocitydata,sobecertainthesensorispointeddirectlyintothedirectionofflow.
o SelectCAPTURE.Themeterwillmeasureanaverageflowover10seconds.Whenthestatuslinenearthebottomofthescreenreachestherightedgeofthescreen,thesensorhasmeasuredflowfor10seconds.(Ifthewadingrodmovesorthemeasurementisotherwisedisrupted,selectREPEATtoredothemeasurement.)
o SelectOK,thenMAIN,thenNEXTtoproceedtoStation3. Repeatthestepsinthesub‐bulletsabovefortheremainingstations. Atthelaststation,undertheEDGE/OBSTRUCTIONmenu,identifythestationas
LeftorRightBank(asyoufacedownstream).PressOK Whendonewiththelaststation,selectCHANNELSUMMARY.Recordthe
displayedflow(cfs)intheappropriateplaceinthefieldnotebook.Alsorecordthenumberofstationsperformedandstreamwidth(tothenearesttenthfoot).
Electronicallysavetheflowdataforuploadlaterintothestream’s“target
folder”.Select“SaveDataandExit”,enterthestreamname,pressOK. SelectDONE,thenpowerdowntheunit.
Water Quality Monitoring‐Surface Water Grab Sampling and Flow Measurements
24
Ifthetopofthesensorisexposedabovethewatersurface,thenthedepthforthatstationshouldbesetto“0”andnoflowshouldbecapturedatthatstation.
Whendisassemblingtheflowmeter,becertainthatthelockscrewonthesensoristightenedbackinseveralturnsafterremovingitfromthewadingrod,sothatthescrewdoesnotfallout.
Processing and Packaging Whenleavingthesite,recordoffsitetime(militaryformat)intheappropriate
placeinthefieldnotebook. Uponreturningtothevehicle,readturbidityusingtheHACH2100Qturbidity
meter.o Drytheturbiditysamplevial(theonewiththesamplewater)withakim
wipe.o Thenapplyonedropofsiliconeoilandwipewiththeblackcloth.o Invertthesamplecellseveraltimestoensuregoodmixing,theninsertthe
samplecellintothe2100Q,makingsurethatthearrowfacesdirectlytowardthefrontoftheunit.Closetheliduntilitclicks.PresstheReadbutton.Recordtheresultintheappropriateplaceinthefieldnotebook.
o Iftheresultisgreaterthan20NTU,thenpresstheOptionsbutton.ChangetheReadModetoRapidlySettlingTurbidity.(Note:Resultsbelow20NTUshouldusetheSignalAverageReadMode.)Thenre‐readthesample.RecordthesecondresultinthefieldnotebookwithanotationthatitwasRapidlySettlingTurbiditymode.
o Oncereadingiscompleted,emptythesamplecell.Rinseitoncewithdistilledwater,fillittothelinewithdistilledwater,andscrewonthecap.Thesamplecellshouldalwaysbestoredfilledwithdistilledwater.
PrepareallsamplebottlesfortransportaccordingtothePreparingGrab
SamplesforCourierPickupprocedurefoundintheappendixofthismanual.
Attheconclusionofeachday,ensuretheProPlusisstoredwithasmallamountofwaterinthebottomofthecalibrationcupandthecupistightenedontheQuatrocablebulkhead.
Forlongtermstorage(i.e.>1month),refertousermanual.
Quality Control ForqualitycontrolrelatedtoFieldChemistryMeasurement,seetheField
ChemistryMeasurementsprocedurefoundinthismanual.
Water Quality Monitoring‐Surface Water Grab Sampling and Flow Measurements
25
Forqualitycontrolrelatedtothegrabsamples,anequipmentblankanda
duplicatesamplewillbecollected.Theequipmentblankwillcheckforsamplererrorwhiletheduplicatesamplewillensurethelab’saccuracy.BOTHwillbecollectedevery10samples.Thismeanssequencenumbers001‐010wouldbeactualsamplesandthensequencenumber011wouldbeaduplicatesampleofsequencenumber010.Sequencenumber012wouldbeablank.Continuing,sequencenumbers013‐022wouldbeactualsamplesandthensequencenumber023wouldbeaduplicatesampleofsequencenumber022.Sequencenumber024wouldbeablank.Thispatternshouldcontinuetoensurequalitycontrol.
Duplicate Tocollectaduplicate,followthefollowingprocedures:
Thismustbedoneinthefieldatthegrabsamplingsiteasyouwillbeusingthesamestreamwaterusedforthe“real”samples.Prepareyourbottleswithyourothersamplingbottlesatvehiclebeforehikingintothesamplingsite.
Labelthesamplebottlesasiftheywereanotherregularsampleinthesequenceatthesite.Usethesequencenumberimmediatelyfollowingthenumberforthe“real”sample.
Whenrecordinginformationforthe“real”sample,alsorecordthetime(militaryformat),collectorID,andsequencenumberfortheduplicateintheappropriateplaceinthefieldnotebook(Figure2.3)
Indicatethissampleasaduplicateofthe“real”sample(Figure2.3)
Whenobtainingsamplewaterforthe“real”sampleviaoneofthemethodsinthe
BottleSamplingsectionabove,fillthesecondsetofsamplebottlesfortheduplicateaswell.
Addpreservativeasappropriate.ForVOASWsamples,addthepreservative
beforefillingthevial(aswouldbedonefornormalsampling).
Whendonefillingsamplebottlesandaddingappropriatepreservative(s),prepareallsamplebottlesfortransportaccordingtothePreparingGrabSamplesforCourierPickupprocedurefoundinAppendixBofthismanual(justasyouwoulddoforanormalsample).
Equipment Blank (i.e., Rinsate Blank) Tocollectanequipmentblank,followthefollowingprocedures:
Water Quality Monitoring‐Surface Water Grab Sampling and Flow Measurements
26
Thiscanbedoneinthefield(recommended)orbackattheoffice.
Labelthesamplebottlesasiftheywereanotherregularsampleinthesequenceatthesite(i.e.theequipmentblankshouldreplicatetheSACcode/analysiscompletedthatday)
Recordthedate,time(militaryformat),collectorID,sequencenumber,SACcodetheblankisreplicating,andthelastnamesofthesamplingcrewintheappropriateplaceinthefieldnotebook.
Indicatethissampleas“BlankUltrapure”intheappropriateplaceinthefield
notebook.
Gatherasupplyofseverallitersofultra‐purewater.
BlanksshouldONLYbefilledwithultrapurecontainersspecificallydesignatedforequipmentblanksONLY!
Rinseeachsamplebottleandcapwithultra‐purewaterthreetimes.Fillthe
samplebottleswithultra‐purewater.
Addpreservativeasappropriate.ForVOASWsamples,addthepreservativebeforefillingthevial(aswouldbedonefornormalsampling).
Whendonefillingsamplebottlesandaddingappropriatepreservative(s),record
theoffsitetimeintheappropriateplaceinthefieldnotebook. PrepareallsamplebottlesfortransportaccordingtothePreparingGrab
SamplesforCourierPickupprocedurefoundintheAppendixBofthismanual(justasyouwoulddoforanormalsample).
Water Quality Monitoring‐Surface Water Grab Sampling and Flow Measurements
27
Figure2.3
*Ascannedimageofthefieldnotebookwhencompletingaduplicate(HOBOmaintenancemay/maynotapply).
Water Quality Monitoring‐Surface Water Grab Sampling and Flow Measurements
28
Figure2.4
*Anotherexampleofthefieldnotebookwith2014“updates”(HOBOmaintenancemay/maynotapply).
Water Quality Monitoring‐Surface Water Grab Sampling and Flow Measurements
29
Data Management Resultsfromthelabanalysesofthegrabsampleswillbeloggedinanonline
databasetobeaccessedbytheBureau’sEcologicalProgramSpecialistforwaterqualitymonitoring.
AllnotesfromthefieldnotebookshouldbescannedandsavedasaPDFtothefollowinglocations:\\nrford12ds1\RPI\RPI_RAID\Water\WaterSampleFieldNotebookandthestream’s“targetfolder”atthefollowinglocation:\\nrforbofs06\RPI\Monitoring\MonitoringProtocols\Water\StreamTargetFolders.NamethePDF’sfollowingtheformatpresentlyestablishedinthefolders.
Thisneednotbemultipletimesfordifferentwaterproceduresinaday.
Offloadtherelevantflowfiles(.tsv)fromtheHachflowmeterintotheflowdatafolderwithinthestream’s“targetfolder”atthefollowinglocation:\\nrforbofs06\RPI\Monitoring\MonitoringProtocols\Water\StreamTargetFolders.Nameaccordingtoformatpreviouslyestablishedinthefolder.
Enterallrelevantcollector,stream,andgrabsampleinformationintothe“CollectorIDLogbook”locatedatthefollowinglocation:\\nrford12ds1\RPI\RPI_RAID\Water.FillintheinformationforyourcollectorI.D.andsavethespreadsheet.
Water Quality Monitoring‐Temperature‐Conductivity Probe (Hobo) Maintenance
30
Temperature-Conductivity Probe (Hobo) Maintenance
Purpose Temperature‐Conductivityprobes(Hobos)aredeployedtomeasureandrecordstreamtemperatureandconductivityovertime.Hobosarestakedintothestreambedandleftforaperiodoftimetorecorddata,thenperiodicallyvisitedformaintenanceanddownloadingofdata.DatacollectedbyHoboscanbeusedtocharacterizestreamconditions,monitorforinfluxofhigh‐conductivitywater(suchasflowbackwater),ormonitorforinfluencesonstreamtemperature(resultingfromthingssuchasclearedriparianforest).PeriodicmaintenanceofHobosisnecessaryforseveralreasons.Hoboscanexperienceburialordisturbanceoftheirstakedpositions.Theycanexperience“fouling”oftheirsensor,whichisgrowthofalgae/bacteriaonthesensor,orpluggingofthesensorareawithsediment.
Hobosalsomayexperiencecalibrationdrift,wherebythecalibratedvalueforconductivitychangesovertime.AlthoughtheconductivitycalibrationcannotbecorrectedorchangedonHobos,acheckoftheirreadingsrelativetocalibrationstandardscanbevaluableinpost‐processingofdata.Eachofthesepotentialnegativeeffectsshouldbechecked,documented,andaddressedduringmaintenancevisits.
Equipment Needs YSIProPlus(orsimilarinstrument) conductivitycalibrationsolutions(forcalibrationofYSIProPlusandcalibration
checks) lint‐freewipes(e.g.,Kimwipes) cottonswabs(e.g.,Q‐tips) toothbrushes bottlebrushes spraybottleofmildsoapywater (2)dedicatedcalibrationcheckbottles[(1)for100μS/cm&(1)for1,000μS/cm] squirtbottleofdistilled/deionizedwater carabiners(several) Muckbootsorwaders fieldnotebook penorpencil HoboDataShuttleandUSBcable TabletcomputerwithHobowaresoftwareloaded GPSunit(ifneeded) WaterproofCamera
Water Quality Monitoring‐Temperature‐Conductivity Probe (Hobo) Maintenance
31
Whenconductingworkinstreamswithsuspectedorconfirmeddidymopopulations,disinfectallapplicableequipmentaccordingtoproceduresfoundinDisinfectionofDidymoInfectedEquipment
Procedure ItisrecommendedtocalibratetheYSIProPlusforconductivitybeforeleaving
theoffice,butthiscouldalsobedoneinthefieldifenoughcalibrationsolutionistaken.Thesolutionshouldbeatastabletemperature.CalibrationshouldbedoneaccordingtotheCalibrationprocedureoutlinedintheFieldChemistryMeasurementssectionofthismanual..REMEMBER:AcalibrationlogsheetwillneedtobefilledouteachdayaYSIProPlus(orsimilarinstrument)isused
NavigatetothesiteofinterestwheretheHoboisdeployed.HobodeploymentlocationscanbefoundonFIMSintheOGITgeodatabaseusingthefollowingpath:P:\Layers‐GasProgram\Monitoring\HoboSondesLocations.
Filloutthefieldnotebookaccordingtotheformatpreviouslyestablishedfor
Hobomaintenancevisits(refertoexamplesintheSurfaceWaterGrabSamplingandFlowMeasurementprocedurefoundinthismanual).BESURETOINCLUDETHE5‐DIGITWRDSSTREAMCODEWITHTHESTREAMNAME.
Side by Side Measurement Onceonsite,measurementofconductivityandtemperatureshouldbetaken
immediatelyside‐by‐sidewiththeProPlusandHobo.Toaccomplishthis,theHobodeploymentlocationshouldbeidentified,withoutdisturbingtheareaupstreamoraroundtheHobo.(IfseveralHobosaredeployedinseriesalongastream,thenthisprocessshouldbeginwiththefurthestdownstreamHobo.)
SettheProPlussensorinthestreamascloseaspossibletotheHobowithout
disturbingtheHobo. FromtheProPlus,takeareadingofconductivity,specificconductance,and
temperatureaccordingtotheTakingMeasurementsprocedureoutlinedintheFieldChemistryMeasurementssectionofthismanual.
Thetimeofthismeasurementshouldberecordedaswell.Recordthisinformationintheappropriatelocationinthefieldnotebook.AlltimerecordsshouldberecordedinmilitaryformatinEDT/DST(Local)time.THEHOBOSHOULDBESETTOLOGINUTC‐5TIME!
RemovetheProPlussensorfromthestream.
Water Quality Monitoring‐Temperature‐Conductivity Probe (Hobo) Maintenance
32
Retrieving Hobo CarefullyremoveanyrockscoveringtheHoboshroudandsetthemaside.Set
therocksinaplacewhereyouwillrememberthem,sothesamerockscanbeusedtocovertheHoboshroudoncemaintenanceiscompleted.MinimizedisturbanceofsedimentandtheHoboshroudwhileremovingtherocks.
RemovetheHobofromthestakebydisconnectingthecarabinerthatholdsthe
Hoboshroudtothestake.Attachapieceofchaintothecarabineronthestaketoaidinlocatingthestakeuponreturningifdesired
CarefullyopentheHoboshroudandremovetheHoboandfoaminsert.Use
cautionnottomisplacethefoaminsert.
TaketheHoboandshroudtoaworkareaforcleaningandotherprocedures.
Hobo Cleaning CleantheHoboshroud,insideandoutside,withabottlebrushandstream
water. CleantheHobo,exceptforthesensorareaandcommunicationport(i.e.,the
clearplasticbottom),withatoothbrushandstreamwater(Figure2.5) Ifneeded,spraytheentireHobowithsoapywaterand,exceptforthesensor
areaandcommunicationport,cleanagainwithatoothbrush,thenrinseinstreamwater.
Rinsethesensorareaandcommunicationportwithstreamwater(usesoapy
waterifneeded)andrubgentlywithacottonswab,thenrinsewithstreamwaterordistilledwater.
WipetheHobowithalint‐freewipe(itisOKtowipethesensorareaand
communicationport)andsetasideforthenextprocedure.
Figure2.5HOBOsensor
Water Quality Monitoring‐Temperature‐Conductivity Probe (Hobo) Maintenance
33
Hobo Data Download TurnonthepadandopenHoboware.PlugtheUSBcordintothepadandthen
intotheHobodatashuttle.Hobowareshouldrecognizethattheshuttleisattached.
AttachthedatashuttletotheHobo,aligningtheHoboproperlywithintheshuttle.Thendepressthebaronthesideoftheshuttle.ThisshouldcauseHobowaretorecognizethattheHoboisattached.TheHobo’sserialnumbershoulddisplayatthebottomoftheHobowarescreen.
Click‘Device’fromthetopofthescreen,then‘Readout’.PresstheEnterkeyto
selecttheHobo. Amessageshouldappearaskingifyouwishto“stoptheloggerbeforereading
outthelogger”?Select‘Don’tStop’ Readoutstatusbarappears.Makesureitfinisheswithreadoutofloggerto
100%complete. A‘Save’windowwillautomaticallypopupwhenreadoutisfinished.Savefilein
appropriateplaceonyourtabletcomputer.Hitenterorselect‘Save’ Hobowarethendisplaysasetupwindowforopeningthedatafile.Pressthe
Enterkey Makesurealldatafromthepreviousvisittocurrenttimehasbeentransferred.
Closethegraph.
Hobo Calibration Checks Preparetwocalibrationcheckbottlesinthededicated500mLcalibrationcheck
bottles(whicharelabeledassuch):100μS/cmstandard,and1000μS/cmstandard.Rinseeachcheckbottlewithasmallamountofitsrespectivecalibrationsolutionthreetimes.Then,pourapproximately2inchesofeachofthesolutionsintotheirrespectivecalibrationcheckbottles.
Atsomesites,itmaybeadvantageoustopreparethecheckbottlesatthevehicle,toreducetheamountofequipmentneededtocarryintoasite. Click‘Device’fromthetopofthescreen,then‘Status’.PresstheEnterkeyto
selecttheHobo.ThecurrentstatusoftheHoboshoulddisplay.
Water Quality Monitoring‐Temperature‐Conductivity Probe (Hobo) Maintenance
34
Readthe‘LowRangeConductivity’valuewiththeHobodriedandsittinginair.Itshouldbeclosetozero.Ifitisnotlessthan10μS/cm,thendryitagainwithalint‐freewipeandrecheck.Thereadingwillnotlikelystayinoneplace,butwillfluctuatearoundasmallrange.Choosethevaluethatreadsmostfrequently.RecordtheInAir‘LowRangeConductivity’and‘Temperature’valuesintheappropriateplaceinthefieldnotebook.
PlacetheHobo,sensor‐sidedown,inthe100μS/cmcalibrationcheckbottle.Be
certainthatthereisenoughcalibrationsolutioninthebottletocovertheHobosensor.SwirltheHoboseveraltimeswithinthebottle,andthenleantheHoboagainstthesideofthebottle.
Readthe‘LowRangeConductivity’valueoncethereadinghassettledwithina
fewμS/cm.Thereadingwillnotlikelystayinoneplace,butwillslowlyfluctuateupordown.ChoosethevaluethattheHobopausesonforafewmomentswithinashorttimeofplacingtheHoboinsolution.Recordthe100μS/cm‘LowRangeConductivity’and‘Temperature’valuesintheappropriateplaceinthefieldnotebook.
RemovetheHobofromthe100μS/cmcalibrationsolutionandsquirtitdown
withdistilledwater,particularlysquirtingthesensor.DrytheHoboandsensorthoroughlywithalint‐freewipe.
PlacetheHobointhe1000μS/cmstandardbottle.Repeattheprocessabove,
recordingthe1000μS/cm‘LowRangeConductivity’and‘Temperature’valuesintheappropriateplaceinthefieldnotebook.
RemovetheHobofromthe1000μS/cmcalibrationsolution.SquirttheHobo
withdistilledwater,particularlysquirtingthesensor.
DocumentFouling:
WiththeHobostillintheshuttleandattachedtothetablet,putsensorintostreaminanareaofwellmixedflowandlogreal‐timeuntilreadingsstabilize.Readandrecordthestabilizedtemperatureandlowrangeconductivityvaluesintheappropriateplaceinthefieldnotebook.Alsorecordthetimeofthisreading.
Takeaquickfinallookattheinformationinthe‘DeviceStatus’windowandensurethattheHobo’sbatterylifeis‘Good’,timeisUTC‐5time,andtheloggerisNOT‘Stopped’
Water Quality Monitoring‐Temperature‐Conductivity Probe (Hobo) Maintenance
35
Closethe‘DeviceStatus’windowontheHoboware. RemovetheHobofromthedatashuttle. Ifthelastsiteoftheday,discardthesolutionsleftinthecalibrationcheck
bottlesthenrinsethemthreetimeswithdistilledwater,andthenreturnthemtostorage.
Ifvisitingmultiplesitesinthesameday,thesamecalibrationcheckbottlesandsolutionsmaybeusedforcalibrationchecks.NEVERusethesamesolutionformultipledayshowever.
Hobo Re-deployment ReturntheHobototheshroud(sensorenddown),insertthefoampadding,and
screwontheshroudlid. BecertainthatyoureturntheHobototheproperlocationbasedonitsserial
number(ifHobosdeployedinseries).Checkpriorentriesinthefieldnotebooktoconfirm.
Reconnecttheshroudtothestakewiththecarabiner.Inspectcarabinersand
replaceif“faulty”(i.e.theydonotcloseproperly). Replacetherockstocovertheshroud,makingitbarelyvisibletopassersby,but
notobstructingitfromreceivingstreamflow.
Final Side-by-Side Measurement Thelaststepistotakeafinalside‐by‐sidemeasurementwiththeProPlus.The
ProPluswillhavealreadybeencalibratedearlierinthefieldvisit.(IfseveralHobosaredeployedinseriesalongastream,thenthisprocessshouldbeginwiththefurthestdownstreamHobo.)
SettheProPlussensorinthestreamascloseaspossibletotheHobowithout
disturbingtheHobo. FromtheProPlus,takeareadingofconductivity,specificconductance,and
temperatureaccordingtotheTakingMeasurementsprocedureoutlinedintheFieldChemistryMeasurementssectionofthismanual.
Thetimeofthismeasurementshouldberecordedaswell.Recordthisinformationintheappropriatelocationinthefieldnotebook.
RemovetheProPlussensorfromthestream,andleavetheHobodeployed.
Water Quality Monitoring‐Temperature‐Conductivity Probe (Hobo) Maintenance
36
Attheconclusionofeachday,ensuretheProPlusisstoredwithasmallamount
ofwaterinthebottomofthecalibrationcupandthecupistightenedontheQuatrocablebulkhead.
Forlongtermstorage(i.e.>1month),refertousermanual.
Data Management Uponreturningtotheoffice,opentheHobofile(s)andtakeaquicklookatthe
data.Ifanyanomaliesorsignificant“spikes”arenoticedinthedata,particularlywithconductivity,informtheEcologicalProgramSpecialistforwatermonitoringviaemailforfurtherinspection.
Significantspikeswillbethosethatmorethandouble“normal”conductivityranges(i.e.astreamthataverages15‐30us/cmlowrangeconductivityreadingsthroughoutthemonththatjumpsupgreaterthan60us/cm).Theseeventsshouldbesubmittedforreview.
Copythefilesfromthetabletcomputertotheappropriateplaceinthetarget
folderatthefollowinglocation:\\nrforbofs06\RPI\Monitoring\MonitoringProtocols\Water\StreamTargetFolders.Namethefilesfollowingtheformatpreviouslyestablishedinthefolders.
AllnotesfromthefieldnotebookshouldbescannedandsavedasaPDFtothe
followinglocation:\\nrford12ds1\RPI\RPI_RAID\Water\WaterSampleFieldNotebookandthestream’s“targetfolder”atthefollowinglocation:\\nrforbofs06\RPI\Monitoring\MonitoringProtocols\Water\StreamTargetFolders.NamethePDF’sfollowingtheformatpresentlyestablishedinthefolders.
Thisneednotbedonemultipletimesforvariouswaterproceduresinaday
Water Quality Monitoring‐Widespread Sampling
37
Widespread Sampling
Purpose FieldchemistrymeasurementgivesadiscreterepresentationofbasicwaterqualityparametersincludingpH,temperature,conductivity,specificconductance,andalkalinity.Thisinformationisusefulbothasanindicatorofstreamqualityandasadetectorofpotentialstreamimpairment(e.g.,lowpHsuggestingacidpollution,highconductivitysuggestingsaltpollution).Fieldchemistrymeasurementwillbeusedatwidespreadsamplinglocationsthroughoutthegasdistricts.ThewidespreadsamplingwillprovidesomeassurancetoDistrictForestersandstakeholdersthattheirlocalstreamsarenotgrosslycontaminatedbygasdevelopment(orwillidentifysuchcontamination).ThewidespreadsamplingwillalsoprovidereferencepointsforBOFandDEPshouldapollutioneventoccurinthevicinityofasamplinglocation.
Equipment Needs YSIProPlus(orsimilarinstrument) Meter‐specificcalibrationlogsheet pHandconductivitycalibrationsolutions(forcalibration) squirtbottleofdistilled/deionizedwater HannaInstrumentsHI755CheckerHCHandheldColorimeterkit Lint‐freecloth(e.g.Kimwipes) WidespreadSamplingDatasheetortabletcomputer GPSunit Measuringtape(USunits) Laserrangefinder Flagging Penorpencil(ifusingdatasheet) Muckbootsorwaders
Whenconductingworkinstreamswithsuspectedorconfirmeddidymopopulations,disinfectallapplicableequipmentaccordingtoproceduresfoundinDisinfectionofDidymoInfectedEquipment
Procedures Eachdayofsampling,followtheCalibrationproceduresoutlinedintheField
ChemistryMeasurementssectionofthismanual.REMEMBER:AcalibrationlogsheetwillneedtobefilledouteachdayaYSIProPlus(orsimilarinstrument)isused
Water Quality Monitoring‐Widespread Sampling
38
Ifusingatabletcomputer,besuretohavetheappropriatewatersamplepointlocationsonyourtablet.RefertothesupportingdocumentssectionofthismanualforinstructionsonCheckingIn/CheckingOutDataforArcPad.
CAUTION:Ifusingatabletcomputertoenternewdataforawatersamplepoint,DONOTUNDERANYCIRCUMSTANCESOPENAPOINTINANEDITINGSESSIONTHATYOUDONOTEVENTUALLYEDIT.ThiswillcreatedatamanagementissuesintheOGITgeodatabase.
Obtainthecoordinatesforthesamplingsiteofinterestanddriveasnearaspossibletothecoordinates.Atpreviouslyvisitedsitesthe“Notes”sectionwillsometimesprovidesomeguidancenavigatingtothesite.
Onceparked,completethefollowinginformationonthedatasheetortablet
computer:o SampleSite:thedesignatednumberofthesite(SampleID)o Date:thedatethesiteisbeingsampledo District:theforestdistrictinwhichthesamplesiteislocatedo Model:whethertheYSIProPlus,YSIModel63,orotherdeviceisbeingusedo Monitor’sName(s):thename(s)oftheperson(s)testingthesiteo WeatherandPrecipitation:markcurrentobservationsonthedatasheeto Departfromvehicle:thetimeyouleftthevehicletohiketothesamplingsite
Hiketothepre‐determinedcoordinates.Ifpossible,identifytheprevious
samplingpointbasedonflaggingalongthestream. NeartheGPScoordinates,selectanareaofthestreamthatisrepresentativeof
thestream.Thismayormaynotbethepointpreviouslysampled.Chooseanareathatisrelativelyuniformindepthacrossthestream.Avoidobstructions(e.g.,largerocksordownedtrees),andavoidpools.
Enterthestreamdownstreamfromyoursamplingpointtoavoidintroducing
disturbedsedimenttothesamplingpoint. Placetheprobeupstreamorofftothesideofyourposition,nearthecenterof
thecurrent,inanareaofuniform,well‐mixedflow.Theprobeshouldbeawayfromthestreambankandinthecurrent(i.e.,donotsamplestagnantornon‐flowingwater).
Oncetheprobeisinplace,givethecordaslighttwistandshaketodislodgeany
airbubblestrappedinthesensors.
Water Quality Monitoring‐Widespread Sampling
39
Oncereadingsstabilize(staythesameforseveralseconds),recordthemonthedatasheetortabletcomputer.
ConductanalkalinitymeasurementwiththeHannaHI755alkalinitytesterusing
proceduresoutlinedinFieldChemistryMeasurementssectionofthismanual.Readandrecordthealkalinity(inppmofCaCO3)onthedatasheetortabletcomputer.
Completethefollowinginformationonthedatasheetortabletcomputer:
o Time:thetimethatmeasurementsaretaken(militaryformat)o Latitude/Longitude:Recordedonre‐sampledsitesifthelocationofthe
samplingpointneedstobemovedandisdifferentthantheoriginalcoordinates.Otherwise,thereisnoneedtofillthisin.*Thiscanbedonereal‐timeinthefieldifusingatabletcomputer.
o SampleLocation:enterinformationthatdescribesthesamplingpointlocation(e.g.,distancefromlargerockortreeofcertaindiameter).Again,thisneedonlybechangedifthesamplerfeelstheoriginalsamplelocationneedsclarifiedorthesamplingpointisbeingmoved.
o Streamwidth:Usingameasuringtape,measurefromwateredgetowateredgetothenearesttenthofafoot.Avoidareasofbackwaterorobstructions.Ifthestreamislargeenoughsuchthatmeasuringwiththetapeisimpossible,usealaserrangefinder(Careful:remembertorecordinfeet).
o Streamdepth:Probethestreamwithasticktofind,approximately,theaveragedepthnearwhereyousampled.Measurebymarkingthestickandmeasuringwiththetapetothenearesttenthofafoot.Forlargerstreamsthatcannotbewaded,estimatetheaveragedepth.
Placeflaggingtomarkthesamplelocationatnewsites,iforiginalflagging
cannotbelocated,orsitehasbeenmovedfromthepreviouslocation.Ifasite’slocationismovedandoriginalflaggingstillexistsbesuretoremoveit.Incaseswhereatreeisreferencedinthesamplelocation,thisisusuallytheobjectthatisflagged.
Hikebacktothevehicleandcompletethefollowinginformationonthe
datasheetortabletcomputer:o Returntovehicle:thetimeyoureturnedtothevehiclefromthesampling
siteo Totaltime:thetimeelapsedbetween“Departfromvehicle”and“Returnto
vehicle”.Thisshouldberecordedindecimalhours(e.g.15minutes=0.25hours,1hour30minutes=1.50hours)
o SurrogateStreamFlow:obtainedfrommultiplyingstreamwidthbystreamdepth.Roundtothenearesttenthofafoot(thiscalculationcanbecalculated
Water Quality Monitoring‐Widespread Sampling
40
atthesamplesiteorbackintheoffice).Ifusingatabletcomputer,thisvalueisautomaticallycalculated
Oncebackintheoffice,completethesectionofthedatasheet“Precipitationlast
48hours”usingthestepsbelow.Thisisdeterminedbythehighestrateithasrainedanygivenhourwithinthelast48hours.o Gotothefollowinglink:
http://waterdata.usgs.gov/pa/nwis/current/?type=precip&group_key=county_cd
o Undertheappropriatecounty,selectastationthatisnearestthesamplelocationofinterest
o Besure“00045Precipitation”ischeckedunderavailableparameters,and“Table”ischeckedunderoutputformat.Click“GO”.
o Theresultingtablewillshowprecipitationamountsandbeseparatedintocellsof15minuteintervals.Lookthroughthesectionofthetableoutliningthe48hoursbeforeyousampledthesiteofinterest.Withinthattimeperiodfindthefourconsecutivecellsthatyieldthehighestprecipitationamount(i.e.thehighestrainfalltotal/hour).Addthefourcellsupforatotal.*Precipitationamountsthataresuspectedsnowfall/sleetshouldbeignored.ONLYdoforconfirmedrainevents.
o Usingthetotalobtained,circletheappropriateprecipitationclassonthedatasheetorselectonthetabletcomputerusingtheclassdesignationsbelow:None: nomeasurableamountsrecordedatstation,orsuspected
snowfallTrace: <.05”/hourLight: ≥.05and<.10”/hourModerate: ≥.10and<.40”/hourHeavy: ≥.40”/hour
Attheconclusionofeachday,ensuretheProPlusisstoredwithasmallamountofwaterinthebottomofthecalibrationcupandthecupistightenedontheQuatrocablebulkhead.
Forlongtermstorage(i.e.>1month),refertousermanual.
Quality Control Iftwodifferentinstrumentsareusedinafieldseasonforwidespreadsampling,5%ofsamplinglocationswillbeperformedbybothunits,suchthattheresultscanbecompared.Similarly,ifmultiplefieldteamsperformwidespreadsampling,5%oflocationswillhavethewidth/depthmeasuredbybothteams,suchthattheresultscanbecompared.
Water Quality Monitoring‐Widespread Sampling
41
Data Management Ifusingatabletcomputer,periodically“checkin”editedWaterSamplepointdataas
appropriate.DonotleteditedpointsaccumulateonyourtabletwithoutcheckingthembackintotheOGITgeodatabaseastheyriskbeinglost.RefertothesupportingdocumentssectionofthismanualforinstructionsonCheckingIn/CheckingOutDataforArcPad.
Ifusingadatasheet,navigatetotheWaterSamplePointfeatureclassinFIMSusing
thefollowingpath:P:\Layers‐GasProgram\Monitoring\WaterSamplePoint.Startaneditingsessionandmanuallyenterthedatafromthedatasheet.
Enterallcalibrationdatafromthecalibrationlogsheetintotheappropriateexcel
spreadsheetforthefieldmeterusedatthefollowinglocation:\\nrford12ds1\RPI\RPI_RAID\Water\CalibrationLogs.Simplymakeacopyofthe“PlaceDateHere‐BLANK”logsheet,placeitattheendofthetabs,renamethetabwiththedateofcalibrationusingtheformatday‐month‐year(e.g.18July2014),fillintheinformation,andsavethespreadsheet.
Water Quality Monitoring‐Pebble Count
42
Pebble Count
Purpose Pebblecountsareconductedtoassessthetypicalparticlesizedistributioninastreambed.Whenrepeatedovertime,pebblecountscanbeusedtodetectincreasedlevelsoferosionandsedimentationinawatershed,whichcanbedetrimentaltoaquaticcommunities.
Equipment Needs YSIClipboardandpencil Foldingmeasuringrule(metric) Longmeasuringtape,200‐ftormore(metric) Hand‐heldcounters Muckbootsorwaders Flagging PebbleCountDatasheets Tabletcomputerand/orGPSunit(ifneeded)
Whenconductingworkinstreamswithsuspectedorconfirmeddidymopopulations,disinfectallapplicableequipmentaccordingtoproceduresfoundinDisinfectionofDidymoInfectedEquipment
Establishing the Sample Reach Atstreamsthatarebeingre‐sampled(i.e.asamplereachandpebblecounthas
beenestablishedandconductedpreviously),simplynavigatetotheappropriateGPScoordinates,re‐flagthereachandmeasurestreamwidthsasoutlinedbelow,andconductthepebblecount.PreviouslyconductedpebblecountlocationscanbefoundintheOGITgeodatabaseusingthefollowingpath:P:\Layers‐GasProgram\OGIT_Geodatabase\OGIT.DBO.Monitoring\OGIT.DBO.Pebble_Sampling
Oncethestreamofinteresthasbeenidentified,asamplereachmustbeestablished.Thesamplereachshouldberepresentativeofthegeomorphologyandinstreamhabitattypicalwithinthestream.Forexample,donotselectanunusuallydeeppool(whichwouldskewresultstowardfinerparticles),alargeisland(whichwouldskewresultstowardlargerparticles),orasharp(i.e.,>90degree)bend(whichmayhaveanundercutbankthatisdifficulttosample).Thesamplereachshouldincludeatleasttworiffleandtwopoolhabitatunits,oraminimumof200meters(~660feet).Thedownstreamandupstreamextentofthesamplereachshouldcoincidewiththeheadofariffle.Recordthelengthofthereachonthedatasheet.
Water Quality Monitoring‐Pebble Count
43
Measurementofthereachshouldbeginattheupstreamextentandproceeddownstream.Thiswillensurethatthefullreachiswalkedandexaminedpriortobeginningtheprotocol.
Theupstreamanddownstreamextentofthesamplereachshouldbemarkedwithflaggingonbothbanks.
TheGPScoordinatesoftheupstreamanddownstreamextents,atcenterpointofstream,shouldberecordedaswell.
Placeflaggingevery50metersalongthereach.Thisflaggingwillserveasbenchmarksduringthecount,ensuringthatcountingisprogressingattheproperpace(i.e.,approximately50pebblesper50meters).
Bankfulledgeshouldbediscussedwiththecrewalongthestreaminanylocationswherethebankfulledgeisindoubtordifficulttodiscern.Thiswillensurethateachteamconsidersthebankfulledgethesameinsuchareas.Commonindicatorsofbankfulledgearetheedgeofrootedvegetation,scourlinesorsmallfloodbenches,andthetopsofactivepointbars.(Forframeofreference,thebankfullflowtypicallyoccursevery1.5years.)
Thewidthofthestreamshouldbemeasured(infeetandtenthsoffeet),frombankfulledgetobankfulledge,attheupstreamanddownstreamextentofthereachandatthe50‐meterbenchmarks.Widthmeasurementismadeperpendiculartoflow.Thesewidthmeasurementsshouldberecordedonthedatasheetandcomputedforanaveragestreamwidth.
Theflaggingshouldremaininplacesuchthatthesitecanberevisitedinthefuture.
Conducting the Pebble Count Pebblecountswillbeconductedwithtwo‐personteams.Onepersoncollects
andmeasuresthepebbles(thesampler),theotherpersontalliesandcountsthepebbles(thescribe).Foreachstream,threedifferentteams(orsamplers)shouldcompletethepebblecountalongthesamesamplereach.
Recordthestreamname,date,andlastnamesofthesurveycrewonthedatasheet,indicatingwhothesamplerisandwhothescribeis.
Atleast200particlesaretobesampledfromthesamplereach.
Pebblecountsareconductedalongazig‐zagtransectfrombankfulledgetobankfulledge(Figure2.6).Theangleofthezigzagtransectdependsuponthemeanderpattern(orsinuosity)ofthesamplereach.A45degreeangleisagoodstartingpoint,buttheanglecannotbeprescribed,becausealowsinuosityreach
Water Quality Monitoring‐Pebble Count
44
willrequirealesssharpanglethanahighsinuosityreach.Thus,theanglemayneedadjustedasthesamplermovestowardthe50‐meterbenchmarks.
Foragivenpacingacrossthestream,thechosenangleshouldbemaintainedasbestaspossible.Thisisbestaccomplishedbyidentifyingalocationontheoppositebanktowalktowards,suchasarockortreetrunk.
Thezig‐zagtransectbeginsatthedownstreamextentofthesamplereach,whichshouldbetheheadofariffle.
Beginningattheleftbank(“left”isdefinedasonefacesdownstream),thesamplerpacesoffgreaterthan2.1meters(~7feet).Thispacingdistanceisimportanttoavoidcorrelationbetweenparticlessampled.
Aparticleisselectedbyplacingthefingeratthetoeoftheboot,and,withoutlooking,slidingthefingerdownwarduntilitfirsttouchesaparticle.Iftwoparticlesaretouchedsimultaneously,thentheparticlenearesttotheleftsideoftheperson’sfingernailshouldbecounted.Ifitispossibletopickupthisparticle,thesamplershoulddoso.
Thisparticleisthenmeasuredatthemaximumlengthofitsintermediateaxisusingametricrule(Figure2.6).
Iftheparticlecannotbepickedup,itshouldbecategorizedassandorsilt/claydependingonthefeeloftheparticle(seeexplanationbelow).
Thesamplershouldagainpacenolessthan2.1meterstothenextsamplingpointandrepeattheprocess.
Ifthesamplerreachesthebankfulledgebeforepacingoffthefulldistancetothenextsamplingpoint,thenthesamplershouldturnawayfromthebank(atthesameanglehe/shearrivedatthebank)andcontinuetheremainingdistancetoestablishthenextpoint.
Thezigzagtransectshouldcontinueupstreamuntiltheupstreamextentisreached.
Theminimumsizeclasstobemeasuredshouldbeverycoarsesand(1‐2mm).
Anysandlessthan1mmshouldbeclassifiedsimplyasmediumsand(i.e.,nofurthersub‐categoriesoffinersand).Asandparticleshouldfeelgrittytothetouch,andifasamplecanbepickedup,itshouldmakeagrindingsoundwhenrubbednexttotheear.
Aclay/siltparticlewillnotfillgritty;rather,itwillhaveasmooth,silky,orgreasyfeel.
Water Quality Monitoring‐Pebble Count
45
Conversely,someparticles,suchasboulders,willbetoolargetoaccuratelymeasurebecausetheycannotberemovedfromthestreamorarepartiallyburiedinthestream.Ifall3axesarevisible,measurethemaximumlengthoftheintermediateaxisasnormal.Ifonly2axesarevisible,thesamplershoulddotheirbesttomeasuretheshortestvisibleaxis(thusassumingthattheactualshortestaxisistheoneburied).
EachparticlemeasurementistalliedbythescribeaccordingtoWentworthsizeclassesonthedatasheet.Thescribealsowilluseahandcountertokeepatotaltallyofthepebblescounted.Thescribeshouldclickthecounteratthetimethesamplerbendsovertotouchapebble.However,whenworkinginalargercrewandthereisonescribeformultiplesamplers,itmaybebettertohaveeachsamplerkeeptheirowntallyofpebblescounted.
Anynon‐nativerocks(e.g.limestonerockinasandstonestream)thatarepickedupbythesamplertobetalliedshouldbetalliedwithintheappropriatesizeclassandindicatedas“Non‐nativestonetally”onthedatasheet.
Water Quality Monitoring‐Pebble Count
46
Figure2.6DiagramofaPebbleCountsurvey
Water Quality Monitoring‐Pebble Count
47
Contingency Measures Lessthan200pebblescounted:Iflessthan200particleshavebeencollected,
oneofthefollowingshouldoccur.Iflessthan150pebbleshavebeencounted,thenthezigzagshouldberepeatedthroughtheentirereachbutatalesssharpangle,suchthatlessparticlesarecollectedduringthesecondtransect.Ifbetween150and200pebbleshavebeencounted,thenthesamplingreachcanbeextendedupstreambyadditionalrifflepoolsequences(againendingattheheadofariffle).Ineithercase,thesamplingshouldbeconductedsuchthatatleast200pebblesarecounted.
Verydeeppoolsencountered:Verydeeppoolscanmakeitdifficulttosample,
logistically,withoutgettingthesamplerverywetoremployingsubmergedsampling.Bothofthosescenariosshouldbeavoided.Ifthepoolsaretoodeepsimplybecausethesamplersarenotpresentlyequippedwithsufficientlengthboots,thenthesamplingshouldbehalted,andthereachshouldberesampledwhenadequatebootsareavailable.Ifthedeeppoolsaresuchthatthesamplerscannotreachthestreambedeveninadequateboots,thenthefollowingprotocolshouldbeperformed.Thepointthatcannotbereachedshouldbecountedasonetallyofthefinestparticleencounteredduringtheentirepebblecount(i.e.,probablyasandorclay/siltparticle).Then,thesamplershouldmentallyprojectthezig‐zagwalkacrossthepool.Ifthenext(orseveral)pointsfallwithinthedeeppool,thenthefinestparticleshouldagainbetallied.Oncetheprojectedzig‐zagwalkreachesapointthatcanbewadedandsampled,thesamplingshouldcontinueasbefore.Anypebblescountedinthismannershouldbespecificallyidentifiedonthedatasheetas“UnreachableDeepPoolTally.”
Caddis‐Flycasingsencountered:Ifitcanbedeterminedthatthefirstgrainfelt
isthesandfromacaddisflycasing,thenthecountshouldnotbesand.Instead,thecountshouldbethepebbleonwhichthecaddisflycasingwasattached.
Vegetationclumpsencountered:Iftheendofapaceforcountinglandsona
patchofsubmergedorothervegetation,theparticlethatisthesubstrateforthatvegetationshouldbecounted.Inotherwords,selecttheparticlethatissupportingtherootsofthevegetation,whichusuallyissand,silt,orclay.
Silt“dusting”encountered:Ifthesamplerobservesadustyorlightcoveringof
siltonpebblesinthestream,thisshouldnotnecessarilybecountedassilt.Onlyifthesiltcoveringissufficientthatitisthefirstthingthesamplerfeels,whenreachingdownward,shouldthecountbetalliedassilt/clay.
Water Quality Monitoring‐Pebble Count
48
Losingholdofsmallpebbles:Sometimes,duetotheflowingwater,thetouchingofasmallparticlewiththefingertipmaycauseittoflowawayandoutofreach.Ifthisoccurs,anditispossibletoestimatethesizeoftheparticlebased onthatbrieftouch,thatparticleshouldberecordedonthedatasheet.Ifitisnotpossibletoestimatethesizeoftheparticle,thenthezig‐zagshouldcontinuewithouttallyingaparticleatthatlocation.Anypebblescountedinthismannershouldbespecificallyidentifiedonthedatasheetas“EstimatedduetoDropTally.”
Encounteringatypicalgeomorphologyorotherstreamfeatures:Atypical
backwatershouldbeexcludedfromthesamplereach.Thisisbecausethehydrologyofbackwaterareasisnot“typical”ofthestream,andtheobjectiveistocharacterizetypicalstreambedcharacteristics.Inaddition,tributariescomingintothesamplereachshouldbeexcludedfromthesamplereach.Thisisbecausethehydrologyandbedmaterialofthetributarymaybedifferentthanthesamplereach.Ifanisland,sandbar,orclumpofvegetationisencounteredthatishigherthanthebankfullelevation,thisfeatureshouldbeskipped,andthezig‐zagtransectshouldcontinueontheothersideofthefeature.Iftheisland,sandbar,orclumpofvegetationislowerthanbankfullelevation,thenpacingshouldcontinuethroughthefeature.Whensmallobstructions,suchasdownedlogsorundercutbanks,areencountered,thepacescanbevisuallyprojectedbeneathorovertheobstruction,suchthatthezig‐zagtransectcanbecontinued.
Data Management Onceall3pebblecountshavebeenconductedalongthesamesamplereachona
givenstream,thedatasheetsaretobescannedandsentviaemailtothewaterresourcespecialistforfurtherdataprocessing.
ThescanneddatasheetsshouldalsobesavedandplacedintheappropriatefolderonRPI_RAID\\nrford12ds1\RPI\RPI_RAID\Water\Pebble_Sampling.Thefilesshouldbenamedusingtheformat“StreamName”_”YearCompleted”(e.g.BearRun_2013.pdf)
GPSlocationsfornewpebblecountsshouldbeaddedtothepebblesampling
featureclassinFIMSwhichcanbefoundusingthefollowingpath:P:\Layers‐GasProgram\OGIT_Geodatabase\OGIT.DBO.Monitoring\OGIT.DBO.Pebble_SamplingBesuretofilloutappropriateattributesforthepoints.SimilarlyanyeditstoestablishedpebblecountlocationscanbeeditedinthisfeatureclasswithinFIMS.
Water Quality Monitoring‐Benthic Macroinvertebrate Collection
49
Benthic Macroinvertebrate Collection
Purpose Samplingforbenthicmacroinvertebratestoassesswaterqualityhasbeenstandardpracticeintheglobalwaterqualitymonitoringindustryfordecades.BiometricslikethePADEPIndexofBioticIntegrity(IBI),ShannonDiversity,HilsenhoffBioticIndex(HBI),theIndexofBioticAcidification(IBA),theFunctionalFeedingReferenceCondition,andmanyothers,arepowerfulstatisticaltoolsusedtoassessmultiplecomponentsofastream’slong‐termwaterqualityasexpressedinitsbiologicalcommunity.BecauseaquaticinvertebratesareexcellentindicatorsofwaterqualityandareroutinelysampledaspartofPennsylvania’svariousongoingwaterqualityassessmentprograms,theDCNRwillcollectbenthicmacroinvertebratesregularlyaspartofourmonitoringprogramstoassesstheattainmentofaquaticlifeusesinareaswheremonitoringisdeemednecessary,suchasinshalegasareasortotrackAMDremediationefforts,forexample.Theprimarymethodusedtocollecttheseorganismsisthemethoddescribedbelow,whichisbasedon—andidenticalto—PADEP’sAntidegradationandInstreamComprehensiveEvaluation(ICE)surveys.
Equipment Needs 500μ(micron)meshD‐Framenet 1to2Nalgene2LWideMouthBottles Denaturedalcohol(samplepreservative)1to2literspersample,>70%alcohol
concentration Hiporchestwaders;chestwaderswithsturdyreinforcedwadingshoesare
recommended StandardSieveNo.35(500micron) 4LUtilityPail Thermobottlelabels,orotherstickylabel PermanentmarkerorPen Clearpackagingtape WaterQualityNetworkHabitatAssessmentDatasheet Neopreneglovesarerecommended,butnotrequired FieldNotebook DigitalCamera GPSunit
Procedures
Typically,watergrabsamples(suchasSAC046orSAC972)willbecollectedpriortomacroinvertebratesampling,aswilldiscretefieldchemistryvalues(pH,temperature,conductivity,specificconductivity,dissolvedoxygen,andturbidity).
Water Quality Monitoring‐Benthic Macroinvertebrate Collection
50
Flowmeasurementsusingaflowmeterwillbecompletedaswell.Beforeleavingtheoffice,besuretomakeallnecessarypreparationsandgatherallequipmentneededtocompletethesetasksinthefieldaswell.
Whenconductingworkinstreamswithsuspectedorconfirmeddidymopopulations,disinfectallapplicableequipmentaccordingtoproceduresfoundinDisinfectionofDidymoInfectedEquipment
Establishing the Sample Reach The100mreachshouldbehomogeneous,nothavinganydischarges,seeps,ortributariesenteringintoit.Itshouldbefarenoughdownstreamofanyoftheseinputstoallowfortotalmixing.
Onceonsitewherethemacroinvertebratecollectionistotakeplace,writethedate,5‐digitWRDSstreamcode,streamname/location,timeonsite(militaryformat),andthelastnamesofthesamplingcrewinthefieldnotebook.
Ifestablishinganewsamplereach,conductareconnaissanceoftheareaofinterest,lookingfora100mreachwithoptimalriffleruntypewaterswithagoodmixofcobblesizedstone.
Whetherrevisitingapreviouslyestablished100mreachorestablishinganewone,alwayswalkthereach,takingamentalnoteofthemostoptimalsamplingareas.Further,makementalhabitatnotesonbankcondition,in‐streamfishhabitat,riparianzone,flowstatus,andotherstofacilitatethehabitatassessmentattheend.
UsingtheGPSunit,recordthecoordinatesofthebottomofthereachinthefield
notebook.Onrevisitedsites,usethepreviouslyestablishedGPSlocationasthebottomofthereach,ifpossible.
Onnewsitesandrevisitedsites,alwayswriteashortnarrativedescribingthe
siteand/oranythingunusual(e.g.largemosscoveredboulders,significantbankerosion,alotofnaturalwooddebrisinstream,lowflow,etc.),aswellasanyrecentchanges/activityatthesite(e.g.newpipeline,newroad,recentfishstructuresinstalled,etc.).Recordthisnarratveinthefieldnotebookwithothermacroinvertebratecollectioninformation.
Whenestablishinganewsamplereachbesuretotakepicturesofthestream
withadigitalcamera.Take4picturesminimumateachsamplereach,(2)atthebottomofthereach(BoR),and(2)atthetopofthereach(ToR).Oneorientedupstreamandtheotherdownstreamateachlocation.Sometimes,anupstreamanddownstreampicturecanbetakennearthemiddleofthereachaswell
Water Quality Monitoring‐Benthic Macroinvertebrate Collection
51
(MoR).Thepicturesaremeanttobeasnapshotofthestreamarea/conditionsobesuretocapturethestreamandbothbankswhentakingpictures.
Whilewalking/conductingreconnaissanceoftheareaaroundthe100mreach,takespecialcarenottowalkinanddisturbthestreamsubstrateanditsbanks!
Discrete Measurement, Grab Samples, and Flow Measurement Oncethe100mreachislocated,conductadiscretemeasurementandcollect
appropriategrabsamplesatthebottomofthereach.DothisaccordingtostepsoutlinedintheSurfaceWaterGrabSamplingandFlowMeasurementprocedure.
TakeaflowmeasurementnearthebottomofthereachaccordingtotheSurfaceWaterGrabSamplingandFlowMeasurementprocedure.Ifthebestareatomeasureflowfallswithinthe100mreach,waitformacroinvertebratecollectiontobecompleteddownstreamoftheflowmeasurementsitesothatyoudonotdisturbthestream.
Recordallinformationforthediscretesample,grabsample,andflow
measurementinthefieldnotebookasotherwisedone.
Sampling Procedure SamplecollectionconsistsofsixD‐framekickeffortsfroma100mstreamreach,whicharecomposited,preserved,andreturnedtoalabforfurtherprocessingandidentification,whichisexplainedseparatelyintheBenthicMacroinvertebrateProcessingprocedurefoundinthismanual.Also,aPADEPhabitatassessmentwillbeconductedfollowingthemacroinvertebratesampling. Inthefieldnotebook,recordinformationforthemacroinvertbratecollection.
Includethedate(yyyymmdd),time(localmilitarytimetomatchkickingtime)andtheCommonwealthidentifierofthecollector(e.g.,20141126‐1300‐roryder).Theshortnarrativedescribedabovecangohereaswell.
Startingatthedownstreamextentofthereach,choosethebestriffleandrunhabitatareastokickandbecertaintoincludeareasofdifferentdepthsandvelocitycurrents(fastandslow)andsubstratetypes.
Spreadthe(6)samplekicksthroughoutthe100mreach,tryingatleasttosamplethreeriffles(fastandshallow,with“whitecaps”)andthreeruns(slowerandalittledeeper,withno“whitecaps”).
Typically,onemightsampletwokicksrelativelycloseatthebottomofthereach(BoR),twoinvicinityofthemiddleofreach(MoR),andtwoatthetopofreach(ToR).Streamconditionsandhabitatwilldictatethebestareas,however.
Water Quality Monitoring‐Benthic Macroinvertebrate Collection
52
Sampling Methodology Onceyouhavelocatedtheareayouwishtokick,facedownstreamandplacethe
netfirmlyonthestreambottomsothatitdoesnotrockfromsidetosideintheareaimmediatelydownstreamoftheareayouaretargeting.Besuretherearenosizablegapsbetweenthebottomofthenetandthesteambed.
Ifasecondpersonisavailable,havehe/shereadyatimertokeeptimeasyouprogressthrougha“kickeffort”.
One“kickeffort”iswhenthesamplervigorouslykicksanapproximateareaof1m2(1X1m)immediatelyupstreamofthenettoadepthof10cm(approximately4”,orasmuchastheembeddednessofthesubstrateallows)forapproximately45to60seconds(
Figure2.7).
Whileholdingfirmlydownonthenet’shandletokeepthenetinplace,begindisturbingthestreamsubstratewithyourfootintheareaimmediatelyinfrontofthenet.
Graduallyworktheentire1m2areathoroughlywithyourwaderboots.Becauseeach“kickeffort”lastsapproximately60seconds,tryandtimeitsothattheentiresampleareaiscovered(i.e.allsubstrateinthesampleareahasbeendisturbedenoughtodislodgemostmacroinvertebratefaunaintothewatercolumn).
Allbenthicdislodgementandsubstratescrubbingshouldbedonebykicksonly.Substratehandlingshouldbelimitedtoonlymovinglargerocksordebrisoutofthekickareawithno“handwashing”(i.e.rubbingandscrubbingsubstratewithyourhandstodislodgemacroinvertebratefauna)tofacilitatekicking.Anyhandlingofrocksshouldbedoneinamannerlooselyimitativeofkicking.
Water Quality Monitoring‐Benthic Macroinvertebrate Collection
53
Figure2.7SamplingwithaD‐framenet
Sincethewidthofthekickareaiswiderthanthenetopening,thesubstratematerialfromwithinthe1m2areashouldbekickedtowardthecenterofthesquaremeterarea–abovethenetopening.
Whilekicking,thesamplerisencouragedtousehisorherhandsandfeetasdescribedearliertomoveobjectsoutofthepathbetweenwaterandnetinthe1m2zone.Careshouldbetakentonotcreateobstructionsinfrontofthenet(typicallythecollector’sownfeetordislodgedstones)whichwoulddeflectstreamflowawayfromthenet.
Followingthefirstkickeffort,thecollectorcanchoosetomakethesecondkick
effortafterrinsingthesampletothebottomofthenet,orcandepositthefirstkickintothe2Lwide‐mouthsamplejar.
Becauseitcanbesomewhateasytolosetrackofhowmanykicksonemakes,andalsotosavetime,itisrecommendedusingthenettwice(i.e.completingtwo“kickefforts”)beforedepositingthekicksintothejar,unlessanexcessiveamountofdetritushascloggedthenet.Cautionshouldbetakenfrommovingtheutilitypailandjararoundthestreamtoavoidaccidentallydumpingeitherduringaslip‐and‐fall.Oneeffectivestrategyisplacing(duringtheinitialreconnaissance)thejarandpailatmid‐reachnearwherethethirdandfourthkickswilloccur.
Toemptynetcontentsintothesamplejar,thejarshouldbeplacedinto,orheldover,the4Lutilitypailtocatchdebrisandinvertebratesasthenetisinvertedanddebriscompositedgentlyintothejar.
Water Quality Monitoring‐Benthic Macroinvertebrate Collection
54
Careshouldbetakentominimize“wearandtear”onthecollectedorganismswhencompositingthematerials(Figure2.8).
Thereductionoflargematerialsbycarefulremoval,inspection,andrinsinginabucketorusingasievepriortofieldpreservationoratthelabisencouraged.
Figure2.8Compositingkicksintosamplejar.Notealsosieveandpale.
Springsamplestypicallydonotrequiremorethanonebottle;NovemberandDecembersamplesmay,however,duetoleaffall.
Aftercompletingthe6thandfinalkick,emptynetcontentsintothesamplejarasdescribedabove,leavingthenetturned“insideout”withremainingnetcontentsexposed/facingout.
Fillthe4Lutilitypailhalffullwithcleanstreamwaterandimmersethenetintothewater,attemptingtorinseoffallsmallerremainingnetcontentsfromthelast“kicks”.
Brieflyinspecttherinsednetforanybugspecimens,placinganythatyoufind
intothesamplejar,thenhandtoasecondpersonforafinalinspection. Pourtheremainingwaterintheutilitypailthroughthesieveuntilyouare
confidentthepailisfreeofallbugspecimens. Next,gentlydipandswipethesievethroughanareaofslackwaterinthestream
togetallremainingstone/sediment/bugspecimensintooneendofthesieve. Gentlytapallcontentsfromthesieveintothesamplejaruntilyouareconfident
thesieveisfreeofanybugspecimens.
Water Quality Monitoring‐Benthic Macroinvertebrate Collection
55
Thesieveemptyingproceduresdescribedabovemayneedtoberepeatedseveraltimesuntilallstreamdebrisiscollectedintothesamplejar.Whiledoingso,takespecialcarenottoloseanybugspecimensfromthesample!
Whilekickingbesuretonoteanyobservationsinthefieldnotebookthatyoufeelareimportant(e.g.fishsightingsespeciallyyoungoftheyear,PAFBCfishstructuresinreach,“NoBugsobservedinnet”,etc.)
Whendoingmultiplesitesinadaybesurethatthenet,sieve,andutilitypailarethoroughlyrinsedinbetweensamplesitestoavoidcrosscontamination!
In-stream Habitat Assessment Aftermacroinvertebratesarecollected,thecollector(s)willperformanIn‐
streamHabitatAssessmentusingtheWaterQualityNetworkHabitatAssessmentDatasheet.
Fillouttheheaderinformationwithwhatinformationyouknowaboutthesite.
Recallingwhatyousawduringthereconnaissanceandthesamplingprocedure,fillouttherubriccarefully,consideringallvariablesdescribedintherubric.Thiscanbedonealoneorwiththeentiresamplegroup.
Sample Preservation and Labeling Compositedsamplesarepreservedwithnolessthan70%denaturedethanol;upto100%isalsoacceptable.Thesampledoesnotneedtobepreservedimmediatelyaftercollection,butcanbetakentothevehiclewheretheethanolcanbekept.
Uponreturningtothevehicle,drytheoutsideofthesamplejar(s)withapapertowel
Usingapermanentmarkerorpen,fillouta“Thermo”orotherstickylabeltoincludethedate(yyyymmdd),time(localmilitarytimetomatchkickingtime)andtheCommonwealthidentifierofthecollector(e.g.,20141126‐1300‐roryder).
Thelabelshouldalsoincludethestreamnameandthenumbersofsamplebottles,ifmultiple(e.g.,LowerPineBottomRun1of2).
Attachthelabeltothejarandcoverwithpackingtapeonthesamplejartoavoiditslossordegradationbyethanol.
Unscrewthelidandcarefullyfillthesamplejar(s)withalcoholuntilcontentsofthejararecompletelycovered,replaceandsecurecap
Water Quality Monitoring‐Benthic Macroinvertebrate Collection
56
Gentlyinvertandflipthesamplejar(s)tothoroughlymixanddistributethe
alcoholthroughoutthecontentsofthejarandremovepocketsofair
Unscrewcapandchecktoensurecontentsofthejararecompletelycoveredwithalcohol.Topoffifnecessary.
Putsamplejar(s)onthegroundandgiveaheavytwisttothecap,securingthecapastightlyaspossible.Checktoensurethereisnoleakingaroundthecapofthejar(s).Ifsamplejarisleakyorotherwisefaulty,replacewithanewerone.
Sample Storage and Handover for Processing Properlycollectedmacroinvertebratesamplescanbestoredascollectedforseveralyearsbeforedegradationmayoccur.However,thesamplesshouldbeprocessedbymonitoringfieldstafforhandedovertotheMineralsDivisionEcologicalProgramSpecialistforWaterforID/processingassoonaspossible.
Priortohandover/processing,theyshouldbestoredinatemperaturecontrolledenvironmentawayfromsunlight
Besuretohandleprocessing/packagingforallgrabsamplesasusualandasoutlinedintheprocedureforPreparingGrabSamplesforCourierPickup
Quality Control TomeetEPArequirementsforcertainFederalgrants,thePADEPmustadheretoaninternalqualitycontrolprocessthatincludesafieldcollectionaudit.Thisauditissimplytheobservationofdiscretefieldchemistrydatacalibrationandcollection,watergrabsampling,macroinvertebratecollection,andhabitatassessmentandverificationmemostatingthecollectorisproficientintheseactivities.TheDivisionofWaterQualityStandardsoverseasthisauditprogram,andmayauthorizeaDCNR“trustedagent”toperformtheauditsontheirbehalf.Onceayear,theEcologicalProgramSpecialistforwatermonitoringwillorganizeafielddaywhereheorshewillreviewandauditcollectionprocedureswithfieldstaff.Atthattime,thestaffwillchoosetwotothreestreamhabitatstoevaluateand“calibrate”theirhabitatscoringasagroup,discussingwhyscoresweregiventothevarioushabitatcriteria.
Data Management Attheconclusionofeachsamplingdayformacroinvertebrates,completethefollowingprocedures,orasspecifiedbytheEcologicalProgramSpecialistforwatermonitoring
Scanallfieldnotesinthefieldnotebook,saveasaPDF,andnameaccordingtothedateYYYY.MM.DD(e.g.2014.11.26)andplaceacopyhere:
Water Quality Monitoring‐Benthic Macroinvertebrate Collection
57
\\nrford12ds1\RPI\RPI_RAID\Water\WaterSampleFieldNotebook.Placeanothercopyintheappropriatestreamtargetfolderhere:\\nrforbofs06\RPI\Monitoring\MonitoringProtocols\Water\StreamTargetFolders
ScantheWaterQualityNetworkHabitatAssessmentDatasheetasaPDFand
placeintheappropriateplaceinthestreamtargetfolder.Namefollowingtheformat“StreamName_WRDSStreamCode_FieldSheet_YYYYMMDD”(e.g.AbesFork_23492_FieldSheet_20141126)
Downloadreachpicturesfromthedigitalcameraandplaceinappropriateplace
inthestreamtargetfolder FORDEP’SREFERENCE:Placeacopyofthescannedfieldnotesaswellasa
copyoftheHabitatAssessmentDatasheetatthefollowinglocation:\\Epenegfs01\Standards\DCNR_Monitoring.Placethecopiesintotheappropriatestreamfolder.Ifthefolderdoesnotexistcreateone,namingitwiththestreamnameand5‐digitWRDSstreamcode(e.g.AbesFork_23492).
Water Quality Monitoring‐Benthic Macroinvertebrate Processing
58
Benthic Macroinvertebrate Processing
Purpose Samplingforbenthicmacroinvertebratestoassesswaterqualityhasbeenstandardpracticeintheglobalwaterqualitymonitoringindustryfordecades.BiometricslikethePADEPIndexofBioticIntegrity(IBI),ShannonDiversity,HilsenhoffBioticIndex(HBI),theIndexofBioticAcidification(IBA),theFunctionalFeedingReferenceCondition,andmanyothers,arepowerfulstatisticaltoolsusedtoassessmultiplecomponentsofastream’slong‐termwaterqualityasexpressedinitsbiologicalcommunity.BecauseaquaticinvertebratesareexcellentindicatorsofwaterqualityandareroutinelysampledaspartofPennsylvania’svariousongoingwaterqualityassessmentprograms,theDCNRwillcollectbenthicmacroinvertebratesregularlyaspartofourmonitoringprogramstoassesstheattainmentofaquaticlifeusesinareaswheremonitoringisdeemednecessary,suchasinshalegasareasortotrackAMDremediationefforts,forexample.ThemethodtheDCNRusestocollecttheseorganismsisdescribedintheBenthicMacroinvertebrateCollectionprocedure.Thisproceduredescribeshowthesesamplesaresub‐sampledandprocessed.
Equipment Needs Anunprocessedmacroinvertebratesample,properlycollectedandstored 14”x8”x2”minimumsizelaboratorypangriddedinto282”x2”squares Asecondlargewhitepan;doesnotneedtobegriddednorbethesamesizeas
first WideMouthedFunnel StandardSieveNo.35(500micron) Randomizednumbergeneratingsystem1to28(e.g.numberedpaperslips) Forceps Turkeybaster Utilitytypeknife Nettedscoop Gridcutterswithinsideareaof4in2 (2‐3)125mlbottles Diluteddenaturedalcohol(Approx.125mLpersample,ifdoingapanscan) Handheldcounter Thermobottlelabels,orotherstickylabel Clearpackagingtape Paper/pencil Microscope
Water Quality Monitoring‐Benthic Macroinvertebrate Processing
59
Procedures
Preparing Sample Thecompositedsampleisplacedina28‐squaregriddedpantoprepareforsub‐sampling.
Whentransferringbugsamplesandstreamcontentsfromsamplejar(s)tothegriddedpanforprocessingalwaystakespecialcarenottoloseanybugsintheprocess!
DrainSample
Gathersamplejar(s)fromagivenstreamreachandtaketoasinkwitha19Lcarboyforstoringusedalcohol,widemouthedfunnel,No.35sieve.Thesinkshouldhavesomesortofnozzletypesprayerequippedonit
Placethefunnelintotheusedalcoholcontainerandpositionsieve,centeredoverfunnel
Beginpouringthealcoholfromthesamplejarthroughthesieve(viathewidemouthedfunnel)intotheusedalcoholcontainer.Somestreammaterial(bugs,leaf/wooddebris,gravel,etc.)mayfallintothesieveaswell.ThisisOKbutthemaingoalofthisstepistoremovethealcoholfromthesamplejar
Whenmostofthealcoholhasbeencapturedfromthesamplejar,sittheusedalcoholcontainerandfunnelaside.Replacecaponcarboy
Emptymajorityofremainingstreamdebrisfromsamplejar(s)intothesieveasitsitsinthesink.Delicateuseoffingerscanbeusedtodislodgelargercontents
Rinsesampleandtransfertogriddedpan
Whensievebecomesfull,gentlyrinseallcontentsinthesieveusingthesinknozzle.Thegoalistoremovemuchofthefinesedimentfromthesample,toaidinlaterbugprocessing
Beverycarefulnottousetoomuchwaterpressurewhenrinsing,andpotentiallylosebugspecimens
Dumprinsedcontentsfromsieveintogriddedpan
Continueemptyingandrinsingcontentsfromthesamplejar(s)untilthejarsarecompletelyempty.Asmallamountofwatersprayedintothesamplejar(s)anddumpedquicklycanremovethelastbitofstreamcontents
Water Quality Monitoring‐Benthic Macroinvertebrate Processing
60
Oncethelastofthecontentsfromthesamplejar(s)areintothesieve,gentlyrinseasbefore,workingthecontentstoonesideofthesieveforafinaldumpintothegriddedpan
Toremovelastbitofcontentsfromthesieve,flipoverandgentlyspraythroughscreentodislodgelastpiecesintothegriddedpan
Carefullylooksieveoverbeforesettingasideforanyremainingbugspecimens.
Placeanyfoundintogriddedpan.
Topoffgriddedpanwithenoughwatertojustcoverallsamplematerialinthepan
PlacingGridCutters
Gentlystirthegriddedpantodispersethecontentsevenlythroughoutasthoroughlyaspossible.
Thegoalhereistohaveallbugspecimensequallydistributedsothat,asnearlyaspossible,eachgridcontainsapproximatelythesamenumberofbugs.Ifyounoticeseveralofthesametypeofinsectclumpedtogether,itisOKtomanuallydispersethemthroughoutthepan
Onasheetofpaper,recordtoday’sdate,sub‐samplername,andallinformationfromthelabelonthesamplejar(s).Remember:thisshouldincludethedate(yyyymmdd),time(localmilitarytimetomatchkickingtime)andtheCommonwealthidentifierofthecollector(e.g.,20141126‐1300‐roryder)
Randomlypull(8)numbersfrom28numberrandomsetandrecordthesenumbersonthesheetofpaperaswell.
Itisimportanttorecordthesenumbersintheordertheywerepulled!Thiswillbetheorderyousamplethegridsuntilyoureachthetargetedsub‐sampleofatleast220bugspecimens.Somestreams(i.e.acidifiedstreams)mayrequiremorenumberstobepulledandgridstobeanalyzedwhichcanbedonelater,ifneeded.
Place8gridcuttersinthegriddedpan,centeredinthegridscorrespondingtothenumberspulled.Gridsshouldbenumberedonthepansidesstartingatthe#1gridinthetopleftcornerofthepan,proceedingacrosstotheright,thendownandacrossagainuntilthe#28gridinthelowerrightcornerofthepanisreached.Noneedtousecuttertopushdownthroughdebrisatthistime,simplyplaceinthepan(Figure2.9)
Water Quality Monitoring‐Benthic Macroinvertebrate Processing
61
Figure2.9Panwithfourcuttersplaced
Sub-sampling Takeasecondwhitepan,neednotbegridded,andfillwithapproximately1\2”
ofcleantapwater
Filla125mLbottleapproximately1\2waywithdilutedalcoholandtightencap
Anyalcoholthatbugspecimensarestoredinaftersorting,toprepforlateridentification,shouldbelessthan100%cleanalcoholbutgreaterthan70%.Bugspecimenscanbecomedehyrdratedandimpossibletoidentifyifleftinpurealcohol.Used“dirty”alcoholorpurealcoholdilutedwithsomewatercanbeusedinthe125mLsamplebottlesaslongasthealcoholisatleast70%. Filloutthebugsampleinformationfromtheoriginalsamplejar(s)onanother
stickylabel.Placelabelonthe125mLbottlewithalcohol.
Backatthegriddedpan,beginningwiththefirstnumberpulled,usethegridcuttertocutdownthroughalldebrisinthegrid.Pushstraightdownonthetopofthegridcutteruntilcutteredgecontactsthebottomofthepanandtwistgridcutterinplace
Whileholdingdownonthegridcutter,usetheutilityknifetocutaroundtheinsideedgeofthegridcutter,severingallstreammaterialfromtheoutsideofthegrid
Useforcepstoremovemostofthestreammaterialfrominsidethegridcutter.
Placeremovedmaterialintotheun‐griddedcleanwhitepan Useanettedscoopandturkeybastertoremoveadditionalfinestreammaterial
Water Quality Monitoring‐Benthic Macroinvertebrate Processing
62
Thoroughlyinspecttheinsideofthegridcuttertoensureallbugspecimenshavebeenremovedfromthegrid
Fromtheun‐griddedpan,pickallidentifiablebenthicmacroinvertebratesfrom
thecutgrid.Place“picked”bugsintothe125mLlabeledbottle,filledapproximately1\2waywithalcohol
Itisrecommendedtoplacethelabeledbottleinanunusedgridcutter.Thiswillhelptopreventspillagefromaccidentlybumpingthesamplebottlewhileworking.
Aftereachbugisdroppedintothe125mLbottle,besuretotallyitonahandcounter
Include‐ Allbenthicmacroinvertebrates(entirespecimenispreferredbutjustthe
headofaspeciesdoes“count”andshouldgointhejar)‐ Abdomensshouldbeincludedbutshouldnot“count”towardsthe220target‐ Crayfish‐ Beetles,unlessobviouslyterrestrial‐ Worms‐ SmallfishspeciesandsalamandersDONOT“count”,butshouldbeputinto
thePanScanbottle(seePanScansectionbelow)‐ Whenindoubt,includeinthesamplejarbutDONOTCOUNT.Only
legitimatebenthicaquaticorganismsshouldbe“counted”
Exclude‐ Terrestrials(e.g.ants,wasps,houseflies,caterpillars,spiders,etc)‐ Adultaquaticinsectsthatdonot“live”inthewaterduringtheiradultstage,
usuallywithwings(ifunsure,includebutdonot“count”)‐ Othernon‐benthictaxasuchaswaterstriders‐ Exuviaeoremptyshellsorcase
Whenindoubt,adissectingmicroscopecanbeusedtoconfirmwhethertoincludeaquestionableitemwiththesub‐sample
Ifpossible,haveanotherpersonlookthroughthepanforbugspecimensthat
mayhavebeenmissedbyinitialsampler.Eyefatiguecanbeanissue,andafreshsetofeyescanhelppickoutthelastremainingbugspecimensfromagridsample.MAKESUREALLGRIDSRECEIVEACONISITENTLEVELOFSCRUTINY.(i.e.eachgridshouldbecheckedbythesamepeopleifmultiplepeopleareworkingonasample)
Water Quality Monitoring‐Benthic Macroinvertebrate Processing
63
Oncethecontentsfromonegridcutterhasbeenthoroughlyscannedforallbugspecimens,discardallcontents,rinsepan,andfillwithapproximately1\2”ofcleantapwatertoprepareforanothergridto“pick”
Gridswillcontinuetobe“picked”accordingtotheordernumberswerepulleduntil220bugspecimensarerealizedANDaminimumoffourgridsareanalyzed.Forlessfertileorpollutedstreams,additionalgridsmaybeneeded.Continuetosamplegridsuntiltargetedsub‐sampleisreached.Lessthan220isundesirableassomespecimens“picked”maybedeterminedunidentifiablelater.TheFINALtargetnumberofidentifiedbugsfromeachstreamis190‐210.
Attheconclusionofeachgrid,recordthenumberofspecimens“picked”nexttotheappropriatenumberforthegridonthesheetofpaper.Ifthesamplewasdistributedproperly,gridsshouldhavesimilaramountsofbugspecimensrealizedineach.
Whenfinishedsub‐samplingallnecessarygrids,addupthenumberofbugspickedfromeachgridandtotalatthebottom
Ifevertheamountofmaterialcompositedinthesamplejarsexceedsthefunctionalsortingcapacityofonepan,evenlydistributethematerialbetweenasmanypansasnecessary(Pan1,Pan2,etc.).Fromeachpan(Pan1,Pan2,etc.),removedebrisandorganismsfromthesamefourrandomgridsandplaceinthesecondun‐griddedpanasdescribedaboveandproceedasnormal.
If<400bugspecimensarerealizedafterpickingtheminimum4grids,placeclearpackagingtapeoverthelabelonthe125mLbottlecontainingthebugsandproceedtothePackagingforIdentificationsectionbelow.If≥400bugspecimens,proceedtoAdditionalSub‐samplingsectionbelow.
Additional Sub-sampling Shouldtheminimum4gridsanalyzedyield≥400bugspecimenspicked,additionalsub‐samplingwillberequiredforthefinalidentificationofthebugspecimenstobecompleted.Ifthisisthecaseforasample,followtheproceduresbelow.
Gatheranadditionalempty125mLbottlewithcap
Usingascreenedfunnelinsertedintotheempty125mLbottle,pourthecontentsofthe125mLbottlecontainingthepickedbugsthroughthescreenedfunnelsothatthebugsarecollectedinthefunnelandthedilutedalcoholisdepositedintotheemptybottle(ifwaterwasusedinorginalbottlesimplydumpcontentsintogriddedpanandfilladditionalemptybottle½waywithalcohol)
Water Quality Monitoring‐Benthic Macroinvertebrate Processing
64
Rinsethebugsinthefunnelgentlywithwatertorinseoffalcohol.RINSEWELLASTHISWILLENSURELESS“BUGDRIFT”INADDITIONALSUB‐SAMPLE.
Emptycontentsofthescreenedfunnelintoanempty28griddedpanandevenlydistributebugs.
Thereshouldbeenoughwaterinthepansothatthebugscanbeeasilydistributed,butnotsomuchthattheyfreelymovebetweengrids.Watchyourbreathingandfordrafts.
Fromthethe28numberedset,randomlypullanumber,setaside,andbegin
pickingthebugsfromthatgrid,keepingatotaltallyofthebugsasyougoandplacingtheminthenewbottlecontainingthealcohol.
Abugonlycountsifitsheadisinsidethegridoristouchingthegridline.Workquicklytominimizebugdrift.Remembertowipetweezersafterdippinginthealcoholandbeforereturningtothepantominimizebug“scattering”.
Afteryoufinishpickingthefirstgrid,assumingyourtallyofbugsis<220,pullanothernumberfromthe28numberedsetandcontinuepickingfromthatnumbergridyoujustpulled.
Pickingwillcontinueinthismanneruntilthetargetisreached.AssoonasagridisfinishedbeingpickedANDthenumberofbugsyouhavepickedexceeds220youcanSTOP!
Next,labeltheNEW125mLbottle(containingthebugsyoujustpicked).WritethesampleID,streamname,numberofgridsinitiallyandthenthenumberofgridsfromthesecondsub‐sample(e.g.“GridsP1‐4:P2‐8”).Writethissamethingonthesheetofpapercontainingtheoriginalsub‐sampleinformation.
Whenyou’vepickedyourgrids,drainthewaterfromtheextrabugsinthegriddedpanusingthescreenedfunnel.EmptythebugsfromthescreenedfunnelintotheORIGINAL125mLbottlebyrinsingwithdilutedalcohol.Usetheturkeybasterinconjunctionwithalcoholifneeded
Onceallbugsarerinsedfromthefunnelusingthedilutedalcohol,addadditionaldilutedalcoholtothebottleifneeded(shouldbe~1/4to1/2wayfull).WriteonthatORIGINALbottle“Extrabugs”.Addthisinformationtotheexistinglabelifpossibleorapplyanewoneandcoverwithclearpackagingtape.
Water Quality Monitoring‐Benthic Macroinvertebrate Processing
65
Numberofbugspickedpergridforsecondsub‐sampleneedNOTberecorded.Justtotalnumberofgridspulled
Placethelabelonthebottleandcoverwithclearpackagingtape
KeepthesetwobottlestogetherwhenyouprovidethemforIDalongwiththe
sheetofpaper
Packaging for Identification SampleswillbeidentifiedbyanexperiencedaquatictaxonomistfromthePADCNR,PADEP,oranindependentcontractedexperttotheappropriatetaxonomiclevel.
Takethesheetofpaperusedtorecordgridnumberspulled,numberofbugspecimensineachgrid,etcandfoldsothatitcanbewrappedaroundall125mLbottles
Tapethesheetofpaperaroundthesub‐samplebottlessothatallinformationcanbekepttogetherfortheentomologist
Keepstoredinatemperaturecontrolledenvironment,awayfromsunlight,until
thesamplecanbehandedovertoanentomologist
Quality Control Afterthepickingofagridhasbeencompleted,thepanresidueshouldbebriefly
scannedbyanotherpersonbeforediscardingtoassurethatthesampledgridshavebeensufficiently“picked.”MAKESUREALLGRIDSRECEIVEACONISITENTLEVELOFSCRUTINY.(i.e.eachgridshouldbecheckedbythesamepeopleifmultiplepeopleareworkingonasample)
Data Management SeePackagingforIdentificationabove.
Pad Monitoring
66
Chapter 3 Pad Monitoring
Pad Monitoring‐PCSM
67
Pad Infrastructure and Post Construction Stormwater Management (PCSM)
Purpose ThepadinfrastructureandPostConstructionStormwaterManagement(PCSM)procedurewillbecarriedoutonallnon‐conventionalshalegasrelatedpadsafterthepadconstructioniscompleteandforthe5permanentsamplingwellpadstoassesspadconstructionandPostConstructionStormwaterManagment.Timingis2‐phaseandshouldbecoincidentwiththeoverlapofmostherpbreedingperiodsinordertocaptureherpimpacts.ThefirstrecordingshouldbeinmidtolateApril.Afollowupvisitshouldcheckandrecordthepresenceofpersistentwaterandthepresenceandcondition(desiccated,absence)ofeggsorlarvaeinlateJune–earlyJuly.
Equipment Needs PostConstructionStormwaterManagementDatasheet PCSMplanifavailable–checksharepointwebsite GPS,PencilorPen LaserRangefinder Compass Clinometer Camera SlopeSticks,ofequalheight
Procedures Filloutthedatasheetinthefollowingmanner;
1:District(#) E.g.FD09
2:Tract(#) Recordthenumberofthetractwhichcontainsthepadorfeaturebeing
assessed
3:Pad(ID) RecordthePadID
4:Surveyors Recordthelastnamesofthepeoplewhoareconductingthesurvey
5:Date Recordthedatewhenthesurveyiscompleted
Pad Monitoring‐PCSM
68
6:PermitType(NPDES,ESCPG1or2) Leavethisblank
7:PadType Checktheboxthatrepresentsthetypeofpadthatisbeingassessed GasWell(s) Monitoring Compressor Impoundment Metering/TapSite StorageSite WasteWaterTreatment Other(writeadescriptionofthepadtype)
8:SiteStageinTime Checktheboxthatrepresentsthestageoftimeinthedevelopmentofthe
pad
Stage Description
1.DevelopedSite Thesiteisbeingusedforgasactivities.Constructionworkrequiredtopreparethesitefortheintendedpurposehasbeencompleted;ex:Landiscleared,graded,andthestonefortheworkingsurfaceisinplace
2.InterimRestoredSite Thepadisstillcarryingoutitsintendedfunction(ex:wellpadisstillproducing)
Notreceivingactiveconstruction
Topsoilaroundthepadispushedbacktotheoriginalgrade
Padsizemaybereducedtoasmallersize
3.PermanantlyRestoredSite
Broughttoauseotherthananaturalgaspad
4.Other Anystagethatdoesnotfitoneofthepreviouscategories–describethestage
Pad Monitoring‐PCSM
69
9:GPSInformation
PadPerimeter Indicate“Yes”ifthecurrentperimeterGISlayerisnotaccurateandis
beingcorrectedinthefield Indicate“No”ifthecurrentperimeterlayerisnotbeingcorrectedinthe
field;whetheraccurateornot PadAcreage–Leavethisblank–itwillbecalculatedafterthesurvey
PadCenter*ForsloperelatedtoMonitoring,Staging/StorageorWellpadsonly
Usingthelongestcornertocornerdistanceonthepad,measureandfindthepadcentero Indicate“Yes”ifPadCenterisGPS’d–recordcoordinateso Indicate“No”ifPadCenterisnotGPS’d
10:PadSlope.*ForsloperelatedtoMonitoring,Staging/StorageorWellpadsonly
FromthePadCenter: Startingwiththedegreeclosestto“0”degreesnorth(PC1).Takea
compassreadingtothenearestdegreeandassociatedclinometerreading,tothenearestpercent,fromthePadCenter(PC)tothecenterofeachofthesidesatthePadEdge(PE).Usetwosticksofequalheighttoshootslope.o Photographthislineshowingthepadsurfacefromthepadcenter
ONLYifsignsofpoolingwaterarepresent. FollowingthesameazimuthfromthePadCenter,takeasecond
clinometerreadingfromthePadEdge(PE)totheedgeofthemodifiedcutorfillslope.o (1)PhotographthislinefromthePadEdge(PE)totheedgeofthe
modifiedcutorfillslope,orLOC.o (2)Photographthisedge(profile)fromthepadcornerinaclockwise
directionstartingfromthecornerleftofthestartingazimuthcapturingtheN,E,S,Wedgesrespectively.
11‐1:First(1st)AssessmentofPCSMBMPs(April‐May) ChecktheboxintherighthandsideofthepagewhenaspecificBest
ManagementPractice(BMP)ispresent.CheckanyofthecategoriesofBMPsthatarepresentonthesite.Inthe“Notes”sectionofthedatasheet,indicateifthereareanydifferencesfromthePCSMplanforthepadwithwhatisactuallyontheground.Planscanbelocatedintheprojecttrackingsharepointsitefornewerprojects.(http://nrsharepoint/parksandforestry/forestry/pads/SitePages/Home.aspx)
Pad Monitoring‐PCSM
70
BMPType Description
Swale Vegetative Abroadchannelplantedwithvegetationdesignedtoslowdowntheflowofsurfacerunoffwaterandallowittoinfiltrate
Rock‐lined Sameasavegetativeswale,exceptitislinedwithrockinsteadofvegetation
Check‐dam Amoundofsoilorrocklocatedintheswaleperpendiculartothelengthoftheswalewhichservestoslowdowntheflowofwater
Other Anyothertypeofswaleorfeatureinaswale–writeadescription
SwaleUse Conveyance Featureisusedprimarilyto“convey”or“transport”watertoanotherinfiltrationstructure.
Infiltrationtrench
Featureisusedprimarilytocaptureandinfiltratewater.
InfiltrationBasin Aconstructedbasindesignedtotemporarilystoreandinfiltraterunoffwater.Thesemayormaynotcontainwater–indicatetheconditionbycircling“wet”or“dry”onthedatasheet.
RainGarden ARainGarden(alsocalledBioretention)isanexcavatedshallowsurfacedepressionplantedwithspeciallyselectednativevegetationtotreatandcapturerunoff
Channels DiversionChannel
Alongandnarrowdepression(ditch)whichcollectsandre‐directssurfacerunoffwaterandallowsittoflowinaconcentratedmannertowardsanotherrunoffwaterfeaturesuchasaninfiltrationbasinoravegetativefilterstrip.
Berm Anarrowandshortmoundofsoilwhichfunctionsthesameasadiversionchannel–itdiffersinthatitisraisedupratherthandugout
Sheetflow
*ONLYindicatesheetflowifitistheonlyPCSMdevice/strat‐egyforanentiresideofthepad.
Sheetflow
Sheetflowisthedown‐slopemovementofrunoffwaterinanevennon‐concentratedmanner
RockDissipater
Aslopedarealinedwithstonewhichservestoslowdowntheflowofwaterasitpassesovertherockdissipater.
VegetativefilterStrip
Aslopedareaplantedwithvegetation–theplantsactasafiltertoremoveanypollutantscontainedinthewater
Other Anyothersheetflowfeature–writeadescription
Pad Monitoring‐PCSM
71
KeyedEdge CutorFillBankisbuiltuptothetopedgeofthepadgraduallyratherthanbeinganabruptdropoff.
Edge/bankerosion
Separationandtransportofmaterialinwaterfromthepadedgeorfrombank.
Other ThislistdoesnotincludeallpossibleBMPfeatures.IfthereissomeothertypeofBMP,checkthisboxandwriteashortdescriptionofwhatyouseeandtakeanynecessaryphotographs.
VegetativeCover Visuallyestimatehowmuchofthedisturbedarea(notincludingthecompactedstonecoveredarea)isvegetated.ChecktheboxifthevegetativecovermeetsDEP’s70%requirementandselecttheclosestpercentcover:0‐10%,10‐30%,30‐50%,50‐70%,70‐90%,90‐100%
PCSMFunction ChecktheperceivedfunctionoftheFeature(whetheritisbeingusedas
aconveyanceorforinfiltrationetc) CheckwhetheranyofthePCSMfeaturesareholdingwaterorhas
recentlyheldwaterandshowonsketch. CheckifthePCSMFeaturewasnotadequatetosequesterorinfiltrate
stormwater(overflow)
WildlifeUse Checkwildlifeuse;lookforsignsofherps,invertebrates,eggmasses,
spermataphores,tracksetc.andindicateonthedatasheet Photographanypresenceorsignandincludeinthephotolistandfiles.
11‐2:Second(2nd)AssessmentofPCSMBMPs(June‐July) ApplicableforFollow‐upassessments ANYPADSSURVEYEDDURINGTHE1STASSESSMENT(April‐May)THAT:
a) HavePCSMfeaturesthatareholdingwaterANDb) Containeggmasses/spermataphoresWILLREQUIREAFOLLOW‐UPVISIT(June‐July)
PadEdgeKeyed‐in
PadEdgeNOTKeyed‐in Edge Bank
Pad Monitoring‐PCSM
72
Revisitthesepadsandre‐evaluatethePCSMBMPfeaturesthatappliedtotheaboveduringthefirstassessment.Usethesame(original)datasheettoindicatefindings.
12:Photos PhotographPCSMfeaturefromanyanglenecessarytoshowimportant
featuressuchas; Waterentrypointfrompad Currentorpastwaterheight Sedimentdeposits Overflowfeatures Wildlifeuse(presenceofHerps,eggs,spermataphores,tracks,etc)
Takephotographsofanyfeaturesthatareimportant,unusual,orunknown,
oroffeaturesthatcannotbeadequatelyexplainedusingwords.
Onthedatasheet,identifywhatfeaturethepictureisof.Besuretomarkonthesketchthelocationandorientationofthesephotos.
ChecklistforPhotos:
ThefollowingarephotosneededthatDONOTneedplacedonsketch:o Padslopeline*(onlyifsignsofpoolingwaterexist)o BankslopefromPadEdge
ThefollowingarephotosthatDOneedplacedonsketch:
o ProfileofPadEdgefromcornerso PCSMfeatures o Additionalphotosasneeded
13:Notes RecordanyPCSMfeatures“ontheground”thatarenotconsistentwiththe
PCSMplan. RecordknownrecentrainsthatmayaffectcurrentpooledwaterinPCSM
andestimateddayssincethatrainfall. Recordanyotherrelevantinformationaboutthepadthathasnotbeen
previouslydocumented.
14:SketchofSite DrawasketchmapofthewellpadintheprovidedspaceontheDataSheet. Themapshouldbeorientedsothatnorthisatthetopofthepage. IncludetheFollowingfeatures:
o Anoutlineofthepad
Pad Monitoring‐PCSM
73
o Asketchoftheaccessroadandanyotherroadsrightaroundthewellpad
o Sketchofgasinfrastructureonandaroundthepado Locationofanygasrelatedsignso LabeledrepresentationsofallBMPsyouhaveindicatedinItem11ofthe
DataSheeto Arrowsindicatingthedirectionofwaterflowfromthepadcenterand
throughthedifferentPCSMfeatureso Locationofthecameraforphotosandthedirectionitwasfacing.*Note:
PCandPEphotosdonotneedtobedepictedonthesketchastheseareknownlocations.Examplebelowisforreferenceonly.
Example:Photo1wouldberepresentedwith“P1”drawnonthemapinthespotwherethephotographerwasstandingandanarrowwouldbedrawnfromthatspotouttowardsthelocationofthefeaturebeingphotographed.
o Linesdepictingazimuthandslopefromthepadcenterpointtotheedgeofthepad.(shoulddepictdirectionofwaterflowasoutlinedabove)
o ExtendedLinesdepictingazimuthandsideslopefromtheedgeofthepadtothebottomofthefillbankortopofthecutbank.(shoulddepictdirectionofwaterflowasoutlinedabove)
o Anyotherfeaturesornotesimportantfortheunderstandingofthepad
Access Rd
Well HeadsDe-Hy
Vegetated Swale – “infiltration”
LOC
PC
Tanks
Rock Lined Ditch
Check Dams
Woodfrog Egg Mat
0o ‐2%
90o ‐1%
180o +3%
270o ‐1%
0o ‐10%
90o ‐9%
180o +15%
Sheetflow
270o ‐2%
Rock Lined swale - conveyance
Infiltration Basin
Cross Pipe
overflow
Bank Erosion
Edge Erosion
PE0‐cnr PE90‐cnr
P2
P1
Access Road
PE180‐cnr
PE270‐cnr
P3
P4
P5
N
Pad Monitoring‐PCSM
74
Data Management Scanthefrontandbackofsheet.
Namethefile:
o Tract_PadID_YearofAssessment.pdf Ex:285_C_2013.pdf
Namethephotos:
o Tract_PadID_PhotoName_YearofAssessment.JPG Ex:285_C_P1_2013.JPG
o Forslopephotos(PadCenterorPadEdge)namethephotousingthetract
ID,padID,andlocationabbreviationandazimuth.PadEdgewillhave2photos,onefromtheedgedownthebankandonefromthepadcorner.NamethephotofromthecornerusingthesameprocessabovewithHyphen‐cnr. Ex:PadCenter
285_C_PC90or285_C_PC180etc.
Ex:PadEdge285_C_PE90or285_C_PE180etc.
Ex:PadEdge(fromthepadcorner)285_C_PE90‐cnror285_C_PE180‐cnretc.
Photosgointhefolder\\nrford12ds1\RPI\RPI_RAID\Well_Pad_SamplingwiththescannedcopyofthedatasheetandacopyofthePCSMplanforthepadifavailable.Besuretoplacedatainthefolderfortherelevantyear.
GiveanyGPSeditsofexistinglayerstoGISspecialist
Pad Monitoring‐Well Pad Vegetation Assessment
75
Well Pad Vegetation Assessment
Purpose Thepurposeofthisprotocolistoprovideameanstocollectbasic,observationaldataoncompletedwellpadswithinthestateforest.Datawillbecollectedregardingpresenceofinvasiveplantspeciesandplantcommunitycomposition.Therearetwotypesofwellpadvegetationassessments:
1)WellPadWalkaboutInvasivePlantSurveys–thesesurveysinvolvecanvas‐stylesurveysonlyforpopulationsofinvasivespeciesalongwellpadedgesandwellpadaccessroads.Thesesurveysaredesignedsothateverywellpadonstateforestlandisvisitedona3yearrotation.Noadditionaldatacollectionbesidesthewalkaboutsurveysareconducted.
2)PermanentWellPadVegetationCommunityAssessments–At15wellpadlocations,additionalsamplingofthevegetationcommunitiesatthewellpadedgeandintheadjacentforestwilltakeplace.Permanentmilacreplotswillbeconstructedandre‐visitedovertimeonathreeyearrotation.Inaddition,walkabout‐stylesurveyswilltakeplacealongthreesidesofthewellpadtodocumentanynativespeciescolonizingthedisturbed/reclaimededge.
Equipment Needs TabletComputer GPS Dataforms FieldGuides,IDmaterials,andhandlens Compass 100ftdiametertape Plasticbagsforplantspecimens Oakstakes,formarkingplotcenterofpermanentplots Mallet,forplantingstakes Barkscribe,formarkingreferencetrees Camera,forphotodocumentationpurposes
Procedures Recordthefollowinginformationateachwellpadsurveyedforbothwalkaboutsandpermanentplotassessmentstudies.
o District
RecordthenumberoftheStateForestDistrictinwhichthepadislocatedo Tract
Recordtheleasetractnumberinwhichthepadislocated
Pad Monitoring‐Well Pad Vegetation Assessment
76
*Thisnumbercanbefoundintheattributestableofthewellpadshapefileunder“Tract_ID.”
o PadNumberRecordtheidentifyingpadnumberforthepad*Thisnumbercanbefoundintheattributestableofthewellpadshapefileusuallyunder“Pad_Label.”Thisisusuallyaletteroranumber.
o SurveyorsRecordthelastnamesoftheindividualsperformingthevegetationsurvey
o DateRecordthedatewhenthesurveyiscompleted
o PadtypeIndicatewhattypeofpadisbeingsurveyedofthefollowingcategories: Well Compressor Other
o OperatorRecordthenameofthecompanyoperatingthewellpad*Thiscanbefoundinthewellpadshapefileunder“Ownership”oronthesignatthewellpad
o NumberofWellsperPadRecordthenumberofwellsorwellheadsdrilledonthepad.
Well Pad Invasive Walkabout Beginningattheentrancetothewellpad,theentireedgeofthewellpadandanyadditionalareaofdisturbancearoundthepadwillbewalkedandexaminedforpresenceofinvasiveplantspecies.Ifthepadisbeingvisitedonlyforaninvasivesurvey,besuretousethePadInvasivesWalkaboutDatasheet.
CollectandrecordthefollowingitemsonthedatasheetortabletcomputerforeachspeciespresentintheWellPadWalkaboutsection;
InvasiveSpeciesFound
RecordthespeciescodeofthespeciespresentRecord“NoInvasives”ifnoinvasivespeciesarepresent
CertainID?Indicate“Yes”ifthespecieshasbeenconfidentlyidentifiedIndicate“No”iftheidentityoftheplanthasnotbeenpositivelyidentified
PopulationSizeEstimatethenumberofindividualplantspresentatthewellpadsiteusingthefollowingcategories;o 1‐5(Trace)o 6‐25
Pad Monitoring‐Well Pad Vegetation Assessment
77
o 26‐50o 51‐100o 101‐500o 501‐1000o 1000+
AnyinvasiveplantspeciesfoundthatisontheEDRRlistmustbedocumentedandtreatedornotedfortreatmentbasedonEDRRprotocolsfoundinthismanual.Ifanyunknownspeciesappearstobeactingaggressivelyoriswidespreadatthesite,asampleshouldbecollectedandpressedforfurtheridentification.Allotherunknownspeciesshouldbecollectedforfurtheridentificationbythefieldstafforspecialists.
Access Road Invasive Walkabout Survey Theconstructionofaccessroadspresentsavectorfortheintroductionofinvasiveplantspeciesfromexistingroadwaysontothewellpadlocatedwithininteriorforesttracts.Toaddressthispotentialproblem,theaccessroadwillbesurveyedforthepresenceofnewlyestablishedinvasiveplantspecies.Thisshouldbeconductedduringthecourseofeverypadvisit.TheentireaccessroadshouldbesurveyedfromthewellpadedgebacktothefirstintersectionwithastateforestZ1,Z2orZ3road.
CollectandrecordtheinvasivespeciesinformationfortheaccessroadintheAccess
RoadWalkaboutsectionusingthesamemethodsastheWellPadWalkaboutsection.Besuretoclearlydifferentiateontheformeachinfestationthatislocatedonanaccessroadratherthanawellpadedge.
Permanent Plot Vegetation Sampling Milacre(1/1000acre)plotswitha3.72footradiuswillbeusedtocollectgroundfloradataaroundthewellpads.Threesidesofthewellpadwillbesampled,leavingoutthesideofthepadwheretheaccessroadentersthepad
Startingattheaccessroadentrance,facingintothewellpad,proceed
clockwisearoundthewellpadtothefirstpadside.Thiswillbe“WellPadSideA”
Visuallylocatethemidpointofthesidestobesampled.Thispointwillserveasthelocationforwalkingoffthepadtothevegetationplots.
Fromthemidpoint,measureandwalkperpendicularlyawayfromtheedgeof
thepadworksurface25feet.Thisbecomestheplotcenterforthefirstmilacreplot(sideA,plot1).
Takecarenottodisturbthevegetationonandaroundthisspot.
Pad Monitoring‐Well Pad Vegetation Assessment
78
Ifvisitingtheplotforthefirsttime,recordtheGPScoordinatesofplotcenter,
putinastakeattheplotcenter,thenflagthestake.Thedistance,azimuth,DBHandspeciesoftheclosestoverstorytreetotheplotcentershouldalsoberecorded.
Oncetheplotcenterhasbeendetermined,collectandrecordthefollowingvegetationdataaccordingtotheMilacreVegetationPlotProceduredescribedinthismanual.
Habitat/VegetationType VegetationData
HeightStrata Species CoverClass/StemCount
Oncethemilacreplotiscompleted,continuewiththefollowingsteps;
Ifplot1fallswithinHabitat/VegetationType1(UndisturbedForest),onlyonemilacreplotwillbesampledonthatsideofthewellpad.Ifplot1fallswithinadisturbedarea(Habitat/VegetationType2or3–NativeDisturbedorE&Svegetation)asecondmilacreplotwillbeestablished(sideA,plot2).
Toestablishtheplotcenterforplot2,continuewalkingthesametransectasforplot1untilreachingthelimitofclearanceforthepad.Fromthispoint,measure25feet(continuingonthesametransectintotheun‐disturbedforest)andestablishtheplotcenterforplot2.
Ifvisitingtheplotforthefirsttime,recordtheGPScoordinatesofplotcenter,putinastakeatplotcenter,thenflagthestake.Thedistance,azimuth,DBHandspeciesoftheclosestoverstorytreetotheplotcentershouldalsoberecorded.
Completetheplotusingthesameprocedureasplot1
Continuethisprocessontheothertwosidesofthepadtobesampled.ThesesideswillbeknownasSideBandSideC,respectively,clockwisefromSideA.
Generalcomments:RecordcommentsonanyunusualobservationsmadeatthewellpadintheGeneralCommentssectionsonthedatasheet.
Pad Monitoring‐Well Pad Vegetation Assessment
79
Native Species Colonization Walkabout Sampling (Disturbed edge) Ateachofthethreesidessampledusingmilacreplots,awalkabout‐stylesurveyshouldbeconductedtolocateanyPennsylvanianativeplantspeciesthatarecolonizingthedisturbedhabitatattheedgeofthepad.
Uponcompletionofthemilacreplotsoneachside,awalkaboutoftheentire
wellpadsideshouldbeconducted.Anynativeplantspeciesfoundonthedisturbedportionsofthewellpadsideduringthewalkaboutshouldberecorded,alongwiththeabundanceofthatspeciesontheside(1‐5(trace),6‐25,26‐50,51‐100,101‐500,501‐1000,1000+).
Non-Native Species Colonization Walkabout Sampling (Forest edge) Ateachofthethreesidessampledusingmilacreplots,awalkabout‐stylesurveyshouldbeconductedtolocateanyPennsylvanianon‐nativeplantspeciesthatarecolonizingtheundisturbedforestedgeandimmediateforestmarginattheedgeofthepad.
Uponcompletionofthemilacreplotsoneachside,awalkaboutoftheentire
wellpadsideshouldbeconducted.Anynon‐nativeplantspeciesfoundwithintheimmediateundisturbedforestedgeduringthewalkaboutshouldberecorded,alongwiththeabundanceofthatspeciesontheside(1‐5(trace),6‐25,26‐50,51‐100,101‐500,501‐1000,1000+).
Special Circumstances Padtoeslopes:
o Somewellpadsmayhavewidetoeslopesthatbeginimmediatelyattheedgeofthepadworksurface.Inthiscase,beginthe25‐footmeasurementtothefirstmilacreplotatthebaseofthetoeslope.
Milacreplotsplacedontheedgeofforesthabitat:
o Aftermeasuring25feetfromtheedgeofthepadworksurfaceortheedgeofatoeslope,itispossiblethatthemilacreplotcouldconsistofbothundisturbedforesthabitatanddisturbedvegetation(eitherE&Splantingordisturbednativevegetation).Ifthisoccurs,movethemilacreplotbackalongthetransectlinetowardstheedgeofthepadortoeslopeuntiltheentireplotisoutsidetheundisturbedforestedhabitat.Recordtheactualdistanceintheappropriatecommentssectiononthedatasheet.
Stumporrockpiles:o Itispossiblethatamilacreplotmayfallwithinormostlywithinarockor
stumppileontheouteredgeofawellpad.Ifthisoccurs,simplyrecordthepercentageoftheplotthatisintheappropriatemicrohabitatclass.
Pad Monitoring‐Well Pad Vegetation Assessment
80
o Onplot2;donotcompletetheplotifitfallsinastumppile.Moveitoutintoundisturbedforest.Recordthenewdistanceinthecommentssectionfortheappropriateside.
Data Management GPSpointswillbeputintheforester’sdatabackupfolderintheRPIRAIDand
theGISspecialistwillbenotifiedoftheirlocation.
Paperdataformswillbefileduntilrequestedbytheplantspecialists.
Pad Monitoring ‐ Well Pad Wildlife Habitat Assessment
81
Well Pad Wildlife Habitat Assessment
Purpose Thepurposeofthisprotocolistoprovideameanstocollectbasic,observationaldataoncompletedwellpadswithinthestateforest.Datawillbecollectedregardingwildlifehabitat.
Equipment Needs TabletComputer GPS WellPadVegetationAssessmentDatasheets Coverboarddatasheets,ifcollectingcoverboarddata FieldGuides,IDmaterials,andhandlens Compass 100ftTapeMeasure(intenthsoffeet) DiameterTape Camerawithfish‐eyelens(forcanopycoveranalysis) 10BAFPrism LaserRangefinder ReptileandAmphibianIDGuide 2”x10”x12”CoverBoards(4perpadside,12total) Oakstakes(12perpad–6forvegetationplots,6forwildlifehabitatplots)
Procedures Recordthefollowinginformationateachwellpadsurveyed;unlesscompleting
withaWellPadVegetationAssessmentandthisinformationisalreadycompletedo District
RecordthenumberoftheStateForestDistrictinwhichthepadislocatedo Tract
Recordtheleasetractnumberinwhichthepadislocated*Thisnumbercanbefoundintheattributestableofthewellpadshapefileunder“Tract_ID.”
o PadNumberRecordtheidentifyingpadnumberforthepad*Thisnumbercanbefoundintheattributestableofthewellpadshapefileusuallyunder“Pad_Label.”Thisisusuallyaletteroranumber.
o SurveyorsRecordthelastnamesoftheindividualsperformingthevegetationsurvey
o DateRecordthedatewhenthesurveyiscompleted
o OperatorRecordthenameofthecompanyoperatingthewellpad
Pad Monitoring ‐ Well Pad Wildlife Habitat Assessment
82
*Thiscanbefoundinthewellpadshapefileunder“Ownership”oronthesignatthewellpad
o PadtypeIndicatewhattypeofpadisbeingsurveyedofthefollowingcategories: Well Compressor Other
Forest Habitat Monitoring TwopermanentwildlifehabitatpointswillbeestablishedoneachSideA,Side
BandSideCofthewellpad,ignoringthesidewiththeaccessroad.Onepoint100feetfromthedisturbededge,andonepoint300feetfromthedisturbededge.
Startingattheaccessroadentrance,facingintothewellpad,proceedclockwisearoundthewellpadtothefirstpadside.Thiswillbe“WellPadSideA”
Unlesspadedgemidpointisalreadyestablished,locatethemidpointofthesidestobesampledontheworkable/pavedwellpadsurfaceusingthelaserrangefinder.Thispointwillserveasthelocationforwalkingoffthepadtotheplots.
Fromthemidpoint,measureandwalkperpendicularlyawayfromtheedgeof
thepadworksurfacetotheundisturbededge.Fromthispoint,measure100feetintotheundisturbedforestalongthesametransect.Thisplotwillbelabeledas“Plot3”foreachside.
Oncetheplotcenterhasbeendetermined,astakemustbeputintothegroundatplotcenterandtheGPScoordinatesmustbecollected.
Attheseplots,thefollowinghabitatdatawillbecollected:species,DBH,height(ft),andhealthof“in”treesusingtheprism;forestcovertype;canopycover;mid‐canopycover;basalarea(oflivetrees).
Recordthefollowinginformationforeachplot:
o CovertypeRecordcoveraseithermapleoroak.
o CanopyCoverUsingadigitalcameraattheplotcenter,determinethecanopycoverpercentagetothenearestpercent(usingcamerasoftware).
Photoshouldbetakenofthecanopydirectlyabovetheplotcenter.
Pad Monitoring ‐ Well Pad Wildlife Habitat Assessment
83
AttachtheFisheyelenstotheNikoncamera,makingsuretokeepalldirtanddustoutofthecameraandlens
Turnthecameraonandputittothe“NoFlash”modebyturningthedialonthetopofthecamera
Holdthecameraateyelevelsothatthelensispointingvertically
(holdcameraaslevelasyoucan,itisnotnecessarytousealevelortripod)andsothatthebottomofthecameraispointingduenorth.
Takeonephoto Lookatthephotoandmakesurethatitisacceptableandthatyour
headandyourco‐workersarenotvisibleinthephoto
Thebestphotos(mostusableones)aretakenoncloudydayswhenthereisalotofcontrastbetweentheskyandthecanopy.Dayswhentheskyisdarkblueandmiddaywhenthesunisbrightinthephotoarenotthebesttimestotakecanopyphotos.Thesoftwareneedscontrastbetweenskyandthecanopytogivethebestresults.Avoidtakingphotosattimesthatwillgivepoorcanopyphotos!
o Mid‐canopyCover
Usinganocularestimate,determinethemidcanopy(woodyvegetationunder15ftinheight)coverpercentage(0‐25%,25‐50%,50‐75%,75‐100%).
o Basalarea(BA)Countthenumberoflivetreesintheplot,multiplybyten,andrecordtheresultasthebasalareafortheplot.
Recordthefollowinginformationforeachtreedeterminedasatallytreebya
10factorprism.TheprismshouldbeheldatDBH(1.5mabovegroundlevel)ofthetreetodeterminetheactualdegreeofstemdisplacement:o Tree#
Numbereachtreesequentially,startingwiththefirst“in”treetotherightof0°North.ThiswillbeTree#1asitiscalledontheprismplot.
o SpeciesRecordthree‐digitcodeusingtheBOFInventoryspeciescodes.
o DBHMeasurealllivetrees1.5inchd.b.h.andlargerthatare“in”.Measurementofd.b.h.shouldalwaysbedonefromtheuphillsideofthetree.Measuretothenearestinch.
Incaseofirregularitiesatd.b.h.suchasswellings,bumps,depressions,branches,etc.,refertothe“SpecialDBHSituations”sectionoftheOverstoryPlotProcedure
Pad Monitoring ‐ Well Pad Wildlife Habitat Assessment
84
o Height(ft)
UsetheCriterion400lasertomeasuretotaltreeheightincludingtheone‐footstump.Followthelaser’sinternalprogramfortreeheights.
o OverstoryIsthistreeacomponentoftheoverstoryofthestand(YorN)?
o DeadoraliveRecordwhetherthetreeisdeadoralive(DorA)?
Asecondplotshouldbeputin200feetfromPlot3(300’fromtheundisturbededge)alongthesameazimuth.Thisplotwillbelabeledas“Plot4”foreachside.
Noteanyadditionalgasrelateddisturbancesencounteredalongthetransectwhilemeasuringoutplots3and4.RecordthiswiththehabitatdataontheWellPadMonitoringDatasheetusingthe“Notes”field.
Followthestepstakenatplot3abovetocompletedatacollectionatplot4.
Cover Board Installation and Monitoring (At Prism Plots) Coverboardsshouldbeinstalledatall6wildlifehabitatpermanentplots.
Placetwocoverboardsateachpoint,oneoneachside,perpendicularto
transect.Fromthepointcenter,measure10feetperpendicularfromthetransectlineinbothdirections(paralleltothepadedge).Atthemeasureddistance,cleartheareaofanyleaflitterordebrisifpresent,andplacetheboard.
DataCollection:o LocatecoverboardandrecordtheappropriateID#.Coverboardswillbe
namedasfollows:WellPadSide_FootagefromPadEdge_LeftorRight(standingontransectwithbacktopad).e.g.A100L,B300R,etc.
Forfirstyear(2014)permanentpads,coverboardswerealsoplacednearvegetationmilacreplots25’fromthepadedge(ifapplicable)and25’insidetheundisturbedforest.Forthesecoverboards,usethesameIDrulesexceptusea“D”fordisturbedareasanda“U”forundisturbedareascoincidentwiththe25’footagetodistinguishthetwo.e.g.A25DR,A25DL,A25UR,A25UL,etc.
o Liftit,andrecordthecommonnameandabundanceofallvertebrate
speciespresentundertheboardonthedatasheet.o Oncethespecieshavebeenrecorded,placetheanimalsattheedgeofthe
board,andreplacetheboardtotheoriginallocation.
Pad Monitoring ‐ Well Pad Wildlife Habitat Assessment
85
o Recordanyrelevant“Notes”forthecoverboard.o Repeatthisprocessforallcoverboardsatthepad.
Coverboardswillbecheckedonceperyear(startingoneyearafter
placement)
RECENTLYflippedordestroyedboards;replacecoverboard,noteitondatasheet,andcollectdatanextyear.
Cover Board Installation and Monitoring (At Stump/Brush Piles) Coverboardsshouldalsobeinstalledat1manmadehabitatfeature
(brush/stumppile)perpermanentpad.
Aminimumof3stumpsmustbepresentinapileinordertoevaluatethepile.Thestumppilesmustoriginatefromgasinfrastructure,andbepiledinadeliberatemanner.Ifsuchafeaturedoesnotexist,skipinstallationofthesecoverboards.
Standingwhereaccessroadentersthepad,findthenorthazimuthusinga
compass.Theman‐madehabitatfeature(brush/stumppile)thatisnearestthisazimuthshouldbeusedforthissurvey.
TakeaGPSpointofthisbrushpilenearestthecenteraspossible.
Place2coverboards1footfromtheedgeofthebrushpile,oneoneachsideof
thepile.Placeoneboardcenteredonthepilefacingthecenterofthewellpadandoneontheoppositesideofthepile(facingtheforestedge).
Collectdataonthesecoverboardsjustasyouwouldwiththeothercoverboards
attheprismplots.Usean“F”toindicatedatafromthecoverboardontheforestsideofthebrushpileanda“P”toindicatedatafromthecoverboardonthepadsideofthebrushpile.
Data Management GPSpointswillbeputintheforester’sdatabackupfolderintheRPI.RAIDand
theGISspecialistwillbenotifiedoftheirlocation.
Canopyphotosarefiledat\\nrford12ds1\RPI\RPI_RAID\Wildlife\PermanentPadCanopyCover\PermanantPadCanopyPhotosandarenamedasfollows;Tractnumber,PadId,Sideofpad,plot.(i.e.100MSideA100ft).RefertotheCanopyPhotoSoftwareProcedurefoundinthismanualforinstructionsonobtainingacanopycoveragefromthephotostaken.
Paperdataformswillbefileduntilrequestedbythewildlifespecialist.
Pad Monitoring – Soil Fertility Sampling
86
Soil Fertility Sampling
Purpose Thepurposeofthisprotocolistoprovideameanstocollectbasicsoilfertilitydataaroundwellpadsthathavebeenreturnedtothestateforest.
Equipment Needs TabletComputer GPS Dataforms Compass 100ftdiametertape Plasticbagsforsoilsamples Submissionforms Shovel/trowel Bucket
Procedures Recordthefollowinginformationonthesubmissionform(usepg.2yellow)ateachwellpadsurveyed.
o GrowernameAssistantProgramManagersName
o BusinessnamePADCNRBureauofForestry
o Address10LowerPineBottomRdWaterville,PA17776
o CountynameLycoming
o PhoneNumber570‐753‐5409ext124
o EmailUsetheAssistantProgramManagersemail.
o CheckboxforemailCheckthisbox
o Field/SampleIDIDforeachsampleplotisDistrict,Tract,Pad,side,plot#i.e.10344BA1or10344Bpadforplottakenonthepad
o SerialNo.Fromfrontofsamplebagkit
o Checknotillboxo Year1CropCode
1056
Pad Monitoring – Soil Fertility Sampling
87
Soil Sampling Threesidesofthewellpadwillbesampled,leavingoutthesideofthepadwheretheaccessroadentersthepad.
Startingattheaccessroadentrance,facingintothewellpad,proceed
clockwisearoundthewellpadtothefirstpadside.Thiswillbe“WellPadSideA”
Visuallylocatethemidpointofthesidestobesampled.Thispointwillserveasthelocationforwalkingoffthepadtothesampleplots.
Fromthemidpoint,measureandwalkperpendicularlyawayfromtheedgeof
thepadworksurface50feet.Thisbecomesthecentralsamplinglocationforthefirstsampleplot(sideA,plot1).
Oncetheplotcenterhasbeendetermined,collectthesoilsampledata
followingthediagrambelowtoproperlylocatethesamples.
Usingashovel/trowelandacleanpail,obtainthinslicesofsoilfromatleast12placesevenlyspaced5‐10feetapartinagivenarea.
Sampletoadepthof6inches.
Mixthesoiltakenintoonecompositesampleandplaceintolabeledbag.
Toestablishtheplotcenterforplot2,continuewalkingthesametransectasforplot1anadditional50feetandestablishtheplotcenterforplot2.
Completetheplotusingthesameprocedureasplot1
SamplePlotCenter
Pad Monitoring – Soil Fertility Sampling
88
Toestablishtheplotcenterforplot3,continuewalkingthesametransectasfor
plot1anadditional200feetandestablishtheplotcenterforplot3.
Continuethisprocessontheothertwosidesofthepadtobesampled.ThesesideswillbeknownasSideBandSideC,respectively,clockwisefromSideA.
Thelastsamplelocationwillbeonthepaditself.Findalocationthatisrepresentativetothepadandcompletetheplotusingthesameprocedureasplot1.
Sample Processing Spreadeachsoilsampleonnewspaperinawarmroomtoairdryovernight.Do
notheat.
Foreachsampletake1cupofrepresentativesampleandplaceinthesoilmailingkitbag.MailsoilsampleandsubmissionformtoThePennsylvaniaStateUniversity,111AgAnalyticalSrvcsLab,UniversityPark,PA16802‐1114.
Data Management SampleLabresultswillbeplacedatthefollowinglocation:
\\nrford12ds1\RPI\RPI_RAID\SoilSamples
RoadMonitoring
89
Chapter 4 Road Monitoring
Road Monitoring‐Roadside Vegetation Community Monitoring
90
Roadside Vegetation Community Monitoring
Purpose Thepurposeofthisprotocolistounderstandhowthecompositionofroadsideplantcommunitiesmaychangeovertimeasaresultofincreasedstateforestroaduse.Thiswillbecarriedoutonindividualroadsbyusing6milacre(1/1000acre)vegetationplotsandbyassessingareasaroundthreeculvertsforinvasiveplants.TwotypesofcategoryZ1(publicuse)roadswillbeidentified,thosewithhighgastraffic(HGroads)andthosewithnoregulargastraffic(NGroads).AtleasttworoadsofeachtypewillbeselectedineachcoregasdistrictbasedoninputfromtheforestdistrictandtheOperationssection.ThesewillbestateforestroadsthatarenotmaintainedbyPennDOTormunicipalities.ConsiderationshouldbemadetoinsurethattheNGroadsareunlikelytobeutilizedbynewgasdevelopmentinthefuture.Roadschosenforthestudywillhavethedesiredamountofgastraffic(hightrafficornoregulargastraffic)foratleast2.5miles.Anyintersectionswithinthese2.5mileswillbewithanotherroad(HGorNG)ofthesametypeonly.AttemptsshouldbemadetolocateanHGandNGroadpairwithincloseproximitytoeachother.
Equipment Needs TabletComputer GPS RoadsideVegetationCommunityMonitoringDatasheet FieldGuidesandIDmaterialsandhandlens Compass Diametertape BarkScribe Camera
Procedures
General Data Collection RecordthefollowinggeneralInformationonthedatasheet District
Recordthenumberoftheforestdistricttheroadbelongsto RoadName
Recordthenameoftheroad Surveyors Recordthelastnamesoftheindividualswhoareconductingthesurvey
Road Monitoring‐Roadside Vegetation Community Monitoring
91
HG/NG Indicatewhetherornottheroadisbeingusedforgasactivitiesbycirclingthe
appropriatedesignationo HG–Highgastraffico NG–Noregulargastraffic
Date Recordthedatewhenthesurveyiscompleted DirectionstoStartingPoint(mile0.0):
Writeashortsetofdirectionsforfindingthestartinglocationforthesurvey(thestartingpointreferstothebeginningofthe2.5milestretchofroad.Forexample:
“Startingpointis0.75mileseastfromtheintersectionwithDryRunRoad.” GeneralSiteObservations:
Recordanynotesthatthecrewdetermineswouldbehelpfulfortheunderstandingofthedata.
Establishing Vegetation Plot Locations Threesetsoftwovegetationplotswillbecompletedalongeachroad.Thefirstsetwillbelocated0.25milesfromthestartofthe2.5milesurveylength.(Thefirstandlastquartermilesegmentsofthe2.5milestudyareaserveasbufferstominimizeanyeffectsfromintersectionswithroadsofothertypes.)Thesecondsetwillbelocated1.25milesintothesurvey,andthethirdsetat2.25miles.Ifanyoftheselocationsfallonabridgeoratanyotherspotsuchasaculvert,turnout,roadintersectionwhichwouldcauseproblemswiththevegetationplots,movethesetofplotsdowntheroadtenfeetpasttheendoftheobstacleandmakeanotedescribingthesituationinthe“NotesonPlots#and#andClosestCulvert”sectionfortheappropriatesetofplotsonthedatasheet.
Point A (0.25 mile) Data Collection Navigatetothefirstsetofplotsatmile0.25
TakeaGPSpointinthecenteroftheroad.Thisiscalled“PointA”.
(Itishelpfultomarkthispointwithascufforarocksoitcanbere‐locatedlaterintheprocedure)
Walktotheedgeoftheroad,perpendicularfromthecenterpointthatisnearestaNorth/Eastazimuth.
Determinethepointwherethevegetationalongtheedgeoftheroadstarts.Lookupanddowntheroadtogetageneral(average)ideaofwherethevegetation
Road Monitoring‐Roadside Vegetation Community Monitoring
92
startstogrow.Thisgenerallineofvegetationwilldeterminetheplotlocations.Thevegetationstartsoveragradientonmanyroads,sothisisnotalwaysacleanline.Ignoreoutlyingclumpsofgrassorsmallindividualplantsiftheyaregrowingfartherintotheroadthanthegenerallineofestablishedvegetationobserved(Figure4.1).
Figure4.1
Measurefourfeetofftheroadfromthedeterminedstartofthevegetationto
locatethecenterofthemilacreplot.Marktheplotcenterinanon‐destructiveway.Thisis“Plot1”.
Takecarenottodisturbthevegetationaroundthispointthatfallsontheplot.
Measurefromthecenteroftheroadtotheplotcenterandrecorditonthedatasheet,tothenearesttenthfoot.
Marktheclosesttreeo Locateatreeclosetothemilacreplotcenter.
Thisshouldbealive,healthytreeofadecentsize(notasapling)whichislikelytobepresentinfutureyears.
o Recordthetreespecies,dbh,andthedistanceandazimuthfromtheplotcentertothetreeintheclosesttreesectionfortheappropriateplotonthedatasheet.
o Scribethetreewithonediagonalmarkatchestheightfacingthemilacreplotcenter.
Takecarenottoscribethroughthebarkintothecambiumlayer.
Repeatthestepsabovedirectlyacrosstheroadtoestablishasecondplot,“Plot2”.Remember:Theplotonthenorthoreastsideoftheroadshouldbethefirst
Road Monitoring‐Roadside Vegetation Community Monitoring
93
plotofftheroadcenteredGPSpoint,andthesouthorwestsideshouldbethesecondplot.
Vegetation Data Oncetheplotcentershavebeendetermined,collectandrecordthefollowingvegetationdataoneachmilacreplotaccordingtotheMilacreVegetationPlotProceduredescribedinthePlantSupportingSection. Habitat/VegetationType VegetationData
o HeightStratao Specieso CoverClass/StemCount
Evaluating Closest Road Culvert Aftercollectingdataatapairofmilacreplots,theclosestculverttothoseplotsshouldalsobeevaluated.Noclosestculvertdatawillbecollectedifaculvertisnotwithin300feetoftheplotineitherdirection.
InvasiveSpeciesFoundo Check“yes”ifinvasivespeciesarepresent
Recordthespeciescodeofallinvasivesfoundo Check“no”iftherearenoinvasivespeciespresent
CertainID?
o Indicate“Yes”ifthespecieshasbeenconfidentlyidentifiedo Indicate“No”iftheidentityoftheplanthasnotbeenpositivelyidentified
PopulationSize
o Estimatethenumberofindividualplantspresentatandrightaroundtheculvertoneithersideoftheroadusingthefollowingcategories;
o 1‐5(Trace)o 6‐25o 26‐50o 51‐100o 101‐500o 501‐1000o 1001+
FollowtheEDRRProcedureforanyEDRRtargetspeciesfoundtobepresent.
Point B (1.25 miles) and Point C (2.25 miles) data collection Navigatetothesecondsetofplotsat1.25milesafterallofthestepsare
completedat0.25miles.
Road Monitoring‐Roadside Vegetation Community Monitoring
94
Repeatallofthestepsdoneat0.25miles.ThemilacreplotsoffofPointBshallbecalled“Plot3”(totheNorth/East)and“Plot4”(totheSouth/West)respectively.
Navigatetothethirdsetofplotsat2.25milesandrepeatthestepsagain.The
milacreplotsoffofPointCshallbecalled“Plot5”(totheNorth/East)and“Plot6”(totheSouth/West)respectively.
Data Management GPSpointswillbeputintheforester’sdatabackupfolderintheRPIRAIDand
theGIScoordinatorwillbenotifiedoftheirlocation.
Paperdataformswillbefileduntilrequestedbytheplantspecialists.
Road Monitoring‐Roadside Invasive Plant Monitoring
95
Roadside Invasive Plant Monitoring
Purpose Stateforestroadsareoneoftheprimarycorridorsfortheintroductionofinvasiveplantsintotheforestedinteriorofourstateforestsystem.Therefore,anyattempttomanage/controlthespreadoftheseunwantedorganismsmustbeginwithaninventoryofinvasiveplantpopulationsestablishedalongtheseroads.
Equipment Needs GPSunit RoadsideInvasivePlantMonitoringDatasheets Clipboardandpencil Vehiclewithanodometerthatmeasurestenthsofmiles Measuringwheel(ifwalkingtheroad) Fieldguides/otherIDmaterialsandhandlens
Procedures
Road Selection Onceanareaoffocusisidentifiedbytheplantspecialist(s),allZ1roadslocatedwithinandadjacenttothetractwillbesurveyedforallinvasivespeciespresent.Inaddition,asmanyoftheZ2andZ3roadsshouldbesurveyedtoincreasetheaccuracyandscopeofthedata.Ifpossible,townshipandPennDOTmaintainedroadsshouldbesurveyediftheytransectthestateforesttractorrunadjacenttoastateforestboundary.
Data Collection Fromthestartingpoint,invasiveplantdatawillbecollectedinone‐tenthmileintervalsfortheentirelengthoftheroad.Specialattentionshouldbepaidtoculvertsandnewlydisturbedgroundalongtheroads.Datacollectioncanbecollectedfromaslowlymovingvehicleoronfoot(inthecasethattheroadisundevelopedandnotdrivable).Vehicledatacollectionismostefficientlycarriedoutbyateamofthreepeople;onetodriveandwatchtheodometerandonepersontowatchtheleftsideoftheroadandonetowatchtherightside.Twoorthreepeoplecanconductasurveyonfoot.
Datacollectionisconductedusingthefollowingprocedure:
1. Navigatetothepre‐determinedstartingpointoftheroadtobesurveyed.ThisisusuallyatanintersectionwithanotherroadorattheStateForestBoundaryonagivenroad.
2. Recordthefollowinginformationontwodatasheets(onefortheleftsideand
onefortherightside): District#
Recordthenumberoftheforestdistrict(s)wheretheroadislocated
Road Monitoring‐Roadside Invasive Plant Monitoring
96
RoadNameRecordthenameoftheroadthatisbeingsurveyed.
SurveyorsRecordthelastnamesoftheindividualsperformingtheinvasivesurvey
Date
Recordthedate(s)onwhichthesurveyisconducted
Sideofroad(LorR)Recordan“L”ifthedatasheetrepresentstheleftsideandan“R”ifitrepresentstherightside.Leftandrightaredeterminedlookingahead(downtheroad)asyoumovealong.
StartingPointGPSCoordinates
RecordtheGPScoordinatesofthelocationwherethesurveylengthbegins
3. Setthetripodometertozero
4. Startdrivingforwardslowly,lookingforallinvasiveplantspeciesgrowingaroundtheroad.Anyinvasiveplantsthatarevisiblefromtheroadcount.
5. Stopmovingoncetheodometerreads0.1
6. Recordthenameofanyinvasiveplantsthatwereobservedoneithersideoftheroadinthetenthmilesegmentinthe“InvasiveSpecies”columnoftheirrespectivesheet.
7. Recorda“0.0”inthe“10thmile”rowadjacenttothespeciesnameforeachspeciesobservedtorepresentapresenceoftheparticularspeciesinthefirstsegmentoftheroad
8. Estimatethepopulationofeachindividualspeciesinthe10thmilesegmentthatwasjustsurveyedandrecordthepopulationsizecodeinthe“Pop.”row,directlyunderthe“0.0”youjustrecorded
9. Continuedrivingandlookingforinvasiveplantspecies,makingsuretostopeach10thofamiletorecordtheinvasivesforeachgivenroadsegment.Recordinvasivepresenceinthesecondtenthmilesegmentas0.1,thethirdsegmentas
Road Monitoring‐Roadside Invasive Plant Monitoring
97
0.2andsoon.Thedatasheetshouldbefilledoutinthesamemannerasthefollowingexample;
PopulationSize/AbundanceCodes
1=1‐5(trace) 5=101‐500
2=6‐25 6=501‐1,000
3=26‐50 7=1,000+
4=51‐100
10. Oncetheendoftheroadisreached,record: EndingPointGPSCoordinates
RecordtheGPScoordinatesofthelocationwherethesurveylengthends(terminusofroadorintersectionwithotherroad)
TotalRoadSurveyLength
Recordthelengthoftheroadthatissurveyedbetweenthestartingandendingpointstothenearesttenthmile
Quality Control Plantspecialistswillvisitasubsetofroadssurveyedbythemonitoringfieldcrewstoconductchecksonvegetationdatacollected.ThespecialistswillrecollectthevegetationdatafromthesamelocationusingtheGIS/GPSdatacollectedattheinitialvisit.Acomparativeanalysiswillbeusedtodeterminethelevelofaccuracy,withafocusonspeciesidentificationsincethepercentcovercanbedifficulttoduplicateprecisely.
Data Management Paperdataformswillbefileduntilrequestedbytheplantspecialists.
Road Monitoring‐Road Condition Monitoring
98
Road Condition Monitoring
Purpose Thisprocedurewilldocumenthowstateforestroadschangeovertimeduetogasdevelopment.Itcanalsobeusedtocollectpre‐developmentroadconditiondata.Thisprocedurewillalsoservetocaptureroadandtrailintersectionsonstateforestlands,tobeusedasaqualitycontrolmeasurebyDCNRBureauofForestry’sGeospatialApplicationssection.
Equipment Needs Tabletcomputer GPSunit Camera 100ftmeasuringtapeintenthsoffeet Measuringwheel RoadConditionMonitoringDatasheets(paperorelectronic) RoadConditionMonitoring_PCSMDatasheets Clipboardandpencil Safetyvest
Whenenteringdataelectronically,oronroadsbeingre‐measured,besuretohavetheappropriateroadconditionmonitoringpointslayeronyourtabletcomputer.Thiswillallowyoutoaddnewsurveypointsonnewroadsbeingmeasuredandalsonavigatetosurveypointsandaddnewmeasurementsonpreviouslysurveyedroads.ThesecanbefoundusingthefollowingpathviaFIMS:P:\Layers‐GasProgram\Monitoring\RoadConditionMonitoringPoint.RefertothesupportingdocumentssectionofthismanualforinstructionsonCheckingIn/CheckingOutDataforArcPad.
Procedures Theportionoftheroadtobesurveyedthatisusedforgasactivitywillbedividedintoquarter‐milesections.Asurveyplotistobeestablishedatthepointwheregas‐usebegins(usuallythisisthebeginningoftheroad),ateachquarter‐milesection,atthepointintheroadwheregas‐useends,thenatapointaquarter‐milepastwheregas‐useends(orattheendoftheroadifthereisnotaquarter‐mileofroadbeyondgasuse).1. Navigatetotheroadtobesurveyed
2. Determinefromwhichendthegastraffic(ifroadiscurrentlygasuse)is
enteringtheroad
Road Monitoring‐Road Condition Monitoring
99
3. Gotothestartofgasuse(i.e.wheregastrafficenterstheroadfromtherestoftheworld)
4. Recordthefollowinginformationonthetabletcomputerordatasheet: District#
Recordthenumberoftheforestdistricttheroadbelongsto Tract#
Recordalloftheleasedtractnumberstheroadsurveywillencompass.Refertothe“TractID”fieldofthe“Draft_DCNR_OG_Ownership‐All”layerinArcPadtoviewleasedtractnumbers.Ifnoleasedtractsapply,recordas“N/A”.
RoadName
Recordthenameoftheroadthatisbeingsurveyed.Thisinformationcanbefoundinthe“Name”fieldoftheRoadsTrailslayer.
SurveyorsRecordthelastnamesoftheindividualsperformingtheroadsurvey
Date
Recordthedate(s)thesurveyiscompleted StartingPointofSurvey
Writeashortdescriptionthatdescribesthestartingpointfortheroadsurvey(e.g.“IntersectionofDryRunRdwithBensonRd”).
5. Whenthestartofgasusecoincideswiththebeginningofaroad,takeaGPS
pointattheintersectionoftheroadbeingsurveyedandtheotherroaditintersects.ThisGPSpointistakenwherethecenterlinesofeachroadintersect(Figure4.2).
AnyZ1,Z2,orZ3roadand“blazed”trailintersectionsencounteredalongthesurveylengthoftheroadshouldbeGPS’d,takingtheGPSpointwherethecenterlinesofeachfeatureintersect.Theseintersectionpointsshouldbeincludedinthesamelayerassurveypoints(RoadConditionMonitoringPoint).
6. Ifthestartofthesurveycoincideswiththebeginningofaroad,gotothepointwheretheroadnarrowsdowntoauniformwidthrepresentativeoftheroadahead(widthsareusuallyflaredoutattheintersectionandwedonotwanttocapturethisexaggeratedwidth).Thislocationbecomesthefirstsurveyplot(Figure4.2).
Road Monitoring‐Road Condition Monitoring
100
*Ifnot,thepointatwhichgas‐useusestartsONTHESTATEFORESTROADwillbethefirstsurveyplot.
7. GPSthecenteroftheroadattheplotlocation.Thispointisaddedtothe“RoadConditionMonitoringPoint”layer
Figure4.2
Surveyplotsarenamedinthefollowingfashion,formattedwiththenameoftheroadbeingsurveyedfollowedbyasequentialplotnumber.Besuretorecordthenameofthesurveyplotintheappropriateplaceonthetabletcomputer.
(SurveyRoad)001‐e.g.DryRunRd001 (SurveyRoad)002 (SurveyRoad)003 Continuethissequentialformatuptoandincludingthelastsurveyplot
8. PlotDataRecordthefollowingdataateachsurveyplot(every0.25miles)onthetabletcomputerordatasheet:
Allmeasurementsarerecordedtothenearestfoot
Road Monitoring‐Road Condition Monitoring
101
PlotNumberRecordthesequentialplotnumberpartofthesurveyplotname
PlotImprovedforOGMUse?Isthisplotimprovedforgas?YesorNo
Dustconditions Observeandrecordtheamountofdustintheairthathasbeenstirredupby
passingtraffic.Selectoneofthefollowingcategories;o NoDust Passingtrafficdoesnotproduceanydusto LightDust Aminoramountofdustisproducedo ModerateDust MorethanLight,lessthanHeavyo HeavyDust Trafficisproducingalargeamountofdust
Dustcontrol Indicateifthegascompaniesareapplyinganydustsuppressanttotheroad
surfaceORthereisevidenceofsuchuseinthepasto Noneo WaterSuppressanto ChemicalSuppressant
Roadsurfacecondition
Assesstheconditionoftheroadsurfacefortheareasurroundingthesurveyplotandthesectionofroadbetweenthecurrentandprevioussurveyplot.Lookforthingssuchaspotholes,ruts,andstandingwater.Selectthecategorythatbestrepresentstheroad.Apoorratingcanbethoughtofinrealworldterms‐ifyouhavetobrakeordrivearoundacondition(potholes,ruts,erosion)ontheroadorifaroadconditioncauseslossoftraction(rills,washboards)thenitis“poor”.
o Good‐Nomaintenanceneededo Good‐Recentlymaintained
o Adequate,FutureMaintenanceNeeded‐Potholeso Adequate,FutureMaintenanceNeeded‐Rillso Adequate,FutureMaintenanceNeeded‐Ruttedo Adequate,FutureMaintenanceNeeded‐Erosiono Adequate,FutureMaintenanceNeeded‐Bermso Adequate,FutureMaintenanceNeeded‐Other_________
Road Monitoring‐Road Condition Monitoring
102
o Poor,Needsgraded‐Potholingo Poor,Needsgraded‐Rillso Poor,Needsgraded‐Ruttedo Poor,Needsgraded‐Erosiono Poor,Needsgraded‐Bermso Poor,Needsgraded‐Other_________
Anyconditionnotcoveredbyacategory–recordadescriptioninthe“OtherNotes”sectionoftheplotdata.Alsonoteanythingyoufeeliswarrantedtobetterdescribeanyissueswiththeroadsurfacecondition.
RoadProfile
Selecttheprofilethatbestfitsthesurveyroad.Considerthecrosssectionoftheroadperpendicularlytothelengthoftheroad,payingattentiontothedirectionthatwaterwouldflowoffoftheroadsurface.The3primaryprofilesarecrowned,inslopedandoutslopedbutaroadcanalsohaveaflatorcuppedprofile.SeeFigure4.3foranillustrationofdifferentroadprofiles.o Insloped
Aroadbuiltonasidehillthatshedsthewatertotheuphillsideoftheroadintoaditch
o OutslopedAroadbuiltonasidehillthatshedsthewatertothedownhillsideoftheroad
o CrownedRoadsurfaceshedswatertobothsidesoftheroad
o FlatRoadsurfaceisflatandwaterdoesnothavegoodflowtoonesideortheother
o CuppedRoadsurfaceis“U”–shapedandwateristrappedontheroadsurfaceactinglikeaditch
o Other________Anyotherprofileencountered(describetheprofileinthenotessection)
Road Monitoring‐Road Condition Monitoring
103
Figure4.3PrimaryRoadProfiles
PCSM
ArePostConstructionStormwaterManagement(PCSM)featurespresent?YesorNo,(*ifyescompletetheRoadPCSMForm)
Treadwaywidth(ft.)(Labeled“RunningSurface”pre‐2016)o TheTreadwayoftheroadisthepartoftheroadthatreceivesregular
trafficandshowstirewear.Theedgeoftheroad(usuallycoveredbylooserocksandgravel)doesnotreceiveregulartrafficandisnotconsideredpartoftheTreadway.Refertotheboundariesof“TreadwayWidth”in(Figure4.4).
o Determinewheretheboundarybetweenthetreadwayandtheroadedgefallsoneithersideoftheroadandmeasurethedistancebetweenthesetwoboundaries.
o Itisusuallyhelpfultolookupanddowntheroadtogetageneralideaofwherethetreadwayedgeislocated–trytogetanoverallaverageoftheareaaroundthesurveypoint.
Road Monitoring‐Road Condition Monitoring
104
RoadSurfaceWidth(ft)
o Theroadsurfacewidthisthewidestpointoftheroadsurfaceintendedforvehiculartravelbeforeitchangesslopetoformtheshoulderorditch.Thisareamayhaveloosegravelorevenencroachingvegetationifnotfrequentlytraveled.
o Determinetheboundaryoftheroadsurfacewidthbylocatingthepointwheretheroadsideslopechangesabruptlyfromthecrownslope(4‐6%)formingtheditch(6‐20%).
o LooseStoneandvegetationmaybepresentontheroadsurfaceparticularlyonwideroadswheretheentiresurfaceisnotdrivenon.
Cross‐sectionwidth(ft.)*(OnlyforfirstyearOGMMeasurementsandremeasuresforupgradedroadssincelastmeasure)o Thecross‐sectionwidthistheextentofthematerialthatwasremoved,
displaced,oraddedduringconstructionoftheroadandditches.Itismeasuredperpendiculartothelengthoftheroadfromonesidetotheother.Thecross‐sectionwidthisboundoneithersidebythetopofacutbankorthetoeofafillslope(Figure4.7).
Limitofclearance(ft.)*(OnlyforfirstyearOGMMeasurementsandremeasuresforupgradedroadssincelastmeasure)o Thelimitofclearancewidthisthewidthofthelandthatwasclearedfor
theconstructiontheroadandanyadjacentrights‐of‐way.Itismeasuredperpendiculartothelengthoftheroadandcannotbenarrowerthancross‐section‐width(Figure4.4&Figure4.7).
Road Monitoring‐Road Condition Monitoring
105
Figure4.4
PipelineAdjacent
Isapipelineadjacent(insightandparallel)YesorNo
PipelineLOCwithRoad(Figure4.5)IfYesforPipelineAdjacent,isthepipelineLOCmeasuredwiththeroadLOC(combined)?Yes,No,orNotapplicable
Road/PipelineBufferWidth(Figure4.6)IfYESto“PipelineAdjacent”andNOto“PipelineLOCwithRoad”thenmeasurethedistancebetweentheRoadLOCandthePipelineLOC(BufferWidth)
TreadwayWidth
RoadSurfaceWidth
LimitofClearance
DitchWidth
DitchWidth
Road Monitoring‐Road Condition Monitoring
106
Figure4.5PipelineAdjacent,LOCCombined
Figure4.6PipelineAdjacent,Buffer
Road Monitoring‐Road Condition Monitoring
107
Figure4.7Roadmeasurements
Leftditchwidth(ft.)
ThewidthofaditchisboundontheroadsidebytheRoadsurfaceedgeandontheoutersidebythepointwherea“leveled”measurementtapefromthesurfacewidthedgecontactsthecutbankcreatedduringtheconstructionoftheditch.Referto“DitchWidth”lineinFigure4.7.The“left”ditchisdeterminedasyoufacedowntheroadinthedirectionthesurveyisprogressing.Ifsheetflowispresentinsteadofaditchleavethisfieldblank.
LeftDitchMaterialVegetated,Rock,AggregateorSoil
Leftditchtype(ft.)Ditchesarecreatedfeaturesmeanttodirectwatertoaspecificlocationsuchasaculvertpipeortailditch.Forourpurposesditchesareclassifiedintotwotypes,“parabolic”and“triangular”(Figure4.8).Recordas“sheetflow”ifaditchisnotpresent.o Parabolic–Lesscommon.Thisditchhasacurvedcross‐sectionandis
usuallycreatedusingatypeof“scoop”fromapieceofequipment.Itisgenerallybroaderthanatriangularditch.
Road Monitoring‐Road Condition Monitoring
108
o Triangular–Common.Thisditchhasatriangularcross‐sectionandisusuallycreatedfromapasswithagraderblade.
o Sheetflow–Common.Presentwherethereisnoditch.Meanttoshedwaterofftheroadsurfacebutdoesnotdirectthewatertoaspecificlocation.
Figure4.8
LeftditchconditionTheditch(orsheetflow)shouldbeassessedanddeterminedifitisfunctioningproperlyandasintended.Onlyconsidertheimmediatesurveyplotarea.SelecttheconditionthatMOSTapplies.o Good–Isfunctioningproperlyandasintendedwithnoerosionissueso Fair–Thereareminorissueswithitsfunctionand/orminorerosion
issueso Poor–Therearemajorissueswithitsfunctionand/ormajorerosion
issues
Noteanyreasoningfora“Fair”or“Poor”ditchconditionthatyoufeelisappropriateinthe“Notes”sectionoftheplotdata.Ifwaterislayingintheditchand/ortheditchhasnodrainage,indicate“left/rightditchhasnodrainage”inthe“OtherNotes”sectionoftheplotdata.
Road Monitoring‐Road Condition Monitoring
109
Rightditchwidth(ft.)Seeleftditchwidthexplanationabove.The“right”ditchisdeterminedasyoufacedowntheroadinthedirectionthesurveyisprogressing.Ifsheetflowispresentinsteadofaditchleavethisfieldblank.
RightDitchMaterialVegetated,Rock,AggregateorSoil
Rightditchtype
Seeleftditchtypeexplanationabove Rightditchcondition
Seeleftditchconditionexplanationabove
NotesRecordanynotesaboutthesurveyplotdata
9. Resetthetripodometerinyourvehicleanddrive0.25milesfromtheplotyoujustcompleted
10. Repeatsteps7‐9(excludingtheresetofthetripodometer)untilyoureachtheendofgasuseontheroadortheendoftheroad.Includeasurveyplothereaswell.
Notes:
Whenapproachingtheendoftheroadortheendofgasuse,iftheendoftheroadortheendofgasuseiswithinonetenthofamileofthenextquartermilemark,theendoftheroadortheendofgasusebecomesthepointatwhichthesurveyplotistaken.Iftheendoftheroadortheendofgasuseisgreaterthanonetenthofamilefromasurveyplot,anothersurveyplotneedstobecompletedattheendoftheroadortheendofgasuse.
Thequartermilepointwillsometimesfallataspotthatdoesnotrepresentthe
roadasawhole(onabridge,nexttoaculvert,atawidespotlikeapull‐off,atanintersection).Movethesurveyplottothepointjustaftertheobstaclewheretheroadandditchesreturntoarepresentativewidthifthequartermilemarkfallsataspotlikeanyofthese.
11. Iftheroadcontinuespastgasuse;
Travel0.25milespasttheendofgasuseandconductonemoresurveyplot GPScenterofroad CollectPlotData
Road Monitoring‐Road Condition Monitoring
110
Iftheroadsegmentbeyondgasuseislessthan0.25miles,establishthelastsurveyplotattheendoftheroad.
12. Finishfillingoutthefollowinginformationonthetabletcomputerordatasheet: ApproximateRoadSurveyLength
Aftercompletingthesurvey,recordthelengthofroadthatwassurveyedtothenearestquartermile.
NotesRecordanythingabouttheentireroadsurveythatyoufeelisimportantand/orrelevanttounderstandingtheconditionsoftheroadanddatacollected.Includeanyofthefollowingconditionsaswellasanyothersthatcomeup:o Lengthandlocationofanyasphaltappliedtothesurveylengthofthe
roado Anyweatherconditionsthatwouldimpactdustconditionsatthetimeof
thesurveyo Amountoftrafficifitimpactsdustconditionsatthetimeofthesurveyo Whetherthesurveyispostorpredevelopment
Road Data Management Ifenteringdataelectronically,periodically“checkin”collectedroaddatabackto
theRoadConditionMonitoringPointfeatureclassviathepathFIMS:P:\Layers‐GasProgram\Monitoring\RoadConditionMonitoringPoint.Thisshouldbedonefrequentlyenoughtoensurealotofeditedroaddataisnotleftonthetabletcomputerforanextendedlengthoftime.Ingeneral,offloaddataasyoufeelappropriate.RefertothesupportingdocumentssectionofthismanualforinstructionsonCheckingIn/CheckingOutDataforArcPad.
Ifusingadatasheettocollectdata,first“checkin”newpointscollected(if
applicable)totheRoadConditionMonitoringPointfeatureclassviaFIMS:P:\Layers‐GasProgram\Monitoring\RoadConditionMonitoringPoint.RefertothesupportingdocumentssectionofthismanualforinstructionsonCheckingIn/CheckingOutDataforArcPad.Next,navigatetothefeatureclassinFIMS,startaneditingsession,andadddatatoneworestablishedsurveyplotsasappropriate.
RefertotheInfrastructureorGISspecialistsforanyandallquestionsregarding
datamanagement.
Resamples Allroadsshouldberesampledatleastonceevery4‐yearstoshowchangeovertime.Forresamplingroadsonlyenterdataforsectionsthatarenotasterisked*.
Road Monitoring‐Road Condition Monitoring
111
Road Trigger Points Ifanyroadplotsurfaceconditioniscategorizedas“poor”anemailnotificationshallbesenttothedistrictwithinoneweekofroadplotcompletionforthatdistrict.Thiswouldjustbeanotificationofpotentialissuesandnotnecessarilyarequesttoact.Uponreturningtotheoffice,fieldcrewsshouldsendanemailnotificationtotheinfrastructureprogramspecialisttobeforwardedtothedistrict.
Theemailshouldinclude:
1. RoadName2. #ofpoorplotsversusotherplotsforthegivenroad(ie.6plotsgivenpoorratingout
of20)3. Reasonforpoorrating(s)4. Plot(s)/mileagefortheplotswithpoorratings(¼milefromRoadstartwithSome‐
nameRdto¾mile)
Post Construction Stormwater Management (PCSM) on Roads Ifaroadhas“Structural”stormwaterBMPs,aseparatedatasheetisused(“RoadConditionMonitoring_PCSM”).EachstructuralBMPshouldbeassessedforsizeandfunction.
PCSM Procedures MovinginthesamedirectionandutilizingthesamestartpointfortheformalroadsurveystopateachStructuralStormwaterFeaturedesignedtocaptureandinfiltratewater.
Recordthefollowing: District# Tract# RoadName RoadClass(Z1,Z2,Z3) Date DateofLastRainEvent Surveyors Notes(includeanyinformationdeemedimportanttodescribe)
RoadPCSMPlotData:
PlotNumber(roadmile#,GPSpoint) RoadProfile(in‐sloped,out‐sloped,Crowned,Other) PCSMFeatureType(RainGarden,InfiltrationBasin,InfiltrationTrench,Infiltration
Berm,Sump,Other) FeatureLimitofClearance(LengthandWidthofthePCSMfeaturesLOConly)
*additionalamountofclearingovertheroadsLOC,donotincluderoadLOC(Figure4.9)
Road Monitoring‐Road Condition Monitoring
112
Figure4.9PCSMMeasurements
ChannelLength(pointfromlastoutletorinfiltrationpoint). ChannelArmor(Rock,vegetation,aggregateetc). Holdingwater(yesorno) WaterOvertopped(hasthefeatureexceededitscapacityandwateroverflowedor
bypassedthefeature) Recentlyheldwater(signsofwaterbeingheldthoughnowdry) SedimentationPresent(Sedimentdepositinfeature)‐noteifneedscleaned WildlifeUse(noteanyandallwildlifeuseandsign) OtherNotes(noteanyimportantinformation/descriptionrelatedtocollecteddata
oranyadditionalinformationsuchasnearbywetlandsorstreamsthatmaybeorareimpactedbythedesign)
Sketchofsite(sketchallsitefeaturesandimportantfactssuchassedimentdepositsorwildlifesign/use)Figure4.10
Besuretotakeatleastonephoto(P.1)thatcapturestheextentofthePCSMfeatureinrelationtotheroad.Takeadditionalphotographs(P.2,P.3,etc.)ofinterestingfeatures/issuesasneeded.Markallphotolocationsonthesketchedmap!
Road Monitoring‐Road Condition Monitoring
113
Figure4.10SketchFeatures
PCSM Data Management PCSMdatashouldbeenteredintotheexcelspreadsheetfoundat
\\nrford12ds1\RPI\RPI_RAID\Infrastructure\RoadPCSMMonitoring\Road_PCSM_Data.xlsx.
Datasheetsandphotosshouldbeplacedinafolderfortherespectiveyear(e.g.Road_PCSM_2016)attheabovelocation.Asubfoldercanbeaddedforeachroadwithdistrictnumber,tractnumberandroadname(e.g.D16_Tract_007_MatsonTrl).Subfoldersshouldcontainthescannedsheetsandphotosfortherespectiveroads.Followthesamenamingschemaalreadyestablishedinthefolders.
PCSM Trigger Points IFanyPCSMfeatureisfailing(eroding,overflowing,fillinginwithsediment(needscleaned)orholdingwaterbeyond72hours(unlesswatergarden))thenthedistrictshouldbenotifiedofthefailureormaintenanceneed.Uponreturningtotheoffice,fieldcrewsshouldsendanemailnotificationtotheinfrastructureprogramspecialisttobeforwardedtothedistrict.
1. RoadName2. PlotNumber/Roadmile3. DescriptionofPCSMfeature4. Reasonforfailure
Road Monitoring – Road‐Stream Crossing Assessment
114
Road-Stream Crossing Assessment
Purpose Thisprotocolwillprovidedataontheconditionofstreamcrossingson“gasroads”onstateforestlandinregardstoaquaticorganismpassage.Thiswillhelpdeterminehowgasinfrastructureimpactsaquaticorganisms.
TheShaleGasMonitoringTeamhasadoptedtheexistingproceduresforassessingaquaticconnectivitylayedoutbytheNorthAtlanticAquaticConnectivityCollaborative(NAACC).InformationonNAACCandtheprotocolanddataform(s)usedforthisassessmentcanbefoundhere:https://streamcontinuity.org/resources/naacc_documents.htm
Data Management DatasheetsandphotosmustbefiledintheNAACCdatabaseasspecifiedbytheir
staffforthegivenyear. Also,datasheetsshouldbecompleted,scannedandplacedhere:
\\nrford12ds1\RPI\RPI_RAID\Wildlife\RoadStreamCrossings.Photosshouldalsobeplacedinthislocationwiththecorrespondingcrossing.
Plant Supporting Procedures
115
Chapter 5 Plant Supporting Procedures
Plant Supporting Procedures – Baseline Vegetative Inventory
116
Baseline Vegetative Inventory
Purpose Thegoalofthisinventoryistoobtainbaselinevegetativedatapriortonaturalgasdevelopment.ToaccomplishthisgoalitisnecessarytochangethesamplingintensitypreviouslyusedbytheBureauofForestrytoinventoryforestvegetation.Theobjectiveistheassessmentofcommunityqualitybyquantifyingitssize,successionalstage,disturbance,andspeciesrichnessandrelativedensityofwoodyandherbaceousplantsinboththeoverstoryandgroundlayers.
Equipment Needed xTabletT7000&SXBlueIIGPS 10BAFPrism Compass Clinometer 100’LoggerDiametertape PaintstikMarkers BarkScribe Ribbon Laser MilAcreStick TypingManual(PADCNRBureauofForestry) Newcomb’sWildflowerGuide FernIdentificationGuide GrassIdentificationGuide Tree&ShrubIdentificationGuide HandLens
Procedures
Baselinevegetativedataiscollectedinclusters.ClustersareselectedbythePlantMonitoringSpecialistandtheGISForestProgramSpecialist.Eachclusterismadeupof4setsofplots.Eachsetconsistsofone10BasalAreaFactorprismoverstorytreeplotwithtwomilacrevegetationplotslocatedoffoftheprismplot.EveryclusterhasaPrimaryPlotdesignatedbyashapeotherthanacircle(e.g.Triangle,Hexagon,etc…)and3subsequentplotsdesignatedbycircles.
Establishing Mil Acre Plot Locations MilAcreplotsarelocated45.1’fromtheplotcenterinacardinaldirection,totheleft(milacreA)andright(milacreB)perpendiculartothecruiseline.
Makesuretorecordthecardinaldirectiontravelledtoeachmilacreplot(fromplotcenter).
Plant Supporting Procedures – Baseline Vegetative Inventory
117
Thecruiselineisthedirectiontraveledtogettotheplotcenterfromapreviousplotcenter,withallmovementintheclusterstartingfromthePrimaryPlotCenterandalwaystravelinginacardinaldirection(e.g.North,East,South,andWest).Mostcommonlyclustersareinsquares,butcansometimesbeinotherconfigurations.Whentheclusterisasquare,movementshouldalwaysbeinaclockwisedirection.IftheclusterisinanotherconfigurationstartatthePrimaryPlotCenterandtraveloutwardtotheconsecutiveplotcentersestablishingcruiselines.Inthesecircumstancesthemilacresfortheprimaryplotareperpendiculartothecruiselineusedtogototheconsecutiveplotcenter.
Overstory Plots RefertotheOverstoryPlotProcedureforinstructionsonconductingtheoverstorytreeplot.
Mil Acre Ground Plots RefertotheMilacreVegetationPlotProcedureforinstructionsonconductingthemilacreplots.
Collectthefollowinginformation;
Suffixwillremain0.Unlessitisnecessarytotakemorethanonesetofplots. EnterDisturbance PlotDate EnterSpeciesCode.When“R”isenteredforregeneration,itwillautomatically
gotoStemCountinsteadofCoverRating HeightStratum CoverRating Sampled?“No”issetbydefault.Ifthespeciescannotbeidentifiedinthefield
select“Yes”.Ifyouselect“Yes”,collectasample,preferablyoutsideofthemilacreplotboundary.Putthesampleintoaplantspecimenbagorplantpressforidentificationlater.RefertoHowtoCollectandPressPlantsforinstructionsoncollectingunknownplantspecimens.
Ground Walk About Afterconductingthetwomilacreplotsforagivenoverstoryprismplot,spend
20minuteswalkingaroundwithin100’oftheoverstoryplotcenterlookingforanyadditionalspeciesthatwerenotcollectedintheoverstorydataorinthemilacredata.
If2peopleareinthecrew,spend10minutesperpersononwalkabout.
Collectthefollowingdataforeachspeciesrecordedonthewalkabout:o PlantSpeciesCodeo Abundanceo Date
Plant Supporting Procedures – Baseline Vegetative Inventory
118
o Remarks,ifany
Anyspeciesthatcannotbeidentifiedflagwithribbonandafterthewalkabouttimeisallotted,trytokeyoutthespeciestoidentifyit.TakeaspecimensampleiftheidentitycannotbedeterminedaccordingtotheHowtoCollectandPressPlantsprocedure.
Plant Supporting Procedures – Milacre Vegetation Plot Procedure
119
Milacre Vegetation Plot Procedure
Purpose Thisprocedureprovidesinstructionsforcompletingmilacre(1/1000acre)vegetationplots.
Habitat / Vegetation Type 1‐Undisturbedforest
Vegetationgrowinginanaturalcommunityclasssettingthathasnotbeenimpactedbygasdevelopment
2‐Disturbed,nativevegetationAreaonandaroundtheplothasbeendisturbed(bulldozed,treescleared,orsomeotherdisturbance)andhasnotbeenre‐plantedwithE&Sspecies.Attimes,non‐nativespeciesmayvolunteerintothistype,butweretypicallynotplanted.Thistypeiscategorizedbynaturalvolunteerspeciesfollowingdisturbance.
3‐Disturbed,E&SvegetationAreaonandaroundtheplothasbeendisturbedandre‐plantedwitherosionandsedimentationspecies
Vegetation Data Vegetationdataiscollectedforeveryplantspeciesgrowingonthemilacreplot.Itiscollectedinthreepartsforeachspecies;heightstrata,speciescode,andcoverclass/stemcount.
Height Strata Theplotislikea6fttallverticalcylinderstartingatgroundlevelwitha
radiusof3.72ft.Allplantsgrowinginthisspace(Onlytheportionofthevegetationthatfallsintheplotisconsidered)andalltreevegetationcrossingintothisspacefromoutsideoftheplotisrecorded.
Therearethreeheightlevelswithintheplot:StrataCode
DefinitionHeightRange
1Ground/bryophyte/lowherblayer/treeseedlings
0–2feet
2 Highherb/lowshrublayer >2–6feet3 Treecoveroriginatingoutsideoftheplot 0–6feet
Asingleplantcanbeinbothstratum1and2.Ifthisoccurs,recorditinonceinstratum1andonceinstratum2,accountingfortheamountofcoverineachstratum.Disregardanyfoliagethatisgreaterthansixfeettall.
Plant Supporting Procedures – Milacre Vegetation Plot Procedure
120
Onplotswithslope;thestratafollowthegeneralcontouroftheplot.Thestratum1boundaryisalways2ftdirectlyabovethegroundatanygivenpoint.See(
Figure5.1)belowforanillustrationofaplotonslopedground.
Figure5.1
Plant Supporting Procedures – Milacre Vegetation Plot Procedure
121
Species Recordeachspeciespresentonthemilacreplotasafour‐characterspeciescode.TheformatforthecodeisA###,wheretheprefixAisanalphacharacterfortheplanttypeand###athreedigitnumbersuffixtoidentifyindividualsineachtype.
PlantTypePrefix
PlantType
Examples
SpecialspeciescodesIdentifiedinfieldbutnotonplantlist.Recordnameandtakeasample.
Unknownspecimenofaspecificplanttype.Takeasample.
Specimencannotbeidentifiedevenwithasample.
F Ferncover F006 F000 FUNK FUID
G Grass/sedgecover
G100 G000 GUNK GUID
R Trees>1fttalland<1in.dbh
R032 R000 RUNK RUID
S Shrubcover S090 S000 SUNK SUIDT Seedlings
≤1fttallandanytreecoverinstratum3
T021 T000 RUNK RUID
V VineCover V154 V000 VUNK VUIDW Herbcover W010 W000 WUNK WUIDX Microhabitat X014 X000 ‐‐‐‐ ‐‐‐‐
Thecompletelistofspeciescodescanbefoundinthesupportingdocumentssectionofthismanual.RefertoSpeciesCodes–All.
Cover class/stem count Theabundanceofallherbaceousplantsandtreeseedlingswillbeestimated
intermsofthepercentoftheareaofthemilacreplotoccupiedbyeachspecies.Ocularestimatesofabundancehavebeenchosenasthemosteffectiveandexpedientmeansofquantification.ForthisinventorytheDomin‐Krajinacover‐abundancescaleforforestcommunitieswillbeusedtoquantifyherbaceousplantsandtreeseedlings.
Thecodeandscaleisasfollows:
Code Cover%oftheSpecies 10 100 9 >75,but<100 8 >50to75 7 >33to50 6 >25to33 5 >10to25 4 >5to10
Plant Supporting Procedures – Milacre Vegetation Plot Procedure
122
3 1to5 2 <1 1 2or3plants + 1smallplant
ALLCOVERCLASSESAREDETERMINEDBYLOOKINGDOWNONTHEPLOT
FROMABOVE Itcanbeusedinthefollowingmanner
1. Determinetheboundaryoftheplot(3.72ftradiuscirclearoundtheplotcenter)
2. Identifyasingleplantspecies3. Locatealloftheindividualsorvegetationofthatspeciespresentinthe6ft
cylinder4. Determineinwhichstratumthevegetationisfound5. Estimatewhatpercentageoftheplotiscoveredbythevegetationofthat
speciesinStratum1andrecordthestratum,speciescode,andcoverclasscode
6. Repeatstep5,estimatingtheamountofcoverforStratum27. Ifthespeciesisatree,repeatstep5forStratum38. Identifyanotherspeciesofplantontheplotandrepeattheprocessfrom
step3to7.9. Continuethisprocessuntilallofthespeciesofplantsontheplothave
beencovered10. IdentifyanyitemsontheplotcoveredbytheX‐codes(Microhabitat)11. Estimatethecoverforeachoftheseitems
Treesgreaterthan1fttallandlessthan1in.dbhareconsideredregeneration.
Thesearetalliedwiththecodeprefix“R.”WritedownthenumberofindividualstemsinsteadofthecoverclasscodeintheCoverclass/Stemcountcolumn.
Howtoclassifytreespeciesontheplot(hereredmapleisusedasanexample).
Size Stratum SpeciesCode CoverClass/StemCount≤1fttall 1 T021 %coverofgreen>1to2fttall 1 R021 StemCount>2fttalland<1indbh 2 R021 StemCountAnyleaveswhosestemoriginatesoffplot
3 T021 %coverofgreen
Anytree≥1indbh 1 X011(LiveBole/Root
Code)
Crosssectionalareaofstemandexposedrootsatgroundlevel
Plant Supporting Procedures – Milacre Vegetation Plot Procedure
123
Microhabitattips(X‐codes);o Shouldonlybeusedinspacesnotoccupiedbyvegetation.Forexample;
donotrecordleaflitter(X014)ifyoucannotseeanyleaflitterthroughthevegetationwhenlookingdownontheplot.
o DonotrecordX‐codeswiththe+or1coverclasses Cover%codetips
o The+codeisonlyusedforasmallsingleplantsuchasanewlygerminatedseedling.Useahigherpercentageclassforasingleplantifitcoversanareagreatenoughtomeetthatclass.
o Thecodeof1(2or3plants)isusedfor2or3smallplants.Useahighercodeiftheseplantscoverenougharea.
o 5%oftheplotisroughlythesizeofan8.5”x11”sheetofpapero Coverpercentagesarebasedoffofvegetation.Woodystemsdonot
contributetotheamountofcoverwhenestimatingcoverclass.o Itiscommonforonespeciestohavevegetationcompletelyovertopped
bymorevegetationofthesamespecies.Inthiscaseonlyconsiderthevegetationthatisvisiblewhenlookingdownontheplotwhendeterminingthecoverclassforthatspecies.
o Itisokaytocountoverlappingvegetationofdifferentspecies.Thismakesitpossibletohavemorethan100%coverifthecoverclassesforallofthespeciesontheplotwouldbecombinedtogether.
Plant Supporting Procedures – Overstory Plot Procedure
124
Overstory Plot Procedure
Purpose Theobjectiveofthisprocedureistheassessmentofforestcommunityqualitybyquantifyingitssize,successionalstage,disturbance,speciesrichness,andrelativedensityofwoodyplantsintheoverstory.
Equipment Needs Tabletcomputer(e.g.xTabletT7000) GPSunit(e.g.SXBlueIIGPS) 10BAFPrism Compass Clinometer 100’Loggertapeintenthsoffeet Paintstikmarkers Barkscribe Flaggingribbon Laser(treeheight) TypingManual(PADCNRBureauofForestry) Tree&ShrubIdentificationGuide HandLens
Whenenteringdataelectronically,besuretohavetheappropriateGPSpointsandelectronicformsloadedonthetablet.PointsareselectedbythePlantMonitoringSpecialistandtheGISForestProgramSpecialist.RefertothesupportingdocumentssectionofthismanualforinstructionsonCheckingIn/CheckingOutDataforArcPad.
Establishing Plot Center UsingthetabletcomputerandGPSunit,getascloseasyoucantotheGPS
coordinatesrepresentingplotcenter. Markyourplotcenterbypushingastickintothegroundandtieapieceof
flaggingtothetopofthestick. Standingonplotcenterselectawitnesstreeandusethecompasstodetermine
theazimuthfromtheplotcentertothecenterofthetree.Usingthebarkscribe,markthetreewithasingleslashfacingplotcenteratyourfaceheightonthetree.Measurethediameterofthetreetothenearesttenthofaninch,andmeasurethedistancefromthefrontofthetreetoplotcentertothenearesttenthofafoot.
Plant Supporting Procedures – Overstory Plot Procedure
125
Witnesstreesshouldberelativelyclosetotheplotcenterandshouldbehealthy,notabletrees(notsmall,dead,dying,etc…).
Withintheappropriatetabonthetabletcomputer,entercrewmemberslast
names,thedate,andin“Remarks”enterthefollowingwitnesstreedata:speciescode,diameteratbreastheight(dbh,measured4.5’fromtheground),distancefromplotcenter,andazimuth(e.g.spp.040,dbh.22.3”,dist.8.6’,Az.270).
Plot Data Thefollowinginformationshouldbeassessedandrecordedwithintheappropriatetabonthetabletcomputer.
Vegetative Condition Selectthecodethatmostappliestotheacresurroundingtheplotcenter.Fulldescriptionsofthesetermscanbefoundinthetypingmanual.
Code VegetativeCondition 1 Forested (terrestrialandpalustrineforests)2 NonForested (woodland,shrubland,orherbaceousopenings)3 NonVegetated4 AquaticSystems,Anthropologicsites,orMineralsites
Plot Condition
Selectthecodethatmostappliestotheareasurroundingtheplotcenter.
Code PlotCondition 1 Surroundingareaoftheplotisclearlywithintheclassicdefinitionofaplant
communitytype.2 Surroundingareaoftheplotiswithinatransitionareabetweentwoormore
plantcommunitytypes(includesaquatic,anthropogenicandmineral).Aholeinastandisnotatransition,neitherisasmallunderstockedarea.Theminimumsurroundingareaistheareacontainedwithina45.1footradiusoftheplotcenter(themaximumdistancea16.4inchDBHtreecanstillbecalledas“in”theprismplot).Themaximumsurroundingareawilldependupontheoccurrenceoftreeslargerthan16.4inchesDBHthatliefurtherthan45.1feetfromplotcenterandarecalledas“in”theprismplot.
3 SurroundingareaisNon‐Vegetated.4 SurroundingareaisinanAquaticSystem,AnthropogenicorMineralsite.
Plant Supporting Procedures – Overstory Plot Procedure
126
Stand StructureSelectthecodethatbestdescribesthebasicformofthetreesinthestandinwhichtheplotresides.
Code StandStructure0 Non‐ForestedorNon‐Vegetated1 SingleStoried:Standscharacterizedbyanevencanopyofuniformheight
withclosecompetitionbetweentrees.Thesmallertreesareusuallymembersofthestandthatwerestressedorovertoppedandhavefallenbehindtheirassociates.Regenerationand/ortallrelicsfromapreviousstandmaybepresent.Mostofthetreesinthestandarewithintheheightclassoftheaveragestandheight.
2 TwoStoried:Standscomposedoftworelativelyevenbutdistinctcanopy
layers,suchasamatureoverstorywithanunderstorysaplinglayer,possiblyfromseedtreeorshelterwoodoperations,oranoverstoryoftallconiferswithanunderstoryoflowhardwoods.Neithercanopyisnecessarilycontinuousorclosed,butbothcanopylevelstendtobeuniformlydistributedacrossthestand.Eachcanopylevelmustcoveratleast25%ofthestand.
3 Multi‐Storied:Standsgenerallycontainingtreesfromeverysizegroupon
acontinuumfromseedlingstomaturetreesandarecharacterizedbyabrokenorunevencanopylayer.Usuallythelargestnumberoftreesisinthesmallerdiameterclasses.Consideranystandwiththreeormorelayersasmulti‐storiediseachofthethreeormorelayerscoversatleast25%ofthestand.
4 Mosaic:Standscontainatleasttwodistinctsizeclasseseachofwhich
coversatleast25%ofthestand;however,theseclassesarenotuniformlydistributedbutaregroupedinsmallrepeatingaggregations,oroccurinstringerslessthan120feetwide,throughoutthestand.Eachsizeclassaggregationistoosmalltoberecognizedandmappedasanindividualstand;theaggregationsmaynotbesingle‐storied.
Percent Slope Measureaccordingtothefollowingprocedure:
Standingonplotcenter,imaginesomeoneofyoursameheightstandingdownhill100feet.
Usingtheclinometer,aimaboutwheretheireyeswouldbeandrememberthe%slope.
Plant Supporting Procedures – Overstory Plot Procedure
127
Repeatthisprocedureuphill.
Addbothnumberstogetheranddividebytwo.Theresultisthepercentslope.
Anythingunder5%isenteredas0
Forest Community Type by District: Thiscanbefoundintheappropriatetabwithintheattributesfortheplot,under“VegCode”.Simplyrefertothisandselecttheplantcommunitytypealreadydefinedbytheforestdistrict.
The“VegCode”willcontainlettersandnumbers.Thelettersrepresenttheplantcommunitytypewhilethenumbersrepresentsite,size,andstockingclasses.Currently,forourpurposes,weareonlyconcernedwiththeletters,thereforethesewillbetheonlyoptionsyouseeintheselectabledropdownlist.
Forest Community Type by Monitoring Crew: RefertotheTypingManualandselecttheplantcommunitytypethatbestrepresentsthestandthattheplotislocatedin.Thisdoesnothavetobethesametypethatthedistrictchosetorepresentthestand.
Aspect Toavoidmicro‐siteconditions,adistanceof100feetalongthecontouristheminimumspanoverwhichaspectshouldbedetermined.Measureaspectaccordingtothefollowingprocedure: Standattheplotcenterwithyourshouldersparalleltotheslopeface,looking
downhill. Usingthecompass,determinetheazimuth,perpendicular(90degrees)fromthe
slopeface.
Useathreedigitintegertorecordaspecttothenearestdegree.Record“Null”whenthereisnoaspect(slopeoflessthan5%)andrecord“360”foranorthaspect.
Terrain Position Terrainpositionisthelocationoftheplotalongtheslopeprofile.Toavoidmicro‐siteconditions,adistanceof100feetaroundplotcenteristheminimumspantoconsider.Selecttheterrainpositionthatbestrelatestotheacresurroundingtheplotcentertotheslopeprofile.
Code TerrainPosition1 TopofSlope (convexregion)2 UpperSlope (convexregionatupperedgeofslope)3 Mid‐Slope (fairlyuniformangle)
Plant Supporting Procedures – Overstory Plot Procedure
128
Code TerrainPosition4 Bench (slopedeviation,levellandwithslopeaboveandbelow)5 LowerSlope (concaveregionatloweredgeofslope)6 Bottomland (horizontalregionatlow‐lyingareas,maybesubjectto
flooding)7 Flatland (areasnotpartoforrelatedtotheslope)
Bottomlandisgenerallyassociatedwithdrainagesandflatlandisnot.
RefertoFigure5.2belowforavisualrepresentationoftheseterrainpositions.
Figure5.2
Establishing Prism Plot Trees Standingonplotcenter,usethecompasstodeterminenorth. Startingatnorth,proceedthroughtheplotinaclockwisedirection,assessing
treesencounteredattheirDBH(4.5’)todetermineiftheyare“in”or“out”oftheplotwiththe10BAFprism.
Makesuretheprismisalwayshelddirectlyoverplotcenter.
Plant Supporting Procedures – Overstory Plot Procedure
129
Markalltrees1.5”DBHandlarger,determinedtobe“in”bytheprism,withaPaintstikmarker.Alllivinganddeadtreesthatarestandingontheirownshouldbeassessed(treesthatareleaningintoandsupportedbyanothertreearenottallied).
Borderlinetreesneedtobeverifiedas“in”or“out”byusingthelimitingfactordistanceappropriateforthedbhofthetree.Thelimitingfactordistanceisdeterminedbymultiplyingthedbhby2.75,orbyusingthe10BAFPrismCruisedistancetable(Figure5.3).Ifthelimitingfactordistanceis≥theactualdistancefromplotcentertothepithofthetree,thetreeis“in”.Ifthelimitingfactordistanceis<theactualdistance,itis“out”andshouldnotbetallied.
Measuretothepith(estimatethepith’slocation)atthetree’sbasewhenmeasuringthedistancefromplotcentertothetree.
Figure5.3LimitingFactorDistancesbyDBH
Plant Supporting Procedures – Overstory Plot Procedure
130
Prism Plot Tree Data Foreachtreethatistobetallied,thefollowinginformationshouldbeassessedandrecordedwithintheappropriatetabonthetabletcomputer.
Makesureyousavethedataperiodicallyasyougotopreventthelossofdata.
Species Code Recordthethree‐digitcode,excludingtheletter,usingthespeciescodesfoundinthesupportingdocumentssectionofthismanual.RefertoSpeciesCodes–All.
Diameter at Breast Height RecordtheDBH,roundingtothenearest1/10thofaninch.MeasurementofDBHshouldalwaysbedonefromtheuphillsideofthetree.
ForuniqueDBHsituationsrefertotheSpecialDBHSituationssectionbelow.
Tree Height Usingthelaser,shootthetotaltreeheight(i.e.thetopofthegreenonalivetreeandthetopofthedeadwoodonadeadtree,RefertoFigure5.4forexceptions).Standapproximatelythedistanceofthetree’sheightawaywhenusingthelaser(avoidbeingonthedownhillside,orundertheleanofthetree).Althoughnotpreferred,aclinometercanalsobeusedforthis.
Crown Class Selectthecodethatbestrepresentsthecrownclassofthetree.
Code CrownClass1 OPENGROWN
Treeswithcrownsthathavereceivedfulllightfromaboveandfromallsidesthroughoutmostofthelifeofthetree,particularlyduringitsearlydevelopmentperiod,theirformsorcrownshapeshavenotbeenandarenotlikelytobeinfluencedbyothertrees.
2 DOMINANT
Treeswithcrownsextendingabovethegenerallevelofthecrowncoverandreceivingfulllightfromaboveandpartlyfromthesides,largerthanaveragetreesinthestand,andwithcrownswelldeveloped,butpossiblysomewhatcrowdedonthesides.
3 CODOMINANT
Treeswithcrownsformingthegenerallevelofthecrowncanopyandreceivingfulllightfromabove,butcomparativelylittlefromthesides,usuallywithmedium‐sizedcrowns,moreorlesscrowdedonthesides.(Instagnatedstands,includestreeswithsmall‐sizedcrownscrowdedonthesides.)
Plant Supporting Procedures – Overstory Plot Procedure
131
Code CrownClass4 INTERMEDIATE
Treesshorterthanthoseinthetwoprecedingclasses,butwithcrownseitherbeloworextendingintothecrowncoverformedbycodominantanddominanttrees,receivinglittledirectlightfromaboveandprobablycrowdedonthesides.
5 OVERTOPPED
Suppressedtreeswithcrownsentirelybelowthegenerallevelofthecrowncover,receivingnodirectlighteitherfromaboveorfromthesides.
6 DEAD
Alldeadtrees.
Inmultiple‐agestandswithunderstorytreesofyoungerageclasses,crownclassificationisoftendifficult.Asageneralrule,thecrownclassforeachtreeshouldbejudgedinthecontextofitsimmediateenvironment;thatis,thosetreesaffectingitorbeingaffectedbyitintermsofcrowncompetition.Forexample,theintermediateandovertoppedcrownclassesareintendedtoincludeonlytreesseriouslyaffectedbydirectcompetitionfromadjacenttrees.Asanotherexample,adominanttreeisonethatgenerallystandsheadandshouldersaboveallothertreesinitsvicinity.However,theremaybeayoung,vigoroustreenearby,butnotovertoppedbyadominanttree.Thissmallertreemaybeconsiderablyshorterthanthedominant,butstillbereceivingfulllightfromaboveandpartlyfromthesides.Initsownimmediateenvironment,itisdominantandshouldberecordedassuch.Onlyunderstorytreesimmediatelyadjacenttotheoverstorytreeswillbeassignedsubordinatecrownclasses.
Wind‐throwntrees,ifstillalive,aretobeclassifiedinthecontextoftheirimmediateenvironmentasdescribedabove.
Tree Condition Class Recordoneofthefollowingconditionclasscodesforthetree.Brokentopsmustbesignificantenoughtointroducerotintothemainstem.
Code Description Comments1 Livetree,intacttop2 Livetree,brokentop3 Livetree,intactdeadtop Topsmaymerelybedefoliated–usewith
caution.4 Deadtree,intacttop Usescribetocheckformoistureincambium
layer.
Plant Supporting Procedures – Overstory Plot Procedure
132
Code Description Comments5 Deadtree,brokentop Usescribetocheckformoistureincambium
layer.6 Deadtree,down Donottallyifadvanceddecayispresent
(punky).7 Snag,intacttop8 Snag,brokentop
Deadtreesaretreesthathaverecentlydied(withinthelastseveralyears)butstillretainmanybranches(includingsomesmallbranchesandpossiblysomesmalltwigs)andhavebarkthatisgenerallytightandhardtoremovefromthetree.
Snagsaredeadtrees,orwhatremainsofadeadtree,thatisatleast4.5feettallandismissingmostofitsbark.Thiscategoryincludestreescoveredwithbarkthatisveryloose.Thisbarkcanusuallyberemoved,oftentimesinbigstrips,withverylittleeffort,snagsarenotrecentlydeadtrees.Mostoftentheywillhavebeendeadforseveralyears,sometimesformorethanadecade.
Plant Supporting Procedures – Overstory Plot Procedure
133
Figure5.4Specialtreeheightsituations
Plant Supporting Procedures – Overstory Plot Procedure
134
Cavities Indicate“yes”ifthetreecontainsacavitysuitableforusebywildlifeand/orwouldbeconsideredasadefect.Treescanbealiveordead,butmustbestanding.
Defoliation Selectthecodethatbestrepresentsthepercentageofdefoliationobservedinthecrownofthetree.Defoliationinthiscontextreferstothatcausedbyinsect,disease,orclimate.Nocauseneedstobeassessed,butcanbeaddedinremarksifdiscernible.
Code Defoliation(%)0 Nodefoliation1 1%‐60%2 >60%
Remarks Useforadditionalnotesonindividualtrees.
Record“WitnessTree”inthisfieldwhentallyingthewitnesstreeusedtoreferenceplotcenter
Special DBH Situations
Forked tree Inordertoqualifyasafork,thesteminquestionmustbeatleast1/3thediameterofthemainstemandmustbranchoutfromthemainstematanangleof45°orless.Forksoriginateatthepointonthebolewherethepithsintersect.Forkedtreesarehandleddifferentlydependingonwhethertheforkoriginatesbelow1.0ft,between1.0and4.5ft,orabove4.5ft. Treesforkedbelow1.0ft.Treesforkedinthisregionaretreatedasdistinctly
separatetrees.DBHismeasuredforeachstemat4.5ftabovetheground(Figure5.5).Whenstemsoriginatefrompithintersectionsbelow1ft,itispossibleforsomestemstobewithinthelimitingdistanceoftheplotandotherstobebeyondthelimitingdistance.Ifstemsoriginatingfromforksthatoccurbelow1.0ftandforkagainbetween1.0and4.5ft,theDBHofeachforkismeasuredatapoint3.5ftabovethepithintersection(Figure5.8‐B).
Plant Supporting Procedures – Overstory Plot Procedure
135
Treesforkedbetween1.0ftand4.5ft.Treesforkedinthisregionarealsocountedasseparatetrees(Figure5.6).TheDBHofeachforkismeasuredatapoint3.5ftabovethepithintersection.Whenforksoriginatefrompithintersectionsbetween1.0and4.5ft,thelimitingdistanceisthesameforallforks‐‐theyareeitherall“in”,orall“out”oftheplot.
Multipleforksarepossibleiftheyalloriginatefromapproximatelythesamepointonthemainstem.Insuchcases,measureDBHonallstemsat3.5ftabovethecommonpithintersection(Figure5.8‐F).
Onceastemistalliedasaforkthatoriginatedfromapithintersectionbetween1.0and4.5ft,donotrecognizeanyadditionalforksthatmayoccuronthatstem.MeasurethediameterofsuchstemsatthebaseofthesecondforkasshowninFigure5.8‐E(i.e.,donotmovethepointofdiametertheentire3.5ftabovethefirstfork).
4.5’ 4.5’
4.5’
3.5’
Diameter
point
Pith intersection
Figure5.5Treesforkedbelow1ft
Figure5.6Treesforkedbetween1ftand4.5ft
Plant Supporting Procedures – Overstory Plot Procedure
136
Treesforkedatorimmediatelyabove4.5ft.Ifaforkoccursatorimmediatelyabove4.5ft,measurediameterbelowtheforkjustbeneathanyswellingthatwouldinflateDBH.(Figure5.7)
4.5’
Diameter
point Pith intersection
Figure5.7Treeforkedat4.5ft
Plant Supporting Procedures – Overstory Plot Procedure
137
Figure5.8SpecialDBHsituationsforforkedtrees
Stump sprouts Stumpsproutsoriginatebetweengroundleveland4.5ftonthebolesoftreesthathavediedorbeencut.Stumpsproutsarehandledthesameasforkedtrees,withtheexceptionthatstumpsproutsarenotrequiredtobe1/3thediameterofthedeadbole.Stumpsproutsoriginatingbelow1.0ftaremeasuredat4.5ftfromgroundline.Stumpsproutsoriginatingbetween1.0ftand4.5ftaremeasuredat3.5ftabovetheirpointofoccurrence.
Tree with butt-swell or bottleneck Measurethesetrees1.5ftabovetheendoftheswellorbottleneckiftheswellorbottleneckextends3.0ftormoreabovetheground(Figure5.9).
Plant Supporting Procedures – Overstory Plot Procedure
138
Tree with irregularities at DBH Ontreeswithbumps,depressions,andbranches(Figure5.10)orswellings(Figure5.11)atDBH,diameterwillbemeasuredimmediatelyabovetheirregularityattheplaceitceasestoaffectnormalstemform.
4.5’
Diameter point
3.0’ or more
Diameter
point 1.5’
4.5’
Diameter point
Figure5.9Treewithbutt‐swell
Figure5.11Treewithswelling
Figure5.10Treewithbranch
Plant Supporting Procedures – Overstory Plot Procedure
139
Tree on slope Measurethesetreesat4.5ftfromtheground,alongthebole,ontheuphillsideofthetree(Figure5.12).
Leaning tree Measurethesetreesat4.5ftfromthegroundalongthebole.The4.5ftdistanceismeasuredalongtheundersidefaceofthebole(Figure5.13).
Independent trees that grow together IftwoormoreindependentstemshavegrowntogetheratorabovethepointofDBH,continuetotreatthemasseparatetrees.Estimatethediameterofeachandexplainthesituationinthenotes.
Missing wood or bark DonotreconstructtheDBHofatreethatismissingwoodorbarkoratthepointofmeasurement.Recordthediameterofthewoodandbarkthatisstillattachedtothetree(Figure5.14).Ifatreehasalocalizedabnormality(gouge,depression,etc.)atthepointofDBH,applytheproceduredescribedfortreeswithirregularitiesatDBH(Figure5.11).
4.5’
Diameter
point
4.5’
Figure5.12Treeonslope
Figure5.13Leaningtree
Plant Supporting Procedures – Overstory Plot Procedure
140
Down live tree with tree-form branches growing vertical from main boleWhenadownlivetree,touchingtheground,hasvertical(<45fromvertical)tree‐likebranchescomingoffthemainbole,firstdeterminewhetherornotthepithofthemainbole(averagedalongthefirstlogofthetree)isaboveorbelowthedufflayer.
Ifthepithofthemainboleisabovethedufflayer,usethesameforkingrulesspecifiedforaforkedtree,andtakeallmeasurementsaccordingly(Figure5.15).
o Ifthepithintersectionofthemaindownboleandverticaltree‐like
branchoccursbelow4.5ftfromthestumpalongthemainbole,treatthatbranchasaseparatetree,andmeasureDBH3.5ftabovethepithintersectionforboththemainboleandthetree‐likebranch.
o Iftheintersectionbetweenthemaindownboleandthetree‐likebranch
occursbeyondthe4.5ftpointfromthestumpalongthemainbole,treatthatbranchaspartofthemaindownbole.
Figure5.15Treeabovedufflayer
3.5’
3.5’
Figure5.14Treemissingwoodorbark
Plant Supporting Procedures – Overstory Plot Procedure
141
Ifthepithofmaintreeboleisbelowthedufflayer,ignorethemainbole,andtreateachtree‐likebranchasaseparatetree;takeDBHandlengthmeasurementsfromtheground,notnecessarilyfromthetopofthedownbole(Figure5.16).However,ifthetopofthemaintreebolecurvesoutofthegroundtowardsaverticalangle,treatthatportionofthattopasanindividualtreeoriginatingwherethepithleavesthedufflayer.
Figure5.16Treebelowdufflayer
Data Management Fordataenteredelectronicallyonatabletcomputer,besureto“checkin”
collecteddataperiodicallytotheappropriatelocationintheOGITgeodatabase.Donotletoverstorydatabuilduponthetabletasyourisklosingthedata.RefertothesupportingdocumentssectionofthismanualforinstructionsonCheckingIn/CheckingOutDataforArcPad
Ifenteringdataonadatasheetrefertoappropriatespecialistforinstructionson
filingandenteringdata.
4.5’4.5’
Plant Supporting Procedures – Invasive Plant Species Early Detection and Rapid Response (EDRR)
142
Invasive Plant Species Early Detection and Rapid Response (EDRR)
Purpose Thisprotocolprovidesabrief(lessthan5minutes)reportingprocedurethatcanbecarriedoutbyallmonitoringprogrampersonnel.Itallowsnotonlyforopportunisticsampling,butalsotimely(sometimesinstant)treatmentofinvasiveplantspecies.
Thefocusofthisprotocolisonhighpriorityspeciesthatareeitherneworuncommontoadistrictorarecurrentlyfoundoutsideadistrict,buthavethepotentialtomovein.TrackingthesenovelpopulationsandtreatingthempromptlyisessentialforslowingthespreadofinvasiveplantsandallowstheBureautounderstandifthesespeciesarecolonizingnewareasorbecomingmorewidespreadduetogasdevelopment.Secondly,keepingcarefulrecordofhownewinvasiveplantpopulationsaretreatedandthesuccessorfailureofthesetreatmentsisessentialtobettermanagementofthesespeciesacrossallBureauofForestrylands.
Invasive Species High Priority List ThefollowingspeciesaretargetsforEarlyDetectionandRapidResponseasofMarch1,2016.Thislistwillbere‐evaluatedannuallybasedonthelatestsurveydata.Atthistime,thislistappliestoalldistrictscurrentlyutilizedforgasdevelopmentinnorthernPennsylvania(Moshannon,Sproul,Tiadaghton,Elk,Susquehannock,Tioga,andLoyalsockstateforests).
Tree‐of‐heaven(Ailanthusaltissima) Japaneseangelicatree(Araliaelata) Poisonhemlock(Coniummaculatum) Glossybuckthorn(Frangulaalnus) Goatsrue(Galegaofficinalis) Mile‐a‐minute(Persicariaperfoliata) Commonreed(Phragmitesaustralisssp.australis) JapaneseandGiantknotweed(Polygonumcuspidatum&P.sachaliense) Blackswallow‐wort(Vincetoxicumnigrum) Paleswallow‐wort(V.rossicum) Porcelain‐berry(Ampelopsisbrevipedunculata)
Equipment Needs
TabletComputerandGPS ShaleGasMonitoring:InvasivePlantSpeciesEarlyDetectionandRapid
ResponseDataCollectionForm Camera
Plant Supporting Procedures – Invasive Plant Species Early Detection and Rapid Response (EDRR)
143
PPEGear(Gloves,Mask,etc.) HerbicideApplicationEquipment(BackpackSprayer,Spraybottle,etc.) ApplicableHerbicideSolutions FieldGuidesandIdentificationMaterials Plasticbags(forspecimens) PlantPress(forspecimens) Mattock,shovel,trowel,orotherhandtools LargeGarbagebags(forplantmaterialremoval)
Procedures
Conducting Surveys for High Priority Species OnedefiningcharacteristicofEDRRprotocolsistheopportunisticnatureofthesampling.MonitoringstaffshouldbefamiliarwithallspecieslistedontheHighPrioritylistandbeabletoadequatelyidentifyallthesespeciesatboththeirpeakandatthebeginningandendofthegrowingseason.Duringallmonitoringprotocols,regardlessoftopicorlocation,monitoringstaffshouldbeawareofsurroundingvegetationandbeabletodifferentiatetheseinvasiveplantspeciesfromsurroundingvegetationwhenpresent.Invasiveplantspeciesidentificationmaterialsshouldbereferencedasnecessarytohelpidentifyspeciesthatareunknown.IfnotveryconfidentofthespeciesID,avoucherspecimenshouldbecollectedalongwithadditionaldescriptivephotosoftheplantincludingleaves,flowers,orfruit.
Initial Visit & Population Description IfaninvasivespeciesisfoundthatisontheHighPrioritylist,aGPSpointshouldbetakenatthecenterofthepopulationandthecoordinatesnotedonthefielddatasheet.TheGPSdatawillbeenteredintotheEDRRdataintheFIMSsystembythespecialists.Surveyor’slastname(s),dateofsurvey,districtnumber,leasedtractnumber,closestroad,andspeciesshouldalsobenotedonthedatasheet.Besurethe“NewOccurrence”boxischeckedaswell.
Appropriatephotodocumentationisessentialtothelong‐termviabilityofthisprotocol.Photosshouldbetakentoadequatelycapturetheentirepopulation,aswellasthestateoftheindividualplants.Specialattentionshouldbegiventophotosthatprovideidentificationexamplesoffirstyeargrowthandplant“seedlings”thatarejustbecomingestablished.Ifpossible,pleasetrytotakea“landscape”stylepicturethatcapturesthepopulationandtheassociated/adjacentgasinfrastructure.
Additionaldatasuchascertaintyofidentity,abundance,infestedarea,reproductivestate,andanyinformationinregardstotheperceivedvectorofinfestationshouldalsobeincludedonthedatasheet.The“PopulationGeneralComments”isforanyotherinformationthatissite‐specificorpertinenttothepopulationbeingsurveyed.
Plant Supporting Procedures – Invasive Plant Species Early Detection and Rapid Response (EDRR)
144
Notification WhenaHighPrioritypopulationisfound,uponreturningtotheoffice,theplantmonitoringspecialistsshouldbenotifiedofwhatwasfound.Sendappropriatephotographs,datasheets,andashortexplanationdescribingwhatwasfoundviaemail.Inthecaseofhighriskornovelspeciesencountered,themonitoringteammaycontactthegasforesterresponsiblefortheareasothattheycanbeawareofsaidspeciesbeingfoundinhis/herdistrict.
IfapopulationofaHighPriorityspeciesisfoundonthewellpadpavedsurfaceandneedstobedugandremoved,thegasoperatorshouldbecontactedpriortodigging.Ifthepopulationcanbeeasilyhand‐pulledorsprayedwithherbicide,thiscontactcanoccurfollowingtreatment.Thegasoperatorswillbenotifiedbyeithertheplantmonitoringspecialist(s)orgasforestersifnecessary.
Ifmorethanaverysmallamountofherbicideisnecessary,thedistrictinwhichthepopulationoccursshouldbecontactedpriortoherbicidetreatment.Inadditiontodiscussingherbicidetreatment,alsodiscusswhetherMonitoringstaffordistrictstaffwillentertreatmentdataintotheherbicidetrackingdatabasefollowingtreatment.
Followingtreatment,itisnecessaryforthemonitoringteamtosubmitherbicidetrackinginformationtothedistrict.Allapplicabledatashouldbecollectedduringtreatmentandsubmittedtotheplantspecialistsforinclusionwitheachdistrict’sherbicidetrackingdata.
Referring Treatment to Districts or Gas Operators InthecourseofEDRRsurveys,itispossiblethatlargepopulationsofhigh‐priorityspeciesmaybeencountered.Duetolimitationsinmanpower,itmaybeprudenttotransfertreatmentresponsibilitiesoftheselargepopulationstodistrictstaff,orinthecaseofleasedtracts,thelesseeorSurfaceUseAgreementholder.Generally,ifthetreatmentofahigh‐prioritypopulationisgoingtotakemorethanoneday’swork,itislikelyoutsideofthescopeofMonitoringTeamresponsibility.However,eachspeciesandeachpopulationcreatesuniquesituationswhichmustbeevaluatedcarefullybeforethedecisiontotransfertreatmentresponsibilityisreached.
Astandardizeddecision‐makingprocesshasbeenestablishedtofacilitatemakingthedeterminationofwhentotransfertreatmentresponsibility(Figure5.17).Thischainofquestionsismeanttoduplicatetheassessmentmadebyexperiencedfieldforestersandspecialists.Thisprocessisbasedonansweringthefollowingfourquestions.Iftheanswertoanyofthesequestionsis‘No’thenthepopulationshouldbetransferred.
Plant Supporting Procedures – Invasive Plant Species Early Detection and Rapid Response (EDRR)
145
Isthisanisolatedpopulation?Thisquestionattemptstodetermineifthepopulationseededinfromanadjacentseedsourcethatmayhavebeenpresentpriortodevelopmentofanygasinfrastructure.
Willcontinuedtreatmentseradicatethepopulation?Iftargeted,effectivetreatmentshaveahighlikelihoodoferadicatingthepopulationinquestion;itmaybemostefficientforthemonitoringteamtoconductthesetreatments.
Canallrequiredtreatmentsoverthecourseofafieldseasonbecompletedinatotalofoneday’stimeorless?
EDRRprotocolsaremeanttobeopportunisticandrequireminimaltimetocomplete.Ifapopulationsizenecessitatesmorethanoneday’stimefortreatment,itislikelytoolargetoremainanefficientuseofthemonitoringteam’stimeandresources.
Dowehaveorcanweobtaintheresourcesrequiredtoeffectivelytreatthepopulation?
Ifapopulationrequireslargeamountsofchemicalsorspecializedequipment,itmaybeoutsideofthescopeoftheworkcarriedoutbythemonitoringteamandbetterhandledbythedistrictorgaslessee.
Ifthedecisionismadetotransferresponsibilityoftreatmenttoadistrict,themonitoringeamisstillresponsibletoaidthedistrictinthefollowingways:
‐Teachingorexplainingtheappropriatesurveyandtreatmenttechniquesforthespecies.
‐PlantMonitoringSpecialistswillworkwiththeappropriatedistrictstafftoprepareatreatmentplan.
‐Monitoringteamstaffcanprovideassistanceinsurveyingtheareaimmediatelysurroundingthetransferredpopulationforsmallersatellitepopulations.
Whenthedecisionismadetotransfertreatmentresponsibilitiesofpopulationtoadistrict,themonitoringforesterwhofirstencounteredthepopulationisresponsiblefornotifyingthedistrictofthedecisionandservingasthefollow‐upcontactbetweenthedistrictandmonitoringstaff.Atthetimeofnotification,themonitoringteamwillprovidealllocationdataandrecommendedtreatmentprotocols.ContactshouldfirstbemadetotheapplicableGasForester,AssistantDistrictForester,DistrictForesterand(ifnamed)thedistrictInvasiveSpeciesCoordinator.Plantmonitoringspecialists,theMonitoringFieldManager,EcologicalServicesBotanist,andMonitoringTeamCoordinatorshouldalsobenotified.Follow‐uptoconfirminitiationoftreatmentbydistrictstaffshouldtakeplace15daysfollowinginitialnotification.
Plant Supporting Procedures – Invasive Plant Species Early Detection and Rapid Response (EDRR)
146
IfthedecisionismadetotransfertreatmenttoanapplicableLesseeorSurfaceUseAgreement‐holder,themonitoringstaffshouldworkcloselywithMineralsStaffanddistrictGasForesterstoprovidetheappropriatenotificationandtreatmentprotocolstotheoperator.
Treatment of Populations Afterallinformationhasbeencollectedandallphotographshavebeentaken,theinvasivespeciespopulationshouldbeevaluatedfortreatment.Dependingonthetimeofyear,speciesandsizeofthepopulation,thistreatmentcouldbeconductedimmediatelyoratsometimeinthenearfuture.
Evaluatingtreatmentoptions:
Considerthepopulationsizeandperceivedageofinfestation.Ifthepopulationissmallanditappearsunlikelythatthespecieshasbeenpresentformorethanoneortwogrowingseasons,thenhand‐pullingordiggingmaybethemosteffectivemeansofremoval.Ifthepopulationisextensiveorhasalargernumberofindividuals,herbicidetreatmentsshouldbeconsidered.Ifthepopulationfoundistoolargetoefficientlytreat,thedistrictshouldbecontacted.
Ifthepopulationisfoundinanareasubjecttoinvasiveplantprovisionsonagaslease,theoperatormayberesponsiblefortreatment.IfEDRRspeciesarefoundinareassubjecttotheseprovisions,collectthedataanddeterminethefeasibilityoftreatment.Pleasecontactaplantspecialistforhowbesttoproceed.
Conductingtreatments:
Tree‐of‐heaven:Unlesstheseedlingisextremelysmall(lessthan6‐8inchestall),cuttingorbreakingofAilanthusstemsshouldnotbeconsideredaneffectivetreatmentfortheinfestation.HerbicideapplicationsshouldtakeplacefromJuly1stuntilAilanthusleavesturncolorsinthefall.Onepotentialtreatmentmethodisbasalbarkapplicationoftriclopyr(garlon)andoil(pre‐mixedsoldasPathfinderII).Hackandsquirtcanalsobeeffective,giventhateachstemisnotentirelygirdledordamaged(asmallportionshouldbeleftintact)whiletreating.
Japaneseangelicatree:AngelicatreecanonlybecertainlydifferentiatedfromHercules’clubduringthefloweringseason(August).Angelicatreeshouldbetreatedbybasalbarkapplicationoftriclopyr(garlon)andoil(pre‐mixedsoldasPathfinderII).Eachseedling/stemshouldbetreated.Ifthepopulationisfoundlateintheseason,considerremovingtheflower/fruitsfromthestemsifthepopulationissmall.
Plant Supporting Procedures – Invasive Plant Species Early Detection and Rapid Response (EDRR)
147
Poisonhemlock:Specialcareshouldbetakenwhilehandlingpoisonhemlock,allpartsofthisplantaretoxic.Themosteffectivetreatmentofpoisonhemlockistotargetthe1styearorearlyspringbasalrosetteswithglyphosate.Thistreatmentismuchmoreeffectivethantreatingbolted,floweringstems.Duringthesummer,thedryingdeadadultplantsareobserved.Ifthisisthecase,thissiteshouldbedocumentedandtreatmentoftherosettescantakeplaceinfallorthenextgrowingseason.
Phragmites:o Ifthepopulationissmall(lessthan20individuals),itmaybepossibleto
hand‐digthepopulation.Extremecareshouldbetakentoensurethattherhizomesystemisremovedintactandallnewoff‐sproutsarefoundandremoved.Allplantmaterialandrhizomeshouldbebaggedandremovedfromthesite.
o Ifherbicideisdeemednecessaryduetothesizeofthepopulation,consider
firstcuttingthestemsandapplyingherbicideeightweekslater,depletingreservesintherhizomes.Considerusingimazapyr(Habitat),imazamox(Clearcast),orglyphosatetotreatPhragmites.Ifcuttingpriortotreatmentisnotutilized,treatmentshouldbeconductedafterJuly1.
Glossybuckthorn:
Ifonlyafewindividualsarepresent,handpullingordiggingcanbeeffectiveiftherootsareremoved.Thissitewouldstillhavetobemonitoredforanyadditionalseedlingsfromtheseedbank.Forlargerpopulations,cut‐stumptreatmentswithglyphosateortryclopyrshouldtakeplaceinsummer(afterJuly1st)orfall.
Goats‐rue:Anygoat’s‐ruefoundneedstobereportedtothePADepartmentofAgriculture.Ifpopulationsaresmallandhaveonlybeenestablishedforoneortwogrowingseasons,handpullingofplantsappearstobeaneffectivetreatmentaslongastherootsystemisremoved.UsingGarlon3Ainsummerasafoliarapplicationcanbeaneffectiveherbicidefortreatinggoat’s‐rue.
Mile‐a‐minute:
Thisspeciesisbestcontrolledwithpre‐emergentapplicationduringMarchorApril.However,itislikelythatapopulationwillbefoundduringthegrowingseason.Forverysmallpopulations,handpullinganddiggingmaybeeffective.Bothtricolpyr(Garlon3A)andglyphosate(Glyphomate41)canbeusedasafoliarapplicationduringthegrowingseason.Asurfactantshouldbeusedaswell.Garlon3Atargetsonlybroadleafplants,whichmaybemoredesirableif
Plant Supporting Procedures – Invasive Plant Species Early Detection and Rapid Response (EDRR)
148
mile‐a‐minuteisgrowingwithothernon‐targetspecies.Theextentofthepopulationshouldbeflaggedandconsideredforpre‐emergenttreatmentthefollowinggrowingseason.
Japaneseknotweed:o Smallpopulationsofknotweed(1‐5plants)canbeconsideredfordigging
andhandremoval.Beadvisedthatthetaprootsofknotweedareveryextensiveandoftenbranch,exercisecautionwhilediggingtheseplants.Consideranherbicideapplicationtotherootsiftheybreakoffwhenpullingorbecomedifficulttoremove.
o Themosteffectivemeanstotreatknotweedistocuttheplantsandtreat
withglyphosateeightweekslater.TypicallythiscuttingoccursinlateMayorJuneandtreatmentisconductedeightweekslater,thishelpstoreduceroot/rhizomesreservespriortospraying.Ifthereisnomowingorcutting,treatmentsshouldtakeplaceafterJuly1standendbymid‐September,thisshouldbeahighvolumeapplication.Dependingontheglyphosateformulation,asurfactantmaybenecessary(Glyphomate41doesnotneedanadditionalsurfactant).
BlackandPaleswallow‐worts:
Ifpopulationsaresmall,diggingofplantsandrootmaterialcanbeeffective,butisdifficultandallmaterialmustberemovedfromthesite.Glyphosatecanbeeffectiveagainstswallow‐worts,butmustbeappliedtwiceinaseason,firstinJunethenagaininAugust.Whenusingglyphosate,asurfactantisrequired.Triclopyrcanalsobeusedasafoliarapplicationoncepergrowingseason,andhastheadvantageofonlytargetingbroadleafplants.
Follow-up Visits Eachpopulationfound,documentedandpotentiallytreatedusingtheseprotocolsshouldbere‐visited,ataminimum,duringthefollowingfieldseason.Thepurposeofthesere‐visitsistocompleteanyre‐treatmentsaswellasevaluatetheefficacyofEDRRtreatments.Notonlyisthere‐treatingofpopulationsessentialtotheireradication,butevaluatingthesuccessoftreatmentsbetterestablishestreatmentprotocolsmovingforward.
Thesamedatasheetusedduringtheinitialtreatmentshouldbeusedagain.Checktheboxnextto“Follow‐upVisit”andindicatehowmanytimesthispopulationhasbeenvisited.Ifthisisnotknownleaveblank.Pleasemarkifthepopulationhasbeencompletelyeradicatedbycheckingtheappropriateboxunder“Abundance”.Portionsofthedatasheetareprovidedforcommentsinregardstothepriortreatmentanddetailsregardinganyfollow‐uptreatments.PopulationsneedtobevisiteduntileradicatedandnotpresentonsitefortwoconsecutivegrowingseasonsbeforebeingremovedfromtheEDRRdatabase.
Plant Supporting Procedures – Invasive Plant Species Early Detection and Rapid Response (EDRR)
149
Photosshouldbetakenofthesiteand/orpopulationduringallfollow‐upvisitsasdescribedaboveintheinitialtreatmentsection.Evenifthepopulationisdeadornolongerpresent,aphotoofthesiteoforiginalinfestationmustbetaken.
Data Management Acopyofthedatasheetandapplicablephotosshouldbeplacedhere:
\\nrford12ds1\RPI\RPI_RAID\Plants\EDRRinthefoldercorrespondingtothepopulation.Ifanewpopulationanewfolderwillneedtobecreated.Followthenaming/orderingschemealreadyestablishedwhenaddingnewfolders.
Notifytheplantmonitoringspecialistsandappropriategasforesterofnewpopulationsviaemailincludingapplicablephotos.Pleaseseethenotificationsectionaboveforothernecessarycontacts.PlantmonitoringspecialistsareresponsiblefordataentryandcoordinationwiththeGISspecialist.
Plant Supporting Procedures – Invasive Plant Species Early Detection and Rapid Response (EDRR)
150
Figure5.17Decision‐MakingFlowchartforEDRRPopulations
Start
Isthisanisolatedpopulation?i.e.Itdidnotdirectlyseedfromanearbypre‐existingpopulationorseedsource.
No
Isthespeciesinquestionan“immediatethreat”species?(ImmediatethreatspeciesareMile‐a‐
minute,Poisonhemlock,Goatsrue,black
YesNo
Canallrequiredtreatmentsoverthecourseofthefield
seasonbecompletedinatotalofoneday’stimeorless?
NoDowehave/canweobtaintheresourcesrequiredtotreatthepopulationeffectively?
Yes
No
TREAT
Yes
Isthereanyevidencethepopulationwaspresentlastyearand/orestablished?Areany
deadstemspresentfromlastyear?
Yes
Willcontinuedtreatmentseradicatethepopulation? Yes
Yes
No
Hasthepopulationgonetoseed?
No
No
CanALLseedberemovedfromsite?
Yes Yes
No
TransfertoForestDistrict
Transfer to Forest DistrictTransfer to
Forest District
Pipeline ROW Monitoring
151
Chapter 6 Pipeline ROW Monitoring
Pipeline ROW Monitoring – Grassland Bird Nest Surveys
152
Grassland Bird Nest Surveys
Purpose Thedatacollectedwilldetermineuseofpipelineright‐of‐ways(ROW)asnestinghabitatbygrasslandbirds.ComparisonscanbemadebasedonmanagementpracticesoftheROWsuchasthemowingregime,seedmix,andROWwidth.ThehabitatdatacollectedateachendofthetransectcanbeusedasinputinanHSImodelfortheEasternMeadowlarkandBobwhitetodeterminehabitatsuitabilityforthesetwograsslandbirds.ThetransectsurveysmustbeconductedbetweenthefirstweekinJune–FirstweekinJuly.
Equipment Needs GPS Datasheet 6’longstick Laserrangefinder Robelpole String(4meterslong)
Procedures Locatetransectstartpoint(onechainfromanintersectingroad,stayingcenteredin
theROW)
GPSstartpoint(firstmilacreplot)
Collecthabitatdatautilizingamilacreplot(3.72’radiusaroundtheestablishedpoint)
Determinehowmuchofthemilacreplotiscoveredbythefollowingvegetationtypes.
o Totalherbaceouscoverpercentageo Percentgrasso Percentforbso Percentfernso Percentshrub(includingtreeseedlings)o Percentduff(mustbesoftballsizedtocount)o Percentbareground/mineralsoil(mustbesoftballsizedtocount)
Pipeline ROW Monitoring – Grassland Bird Nest Surveys
153
Thepercentageestimateswillberecordedinthefollowingclasses;
Code Cover%oftheSpecies 10 100 9 >75,but<100 8 >50to75 7 >33to50 6 >25to33 5 >10to25 4 >5to10 3 1to5 2 <1 1 2or3plants
+ 1smallplant
Calculateaverageheightatmilacre;Determinethedominantvegetationandestimateandrecordtheaverageheightofthisvegetationininches
UsetheRobelpoletocollectvisualobstructiondata.ThegraduatedRobelpoleisplacedatthecenterofthemilacreandareadingistakeninfourdifferentdirections;o perpendiculartotheROWtothelefto perpendiculartotheROWtotherighto paralleltotheROWbacktothestartingpointo paralleltotheROWforwardtowardsthesurvey
Readingsaretakeninthefollowingmanner;
o Onepersonholdsthegraduatedpoleverticallyontheplotcentero Thesurveyorholdsthe1mpolefourmetersfromthegraduatedpoleinthe
appropriatedirectionandholdstheireyeatthetopofthepoleo Sightwiththeeyeonthepoletowardsthegraduatedpoleo Determinetheloweststripeonthegraduatedpolethatisnotcompletely
obscuredbyvegetationo Recordthemeasurementnumberrepresentingthisstripe
Next,StartTransect,6feetwideby726feetlong(0.1acre)o TransectshouldparallelpipelineROW,andbecenteredinROWo Recordthenumberofgrasslandnestsobservedontransecto Recordwhetherthenestissmallmammalorbirdo Recordhtofnest(inches)andhtofadjacentvegetation(inches)innotessection
Repeathabitatdatacollectionatthemidpointandendofthetransect
Pipeline ROW Monitoring – Grassland Bird Nest Surveys
154
Ifmilacreplotfallsinanon‐vegetatedarea,offset15feetfromnon‐vegetatedareaintotheclosestvegetatedareaalongthetransect
Thefollowingpiecesofdatawillbeobtainedbythewildlifespecialistintheofficepriortoorafterthefielddataiscollected;o RecordROWwidth(FIMS)o Recordfrequencyofmowing(GasForester)o Recordtimingofmowing(GasForester)o RecordNative/Conventionalseedmix
Data Management Fornow,thedatashouldbecollectedandrecordedonpaperforms.Fieldpersonelshouldfiledatasheetsuntilrequestedbythewildlifespecialist.Thedatawillthenbeenteredintospreadsheets,andanalyzedtoevaluateROWconditionsasgrasslandbirdhabitat.
Pipeline ROW Monitoring – Pipeline ROW Vegetation Monitoring
155
Pipeline ROW Vegetation Monitoring
Purpose Currentrights‐of‐wayonstateforestlandaccountforapproximately3,000acresand760milesoflineardisturbance.TherecentShaleGasdevelopmenthasthepotentialtoadd104milesofadditionaldisturbance.Theserights‐of‐wayhavethepotentialtoprovideidealhabitatconditionsfortheestablishmentandfurtherspreadofinvasiveplantpopulationswithininteriorforestedlandscapes.Additionally,theright‐of‐waycouldactasavectorforfurthermovementofestablishedinvasivesoutsideoftheexistingcorridor.Areasofconcernthatintersectrights‐of‐wayinclude;streamcrossings,timbersales,burnedareas,road/trailcrossings,wetlandsandanyothersensitiveecosystems.Wewillrefertotheseareasas“hotspots”laterinthisdocument.Theinitialscopeofthisprotocolisthecurrentandfuturedisturbedareasofdevelopmentrelatedtoshalegasonstateforestlands.Duetothelimitedaccessandremotelocationsofsomeofthesecorridors,itisimportanttomonitorforinvasivepopulationsbeforetheyareabletoestablishaviablepopulationandspreadintostreamcrossings,wetlands,andothersensitivelandscapefeatures.
Equipment Needs TabletComputer/GPS ROWVegetationMonitoringDatasheet Camera FieldGuidesandIDmaterials Pencil D‐tapeorOtherMeasuringTape SnakeGaiters UTV,Trailer,andRadio(Optional)
Procedures ***BeforegoingafieldloadappropriateROWsegmentsandpointsonthetabletcomputerviapath“FIMS:P:\Layers‐GasProgram\Monitoring”
General Data Collection Recordthefollowinggeneralinformationonthedatasheet:
District#Recordthenumberoftheforestdistrictthepipelineislocatedin
Tract#RecordalloftheleasedtractnumbersthePipelineROWsurveywillencompass.Refertothe“TractID”fieldofthe“Draft_DCNR_OG_Ownership‐All”layerinArcPadtoviewleasedtractnumbers.Ifnoleasedtractsapply,recordas“N/A”.
Pipeline ROW Monitoring – Pipeline ROW Vegetation Monitoring
156
ROWNameRecordthenameofthepipelinegivenbytheoperator(s)
SurveyorsRecordthelastnamesoftheindividualsperformingthepipelinesurvey
DateRecordthedate(s)thesurveyiscompleted
OperatorRecordthenameofthegascompany(s)associatedwiththepipeline.
Section Data Oncearight‐of‐wayhasbeenestablishedformonitoring,aGISlayerwillbecreatedwith0.25milesectionsoverlaidontotheROW.Allsectionswillbenumbered.
Usethetablettonavigatetothefirstsectionofthepipelinetobesurveyed.
Asurveycanbestartedatanysectionaslongasthesectionisproperlyidentifiedinthe“segmentID”fieldonthedatasheet.
Startingattheendofasection,thoroughlywalktheclearedpipelinearealookingforinvasivespecies.Wheninvasivespeciesarefoundtheyareaddedtothespecieslistforthat0.25milesection,aswellaspopulationsize(numberofplants),andappropriatevegetativestate.SelectedROWsectionscanbesurveyedonfootbyaminimumof3staffmembers.SpecialattentionshouldbepaidtotheoutermostedgesoftheROW,asthisiswherethelikelihoodofinvasivesbecomingestablishedishighest.However,theentirecrosssectionoftheROWshouldbethoroughlyexamined.
Ifahigh‐priorityspeciesisfound,surveyorswilldefertotheEDRRprotocol.
WhentheendoftheROWsectionhasbeenreached,thesurveyorswilltallyresultsfromallsurveyorsandrecord.
ThisprocesscanbeperformedusinganUTVifdesired,aslongastheentireROWisthoroughlyassessed.Asecondpassmaybeneededtocovertheentiresection.
Section Data Collection Species
Recordthenameofeachinvasivespeciesfoundinthesection
Pipeline ROW Monitoring – Pipeline ROW Vegetation Monitoring
157
PopulationSizeEstimatethenumberofindividualinvasiveplantsencounteredinthesectionandcircletheappropriatecategory
VegetativeStateCircletheappropriatevegetativestateforthelatestvegetativestateobserved
AdjacentRoad?Indicateifastateforestroadisimmediatelyadjacentthesectionornot.IfYES,recordonthedatasheettheclassofroad(Z1,Z2,orZ3)andiftheroadisadjacentthesectionforitsentireorpartiallength.
GeneralSectionNotesRecordanysignificantinformationforthesection,suchaswildlifeencounteredwithinthesection
Hotspots AhotspotisadisturbancewithintheROWbeingsurveyed.Theseareashavehighpotentialtoharborinvasivesandcanincluderoads,trails,andstreams.Culvertswillnotbeconsideredhotspots,unlesstheyareassociatedwithastream/intermittentstream.Ifapplicable,asurveywillbeconductedateveryhotspotthatisperpendiculartotheROWcorridor.Surveyorswillwalk100’outthehotspotperpendiculartotheROWlookingforanyinvasivespecies.Thesedatawillberecordedatthebottomofthedatasheetforthe0.25section.
InvasivesfoundonhotspotsthatareparalleltotheROW,suchashikingtrailsanddeerfenceswillbeincludedandtalliedwiththeinvasivesfoundinthat0.25milesection.Besuretoindicatetheminthe“GeneralSectionNotes”onthedatasheettoaccountfor“inflated”populationsizes.
Hotspotareasthatarenormallycoveredinotherwalkaboutprotocolsareexcluded,butnotedinthe“GeneralSectionNotes”.
Hotspot Data Collection Type
Circletheappropriatedescriptionforthedisturbancebeingsurveyedo Roado Streamo Trailo Fenceo Other(Describe)
Pipeline ROW Monitoring – Pipeline ROW Vegetation Monitoring
158
Species
Recordthenameofeachinvasiveplantspeciesencounteredinthehotspot
PopulationSizeEstimatethenumberofindividualinvasiveplantsencounteredonthehotspotandcircletheappropriatecategory
VegetativeStateRecordtheappropriatelatestvegetativestateforeachspeciesfound
o Vegetativeo Floweringo Fruiting/Seeding
Intensive Swath AnintensiveportionoftheROWsurveywillbeconductedonarandomlyselectedonemilesectionofthesurveylength.Therewillbefivepointssetatquartermileincrements,withinthatsection.TheintensivepointswillbeshownontheGISlayerforROWVegetationMonitoring.ThefivepointswillbeassignedalphabeticallettersAthroughE,with“A”correspondingtothelowestnumberedsectionintheintensiveportion.
Ateachintensivepoint,aonemeterwideswathperpendiculartothelengthoftheright‐of‐waywillbecarefullyexamined.
Intensive Swath Data Collection Recordthefollowinggeneralinformationonthedatasheetusingthe“NewROW”sectionforMarcelluspipelinesandthe“HistoricROW”sectionforpre‐existinggaspipelines,ifnoticeable.
SwathAlphabeticalCodeCircletheletterthatcorrespondstothepointbeingsurveyedbasedonthenumberofthesection
WidthRecordWidthoftheROWforthepipeline,tothenearestfoot(excludingadjacentdisturbedlocationssuchasroadsorloglandings)
SpeciesRecordthethreedominantplantspeciesfortheonemeterswath
PercentofCover
Pipeline ROW Monitoring – Pipeline ROW Vegetation Monitoring
159
RecordthepercentagecoverclasscodesforeachthethreedominantspeciesofplantsusingtheDomin‐KrajinaCoverAbundanceScaleprovidedatthebottomofthedatasheet.
TotalVegetationCoverageRecordthetotalpercentageoftheswathcoveredbyvegetation
Additional Data Collection Whileconductingsurveys,thepresenceofwildlifeorerosionissuesshouldbenoted.Treeplantingsandthesuccessofthemalongwithmortalityandmaintenanceissueswithfencingshouldalsoberecorded.IfanyEDRRspeciesareencountered,followtheEDRRprocedureasappropriate.
Routine UTV Cleaning IftheUTVwasdriventhroughlargeinfestationsofinvasiveplantspecies,orismovingbetweendistricts,thesurveyorswillthoroughlycleanthevehicle,includingthetiresandundercarriagetoensureseedorothervegetativematerialsarenottransmittedacrossdistrictsortracts.
Quality Control Plantspecialistswillvisitasubsetofright‐of‐waysectionsvisitedbythemonitoringfieldcrewstoconduct“coldchecks”onvegetationdatacollected.ThespecialistwillrecollectthevegetationdatafromthesamelocationusingtheGIS/GPSdatacollectedattheinitialvisit.Acomparativeanalysiswillbeusedtodeterminethelevelofaccuracy,withafocusonspeciesidentificationsincethepercentcoverwillbedifficulttoduplicateduetospecificityoflocatingplotcenteronthequalitycontrolvisit.Inaddition,theplantspecialistswillconduct“hotchecks”onsitetodetermineifplotlocationproceduresarebeingfollowedanddatacollectedisaccurate.
Data Management PaperdatasheetswillbefiledintheMonitoringfilingcabinetuntilrequestedbytheplantspecialist.
Pipeline ROW Monitoring – Pipeline‐Stream Crossing Monitoring
160
Pipeline-Stream Crossing Monitoring
Purpose Pipelinecrossingsrepresentasignificantimpactonstreamsandriversinstateforests.Thepipelinecrossingsaretypicallyconstructedbyanopen‐cuttrenchacrossthestreamorbyhorizontaldirectionaldrilling(HDD)beneaththestream.Theopen‐cuttrenchrepresentsadirectimpactontheriparianvegetation,streambed,andwater.TheHDDcanaffectriparianvegetation,dependingonthedetailsoftheoperation,andcanaffectnearbywaterbodiesthroughtheoccurrenceofinadvertentreturns.PostConstructionStormwaterManagement(PCSM)BestManagementPractices(BMPs)areconstructedinordertoensurethatconstructionactivitiesdonotimpactreceivingwaterswitherosionandsedimentationforthelifeoftheproject.Throughthismonitoringeffort,wewillbeabletodeterminethesuccessofinstalledBMPsthroughtime.Wewillalsobeabletomakerecommendationstoimproveguidelinesandvegetativespeciesplantinglistsinregardstoerosionandsedimentationcontrol.
ThisprotocolhasbeendesignedtoprovideanefficientmeanstocharacterizeandassessforeststreamcrossingsbypipelinesonStateForestlands.Itisourassumptionthatfollowingconstructionandsiterehabilitationmanyofthesestreamcrossingsiteswillremainfairlystable,thuseliminatingtheneedforanexhaustiveassessmentofeverysite.However,itisimportanttoevaluatethesesitesandidentify“at‐risk”or“impacted”streamcrossingsthatrequirefollow‐upbythedistrictand/oroperators.
Equipment Needs Clipboardandpencil Measuringtape(logger’s100’tape) clinometer digitalcamera GPSunit InfrastructureMonitoringPipelineCrossingDatasheet
Procedures Forthepurposesofthisprotocol,the“centerpoint”isthecenteroftheintersectionbetweentheright‐of‐way(ROW)andthestream.“Leftbank”and“rightbank”aredeterminedasonefacesdownstream.Usefulacronymsareincludedatthetopofthedatasheets.
OnceonsiterecordtheDistrict#,Tract#,Operator(onthelease),ROWcrossingID#(obtainedfromthecrossing’sattributesinFIMS),Surveyors,andtheDateatthetopofthedatasheet
Alsorecordifapre‐existing(historical)ROWwaspresentANDifanysyntheticmattingcanbeseenanywhereinthestudyarea
Pipeline ROW Monitoring – Pipeline‐Stream Crossing Monitoring
161
ROW Measurements ROWwidthmeasurementswillbetakenwithalogger’stapeorothersuitabledevicemeasuredtothenearestwholefoot.Thesemeasurementswillbetaken25feetfromthestreambankonBOTHtheleftandrightsidesofthestream.
MeasurethetotalROWwidthandtemporaryworkspacewidthifadeferentialdeterminationcanbemadeinthefieldbetweenthetemporaryandpermanentROW.Ifadeterminationbetweentemporaryandpermanentwidthcannotbemade,noteonthefieldsheetinthetemporarywidthblock“unknown”.
ThepermanentROWistheareamaintainedinherbaceouscoverforthelifeoftheROWeitherthroughcuttingorherbicideapplication.ThetemporaryROWistheareathatwasusedasaworkspaceduringthepipelineconstruction,anditwillbeallowedtorecoverwithtreeandshrubspecies.Overtime,thismeasurementwillbecomemoredefinedasthetemporaryworkspaceisreclaimedwithtreeandshrubspecies.Ifthereistemporaryright‐of‐wayoneachsideclosesttotheundisturbedforestandpermanentROWinthemiddle,thesetwotemporaryROWsidesmaybesummed.
Ifthereisanexisting(historical)ROWwherethenewROWisco‐located,thewidthsofthehistoricalROWshouldbeaddedtothe“TemporaryROW”dependingonvegetationcompositionandinferredmaintenancehistory.IfmaintainedinherbaceouscoverlikethenewpipelineROW,simplyincludewiththe“TotalROW”anddonotaddto“TemporaryROW”measurements.
Slope Measurements Theslope(%)ofBOTHsidesofthepipelinewillbemeasuredintwowaysusingaclinometer.
First,measurethepercentslopefromthecenterpointtoapoint25feetfromthestreambankandrecordonthedatasheet
Next,measurethepercentslope,alongthesamebearing,fromthecenterpointtotheendofastraightline‐of‐sightandrecordonthedatasheet
Ifthestreamistoodeep,thesemeasurementscanbemadefromthestreambank.
Photo-Documentation Eightphotographswillbetakenfromthecenterpointofthestream‐pipelineintersection.Thephotographswillbe:upstream,downstream,leftbankupstream,leftbankROW,leftbankdownstream,rightbankdownstream,rightbankROW,rightbankupstream.Generally,theseshouldbelandscape‐typephotos,notzoomed‐inattheportionofthestreambank.
Pipeline ROW Monitoring – Pipeline‐Stream Crossing Monitoring
162
Inaddition,anynotablefeatureswillbephotographedandcommentedonindetail,suchaserodingbanks,failingPCSMstructures,unsuccessfulre‐vegetation,oralgaeinthestream.Ifneeded,extraspaceonthedatasheetisprovidedtonumberphotostofacilitatethematchingandnamingofphotoslaterwhendownloading.
Bank Assessment Thestructureofeachbankareawillberecordedbasedonthecompositionobserved.Whenevaluatingthesestreambankareas,surveyorswillonlyconsidertoapoint~25ftupstream/downstreamoftheROWcorridorandtheareafromthesurfaceofthestreamorstreambottomtothepointatwhichtheslopechangesfromverticaltohorizontal.Thisistypicallyonlyafewfeetupfromthestreamitself. CategorizeeachbankareaasRockArmored,ErosionControlMaterials(mat,
sock,etc),NonE&SVegetation(anyvegetationthatisnotanE&Splanting),E&SVegetation,DenseRootCoverage(mayormaynotbeundercut),ExposedBankwithlittleornorootcoverage,orOther.Thenumbercodecorrespondingwiththecategoryshouldberecordedonthedatasheet.
If“other”ischosen,pleasespecifywhatconditionsarepresentatthatlocation.Morethanonecategorycanbeselectedforeacharea.
Inaddition,foreachbankareathatiscategorizedaseither“NonE&SVegetation”(3),or“E&SVegetation”(4),evaluatethecoverage/successofthevegetationincloseproximitytothestreamasGood(A),Moderate(B),orPoor(C).Forexample,abankareathatwasseededandisnearly100%coveredwithverylittlebaregroundwouldberecordedas“4A”intheblanknexttotheappropriatebankarea.
Erosion Survey RecordthetypeoferosionobservedateachbankareaasNoneobserved,sheet,
rill/gulley,orbank/sloughing.Thenumbercodecorrespondingwiththeerosiontypeshouldberecordedonthedatasheet.
Sheet →occurswhenwater lowsalongthesoilsurfacecausingerosionordepositionalongthatsurface.Thismaybeevidentwhereerosioncontrolmattinghasbeenwasheddownslopeorvegetationhasbeenwornaway.
Rill/Gulley →erosionoccurswhenwaterbeginstoconcentrateinsmallorlargechannels,causinganincisioninthesoilsurface.
Bank/Sloughing →erosionoccursalongexposedbanksandmaybeevidentfromsloughingofthesoilintothestreamorasfreshlyexposedsoilsurfacealongthebanks.
Pipeline ROW Monitoring – Pipeline‐Stream Crossing Monitoring
163
Theseverityoftheerosionateachbankareashouldalsoberecorded:Light,
ModerateorSevere.Thelettercorrespondingtoeachseverityshouldberecordedonthedatasheetintheappropriatebankarea.
Ifamaterialhasbeenhauledintolinethechannelbottom,thenthisshouldbeindicatedinthecommentssectionatthebottomofthedatasheet.
Quality Control Nolessthantwiceperfieldseason,apipelinestreamcrossingmonitoringeventwillbeobservedbyaVegetationSpecialistandInfrastructureSpecialist,whowillverifythatthemethodisbeingimplementedaccordingtothisprocedure.
Data Management Paperdatasheetsshouldbescannedandfiledatthefollowinglocation:
\\nrford12ds1\RPI\RPI_RAID\PipelineStreamCrossings
Allapplicablephotosshouldbedownloadedandplacedintheappropriatefolderattheabovelocation
Social Monitoring
164
Chapter 7 Social Monitoring
Social Monitoring‐Sound Monitoring
165
Sound Monitoring
Purpose TheguidelinesforoilandgasrelatedactivityonStateForestLandsrecommendthattheoperatingnoiselevelofcompressorstationsshallnotexceed55db(A)Ldnatanydistancegreaterthan100yards(300feet)fromanyinfrastructureonthepadthatiscapableofproducingnoise.Soundmonitoringisconductedbythemonitoringstaffatcompressorsites,permanentwellpadvegetationassessmentsites,andothersitesonStateForestLandasscheduledbytheSocialMonitoringSpecialistorasrequestedbydistrictpersonnelandotherstakeholders.
Equipment Needs InfrastructureExtechSoundLevelMeter,ModelHD600(SLM) USBcable SoftwareCD 9Vbattery LaserRangeFinder GPS DigitalCamera Tablet&Pen
Calibration AttachtheModelHD600SoundLevelMetertotheSoundLevelCalibrator.This
isdonebyremovingthefoamwindscreenandinsertingtheSLMintothecalibrator.
Turnonthepowertobothdevices.
SETUP:UsetheA/Cbuttontoselectdb(A),theFAST/SLOWbuttontoselectslow,andtheLEVELbuttontoselect30–130.
ThisiswhatwesettheSLMtowhencollectingdata.
TheSLMshouldread94.0db(A).Ifitdoesnot(whichitisnormallyoffbyafewtenths)usethesmallflatheadscrewdrivertoturnthesetscrewontheSLMuntilitreads94.0db(A).(Clockwisetoincrease,andCounterClockwisetodecreasedb(A)).
OncetheSLMissetto94.0db(A)unhookandturnthepoweroffonbothdevices.
FillouttheSoundMonitorCalibrationforminRPI_RAIDintheCompressors
Folderand“SaveAs”SoundMonitorCalibration.yyyymmdd.xlsx.
Social Monitoring‐Sound Monitoring
166
Deployment
Developed Site BesuretohavethefoamwindscreenontheSLMfordeployment.
Checktheweatheronlinebeforegoingafielddonotdeployifwindspeedsare
greaterthan15mphorifthereisagreaterthan30%chanceofrain.Sincethesefactorswilldistortthedata.
Installanew9Vbatteryforeachdeployment.Ifnotthepowerwilldieduring
theconsecutivedeploymentandallofthedatawillbelost. FollowinstructionsintheEXTECHuser’sguidesuppliedintheplasticcarrying
casetosetthetimeanddate. TurnthepoweronandfollowthestepsforSETUPaboveinCalibration. Walkacompletelaparoundtheperimeter,periodicallyusingthelaserrange
finder,tryingtokeepadistanceof100yards.Continuouslymonitorthedb(A)levelonthedisplayscreenwhilewalkingtheperimeter.
ReturntowheretheSLMdisplayedthehighestdb(A)reading.Trytostayaway
fromroadsoranynoisesourceotherthanthecompressorthatmaydistortthedata.
SelectatreetoplacetheSLMon,usethelaserrangefindertomakesurethe
locationis100yardsorgreater.UsethestrapandinstalltheSLMontoatreeatearlevelheight(ifthereisnotreeavailable,improviseandmakesomethingtomounttheSLMto).
TakeaGPSpoint. Take2photosoftheSLMplacement(trytocaptureidentifyingfeaturesofthe
placementsiteinthephotossotheexactsamesitecanbeusedforredeployments).Takeatleastonephotowithanangletoincludethecompressorinthebackgroundofthephoto.
Inanotebookwritedownthedate,compressorandtract#,distance,andtime
deployedsotheSLMcanberetrieved24hourslater.AlsotakeanynotesthatcouldbeimportantfortheSocialMonitoringSpecialistthatcouldexplainothernoisesbeingrecordedbytheSLM(e.g.Heavyequipmentbeingoperatedatthesite,snowmobilesridingby,etc.).
Social Monitoring‐Sound Monitoring
167
Ifrecordingambientnoiselevelsofasitebeforeacompressorisbuiltandthereisapadpresent,deploytheSLM100yardsfromtheedgeofapad.
TosetupandstartrecordingproceedtoSetupforRecordingsectionbelow.
Undeveloped Site Whencollectingambientnoiselevelsatsitesthatdonotyethavepadsbuilt,followthesameproceduresoutlinedforadevelopedsitewiththefollowingdeviations:
WhenthereisnotapadpresenttheSocialMonitoringSpecialistwillsendamap
oftheproposedsitewheretheambientnoiselevelistoberecorded. ForambientnoiselevelrecordingsphotosandGPSpointsarenotrequired.
Sincetheselocationswillmostlikelynotbereusedafterthesiteisdevelopedandthecompressorisbuilt.
Setup for Recording WiththeSLMturnedoff,pressandholdtheLIGHTBULBandpressthepower
button(simultaneously).“0001”and“Int”willappearonthedisplayscreen.UsetheLEVELbuttonandsettheSLMto“0015”.PressHOLDtosaveintervalsettingsandreturntothemaindisplayscreen.FollowSETUPstepsaboveinCalibration.
PresstheRECbuttontostartrecordingandwalkawaytryingnottomakeany
unnecessarynoise.
Retrieval Forundevelopedanddevelopedcompressorstations;24hourslater,returnto
theSLMandpressRECtostoprecording.Forpermanentwellpadvegetationassessmentsites;retrievewhenthepermanentwellpadvegetationassessmentiscomplete
PressthepowerbuttontopowerofftheSLM.
ReturntothevehicleandplacetheSLMintheplasticcarryingcase.
Software Communications UseacomputerthathastheCP210Xdriverinstalledonitordownloadfromthe
internet.(https://www.silabs.com/support/pages/support.aspx?ProductFamily=USB+to+UART)
UseacomputerwiththeHD600discalreadyinstalledonitorloaditfromthe
discprovidedintheplasticcarryingcase.
Social Monitoring‐Sound Monitoring
168
ConnecttheSLMtothecomputerusingtheprovidedUSBcablefromtheplasticcarryingcase.
LaunchtheHD600application. TurnthepowerontoSLMandpresstheSETUPbuttontoestablish
communication. Ifthedatadoesnotappearonthescreen,communicationisnotestablished.If
so,selecttheCOMportwhichhastheCP210Xdriverinstalled.(Datawillappearonthecomputerscreenwhencommunicationisestablished).
Process Recorded Data ClickDatalogger(D) DoubleclicktheDATETIMEforthedatayouwanttoview/export/save. ClickexporttoExcel(E) FilethedataasaccordingtotheFileManagementAppendix. DownloadthephotosoftheSLMplacementalongwiththeDatafile.Thefiles
shouldbenamedusingtheformat“Tract#_Compressorpad“(e.g.289_Comp_P#.JPG).
Clearing Data Afterallthestepsfromabovehavebeenfollowedyoucanclearthestored
readingfromtheSLMtoreadyitforthenextdeployment.
WiththeSLMturnedoff.PressandholdtheRECbuttonandpressthepowerbutton.
When“CLR”appearsonthedisplayscreenreleasetheRECbutton
AllofthereadingsthatwerestoredontheSLMarenowerased.
Additional Data Management EnterdataintotheCompressorSounddatabaseat
\\nrford12ds1\RPI\RPI_RAID\SoundMonitoring.
Openthedatabaseandfilloutallheaderinformation:o Tract#o InfrastructureI.D.(Atthistimethereisonlyonecompressorpertractand
theyarenamed“A”withtheexceptionofTract100whichhas“HagermansRun”and“BodineMtn”)
o Select“MeasureType”fromdropdowno Select“NoiseType”fromdropdowno Year
Social Monitoring‐Sound Monitoring
169
o LeafON/OFFo Notes
“SelectFile”fromfolder “Import”file Checktomakesurethefilewasinportedintothedatabase
Appendix A Supporting Documents
170
Chapter 8 Appendix A Supporting Documents
Appendix A Supporting Documents‐Observed Pollution or Suspected Pollution Events
171
Observed Pollution or Suspected Pollution Events
Introduction Monitoringfieldstaffshouldbealertatalltimesforpollutioneventsorsuspectedpollutionevents.Pollutioneventsmayvaryinnatureandseverity,butaregenerallydefinedastheunintendedreleaseofhazardous,regulated,orothersubstanceswiththepotentialtocausenegativeenvironmentaleffects.Examplesofsuchsubstancesaredieselfuelandotherpetroleumproducts,hydraulicfracturingfluidpreparedpriortowellinjection(frackfluid),chemicaladditivesforpreparingfrackfluid,flowbackwaterrecoveredfromthedrillingprocess,andotherbrinewatersusedduringdrillingoperations.Inaddition,inadvertentreturns(theunintentionaldischargeofdrillingmud,primarilywaterandbentonite)andmajorfailuresoferosionandsedimentationcontrolmeasures,whichpolluteorimminentlythreatentopolluteawaterbody,arealsoconsideredpollutionevents.Pollutioneventsmayoccuratapadsiteoratsomeancillaryfeaturerelatedtogasdevelopment,suchasacompressorstation,metersite,roadway,orpipeline.
Ifapollutioneventisdiscovered,thefirstconcernshouldbeforthesafetyofallinvolvedandthepublic.Appropriateactionsandnotificationsshouldproceedasdescribedbelow.
Observer Actions and Notifications Upondiscoveringapollutionevent,monitoringfieldstaffshouldpromptlyassesstheseverityofthepollutioneventtodetermineanypotentialsafetyissuesbeforefurtherinspectionordocumentation.Ifapollutioneventcausesanimminentsafetythreat,donotengageineventdocumentationandimmediatelynotifytheForestDistrict.Ifitisdeterminedthereisnoimmediatesafetythreat,followtheoutlinedprocedurefordocumentingtheobservedeventbelow.
Ifnoimminentsafetydangerexists,accessthesiteandphoto‐documentthepollutionevent.Includeevidenceoftheeventandanyinterimremedialmeasuresbeingtaken.
Beginfillingoutthe“PollutionEventDocumentationForm”todocumenttheevent.ThisformcanbefoundintheGuidelinesforAdministeringOilandGasActivityonStateForestLandsonpage81.
Assumingtheconditionsatthesitearesafe,andthestaffpresenthavebeentrainedinsamplingprotocolsandhavethepropersamplingcontainersorfieldmeters,takesamplesofsubstancesatthepollutionsiteandalongtransportpathways.
Uponreturningtotheoffice,promptlybrieftheMonitoringAssistantProgramManagerintheResourceInventoryandMonitoringSectionoftheobservations.
Appendix A Supporting Documents‐Observed Pollution or Suspected Pollution Events
172
IftheAssistantProgramManagerisunavailable,contacttheSectionChieffortheResourceInventoryandMonitoringSection.
Reviewandfinishfillingoutthe“PollutionEventDocumentationForm”ascompletelyaspossible.
Compileadditionalnotesandphotographssotheyarereadilyavailablefordistributionifrequested.
Resource Inventory and Monitoring Assistant Program Manager Roles Uponbeingnotifiedoftheobservations,theAssistantProgramManagerwillpromptlyreviewthedetailsoftheobservationandbeginthenotificationprocess.Thefirstcontactwillbemadetotheappropriatedistrictpointofcontact(POC)viatelephoneregardingtheobservationsandanyactionsthatweretaken.
TheBOFMineralssectionmaintainsthedistrictPOClist.
Thiswillbefollowed‐upwithane‐mailtodocumentthecall.CC’edonthee‐mailarethefollowing:
DistrictForester(unlessthisisthePOC). TheEcologicalProgramSpecialistforwatermonitoringintheBOFMinerals
Division(ifsampleswerecollected). TheProgramManagerfortheResourceInventoryandMonitoringSection. TheAssistantStateForester.
Follow-up Documentation and Monitoring Followingtheeventnotification,theResourceInventoryandMonitoringSectionwillprovideadditionaldocumentationandcoordinateadditionalmonitoringeffortsasrequested.
Appendix A Supporting Documents‐Disinfection of Didymo Infected Equipment
173
Disinfection of Didymo (Didymosphenia geminata) Infected Equipment
Purpose TheproperdisinfectionofequipmentusedinthemonitoringofriparianareasknownorsuspectedtohaveDidymoisprudenttopreventthespreadofthisdiatom.Didymoonlyrequiresonecelltoreestablishitselfinanotherfreshwaterstreamandcansurviveoutsideastreaminacool,damp,darkenvironmentforupto40days.Itistheresponsibilityofmonitoringpersonneltoinsuretheyarenotspreadinganyinvasivespecieswhileperformingtheirwork.ThereareafewapprovedmethodsoftreatmenttoremoveDidymofromequipment.Choosethemostpracticaltreatmentforthesituationwhichwillnotadverselyaffectyourgear.
Equipment Needs
Bleaching Method: LargeRubbermaid‐typebin,or5gallonbucket Largestiffbristlebrush Spraybottle Graduatedcylinderormeasuringcup Bleach Taporstreamwater
Cleaning Agent Method: LargeRubbermaid‐typebin,or5gallonbucket Largestiffbristlebrush Measuringcup CleaningagentsuchasSimpleGreen,SnotOff,ordisinfectantssuchasFormula
409orFantastic(mustcontainthequaternaryammoniumcompoundalkyldimethylbenzylammoniumchloride)
Taporstreamwater
Procedures
Preparation Remember:DisinfectDidymoinfectedclothingandequipmentbefore
relocatingtheworksitetoanotherwaterbody,watershed,oranothersitewithinthesamewaterbody.
Check:Beforeleavinganinfestedriver,stream,orlake,checkitemsandleavedebrisatsite.(Anyobviousclumpsofalgae,hiddenclumpsofvegetation,mud,etc.)
Appendix A Supporting Documents‐Disinfection of Didymo Infected Equipment
174
Disinfection Methods OnlyequipmentthatismostlikelytoharborDidymoneedbedisinfected.Someequipment,suchastheYSIProPlusanddigitalcamerascanbeexcludedbecauseofthepotentialdamagetothefunctionalityoftheinstruments.Itemssuchasmuckboots,waders,oranyotherfootwearareALWAYStobedisinfected.Otheritemsmayormaynotbedisinfectedatthediscretionofthefieldstaff.Remember,hardened,non‐poroussurfacesdonotposeasmuchofaconcernassoft,poroussurfaces.
BleachingMethod:Inalargetoteor5gallonbucket,soakallsurfacesforatleastoneminutein2%householdbleach(2.5ozwithwateraddedtomakeonegallon.)Usealargestiffbristlebrushtoremovedebrisfromsurfaceswhilebeingsoaked.Inthefield,afterallsurfaceshavebeenscrubbedandsoaked,disposeofthesolutiononthegroundawayfromanywaterbody.Attheoffice,solutioncanbediscardeddownasinkdrain.
CleaningAgentMethod:Cleaningagentsshouldbedilutedforsoakingwith
twopartswatertoonepartdisinfectant.Forallmaterials,followlabelinstructionsandbesuretosoakequipmentforaminimumof10minutes.Usealargestiffbristlebrushtoremovedebrisfromsurfaceswhilebeingsoaked.Inthefield,afterallsurfaceshavebeenscrubbedandsoaked,disposeofthesolutiononthegroundawayfromanywaterbody.Attheoffice,solutioncanbediscardeddownasinkdrain.
DryingMethod:DryingwillkillDidymo.ToensureDidymocellsaredeadby
drying,theitemmustbecompletelydrytothetouch,insideandout,thenleftforatleastanother48hoursbeforeuse.
Whendisinfectingequipment,itisrecommendedyou:o Soakporousmaterialslongerthanthespecifiedtimestoensuresaturation
withsolutiono Followmanufacturer’sinstructionswhenusingproductso Useallcleaningproceduresondrylandawayfromwaterwayso Itispreferabletodrainusedsolutionsintotreatedwastewater(e.g.pour
downsinkdrain)
Appendix A Supporting Documents‐Preparing Grab Samples for Courier Pickup
175
Preparing Grab Samples for Courier Pickup
Purpose GrabsamplestakenmustbeproperlycaredforpriortoshipmenttoDEPBureauofLabs.ArrangementsmustbemadeinadvanceforQuickCourierServicetopickupanddeliverthesamplestothelab.Propercareandtimelyshipmentareessentialinretainingsamplequality.
Equipment Needs Papertowels Bubblewrapprotectors(fororganics) Cooler Ice OnegallonZiplocbags Clearpackagingtape DEPLab–MultipleSampleSubmissionSheet Inkpen QuickCourierticket
Procedures
Arranging for Quick Courier Pickup CalltheQuickCouriertoarrangeforsamplepickuponedaypriortosamplingorthedayofsampling,priorto10:00AM.TheQuickCouriernumberis1‐800‐355‐1004.Usetheinformationbelowtodirectthecourierandobtainaconfirmationnumberfortransport.Itisimportanttouse“BureauofForestryBuilding”forthelocation.QuickCourierhasusfiledunderthistitleandbrokendownbyaddress.
CallInformation:
Requesttohavecooler(s)pickedup GrabSamplingCodePA‐DEP69(notWestNile) PickupLocation–BureauofForestrybuildinginWaterville Address–10LowerPineBottom,Waterville,PA17776 Time–after4:30PM Givenumberofcoolers RecordconfirmationnumberonDEP‐BureauofLabs,QuickCourierService
Ticket.Theticketwillbesecuredtothetopofthecoolerwhenreadyforpickup.Asamplecopyoftheticketisshownattheendofthisprocedure(Figure8.1).
Appendix A Supporting Documents‐Preparing Grab Samples for Courier Pickup
176
Completing the DEP Sample Submission Sheet *SampleSubmissionSheetsshouldbefilledoutwithblueorblackinkpenfordemonstratingproperchainofcustody.
o ThetopofthesamplesubmissionformshouldbecompletedwiththecollectorIDnumber,ReasonCode(01forRoutineSampling),CostCenter(035forBureauofForestry)andProgramCode(0021forBureauofForestry).
o Therowshouldincludethesequencenumber,date,time(inmilitaryformat),samplelocation(streamname),andSACcode.
Twobottlescanbewrittenonthesamerowsolongastheysharethesamesequence#,andSACcode.
o Thetotalnumberofinorganic(plastic)andorganic(glass)bottlesshouldbeenteredintheboxes.Nutrientsbottlesgetmarkedas“#ofN/P”.
o Thesamplecollectornameandphonenumbershouldbeadded.
o Check“CommercialCourier”forshippingmethod,unlesshanddelivering.
o Thechainofcustodylinefor“RelinquishedbySampleCollector”shouldbefilledoutattheendofthedaywhenthecooleriseitherleftforthecourierordroppedoffatthelab.
o Asamplecopycanbefoundattheendofthisprocedure(Figure8.2).
Preparing Bottles for Transport Bottlecapsshouldbetighttopreventcontamination/spillage
Putall40mLglassbottlesusedfororganicsinabubblewrapprotector,if
applicable
PlaceallsamplebottlesinaZiplocbagtopreventcross‐contaminationfrommelted“dirty”ice
Packallsamplebottlesinthecooleramongstice,keepingthebottlesuprightifpossible.
Filltheremainingareaofthecoolerwithiceandreplacelid.
Appendix A Supporting Documents‐Preparing Grab Samples for Courier Pickup
177
PreparingtheCoolerforPickup ThecompletedsamplesubmissionformshouldbeplacedinaZiplocbag.Fold
~1/2”oftheshortedgeoftheformtofitintheZiplocbag.
Placethebagontopofthesecuredcoolerlid.
SecuretheZiplocbagtothecoolertopusingtheclearpackagingtape.
Whentapingbeginseveralinchesbelowcoolerlidandbringthetapeupoverthebag,allowingslackoverthebag,andcontinuedowntheothersideofthecooler.Itisimportanttoleaveslacksothesubmissionformcaneasilyberemovedandreplacedwithoutremovingthetape.Twostripsshouldbesufficienttoholdthelidandsubmissionforminplace.Usemoreasneeded.
TapetheQuickCourierticketontopoftheZiplocbag.
PlacethecoolerinthevestibuleoftheResourceManagementCenter,onthe
righthandside,justbeforethesecondsetofdoors.Thecourierhasakeytotheouterdoor.
Figure8.1SampleQuickCourierticket
Appendix A Supporting Documents‐Preparing Grab Samples for Courier Pickup
178
***NOTE:LegalSealNumber(s)filledinifapplicable
Figure8.2ExampleofacompletedDEPLabMultipleSampleSubmissionSheet
Appendix A Supporting Documents – How to Collect and Press Plants
179
How to Collect and Press Plants
Purpose Topreserveplantspecimensforfutureidentificationortobeusedasareferencespeciesinaherbarium.
Equipment Needs Clippers Shovel Plasticbag Plantpress Newspaperorblottingpapers Cardboard Writingimplement Water Papertowels PlantCollectionDataSheet Compass Clinometer Camera TypingManual(PADCNRBureauofForestry) Maskingtape
Collecting Ethics Beforeyoupickanypartofanyplantremembertoconsider:
Arethereenoughplantstojustifyyouraction?Ingeneral,followthe1in20rule
‐onlytakeoneifyoucansee20othergoodplantsofthesamekind.
Weeds,particularlynoxiousweeds,canbecollectedwithoutlimit,butminimizethedisruptionyoucause.Don'tleaveholesintheground.
Doyouhaveagoodreasonforkillingordamagingtheplant?Whetheritisagoodenoughreasonwillvarywithlocation.
Collection Procedure Thecollectionprocedureisusedforplantspeciesthatyouareunabletoidentifyinthefield,howeveryoufeelitcanbeidentifiedwithfurtherresearchattheoffice.Thepressingprocedurewillbeusedforunknownplantspeciesthatwillrequireadditionalassistance.
Appendix A Supporting Documents – How to Collect and Press Plants
180
Selection Criteria GrassesandGrass‐likePlants:
Ifpossible,selectspecimenswithseedheadsfullyemergedfromthesheath.
Ifpossible,selectspecimensthatarestillgreenincludingtheseedhead.
Collectthewholeplant,whenpossible,includingagoodsampleoftheroots.
Besurethatrhizomesorstolonsareattachedtotheplantiftheyaretypicalforthatspecies.
ShrubsandOtherWoodyPlants:
Selectabranchabout12to14inchesinlengthandnotover10inchesinwidth.Thebranchshouldcontainasmanyidentifyingfeaturesaspossible(i.e.buds,leaves,seeds/fruitetc.).
Ifpossiblecollecttheplantwhenitisinbloom.
Itisoftenusefultoincludeasampleofboththecurrentyearsandtheolderbarkofwoodyplants.
Rootsoflargewoodyplantsshouldnotbedugupforcollection.
Sincesomeplantsbloominearlyspringandothersbloominthelatefall,youmaynotalwayshavethebest“state”ofaspecimenforI.D.purposes.Collectionatalaterdatemaybenecessaryifpossible.
Chooseplantspecimenscarefully.Selectone,orpreferablytwo,ofeachplant
speciestobecollected. Avoidplantsthatareoff‐color,grazed,over‐mature,diseasedorotherwisenot
normal.
Plant Extraction Ifaplantspecimencanbeidentifiedfromjustapiece(i.e.ashrub),simplyclip
andbagthebranchsection.
Ifaplantspecimenistoberemoved,digabout6inchesstraightdownaroundtheplant,about3inchesoutfromthestem.Carefullyliftoutthechunkofsod.If
Appendix A Supporting Documents – How to Collect and Press Plants
181
thesoilisdry,shakethesoilgentlyfromtheroots.Ifthesoilismoist,usewatertowashawaythesoilfromtheroots.
Removeallsoilparticlesfromtheroots.Don'tbeafraidtowashtheroots
thoroughlyonalltheplantscollected.Infact,itmaytakemorethanonewashing.Excessmoistureafterwashingtherootscanberemovedbyfirmlypressingtheplantbetweenpapertowels.
Removetheexcessplantmaterialfromtheroots,stems,leavesandseedheads.Forexample,byremovingseveralstemsfromalargebunchgrassorshrub,itiseasiertocollectandbagaspecimen.Ifplantsareverylargeandbulky,collectasampleofthestem,leafarrangement,rootsandflowerorseedhead.
Takeseveralplasticbagswithyouwhencollectingplants.Puttheplant(s)inthebagwithafewdropsofwater(don'toverdoit),thensealthebagandthespecimenswillstayfresh.Thebagsshouldbekeptoutofdirectsunlight.Anotheroptionistomoistenapapertowelwithwaterandplaceitinthesealableplasticbag.Onlyputonekindofplantinabagandlabelthebagtomatchyourfieldnotes.
Whileatthesite,recordtheidentificationnumberinyourfieldnotes.Besurethatoncethespecimenisidentifieditcanbelinkedbacktothedata.Thiscanbedoneseveralwaysbutitisrecommendedtousethe“UNK’’speciescodefollowedbyasequentialnumber.
o Whenaspecimeniscollectedaspartofavegetativeprocedure,suchasa
milacreplot,simplymark“UNK#”intheappropriateplaceonthedatasheetandsomehowtagthebag/specimen.Maskingtapemaybeusefulforthis.Yourname,thedate,andlocationshouldalreadyberecordedonthedatasheetfortheprocedure.
o Ifthecollectedspecimenisnotpartofavegetativeprocedure,itisagood
ideatomarkthebag/specimenwithyourname,thedate,andlocationforlaterreference.
Pressing Procedure Thepressingprocedureisusedforunknownplantspecies,whichwillrequireadditionalassistanceforidentification.Theobjectiveistoquicklydrytheplantsunderfirmpressuretoretainplantcolorsandtheplantarrangement.Itisimportanttofollowthepressinginstructionsprecisely.Wellpreservedplantsaidintheidentificationprocessandmaybeusedasherbariummounts.Photodocumentationofthelivespecimenisrequiredbytheplantspecialist.
Appendix A Supporting Documents – How to Collect and Press Plants
182
Photo Documentation Photographthewholeplantandanyuniqueidentifyingfeatures. Recordthephotonumbersontheplantcollectiondatasheet(Figure8.4).
Plant Extraction Haveyourpressreadytogobeforeyouextractaspecimen.Cutasupplyof
corrugatedcardboardsheetstofityourpress.Foldnewspaperlengthwisewithaboutaquarteroftheupperandloweredgesfoldedtowardthecenter.Thiswillhelpkeepyourspecimensfromslidingout(Figure8.3).Openthepressbyremovingtheratchetstraps.Fillthepressbyplacingalternatinglayersofthecardboardandthefoldednewspaper,beginningandendingwithasheetofcardboard.Althoughitisnotnecessary,blottersheetscanbeplacedbetweenthenewspaperandcardboardtospeedthedryingprocess.
Toremoveaplantfromthesoil,digabout6inchesstraightdownaroundtheplantabout3inchesoutfromthestem.Carefullyliftoutthechunkofsod.Ifthesoilisdry,shakethesoilgentlyfromtheroots.Ifthesoilismoist,usewatertowashawaythesoilfromtheroots.
Removeallsoilparticlesfromtheroots.Don'tbeafraidtowashtherootsthoroughlyonalltheplantscollected.Infact,itmaytakemorethanonewashing.Excessmoistureafterwashingtherootscanberemovedbyfirmlypressingtheplantbetweenpapertowels.
Removetheexcessplantmaterialfromtheroots,stems,leavesandseedheads.Forexample,byremovingseveralstemsfromalargebunchgrassorshrub,itiseasiertodry.Ifplantsareverylargeandbulky,collectasampleofthestem,leafarrangement,rootsandflowerorseedhead.
Plant Pressing
Presstheplantsimmediatelyafterextractingandcleaning.Onceaplantwilts,itwillnotmakeanattractivemount.
Appendix A Supporting Documents – How to Collect and Press Plants
183
Figure8.3Newspaperlayout
Whenreadytopressaspecimen,flipopenafoldednewspaperlayerwithinthepresslayers.Iftheplantislessthan12incheslong,placeitinthefoldednewspaper.Arrangethestems,leaves,rootsandflowersexactlyasyouwantthemtoappearonthemount.Flowersshouldbepressedopen.Boththeupperandlowersurfacesofflowersandleavesshouldbedisplayed.
Iftheplantislongerthan12inches,itwillbenecessarytofoldtheplantinthe
shapeofaV,NorW(Figure8.3).Iftheplantisstilltoolarge,pressasampleofeachpart:stem,leaf,rootandflowerorseedhead.Forhard‐to‐handleplants,holditatthestembasefirmlyandslowlymovetheplantupanddownagainstthenewspaperafewtimes,stoppingwithanupwardstroke.Thiswillhelpseparateandstraightenoutthebranchesandleaves.
Holdtheplantinplaceandfoldtheupperandlowerpartsofthenewspaperovertheplant.Whileapplyingpressuretokeeptheplantinposition,writetheassignedplantvouchernumberontheedgeofthenewspaperwhereitisnoticeable[seeVoucher(#)in“CompletingthePlantCollectionDataSheet”sectionbelow].Placeacardboardlayerabovethenewspapercontainingyourspecimen.Replacethetoppressboardandreplacetheratchetstrapsperpendiculartothelongribsofthepress.Positionthestrapsapproximatelythreeinchesfromeachend.Pullthestrapstauntuntilthecontentsofthepressarefirmlycompressed.
Ifpossible,examinetheplantafterithasbeenpressedfor24hours.Thisisyourlastopportunitytodosomerearrangingwhiletheplantisstillflexible.Besurebothupperandlowerleafsurfacesshow.Changethenewspaperorblotterpapereverydayuntiltheplantisthoroughlydryasneeded.Rememberthatsucculent(fleshy)plantswilltakemuchlongertopress.
Appendix A Supporting Documents – How to Collect and Press Plants
184
Plantscanberemovedfromthepressinsevento10days.Keeptheplantsinfoldednewspaperuntilyouarereadytogivetoaplantspecialistforassistanceinidentification.
Completing the Plant Collection Data Sheet Acompletedplantcollectiondatasheetmustbesubmittedwitheachpressed
plantspecimen.Thisformwillassisttheplantspecialistinidentificationofthespecies.Italsoidentifiesthepersonwhorequiresidentificationofthesubmittedspecimen.Foracompletedexampleoftheplantcollectiondatasheet,seeFigure8.4.AblankcopyisprovidedinAppendixB.
Afterpressingtheplantspecimen,recordthefollowinginformationinthefield
ontheplantcollectiondatasheet.
o DateofCollection‐Recordthedate
o Voucher(#)‐Recordyourinitialsfollowedbythesequentialnumberfor
yourpressedplants
o ForestDistrict‐Recordthedistrictnumberwherethespecimenwastaken
o Ecoregion‐Notapplicable
o Tract/Pad(#)‐RecordtheleasedtractnumberandpadID,ifapplicable
o PlotID‐Provideifapplicable
o PhotoNumber(s)‐Listthedigitalphotonumber(s),ifnotalreadydone
o Slope‐RefertothePercentSlopeinstructionsinthe“PlotData”sectionoftheOverstoryPlotProcedurefoundinthismanual
o Aspect‐RefertotheAspectinstructionsinthe“PlotData”sectionoftheOverstoryPlotProcedurefoundinthismanual
o AdjacentForestType‐RefertotheBOFtypingmanualandrecordtheplantcommunitytypethatbestrepresentsthestandthespecimenwastakenin
o PhysicalHabitat/Substrate‐Brieflydescribehabitat/soiltype
o Genus/SpeciesORBriefDescription‐Recordthegenusifknown,ifunknownleaveblankandgiveabriefdescriptionofthespecimen
Appendix A Supporting Documents – How to Collect and Press Plants
185
o Add’lFieldNotes‐Recordanyuniquecircumstances
Figure8.4PlantCollectionDatasheet
Data Management Uponreturningtotheoffice,postyourphotosinRPIRAIDsotheycanbe
reviewedbythePlantSpecialist.
Navigateto\\nrford12ds1\RPI\RPI_RAID\Plants\PlantPressSpecimensandcreateanewfolderandnameitwiththevouchernumber(e.g.VoucherLN1).
Moveyourphotosanddatasheettothecorrespondingfolder.
Givepressedspecimens,alongwithcorrespondingplantcollectiondatasheettotheplantspecialist(s)asrequested,orableto.
Ifcollected(bagged)specimenscannotbeidentifiedbyfieldpersonnelbackattheoffice,thentransfercontentstoaplantspecialistforidentification.Dependingontiming,anadditionalspecimenmayneedtobecollectedandpressedaccordingtothepressinginstructionswithinthisprocedure.
Appendix A Supporting Documents – Canopy Photo Software Procedure
186
Canopy Photo Software Procedure
Purpose Thisprocedureoutlinestheprocessofdeterminingthelevelofcanopycoverdocumentedinacanopyphototakenwithanasphericalfisheyelens.Thesoftwareusedforthisprocess(GapLightAnalyzerversion2.0)canbedownloadedfromtheinternetforfree.Itcanbefoundsimplybysearchingfor“gaplightanalyzer.”Thereisalsoamanualthatcoversthisprogram;alsoafreedownloadfromtheinternet.ThepurposeofthefollowingprocedureistoshowthewaythattheGasMonitoringfieldcrewsusethissoftware.
Equipment Needs ComputerinstalledwithGapLightAnalyzerversion2.0 Digitalcanopyphotostoanalyze DatasheetfortheWellPadVegetationAssessmentfortheappropriatepad
Procedures OpentheGapLightAnalyzerprogram Openthephotofilethatyouwanttoanalyze
o OpenImage–clickthe icono Navigatetotheimagefile
PhotosforthePermanentPadWildlifeAssessmentcanbefoundinthefollowingpath;RPI_RAID–Wildlife–PermanentPadCanopyPhotos
Makesuretosearchfor“OtherGraphics”intheFilesofTypefield
o Selectandopenthefileyouwanttoanalyze
Directionsforthenextstepcanbefoundatthebottomofthescreen(atthisstageintheprocessissays“RegisterImage”)
RegisterImage
o Clickthe icon
Photosaretakenwiththebottomofthecamerafacingnorth,sonorthwillbeatthebottomoftheimageandsouthatthetop.
Appendix A Supporting Documents – Canopy Photo Software Procedure
187
o Clickjustinsidetheedgeoftheimageatthemiddleofthescreenatthenorthside
o DragthecursortothemiddleofthesouthfacingsideandreleasethemouseThisdrawsacircleontheimage
o Ifyoulikethecircleyoudrew,click“OK”intheImageRegistrationboxThismakestheimageasquarearoundthecircleandbringstwocopiesoftheimageuponthescreen
Thresholdtheimage
o Clickthe icon
ThismakestheWorkingImageblackandwhitewhiletheregisteredimagestaysincolor.Thisgivesyouareferencepicturetocomparethetwoimages.Thesoftwareassignsavalueofeachpixelofthecolorimage;darkcolorsalownumberandlightcolorsahighnumberandmakesthehighvalueswhite(sky)andthelowvaluesblack(canopy).
o Visuallycomparethetwoimagesandaskyourself,“Istheskyrepresentedaswhiteandthecanopyrepresentedasblackintheworkingimage?”
Ifyoudonotliketheworkingimagerepresentation,dragtheslidingbarintheThresholdboxonewayoranother.Thischangesthedefinitionofwhatisskyandwhatiscanopy.Shiftingthebarwillmakemoreofthephotoskyormoreofthephotocanopy.Makesurethetwoimagesagreeastowhatiswhat.Thedefaultvalueof128isusuallyagoodrepresentationanditisnotusuallynecessarytomonkeywiththevalues.
Thesunwillputabrightspotonthecanopypartoftheimageandthiscan’tbefixedbychangingthevalues.Itisbestnottotakecanopyphotoswhenthesunisinthephoto!
o Click“Ok”whenyouarehappywiththeimage RunCalculations
o Clickthe icono ACalculationsboxpopsup,click“Calculate”o Lookatthevaluefor“%CanopyOpenness”o Takethisnumberandsubtractitfrom100%togetthepercentageofthe
canopythatisclosed.
Appendix A Supporting Documents – Canopy Photo Software Procedure
188
o RecordthisnewvalueinthedatasheetfortheWellPadVegetationAssessmentinthe“CanopyCover”fieldfortheappropriateplotintheWildlifeHabitatsection.
Data Management RefertotheWellPadWildlifeHabitatAssessmentprotocolfordatamanagementinstructions.
Appendix A Supporting Documents – Checking In/Checking Out Data for ArcPad
189
Checking In/Checking Out Data for ArcPad
Purpose/Background ArcMap/ArcPadallowsyouto“checkout”datafromArcMapfeatureclasses.ThesecheckedoutfeaturescanbeeditedinthefieldusingArcPadandthencheckedbackintotheArcMapfeaturesclasses.Whenthedataischeckedbackin,ArcMaplooksfornewfeaturesandfeaturesthathavebeenedited.Thenewfeaturesareaddedtothefeatureclassandfeaturesthathavebeenchangedoverwritethepreviousversionofthefeature.
Thisallsoundsgreatbuttherearesomethingsweneedtowatchoutfor:
ArcPaddoesnotcheckfortopologicalcorrectness.ThefeaturecreatedoreditedinArcPadmayoverlapwithanexistingfeaturethatit’snotsupposedto.Thenewfeaturemayalsohavegapsbetweenitandanexistingfeaturethatarenotsupposedtoexist.Eitherway,weneedtoinspecteachnewfeaturethatischeckedbackintoArcMaptomakesuretopologyrulesarenotbeingviolated.
ArcPadcheck‐inis“lastoneinwins”.Inotherwords,twopeoplemayusethesamechecked‐outdata.ThefirstpersonmayeditfeatureAandthencheckitbackin.ThesecondpersonmayopentheattributesinfeatureAwhileeditedinArcPadandnotmakeanyedits.ArcPadnotesthatthesecondpersonopenedtheattributetableineditmode.Itmarksthefeatureasbeingedited.Thesecondpersonthenchecksintheircopyofthedata(afterthefirstperson).ArcPad/ArcMapcopiesthemarkedfeaturebackintotheArcMapfeatureclass.Theeditsmadebythefirstpersonareoverwritten(lost).
OnceeditsarecheckedinArcMap,theycannotbecheckedinagain.Inthecaseabove,thefirstpersoncannotchecktheirdatabackinagaintorecoverthelostedits.Theremaybesomewaystoworkaroundthisbutitisveryinconvenientandtheerrormaynotbecaught.
It’ssafertocheckdataintoachild“version”ofthedatabaseratherthanthe“default”version.Anyeditscanbecheckedforcorrectnessbeforewritingthemtothedefaultversion.A“version”actslikeacopyofthedatabase.
“Checking Out” Data for ArcPad 1. OpenFIMS2. Adddatathatyouwanttocheckout.3. Zoomtoextentofdatayouwanttocheckout.4. Ifyouonlywanttocheck‐outcertainfeatures,useoneoftheselecttoolstoselect
themnow.5. Thereareseveral“versions”oftheOGITdatabase.MostArcPadrelatedworkcanbe
doneinthe“ArcPad_QA_QC”version.6. ChangetheversiontoArcPad_QA_QCby:
Appendix A Supporting Documents – Checking In/Checking Out Data for ArcPad
190
a. Goingtothe“ListbySource”tabforthefeatureyouwanttocheckoutinthe
tableofcontents. b. Rightclickonthesource(inthiscase‐dbo.Default)c. Clickon“ChangeVersion”d. Clickon“ArcPad_QA_QC”andclick“OK”.
7. Gotothe“ArcPadDataManager”toolbar.
a. Clickonthe“GetDataforArcPad”button.
b. Forthelayersyouwanttocheckout:
i. Under“Action”‐clickon“donotexport”.Adropdownlistwillappear.
ii. Select“CheckOutfordisconnectededitinginArcPad”‐>”Databasedondefinedextent”
iii. Themenuwillnowlooklike:
Appendix A Supporting Documents – Checking In/Checking Out Data for ArcPad
191
iv. Ifyouhaveacustomizedform,clickthecheckboxtotheright.Awindowwillpopupwhereyoucanselecttheaxffilewiththecustomizedform.Onceyouselecttheaxffile,anotherboxwillpopupwhereyouselectthelayerassociatedwiththeform.Selectthelayerandclick“OK”.SeeJohnBrodnickiifyouplantouseacustomizedforminchecked‐outdata.
c. Click“Next”;thenclick“Next”again.d. Youarenowatthe“GetDataforArcPad‐SelectOutputOptions”window.
i. ii. Under“SpatialExtent”selectthecurrentdisplayextentortheentire
extentofthedata.iii. Youwillprobablywanttomakesurethe“Onlygetfeaturesspecified
inthelayer’sdefinition”and“Onlygetfieldsspecifiedasvisibleinlayer’sproperties”arechecked.Ifyoureallywanttolimitthecheck‐outtocertainfeatures,use“Onlygetselectedfeatures”‐Youhavetoselectthefeaturesbeforeopeningthe“GetDataforArcPad”dialog.
iv. Givethecheck‐outfolderameaningfulname.v. Selectthefolderwhereyouwantthechecked‐outdatatobesaved.
Youcansaveitonthe“O”driveorputyourflashcardinyourcomputerandsavethefolderdirectlytoyourflashcard.
vi. IfyouwantanArcPad“map”,enterthenameandcheckthebox.vii. Donotencryptthedata.viii. Makesurethe“Validatefeatureclassesbeforecheckingout”boxis
checked.Ifthecheck‐outfailsbecauseofthevalidation,figureoutwhyandthendecidewhethertocheck‐outthedatawithoutvalidationorfixtheproblembeforeyoucheckitout(fixingitfirstisthepreferredchoice!).
ix. Click“Next”
Appendix A Supporting Documents – Checking In/Checking Out Data for ArcPad
192
e. Makesure“CreatetheArcPaddataonthiscomputernow”buttonischecked.
f. Click“Finish”
8. Itwilltakeseveralminutestocheck‐outthedata.Afterit’sdone,openitinArcPadtomakesuretherearen’tanyproblems.
“Checking In” Data for ArcPad 1. OpenArcMap.2. Addthefeatureclassyouwillbecheckingdatainto.3. Changetheversionto“ArcPad_QA_QC”‐seestep6above.4. Startaneditsession.5. CopytheArcPadaxffilewiththeeditstoyourfolderonthe“O”driveorinsertyour
flashcardinyourcomputer.6. Clickthe“GetDatafromArcPad”buttononthe“ArcPadDataManger”toolbar.
a. Clickthebuttonwiththegreenplussign. b. Navigatetothefolderwiththeaxffileandselectthefile.c. Theformwillbeautomaticallyfilledin.
i. Makesurethesourceandversionmatchthedatayouaddedto
ArcMap.
Appendix A Supporting Documents – Checking In/Checking Out Data for ArcPad
193
ii. Theformwillshowhowmanynewfeatureswerecreatedandhowmanyexistingfeaturewereedited.Ifthesedon’tlookright,makesureyouhavetherightaxffileselected!
iii. Checkthefeatureclassesandtablesthatyouwanttocheck‐in.Relatedtableswitheditswillautomaticallybechecked‐iniftheparentfeatureischecked‐in.
iv. Click“Check‐in”.v. Thiswilltakeafewminutes.Aboxwilleventuallypopupsaying
whetheritwassuccessfulorwhaterrorsoccurred.
“Reconcile and Post” Edits Thedatahasnowbeenchecked‐intotheArcPad_QA_QCversion.Younowneedtomakesurethedataisokayandthenmoveituptothe“default”versionthateveryoneuses.
1. FindyourneworeditedfeaturesinArcMap.Check:a. Topology‐Arepads,roads,pipelinesstillonLOC?Ifnot,adjusttheLOCor
correctthefeatureyoujustchecked‐in.b. Makesuretherearen’tanygapsoroverlapswherethereshouldn’tbeany.c. Lookforanyglaringerrorsintheattributes.Somefeatureshaveauto‐
populatedfieldsfordistrictnumber,township,etc.Iftheseweren’tauto‐calculatedduringthecheck‐in,youcanmakeaminoreditintheattributes(typeinadistrictnumber‐evenifit’swrong)andthecodeshouldruntoauto‐populatethem.
d. Whendone,saveyouredits.2. Addthe“Versioning”toolbartoArcMapifitisn’talreadythere.
3. Clickthe“Reconcile”button. Thiswritesanychangesinthe“default”versiontothe“ArcPad_QA_QC”version.Ifthereareconflicts,youwillprobablywanttousethetarget(ArcPad_QA_QC)versiontoreconcilethedifferences.Thismayormaynotbethebestoption.Ifsomeonehasmadeorpostededitstothe“default”versionsinceyoucheckedoutdata,youmaywanttousethe“default”versiontoreconciledifferences.SeeJohnBrodnickiifyouhavequestions.
4. Younowneedto“post”youreditstothe“default”version.The“post”buttonshouldnolongerbegrayedoutsinceyouhavedoneareconcile.
a. Clickthe“post”button.b. Youshouldn’treceiveanyconflictnotifications.Ifyoudo,trytoseewhy.Get
helpifindoubt.
Youreditshavenowbeenchecked‐in.Youwroteyoureditstothe“ArcPad_QA_QC”version,checkedthemforerrorsandthenmovedtheeditsintothe“default”versionthateveryoneelseuses.Saveyoureditsandstopediting.
Appendix A Supporting Documents – Checking In/Checking Out Data for ArcPad
194
RemembertochangetheversioninArcMapbackto“default”ifyouaregoingtodoanyadditionaleditinginArcMap.It’smuchsafertocheck‐outanewcopyofthedataifyouaregoingbackinthefieldtocollectmoreinformationratherthanusingyouroldaxffileagain.
Thenewcopywillhaveanyeditsmadebyotherusers.Remembertoaskforhelpifyouhaveanyquestionsordoubtsaboutwhatyou’redoing.Thestepsdescribedhereareprettycomplexbuttheyhelpinsurethatwedon’timportjunkintotheversionofthedatausedbytheentireMonitoringprogram.
Appendix A Supporting Documents – Species Codes ‐ All
195
Species Codes – All Code KeyGenus KeySpecies KeyCommonName Origin
F130 Adiantum pedatum Maidenhair NATIVEF110 Asplenium platyneuron Ebony spleenwort NATIVEF105 Athyrium filix-femina Lady fern NATIVEF115 Athyrium thelypteroides Silvery spleenwort NATIVEF142 Botrychium spp. Grape fern species NATIVEF140 Botrychium virginianum Rattlesnake fern NATIVEF150 Cystopteris fragilis Fragile fern NATIVEF060 Dennstaedtia punctilobula Hayscented Fern NATIVEF010 Dryopteris marginalis Marginal wood fern NATIVEF020 Dryopteris spinulosa Spinulose wood fern NATIVEF201 Equisetum arvense Field horsetail NATIVEF090 Gymnocarpium dryopteris Common oak fern NATIVEF006 Lycopodium annotinum Bristly clubmoss NATIVEF005 Lycopodium clavatum Staghorn clubmoss NATIVEF002 Lycopodium complanatum Running-pine NATIVEF155 Lycopodium inundatum Bog clubmoss NATIVEF003 Lycopodium lucidula Shining clubmoss NATIVEF004 Lycopodium obscurum Tree clubmoss NATIVEF001 Lycopodium spp. Clubmoss species NATIVEF085 Matteuccia struthiopteris Ostrich fern NATIVEF080 Onoclea sensibilis Sensitive fern NATIVEF040 Osmunda cinnamomea Cinnamon fern NATIVEF050 Osmunda claytoniana Interrupted fern NATIVEF053 Osmunda regalis Royal fern NATIVEF125 Polypodium vulgare Common polypody NATIVEF100 Polystichum acrostichoides Christmas fern NATIVEF030 Pteridium aquilinum Bracken fern NATIVEF064 Thelypteris hexagonoptera Broad beech fern NATIVEF070 Thelypteris noveboracensis New York fern NATIVEF066 Thelypteris palustris Marsh fernF065 Thelypteris phegopteris Long beech fern NATIVEF145 Woodwardia virginica Virginia chain fern NATIVE
G194 Agrostis gigantea Redtop
G285 Agrostis hyemalis Hairgrass NATIVEG190 Agrostis perennans Upland bent NATIVE
G192 Agrostis stolonifera var. palustris Carpet Bentgrass
G195 Agrostis spp. Agrostis species
Appendix A Supporting Documents – Species Codes ‐ All
196
Code KeyGenus KeySpecies KeyCommonName OriginG350 Andropogon gerardii Big bluestem NATIVEG080 Anthoxanthum odoratum Sweet vernalgrass
G600 Avena spp. Oats species
G100 Brachyelytrum erectum Long-awned Wood Grass NATIVEG103 Bromus ciliatus Fringed Brome NATIVEG102 Bromus inermis Smooth brome G104 Bromus japonicus Japanese brome
G106 Bromus sterilis Poverty brome
G105 Bromus tectorum Cheatgrass
G107 Calamagrostis canadensis Canada bluejoint NATIVEG130 Carex abscondita Sedge NATIVEG135 Carex aestivalis Sedge NATIVEG152 Carex baileyi Sedge NATIVEG025 Carex communis Sedge NATIVEG050 Carex crinita Short hair sedge NATIVEG154 Carex debilis Sedge NATIVEG155 Carex digitalis Sedge NATIVEG157 Carex folliculata Sedge NATIVEG156 Carex gracillima Sedge NATIVEG039 Carex hirsutella Sedge NATIVEG040 Carex intumescens Sedge NATIVEG147 Carex lanuginosa Sedge NATIVEG020 Carex laxiflora Sedge NATIVEG260 Carex leptonervia Sedge NATIVEG128 Carex lupulina Sedge NATIVEG262 Carex lurida Sedge NATIVEG151 Carex mesochorea Midland sedge NATIVEG265 Carex novae-angliae Sedge NATIVEG030 Carex pensylvanica Sedge NATIVEG290 Carex plantaginea Plantain sedge NATIVEG150 Carex radiata Sedge NATIVEG140 Carex rosea Sedge NATIVEG158 Carex scoparia Broom sedge NATIVEG015 Carex spp. Carex species NATIVEG145 Carex stricta Tussock sedge NATIVEG129 Carex swanii Sedge NATIVEG159 Carex vulpinoidea Sedge NATIVEG280 Cinna latifolia Drooping woodreed NATIVEG110 Dactylis glomerata Orchardgrass
G160 Danthonia compressa Northern oatgrass NATIVE
Appendix A Supporting Documents – Species Codes ‐ All
197
Code KeyGenus KeySpecies KeyCommonName OriginG295 Danthonia spicata Poverty-grass NATIVEG165 Deschampsia flexuosa Common hairgrass NATIVEG630 Dichanthelium spp. Dichanthelium species NATIVEG610 Digitaria sanguinalis Northern crabgrass G620 Echinochloa crusgalli Barnyard-Grass
G060 Eleocharis acicularis Spike-rush NATIVEG070 Eleocharis obtusa Spike-rush NATIVEG242 Elymus canadensis Canada wild-rye
G240 Elymus repens Quackgrass
G245 Elymus virginicus Virginia wild-rye NATIVEG300 Eriophorum virginicum Cotton-grass
G178 Festuca elatior Tall Fescue
G180 Festuca obtusa Nodding fescue NATIVEG177 Festuca rubra Red fescue
G175 Festuca spp. Fescue species
G169 Glyceria spp. Mannagrass species NATIVEG172 Glyceria melicaria Mannagrass NATIVEG170 Glyceria striata Fowl meadowgrass NATIVEG500 Holcus lanatus Velvetgrass
G075 Hystrix paluta Bottlebrush-grass NATIVEG311 Juncus canadensis Canada rush NATIVEG312 Juncus effusus Soft rush NATIVEG310 Juncus spp. Rush species NATIVEG313 Juncus tenuis Path rush NATIVEG252 Leersia oryzoides Rice cutgrass NATIVEG251 Leersia spp. Cutgrass NATIVEG250 Leersia virginica Cutgrass NATIVEG336 Lolium multiflorum Ryegrass
G335 Lolium perenne Perennial ryegrass
G090 Luzula multiflora Woodrush NATIVEG340 Microstegium vimineum Japanese stilt grass
G200 Milium effusum var. cisatlanticum Milletgrass NATIVE
G400 Miscanthus sinensis Miscanthus
G270 Oryzopsis asperifolia Mountain rice NATIVEG222 Panicum lanuginosum Panic grass NATIVEG220 Panicum clandestinum Deer-tongue grass NATIVEG230 Panicum spp. Panic-grass species NATIVEG225 Panicum virgatum Switchgrass NATIVEG325 Phalaris arundinacea Reed canary-grass
Appendix A Supporting Documents – Species Codes ‐ All
198
Code KeyGenus KeySpecies KeyCommonName OriginG330 Phleum pratense Timothy
G379 Phragmites australis ssp. americanus Native common reed
G380 Phragmites australis ssp. australis Common reed
G271 Piptatherum pungens Slender mountain ricegrass NATIVEG255 Poa alsodes Woodland bluegrass NATIVEG121 Poa compressa Canada bluegrass G120 Poa pratensis Kentucky bluegrass NATIVEG125 Poa spp. Poa species
G123 Poa trivialis Rough bluegrass
G210 Schizachne purpurascens Grass NATIVE
G351 Schizachyrium scoparium var. scoparium Little bluestem NATIVE
G013 Scirpus americanus Three-square NATIVEG012 Scirpus atrovirens Dark-green bulrush NATIVEG010 Scirpus cyperinus Wool-grass NATIVEG011 Scirpus validus Soft-stem bulrush NATIVEG236 Secale cereale RyeG315 Setaria pumila Yellow foxtail
G314 Setaria spp. Foxtail species
G360 Sorghastrum nutans Indian-grass NATIVE
G356 Sorghum bicolor ssp. x drummondii shattercane
G358 Sorghum halepense Johnsongrass
G320 Sparganium androcladum Branching bur-reed NATIVEG238 Tridens flavus Purpletop NATIVEG235 Triticum aestivum Wheat
G717 Typha angustifolia Narrowleaf cat-tail
G716 Typha latifolia Common cat-tail NATIVEG718 Typha x glauca Hybrid cattail
R005 Abies balsamea Balsam fir NATIVER024 Acer negundo Ashleaf maple NATIVER113 Acer pensylvanicum Striped maple NATIVER023 Acer platanoides Norway maple
R302 Acer pseudo-platanus Sycamore maple
R021 Acer rubrum Red maple NATIVER022 Acer saccharinum Silver maple NATIVER020 Acer saccharum Sugar maple NATIVER114 Acer spicatum Mountain maple NATIVE
Appendix A Supporting Documents – Species Codes ‐ All
199
Code KeyGenus KeySpecies KeyCommonName OriginR079 Aesculus flava Yellow buckeye NATIVER112 Ailanthus altissima Tree-of-heaven
R240 Albizia julibrissin mimosa
R305 Alnus glutinosa European black alder
R100 Alnus spp. Alder species
R091 Amelanchier arborea Downy juneberry NATIVER191 Amelanchier laevis Smooth juneberry NATIVER195 Amelanchier spp. Serviceberry species NATIVER101 Asimina triloba Pawpaw NATIVER050 Betula alleghaniensis Yellow birch NATIVER051 Betula lenta Black birch NATIVER053 Betula papyrifera Paper birch NATIVER093 Betula populifolia Gray birch NATIVER090 Carpinus caroliniana Hornbeam NATIVER263 Carya cordiformis Bitternut hickory NATIVER260 Carya glabra Pignut hickory NATIVER261 Carya laciniosa Shellbark hickory NATIVER262 Carya ovata Shagbark hickory NATIVER264 Carya spp. Hickory species NATIVER060 Carya tomentosa Mockernut hickory NATIVER073 Castanea dentata American chestnut NATIVER109 Catalpa bignonioides CatalpaR074 Celtis occidentalis American hackberry NATIVER105 Cercis canadensis Redbud NATIVER080 Cornus alternifolia Alternate-leaved dogwood NATIVER081 Cornus florida Flowering dogwood NATIVER307 Euodia hupehensis Bee-bee treeR054 Fagus grandifolia American beech NATIVER055 Fraxinus americana White ash NATIVER056 Fraxinus nigra Black ash NATIVER057 Fraxinus pennsylvanica Red Ash NATIVER070 Gleditsia triacanthos Honey-locust NATIVER083 Ilex opaca American holly NATIVER071 Juglans cinerea Butternut NATIVER068 Juglans nigra Black walnut NATIVER012 Juniperus virginiana Eastern red-cedar NATIVER016 Larix laricina American larch NATIVER059 Liriodendron tulipifera Tulip-tree NATIVER084 Magnolia acuminata Cucumber-tree NATIVER206 Malus spp. Apple species
Appendix A Supporting Documents – Species Codes ‐ All
200
Code KeyGenus KeySpecies KeyCommonName OriginR094 Morus alba White mulberry
R066 Nyssa sylvatica Blackgum NATIVER092 Ostrya virginiana Hop-hornbeam NATIVER110 Paulownia tomentosa Princess-tree
R306 Phellodendron spp. Corktree spp.
R019 Picea abies Norway spruce
R003 Picea glauca White spruce NATIVER004 Picea mariana Black spruce NATIVER002 Picea rubens Red spruce NATIVER014 Pinus banksiana Jack pine
R007 Pinus nigra Austrian pine
R018 Pinus pungens Mountain pine NATIVER011 Pinus resinosa Red pine NATIVER009 Pinus rigida Pitch pine NATIVER001 Pinus strobus Eastern white pine NATIVER015 Pinus sylvestris Scotch pine
R010 Pinus virginiana Virginia pine NATIVER075 Platanus occidentalis Sycamore NATIVER063 Populus grandidentata Bigtooth aspen NATIVER064 Populus tremuloides Quaking aspen NATIVER078 Prunus avium Sweet cherry NATIVER077 Prunus cerasus Sour cherry
R095 Prunus pensylvanica Fire cherry NATIVER076 Prunus serotina Black cherry NATIVER107 Prunus spp. Cherry tree species NATIVER215 Pyrus americana American mountain-ash NATIVER200 Pyrus calleryana Callery pear
R040 Quercus alba White oak NATIVER032 Quercus coccinea Scarlet oak NATIVER036 Quercus imbricaria Shingle oak NATIVER098 Quercus muhlenbergii Yellow oak NATIVER037 Quercus phellos Willow oak NATIVER048 Quercus prinus Chestnut oak NATIVER030 Quercus rubra Northern red oak NATIVER045 Quercus stellata Post oak NATIVER031 Quercus velutina Black oak NATIVER069 Robinia pseudoacacia Black locust NATIVER087 Salix spp. Willow species;except Black
R096 Sassafras albidum Sassafras NATIVER058 Tilia americana Basswood NATIVE
Appendix A Supporting Documents – Species Codes ‐ All
201
Code KeyGenus KeySpecies KeyCommonName OriginR006 Tsuga canadensis Eastern hemlock NATIVER061 Ulmus americana American elm NATIVER304 Ulmus pumila Siberian elmR062 Ulmus rubra Slippery elm NATIVE
S610 Alnus rugosa Speckled alder NATIVES605 Alnus serrulata Smooth alder NATIVES645 Amelanchier canadensis Oblong-leaf juneberry NATIVES495 Aralia elata Japanese angelica-tree
S490 Aralia spinosa Hercules'-club NATIVES160 Berberis thunbergii Japanese barberry
S900 Berberis vulgaris European barberry
S914 Buddleja davidii Butterfly-bush
S240 Comptonia peregrina Sweet-fern NATIVES400 Cornus amomum Silky Dogwood NATIVES430 Cornus racemosa Red-panicle dogwood NATIVES440 Cornus stolonifera Red-osier dogwood NATIVES170 Corylus americana American hazlenut NATIVES175 Corylus cornuta Beaked hazlenut NATIVES191 Crataegus punctata Dotted hawthorn NATIVES190 Crataegus spp. Hawthorn species NATIVES380 Diervilla lonicera Northern bush-honeysuckle NATIVES351 Elaeagnus angustifolia Russian olive
S350 Elaeagnus umbellata Autumn-olive
S700 Euonymus alatus Burning-bush
S915 Frangula alnus Glossy buckthorn
S050 Gaylussacia baccata Black huckleberry NATIVES060 Gaylussacia frondosa Tall huckleberry NATIVES120 Hamamelis virginiana Witch-hazel NATIVES390 Hydrangea arborescens Wild hydrangea NATIVES395 Hypericum prolificum Shrubby St. John's-wort NATIVES625 Ilex montana Large-leaf holly NATIVES623 Ilex spp. Holly species NATIVES620 Ilex verticillata Winterberry holly NATIVES080 Kalmia angustifolia Sheep laurel NATIVES070 Kalmia latifolia Mountain laurel NATIVES710 Lespedeza bicolor Shrubby bushclover
S712 Lespedeza cuneata Chinese bushclover
S650 Ligustrum spp. Privet species
S130 Lindera benzoin Spicebush NATIVE
Appendix A Supporting Documents – Species Codes ‐ All
202
Code KeyGenus KeySpecies KeyCommonName OriginS360 Lonicera spp. Honeysuckles
S910 Lonicera tatarica Tartarian honeysuckle
S375 Lyonia ligustrina Maleberry NATIVES201 Malus coronaria Sweet crabapple NATIVES630 Nemopanthus mucronatus Mountain holly NATIVES560 Physocarpus opulifolius Ninebark NATIVES655 Prunus americana American plum NATIVES656 Prunus virginiana Choke cherry NATIVES210 Pyrus arbutifolia Red chokeberry NATIVES220 Pyrus floribunda Purple chokeberry NATIVES230 Pyrus melanocarpa Black chokeberry NATIVES200 Pyrus spp. Chokeberry species NATIVES580 Quercus ilicifolia Scrub oak NATIVES911 Rhamnus cathartica Common buckthorn
S912 Rhamnus frangula European buckthorn
S460 Rhamnus spp. Buckthorn species
S090 Rhododendron maximum Rosebay NATIVES100 Rhododendron nudiflorum Pink azalea NATIVES110 Rhododendron roseum Early azalea NATIVES095 Rhododendron spp. Azalea/Laurel spp. NATIVES105 Rhododendron viscosum Swamp azalea NATIVES720 Rhodotypos scandens Jetbead
S311 Rhus glabra Smooth sumac NATIVES310 Rhus spp. Sumac species NATIVES312 Rhus typhina Staghorn sumac NATIVES526 Ribes cynosbati Prickly gooseberry NATIVES525 Ribes hirtellum Smooth gooseberry NATIVES530 Ribes lacustre Bristly black currant NATIVES540 Ribes rotundifolium Roundleaf gooseberry NATIVES520 Ribes spp. Currant/Gooseberry species NATIVES635 Rosa multiflora Multiflora rose
S637 Rosa setigera Prairie rose
S640 Rosa spp. Rose species
S270 Rubus allegheniensis Common blackberry NATIVES302 Rubus idaeus Wild red raspberry NATIVES300 Rubus occidentalis Black raspberry NATIVES301 Rubus odoratus Flowering raspberry NATIVES285 Rubus pensilvanicus Blackberry NATIVES290 Rubus phoenicolasius Wine raspberry
S280 Rubus pubescens Dwarf raspberry NATIVE
Appendix A Supporting Documents – Species Codes ‐ All
203
Code KeyGenus KeySpecies KeyCommonName Origin
S245 Rubus spp.Blackberry/Raspberry species NATIVE
S485 Salix sericea Silky willow NATIVES484 Salix spp. Willow shrub species NATIVES470 Sambucus canadensis Common elderberry NATIVES480 Sambucus pubens Red-berried elder NATIVES452 Spiraea corymbosa Dwarf spiraea NATIVES913 Spiraea japonica Japanese spiraea
S450 Spiraea spp. Spiraea species NATIVES451 Spiraea tomentosa Steeplebush spirea NATIVES454 Spirea latifolia Meadowsweet NATIVES515 Taxus canadensis Canadian yew NATIVES010 Vaccinium angustifolium Late low blueberry NATIVES030 Vaccinium corymbosum Highbush blueberry NATIVES035 Vaccinium myrtilloides Velvet-leaf blueberry NATIVES020 Vaccinium pallidum Southern low blueberry NATIVES005 Vaccinium spp. Blueberry species(low) NATIVES040 Vaccinium stamineum Deerberry NATIVES140 Viburnum acerifolium Maple-leaved viburnum NATIVES150 Viburnum alnifolium Hobblebush NATIVES156 Viburnum cassinoides Wild-raisin NATIVES152 Viburnum dentatum Southern arrow-wood NATIVES158 Viburnum dilatatum Linden viburnum
S151 Viburnum lentago Nannyberry NATIVES145 Viburnum opulus Guelder-rose
S159 Viburnum plicatum Doublefile viburnum
S154 Viburnum prunifolium Black-haw NATIVES153 Viburnum recognitum Northern arrow-wood NATIVES157 Viburnum sieboldii Siebold viburnum
S135 Viburnum spp. Viburnum species
S500 Zanthoxylum americanum Prickly-ash NATIVE
T005 Abies balsamea Balsam fir NATIVET024 Acer negundo Ashleaf maple NATIVET113 Acer pensylvanicum Striped maple NATIVET023 Acer platanoides Norway maple
T302 Acer pseudo-platanus Sycamore maple
T021 Acer rubrum Red maple NATIVET022 Acer saccharinum Silver maple NATIVET020 Acer saccharum Sugar maple NATIVE
Appendix A Supporting Documents – Species Codes ‐ All
204
Code KeyGenus KeySpecies KeyCommonName OriginT114 Acer spicatum Mountain maple NATIVET079 Aesculus flava Yellow buckeye NATIVET112 Ailanthus altissima Tree-of-heaven
T240 Albizia julibrissin Mimosa
T305 Alnus glutinosa European black alder
T100 Alnus spp. Alder species
T091 Amelanchier arborea Downy juneberry NATIVET191 Amelanchier laevis Smooth juneberry NATIVET195 Amelanchier spp. Serviceberry species NATIVET101 Asimina triloba Pawpaw NATIVET050 Betula alleghaniensis Yellow birch NATIVET051 Betula lenta Black birch NATIVET053 Betula papyrifera Paper birch NATIVET093 Betula populifolia Gray birch NATIVET090 Carpinus caroliniana Hornbeam NATIVET263 Carya cordiformis Bitternut hickory NATIVET260 Carya glabra Pignut hickory NATIVET261 Carya laciniosa Shellbark hickory NATIVET262 Carya ovata Shagbark hickory NATIVET264 Carya spp. Hickory species NATIVET060 Carya tomentosa Mockernut hickory NATIVET073 Castanea dentata American chestnut NATIVET109 Catalpa bignonioides Catalpa
T074 Celtis occidentalis American hackberry NATIVET105 Cercis canadensis Redbud NATIVET080 Cornus alternifolia Alternate-leaved dogwood NATIVET081 Cornus florida Flowering dogwood NATIVET307 Euodia hupehensis Bee-bee tree
T054 Fagus grandifolia American beech NATIVET055 Fraxinus americana White ash NATIVET056 Fraxinus nigra Black ash NATIVET057 Fraxinus pennsylvanica Red Ash NATIVET070 Gleditsia triacanthos Honey-locust NATIVET083 Ilex opaca American holly NATIVET071 Juglans cinerea Butternut NATIVET068 Juglans nigra Black walnut NATIVET012 Juniperus virginiana Eastern red-cedar NATIVET016 Larix laricina American larch NATIVET059 Liriodendron tulipifera Tulip-tree NATIVET084 Magnolia acuminata Cucumber-tree NATIVE
Appendix A Supporting Documents – Species Codes ‐ All
205
Code KeyGenus KeySpecies KeyCommonName OriginT206 Malus spp. Apple species
T094 Morus alba White mulberry
T066 Nyssa sylvatica Blackgum NATIVET092 Ostrya virginiana Hop-hornbeam NATIVET110 Paulownia tomentosa Princess-tree
T306 Phellodendron spp. Corktree spp.
T019 Picea abies Norway spruce
T003 Picea glauca White spruce NATIVET004 Picea mariana Black spruce NATIVET002 Picea rubens Red spruce NATIVET014 Pinus banksiana Jack pine
T007 Pinus nigra Austrian pine
T018 Pinus pungens Mountain pine NATIVET011 Pinus resinosa Red pine NATIVET009 Pinus rigida Pitch pine NATIVET001 Pinus strobus Eastern white pine NATIVET015 Pinus sylvestris Scotch pine
T010 Pinus virginiana Virginia pine NATIVET075 Platanus occidentalis Sycamore NATIVET063 Populus grandidentata Bigtooth aspen NATIVET064 Populus tremuloides Quaking aspen NATIVET078 Prunus avium Sweet cherry NATIVET077 Prunus cerasus Sour cherry
T095 Prunus pensylvanica Fire cherry NATIVET076 Prunus serotina Black cherry NATIVET107 Prunus spp. Cherry species
T215 Pyrus americana American mountain-ash NATIVET200 Pyrus calleryana Callery pear
T040 Quercus alba White oak NATIVET032 Quercus coccinea Scarlet oak NATIVET036 Quercus imbricaria Shingle oak NATIVET098 Quercus muhlenbergii Yellow oak NATIVET037 Quercus phellos Willow oak NATIVET048 Quercus prinus Chestnut oak NATIVET030 Quercus rubra Northern red oak NATIVET045 Quercus stellata Post oak NATIVET031 Quercus velutina Black oak NATIVET069 Robinia pseudoacacia Black locust NATIVET087 Salix spp. Willow tree species
T096 Sassafras albidum Sassafras NATIVE
Appendix A Supporting Documents – Species Codes ‐ All
206
Code KeyGenus KeySpecies KeyCommonName OriginT058 Tilia americana Basswood NATIVET006 Tsuga canadensis Eastern hemlock NATIVET061 Ulmus americana American elm NATIVET304 Ulmus pumila Siberian elmT062 Ulmus rubra Slippery elm NATIVE
V115 Adlumia fungosa Allegheny-vine NATIVEV280 Akebia quinata Five-leaf akebia
V285 Ampelopsis brevipedunculata Porcelain-berry
V080 Amphicarpa bracteata Hog-peanut NATIVEV021 Celastrus orbiculatus Asiatic bittersweet
V020 Celastrus scandens American bittersweet NATIVEV145 Clematis virginiana Virgin's-bower NATIVEV110 Convolvulus arvensis Field bindweed
V100 Convolvulus sepium Hedge bindweed NATIVEV180 Dioscorea quaternata Wild yamroot NATIVEV150 Dioscorea villosa Wild yam NATIVEV260 Euonymus fortunei Wintercreeper
V250 Hedera helix English ivy
V240 Lonicera japonica Japanese honeysuckle
V040 Parthenocissus quinquefolia Virginia-creeper NATIVEV120 Phaseolus polystachios Wild kidney bean NATIVEV170 Polygonum cilinode Fringed bindweed NATIVEV135 Polygonum convolvulus Black bindweed
V136 Polygonum perfoliatum Mile-a-minute weed
V137 Polygonum scandens Climbing false-buckwheat NATIVEV230 Pueraria lobata Kudzu
V105 Rhus radicans Poison-ivy NATIVEV201 Rubus flagellaris Dewberry NATIVEV200 Rubus hispidus Swamp dewberry NATIVEV154 Smilax bona-nox Bullbriar
V050 Smilax glauca Catbrier NATIVEV060 Smilax rotundifolia Greenbrier NATIVEV049 Smilax spp. Smilax species
V160 Smilax tamnoides var. hispida Bristly greenbrier NATIVE
V190 Solanum dulcamara Bittersweet nightshade
V290 Vincetoxicum nigrum Black swallow-wort
V292 Vincetoxicum rossicum pale swallow-wort
V010 Vitis spp. Grape NATIVE
Appendix A Supporting Documents – Species Codes ‐ All
207
Code KeyGenus KeySpecies KeyCommonName OriginV270 Wisteria floribunda Japanese wisteria
V275 Wisteria sinensis Chinese wisteria
W315 Abutilon theophrastii Indian mallow
W656 Achillea millefolium Yarrow
W922 Acorus calamus Sweet flag
W589 Actaea pachypoda White baneberry NATIVEW670 Actinomeris alternifolia Wingstem NATIVEW900 Aegopodium podograria Goutweed
W280 Agrimonia gryposepala Agrimony NATIVEW281 Agrimonia parviflora Small-flowered agrimony NATIVEW745 Alliaria officinalis Garlic-mustard
W320 Allium spp. Garlic/onion species NATIVEW325 Allium tricoccum Wild leek NATIVEW573 Ambrosia artemisiifolia Common ragweed NATIVEW575 Amianthium muscaetoxicum Fly Poison NATIVEW474 Anaphalis margaritacea Pearly everlasting NATIVEW586 Anemone lancifolia Mountain Anemone NATIVEW585 Anemone quinquefolia Wood anemone NATIVEW587 Anemone spp. Anemone species NATIVEW490 Anemonella thalictroides Rue anemone NATIVEW477 Antennaria neglecta Field pussytoes NATIVEW479 Antennaria neodioica Smaller pussytoes NATIVEW475 Antennaria parlinii Smooth pussytoes NATIVEW478 Antennaria plantaginifolia Plantain-leaved pussytoe NATIVEW657 Anthemis arvensis Corn chamomile W663 Anthriscus sylvestris wild chervil
W476 Apocynum androsaemifolium Pink dogbane NATIVEW482 Apocynum cannabinum Indian-hemp NATIVEW820 Aquilegia canadensis Wild columbine NATIVEW857 Arabis canadensis Sicklepod NATIVEW207 Arabis laevigata Smooth rock cress NATIVEW442 Aralia hispida Bristly sarsaparilla NATIVEW440 Aralia nudicaulis Wild sarsaparilla NATIVEW830 Aralia racemosa Spikenard NATIVEW444 Arctium minus Common burdock
W310 Arisaema spp. Jack-in-the-pulpit species NATIVEW403 Aristolochia serpentaria Virginia snakeroot NATIVEW400 Asarum canadense Wild ginger NATIVEW750 Asclepias spp. Milkweed species NATIVE
Appendix A Supporting Documents – Species Codes ‐ All
208
Code KeyGenus KeySpecies KeyCommonName OriginW751 Asclepias syriaca Common milkweed NATIVEW535 Aster acuminatus Sharp-leaved aster NATIVEW950 Aster cordifolius Blue wood aster NATIVEW082 Aster divaricatus White wood aster NATIVEW081 Aster junciformis Rush aster NATIVEW536 Aster lateriflorus Calico aster NATIVEW078 Aster macrophyllus Large-leaved Aster NATIVEW077 Aster prenanthoides Crooked-stem aster NATIVEW076 Aster radula Rough aster NATIVEW080 Aster spp. Aster species NATIVEW534 Aster umbellatus Flat-topped white aster NATIVEW079 Aster undulatus Wavy-leaved aster NATIVEW951 Aster vimineus Small white aster NATIVEW772 Baptisia tinctoria Wild indigo NATIVEW205 Barbarea vulgaris Common wintercress
W498 Belamcanda chinensis Blackberry-lily
W215 Bidens connata Swamp beggar-ticks NATIVEW217 Bidens frondosa Beggar-ticks NATIVEW200 Boehmeria cylindrica False nettle NATIVEW203 Brassica rapa Field mustardW712 Cabomba caroliniana Carolina fanwort W255 Caltha palustris Marsh-marigold NATIVEW454 Cardamine impatiens Narrowleaf bittercress
W257 Cardamine pensylvanica Pennsylvania bittercress NATIVEW681 Carduus acanthoides ThistleW683 Carduus nutans Musk thistle
W895 Carum carvi Caraway
W260 Caulophyllum thalictroides Blue cohosh NATIVEW930 Centaurea jacea Brown knapweed
W901 Centaurea maculosa Spotted knapweed
W931 Centaurea nigra Black knapweed
W465 Cerastium vulgatumCommon mouse-ear chickweed
W870 Chamaechrista fasciculata Partridge-pea NATIVEW068 Chamaelirium luteum Devil's-bit NATIVEW902 Chelidonium majus Celandine
W025 Chelone glabra Turtlehead NATIVEW020 Chimaphila maculata Striped wintergreen NATIVEW021 Chimaphila umbellata Pipsissewa NATIVEW626 Chrysanthemum leucanthemum Oxeye daisy
Appendix A Supporting Documents – Species Codes ‐ All
209
Code KeyGenus KeySpecies KeyCommonName OriginW628 Chrysanthemum spp. Chrysanthemum species
W625 Chrysosplenium americanum Golden saxifrage NATIVEW682 Cichorium intybus Blue chicory
W480 Cimicifuga racemosa Black snakeroot NATIVE
W551 Circaea alpinaDwarf enchanter's-nightshade NATIVE
W550 Circaea quadrisulcata Enchanter's-nightshade NATIVEW903 Cirsium arvense Canada thistle
W686 Cirsium discolor Field thistle NATIVEW684 Cirsium pumilum Pasture thistle NATIVEW689 Cirsium spp. Thistle species
W685 Cirsium vulgare Bull-thistle
W525 Claytonia caroliniana Carolina spring-beauty NATIVEW526 Claytonia virginica Spring-beauty NATIVEW326 Clintonia umbellulata White Clintonia NATIVEW904 Conium maculatum Poison hemlock
W620 Conopholis americana Squaw-root NATIVEW240 Convallaria majalis Lily-of-the-valley
W224 Conyza canadensis Horseweed NATIVEW680 Coptis groenlandica Goldthread NATIVEW377 Corallorhiza maculata Spotted coralroot NATIVEW118 Cornus canadensis Bunchberry NATIVEW770 Coronilla varia Crown-vetch
W780 Corydalis sempervirens Pale corydalis NATIVEW740 Cryptotaenia canadensis Honewort NATIVEW800 Cunila origanoides Dittany NATIVEW645 Cuphea petiolata Blue waxweed NATIVEW275 Cynoglossum virginianum Wild comfrey NATIVEW650 Cypripedium acaule Pink lady's-slipper NATIVEW655 Dalibarda repens Dewdrop NATIVEW880 Datura stramonium Jimsonweed
W730 Daucus carota Queen Anne's-lace
W455 Dentaria diphylla Toothwort NATIVEW258 Dentaria heterophylla Toothwort NATIVEW777 Desmodium glutinosum Pointed-leaved tick trefoil NATIVEW776 Desmodium paniculatum Panicled tick-trefoil NATIVEW775 Desmodium rotundifolium Prostrate tick-trefoil NATIVEW778 Desmodium spp. Trefoil species NATIVEW235 Dianthus armeria Deptford pinkW530 Dicentra canadensis Squirrel-corn NATIVE
Appendix A Supporting Documents – Species Codes ‐ All
210
Code KeyGenus KeySpecies KeyCommonName OriginW529 Dicentra cucullaria Dutchman's-breeches NATIVEW531 Dicentra eximia Wild bleeding-heart NATIVEW457 Disporum lanuginosum Fairy-bells NATIVEW458 Drosera rotundifolia Round-leaved sundew NATIVEW562 Duchesnea indica Indian-strawberry W277 Echium vulgare Viper's bugloss
W921 Egeria densa Brazilian waterweed
W290 Epifagus virginiana Beechdrops NATIVEW420 Epigaea repens Trailing-arbutus NATIVEW416 Epilobium ciliatum Northern willow-herb NATIVEW418 Epilobium coloratum Purple leaved willow herb NATIVEW417 Epilobium hirsutum Hairy willow-herb
W935 Epilobium parviflorum Smallflower hairy willow-herb
W419 Epipactis helleborine Helleborine
W220 Erechtites hieraciifolia Pilewort or Fireweed NATIVEW225 Erigeron annuus Daisy fleabane NATIVEW226 Erigeron philadelphicus Common fleabane
W228 Erigeron strigosus var. strigosus Prairie fleabane NATIVE
W858 Erysimum cheiranthoides Wormseed-mustard
W520 Erythronium albidum White trout-lily NATIVEW521 Erythronium americanum Trout-lily NATIVEW355 Eupatorium maculatum Spotted joe-pye-weed NATIVEW358 Eupatorium perfoliatum Boneset NATIVE
W356 Eupatorium purpureumSweet-scented Joe-pye-weed NATIVE
W360 Eupatorium rugosum White-snakeroot NATIVEW359 Eupatorium sessilifolium Upland boneset NATIVEW365 Euphorbia maculata Upright spotted spurge NATIVEW367 Euphorbia vermiculata Hairy spurge NATIVEW195 Fagopyrum sagittatum Buckwheat NATIVEW459 Fragaria spp. Wild strawberry species NATIVEW460 Fragaria vesca Wood strawberry NATIVEW885 Galega officinalis Goat's-rue
W374 Galeopsis bifida Hemp-nettle
W361 Galinsoga ciliata Quickweed NATIVEW126 Galium aparine Cleavers NATIVEW122 Galium asprellum Rough bedstraw NATIVEW124 Galium boreale Northern Bedstraw NATIVEW125 Galium circaezans Wild licorice NATIVEW121 Galium palustre Marsh bedstraw NATIVE
Appendix A Supporting Documents – Species Codes ‐ All
211
Code KeyGenus KeySpecies KeyCommonName OriginW123 Galium pilosum Hairy Bedstraw NATIVEW120 Galium spp. Bedstraw species NATIVEW127 Galium triflorum Sweet-scented bedstraw NATIVEW012 Gaultheria hispidula Creeping snowberry NATIVEW010 Gaultheria procumbens Wintergreen NATIVEW500 Geranium maculatum Wild geranium NATIVEW660 Geranium robertianum Herb-robert NATIVEW566 Geum aleppicum Yellow avensW565 Geum canadense White avens NATIVEW338 Gillenia trifoliatus Bowman's-root NATIVEW375 Glechoma hederacea Ground-ivy
W473 Gnaphalium obtusifolium Sweet everlasting NATIVEW380 Goodyera pubescens Downy rattlesnake-plantain NATIVEW381 Goodyera repens Dwarf rattlesnake-plantain NATIVE
W382 Goodyera tesselataCheckered rattlesnake Plantain NATIVE
W719 Habenaria clavellata Green-wood orchis NATIVEW615 Habenaria orbiculata Large round-leaved orchis NATIVEW718 Habenaria spp. Rein Orchid species NATIVEW278 Hackelia virginiana Beggar's-lice NATIVEW016 Hedeoma pulegioides American pennyroyal NATIVEW363 Heliopsis helianthoides Ox-eye daisy NATIVEW907 Hemerocallis fulva Day lily
W506 Hepatica acutiloba Sharp-lobed hepatica NATIVEW505 Hepatica americana Round-lobed hepatica NATIVEW908 Heracleum mantegazzianum Giant hogweed
W259 Hesperis matronalis Dame's-rocket
W840 Heuchera americana Alum-root NATIVEW084 Hieracium aurantiacum Orange hawkweed NATIVEW086 Hieracium paniculatum Panicled hawkweed NATIVEW085 Hieracium pratense Field hawkweed or King-devil
W560 Hieracium spp. Hawkweed species NATIVEW083 Hieracium venosum Rattlesnake-weed NATIVEW783 Houstonia caerulea Bluets NATIVEW786 Houstonia serpyllifolia Creeping bluets NATIVEW784 Houstonia spp. Bluets species NATIVE
W785 Houstonia tenuifolia & longifolia Narrow-leaved Houstonia NATIVE
W916 Humulus japonicus Japanese hops
W917 Hydrilla verticillata Hydrilla
W790 Hydrocotyle americana Water pennywort NATIVE
Appendix A Supporting Documents – Species Codes ‐ All
212
Code KeyGenus KeySpecies KeyCommonName OriginW792 Hydrophyllum canadense Broad-leaved Waterleaf NATIVEW793 Hydrophyllum virginianum Virginia waterleaf NATIVEW302 Hypericum canadense Canadian St.John's-wort NATIVEW301 Hypericum mutilum Dwarf St. John's-wort NATIVEW303 Hypericum perforatum Common St. John's-wort
W300 Hypericum punctatum Spotted St. John's-wort NATIVEW299 Hypericum spp. St.John's-wort species NATIVEW305 Hypericum virginicum Marsh St. Johns-wort NATIVEW485 Hypoxis hirsuta Yellow star-grass NATIVEW335 Impatiens capensis Spotted Touch-me-not NATIVEW333 Impatiens pallida Pale jewelweed NATIVEW330 Impatiens spp. Touch-me-not species NATIVEW370 Ipomoea spp. Morning-glory species NATIVEW926 Iris Pseudacorus Yellow iris NATIVEW555 Isotria verticillata Whorled-pogonia NATIVEW825 Krigia virginica Dwarf dandelion NATIVEW264 Lactuca biennis Blue lettuce NATIVEW265 Lactuca scariola Prickly lettuce
W266 Lactuca spp. Lactuca species
W767 Lamium purpureum Purple dead-nettle
W210 Laportea canadensis Wood-nettle NATIVEW263 Lapsana communis Nipplewort
W410 Lathyrus latifolius Everlasting-pea
W850 Lepidium campestre Fieldcress
W851 Lepidium virginicum Wild peppergrass NATIVEW768 Lespedeza repens Creeping bush-clover NATIVEW538 Leucanthemum vulgare Ox-eye daisyW725 Lilium canadense Canada lily NATIVEW724 Lilium spp. Lily species
W607 Linaria vulgaris Butter-and-eggs
W835 Linum virginianum Wild yellow flax NATIVEW619 Listera cordata Heartleaf twayblade NATIVEW726 Lobelia inflata Indian-tobacco NATIVEW163 Lotus corniculatus Birdsfoot trefoil
W860 Ludwigia palustris Marsh-purslane NATIVEW862 Ludwigia peploides Floating seedbox
W169 Lycopus americanus Water-horehound NATIVEW170 Lycopus uniflorus Northern Bugleweed NATIVEW171 Lycopus virginicus Virginia Bugleweed NATIVEW426 Lysimachia ciliata Fringed loosestrife NATIVE
Appendix A Supporting Documents – Species Codes ‐ All
213
Code KeyGenus KeySpecies KeyCommonName OriginW940 Lysimachia nummularia Moneywort
W425 Lysimachia quadrifolia Whorled loosestrife NATIVEW424 Lysimachia spp. Loosestrife species NATIVEW941 Lythrum salicaria Purple loosestrife W130 Maianthemum canadense Canada mayflower NATIVEW642 Malaxis unifolia Green adder's-mouth NATIVEW160 Medeola virginiana Indian cucumber-root NATIVEW165 Medicago lupulina Black medick
W605 Melampyrum lineare Cow-wheat NATIVEW866 Melilotus alba White sweet-clover
W865 Melilotus officinalis Yellow sweet-clover
W755 Mentha arvensis Wild mint NATIVEW604 Mimulus ringens Allegheny monkey-flower NATIVEW040 Mitchella repens Partridge-berry NATIVEW446 Mitella diphylla Miterwort or Bishop's-cap NATIVEW445 Mitella nuda Naked miterwort NATIVEW175 Monarda didyma Bee-balm or Oswego tea NATIVEW271 Monotropa hypopithys Pinesap NATIVEW270 Monotropa uniflora Indian-pipe NATIVEW273 Myosotis scorpioides Forget-me-notW905 Myriophyllum aquaticum Parrot feather watermilfoil W906 Myriophyllum spicatum Eurasian water-milfoil
W690 Nasturtium officinale Watercress
W691 Nepeta cataria Catnip
W548 Oenothera perennis Small Sundrops NATIVEW640 Orchis spp. Orchis species
W909 Ornithogalum nutans Star-of-Bethlehem
W910 Ornithogalum umbellatum Star-of-Bethlehem
W658 Osmorhiza claytonii Sweet-cicely NATIVEW659 Osmorhiza longistylis Anise root NATIVEW103 Oxalis grandis Great wood sorrel NATIVEW102 Oxalis montana Common wood-sorrel NATIVEW100 Oxalis spp. Wood sorrel species NATIVEW101 Oxalis stricta Yellow wood-sorrel NATIVEW918 Pachysandra terminalis Japanese pachysandra
W438 Panax quinquefolius Ginseng NATIVEW590 Panax trifolius Dwarf ginseng NATIVEW805 Paronychia canadensis Forked chickweed NATIVEW911 Pastinaca sativa Wild parsnip
W606 Pedicularis canadensis Wood-betony NATIVE
Appendix A Supporting Documents – Species Codes ‐ All
214
Code KeyGenus KeySpecies KeyCommonName OriginW912 Perilla frutescens Beafsteak plant
W714 Persicaria longiseta Bristled knotweed
W875 Phlox paniculata Summer phlox NATIVEW057 Physalis subglabrata Ground-cherry NATIVEW250 Phytolacca americana Pokeweed NATIVEW190 Pilea pumila Clearweed NATIVEW723 Plantago lanceolata English plantain
W721 Plantago major Common plantain
W720 Plantago rugelii Red-stemmed plantain NATIVEW616 Platanthera psycodes Purple-fringed orchid NATIVEW614 Platanthera spp. Orchid species
W390 Podophyllum peltatum Mayapple NATIVEW610 Polygala paucifolia Fringed polygala or gaywings NATIVEW611 Polygala senega Seneca snakeroot NATIVEW112 Polygonatum biflorum Smooth solomon's-seal NATIVEW111 Polygonatum pubescens Hairy solomon's-seal NATIVEW110 Polygonatum spp. Solomon's-seal species NATIVEW187 Polygonum arifolium Halberd-leaved tearthumb NATIVEW180 Polygonum aviculare Prostrate knotweed
W188 Polygonum cuspidatum Japanese knotweed
W183 Polygonum hydropiper Common smartweed
W186 Polygonum hydropiperoides Mild water-pepper NATIVEW184 Polygonum persicaria Lady's-thumb
W189 Polygonum sachalinense Giant knotweed
W182 Polygonum sagittatum Arrow-leaved tearthumb NATIVE
W185 Polygonum spp.Knotweed/Smartweed species NATIVE
W914 Potamogeton crispus Curly pondweed
W340 Potentilla canadensis Dwarf cinquefoil NATIVEW345 Potentilla norvegica Rough cinquefoil NATIVEW348 Potentilla simplex Common cinquefoil NATIVEW349 Potentilla spp. Cinquefoil species NATIVEW470 Prenanthes alba White lettuce NATIVEW469 Prenanthes altissima Rattlesnake-root NATIVEW050 Prenanthes spp. Rattlesnake-root species NATIVEW471 Prenanthes trifoliata Gall-of-the-earth NATIVEW450 Prunella vulgaris Selfheal or Heal-all
W766 Pycnanthemum incanum Hoary mountain-mint NATIVEW765 Pycnanthemum verticillatum Torrey's mountain-mint NATIVEW600 Pyrola spp. Pyrola species NATIVE
Appendix A Supporting Documents – Species Codes ‐ All
215
Code KeyGenus KeySpecies KeyCommonName OriginW509 Ranunculus abortivus Small-flowered crowfoot NATIVEW513 Ranunculus acris Common meadow buttercup
W510 Ranunculus fascicularis Early buttercup NATIVEW512 Ranunculus ficaria Lesser celandine
W515 Ranunculus recurvatus Hooked Crowfoot NATIVEW516 Ranunculus repens Creeping buttercup W511 Ranunculus septentrionalis Swamp buttercup NATIVEW519 Ranunculus spp. Ranunculus species W537 Rudbeckia hirta Black-eyed-susan NATIVEW665 Rumex acetosella Field sorrel
W666 Rumex obtusifolius Bitter dock
W669 Rumex spp. Rumex species
W635 Sagittaria latifolia Common arrowhead NATIVEW760 Sanguinaria canadensis Bloodroot NATIVEW245 Sanicula canadensis Short-styled snakeroot NATIVEW247 Sanicula odorata Fragrant snakeroot NATIVEW234 Saponaria officinalis Bouncing-betW350 Satureja vulgaris Wild basil
W353 Saxifraga virginiensis Early saxifrage NATIVEW694 Scutellaria epilobiifolia Marsh Skullcap NATIVEW695 Scutellaria lateriflora Mad-dog skullcap NATIVEW675 Sedum telephioides Wild Live-forever NATIVEW630 Sedum ternatum Wild stonecrop NATIVEW696 Senecio aureus Golden ragwort NATIVEW697 Senecio obovatus Round-leaved ragwort NATIVEW232 Silene latifolia White campion W848 Sisymbrium altissimum Tumble-mustard W699 Sisyrinchium angustifolium Stout blue-eyed-grass NATIVEW925 Sisyrinchium montanum Blue-eyed-grass NATIVEW698 Sisyrinchium spp. Blue-eyed-grass species NATIVEW150 Smilacina racemosa False solomon's-seal NATIVEW152 Smilacina spp. False solomon's-seal species NATIVE
W545 Smilacina stellataStar-flowered Solomon's Seal NATIVE
W055 Solanum carolinense Horse-nettle NATIVEW056 Solanum dulcamara Trailing bittersweet W059 Solidago altissima Late goldenrod NATIVEW064 Solidago bicolor Silver-rod NATIVEW061 Solidago caesia Blue-stemmed goldenrod NATIVEW062 Solidago canadensis Canada Goldenrod NATIVE
Appendix A Supporting Documents – Species Codes ‐ All
216
Code KeyGenus KeySpecies KeyCommonName OriginW065 Solidago flexicaulis Zigzag goldenrod NATIVEW058 Solidago graminifolia Grass-leaved goldenrod NATIVEW063 Solidago rugosa Rough-stemmed goldenrod NATIVEW060 Solidago spp. Goldenrod species NATIVEW812 Sonchus arvensis Field sow-thistle W813 Sonchus asper Spiny-leaved sow-thistle W815 Sonchus oleraceus Common sow-thistle
W795 Specularia perfoliata Venus's looking-glass NATIVEW145 Spiranthes spp. Ladies'-tresses species NATIVEW231 Stellaria alsine Bog chickweed
W230 Stellaria media Common chickweed
W432 Streptopus amplexifolius Twisted-stalk NATIVEW430 Streptopus roseus Rosy-bells NATIVEW952 Symphyotrichum lowrieanum Smooth heart-leaved aster NATIVEW415 Symplocarpus foetidus Skunk cabbage NATIVEW580 Taraxacum spp. Dandelion species
W583 Tephrosia virginiana Goat's-rue NATIVEW710 Thalictrum dioicum Early meadow-rue NATIVEW711 Thalictrum polygamum Tall meadow-rue NATIVEW855 Thlaspi arvense Field pennycress
W435 Tiarella cordifolia Foamflower NATIVEW715 Tovara virginiana Jumpseed NATIVEW845 Tragopogon pratensis Yellow goat's-beard
W915 Trapa natans Water chestnut
W030 Trientalis borealis Star-flower NATIVEW867 Trifolium arvense Rabbit's-foot clover W166 Trifolium hybridum Alsike clover
W168 Trifolium pratense Red clover
W167 Trifolium repens White clover
W072 Trillium erectum Wake-robin NATIVEW073 Trillium grandiflorum Large-flowered trillium NATIVEW070 Trillium spp. Trillium species NATIVEW075 Trillium undulatum Painted trillium NATIVEW716 Tussilago farfara Coltsfoot
W140 Urtica dioica Stinging nettle NATIVEW141 Urtica spp. Nettle species NATIVEW495 Uvularia perfoliata Bellwort NATIVEW496 Uvularia sessilifolia Sessile-leaved bellwort NATIVEW494 Uvularia spp. Bellwort species NATIVEW700 Veratrum viride False or White hellebore NATIVE
Appendix A Supporting Documents – Species Codes ‐ All
217
Code KeyGenus KeySpecies KeyCommonName OriginW810 Verbascum thapsus Common mullein
W890 Verbena hastata Blue vervain NATIVEW735 Vernonia noveboracensis New York ironweed NATIVEW571 Veronica officinalis Common speedwell NATIVEW570 Veronica spp. Speedwell species NATIVEW873 Vicia cracca Cow vetchW705 Vinca minor myrtle or periwinkle
W541 Viola affinis LeConte's violet NATIVEW091 Viola blanda Sweet white violet NATIVEW089 Viola canadensis Canada violet NATIVEW093 Viola hastata Halberd-leaved violet NATIVEW092 Viola incognita Large-leaved white violet NATIVEW088 Viola labradorica American dog violet NATIVEW094 Viola pallens Northern white violet NATIVEW095 Viola palmata Early blue violet NATIVEW098 Viola papilionacea Common blue violet NATIVEW540 Viola pensylvanica Smooth yellow violet NATIVEW542 Viola primulifolia Primrose-leaved violet NATIVEW099 Viola rostrata Long-spurred violet NATIVEW097 Viola rotundifolia Round-leaved violet NATIVEW543 Viola sagittata Arrow-leaved violet NATIVEW090 Viola spp. Violet species NATIVEW096 Viola striata Pale violet NATIVEW595 Waldsteinia fragarioides Barren strawberry NATIVEW920 Yucca filamentosa Yucca
X001 Rocky MicroHabitat Rocky Coverage
X002 Water MicroHabitat Standing Water - Wet
X003 Soil MicroHabitat Mineral Soil/Sediment
X004 Moss MicroHabitat Moss Coverage
X005 Burned MicroHabitat Burned Coverage
X006 MechDisturb MicroHabitat Mech Disturbance
X007 Snow MicroHabitat Snow Covered
X008 ConiferDuff MicroHabitat Pine/Hemlock Duff
X009 Stream MicroHabitat Flowing Water - Stream
X010 DeadWood MicroHabitat Dead Wood
X011 BoleRoot MicroHabitat Live Bole/Root
X012 Dung MicroHabitat Dung/Scats
X013 Trash MicroHabitat Trash/Junk
X014 LeavesHumus MicroHabitat Empty except leaves/humus
Appendix A Supporting Documents – Species Codes ‐ All
218
Code KeyGenus KeySpecies KeyCommonName Origin
X015 ForestryStuff MicroHabitatForestry Stuff (tree tubes, etc.)
X016 SpringSeep MicroHabitat Spring seep
X021 Limestone gravel MicroHabitat Limestone gravel coverage
X022 E & S Materials MicroHabitat Silt socks, netting, hay/straw
X030 Vegetative Tree Cover MicroHabitat
VegetativeTreeCover-Live Bole
Appendix A Supporting Documents – Species Codes ‐ Invasives
219
Species Codes – Invasives DCNR ‐ Bureau of Forestry INVASIVES LIST 2016
CODE Common Name Scientific Name
W900 Goutweed Aegopodium podagraria
W745 Garlic mustard Alliaria petiolata
W663 Wild chervil Anthriscus sylvestris
W454 Narrowleaf bittercress Cardamine impatiens
W683 Musk thistle Carduus nutans
W930 Brown knapweed Centaurea jacea
W931 Black knapweed Centaurea nigra
W901 Spotted knapweed Centaurea stoebe
W902 Greater celandine Chelidonium majus
W903 Canada thistle Cirsium arvense
W685 Bull thistle Cirsium vulgare
W904 Poison hemlock Conium maculatum
W770 Crown‐vetch Coronilla varia
W880 Jimsonweed Datura stramonium
W417 Hairy willow herb Epilobium hirsutum
W935 Smallflower hairy willowherb Epilobium parviflorum
W188 Japanese knotweed Fallopia japonica
W189 Giant knotweed Fallopia sachalinensis
W885 Goat's‐rue Galega officinalis
W907 {Orange daylily} {Hemerocallis fulva}
W908 Giant hogweed Heracleum mantegazzianum
W259 Dames rocket Hesperis matronalis
W926 Yellow flag iris Iris pseudacorus
W940 Moneywort Lysimachia nummularia
W941 Purple loosetrife Lythrum salicaria
W909 Nodding Star‐of‐Bethlehem Ornithogalum nutans
W910 Star‐of‐Bethlehem Ornithogalum umbellatum
W918 {Japanese pachysandra} {Pachysandra terminalis}
W911 Wild parsnip Pastinaca sativa
W912 Beefsteak plant Perilla frutescens
W714 Bristled knotweed Persicaria longiseta
W512 Lesser celandine Ranunculus ficaria
V280 Chocolate vine Akebia quinata
V285 Porcelain berry Ampelopsis brevipedunculata
V021 Oriental bittersweet Celastrus orbiculatus
V260 {Wintercreeper} {Euonymus fortunei}
V250 {English ivy} {Hedera helix}
W916 Japanese hops Humulus japonicus
Appendix A Supporting Documents – Species Codes ‐ Invasives
220
CODE Common Name Scientific Name
V240 Japanese honeysuckle Lonicera japonica
V136 Mile‐a‐minute Persicaria perfoliata
V230 Kudzu Pueraria lobata
W000 {Bigleaf Periwinkle} {Vinca major}
W705 {Common Periwinkle} {Vinca minor}
V290 Black swallow‐wort Vincetoxicum nigrum
V292 Pale swallow‐wort Vincetoxicum rossicum
V270 {Chinese Wisteria} {Wisteria sinensis}
V275 {Japanese Wisteria} {Wisteria floribunda}
T/R000 Amur maple Acer ginnala
T/R023 Norway maple Acer platanoides
T/R302 Sycamore maple Acer pseudoplatanus
T/R240 Mimosa Albizia julibrissin
T/R305 European black alder Alnus glutinosa
T/R112 Tree‐of‐heaven Ailanthus altissima
S495 Japanese angelica‐tree Aralia elata
T/R000 {Paper mulberry} {Broussonetia papyrifera}
T/R000 {White mulberry} {Morus alba}
T/R110 Empress tree Paulownia tomentosa
T/R306 {Cork‐trees} {Phellodendron species}
T/R200 Callery pear Pyrus calleryana
T/R307 {Bee‐bee tree} {Tetradium daniellii}
T/R304 Siberian elm Ulmus pumila
S160 Japanese barberry Berberis thunbergii
S900 European barberry Berberis vulgaris
S914 {Butterfly Bush} {Buddleja davidii}
S351 Russian olive Elaeagnus angustifolia
S350 Autumn olive Elaeagnus umbellata
S700 Winged Euonymus Euonymus alata
S915 Glossy buckthorn Frangula alnus
S710 Shrubby bushclover Lespedeza bicolor
S712 Chinese bushclover Lespedeza cuneata
S650 Japanese privet Ligustrum japonicum
S650 Border privet Ligustrum obtusifolium
S650 Chinese privet Ligustrum sinense
S650 Common privet Ligustrum vulgare
S360 Amur honeysuckle Lonicera mackii
S360 Morrow’s honeysuckle Lonicera morrowii
S360 Bell’s honeysuckle Lonicera xbella
S360 Standish honeysuckle Lonicera standishii
S910 Tartarian honeysuckle Lonicera tatarica
Appendix A Supporting Documents – Species Codes ‐ Invasives
221
CODE Common Name Scientific Name
S911 Common buckthorn Rhamnus cathartica
S720 Jetbead Rhodotypos scandens
S635 Multiflora rose Rosa multiflora
S290 {Wineberry} {Rubus phoenicolasius}
S913 Japanese spiraea Spiraea japonica
S159 {Doublefile viburnum} {Viburnum plicatum}
S158 {Linden viburnum} {Viburnum dilatatum}
S157 {Siebold viburnum} {Viburnum sieboldii}
S145 Guelder rose Viburnum opulus
G000 {Small carpetgrass} {Arthraxon hispidus}
G106 Poverty brome Bromus sterilis
G105 Cheatgrass Bromus tectorum
G500 Common velvet grass Holcus lanatus
G340 Japanese stiltgrass Microstegium vimineum
G000 {Chinese silvergrass} {Miscanthus sinensis}
G000 {Wavyleaf basketgrass} {Oplismenus hirtellus}
G325 Reed canary grass Phalaris australis
G380 Common reed Phragmites australis ssp. australis
G000 {Golden bamboo} {Phyllostachys aurea}
G123 Rough bluegrass Poa trivialis
G000 {Ravenna Grass} {Saccharum ravannae}
G178 Tall fescue Schedonorus arundiaceus
G356 Shattercane Sorghum bicolor ssp. drummondii
G358 Johnsongrass Sorghum halepense
W712 Carolina fanwort Cabomba caroliniana
NO CODE Didymo Didymosphenia geminata
W921 Brazilian water‐weed Egeria densa
W917 Hydrilla Hydrilla verticillata
W862 Floating seedbox Ludwigia peploides
W905 Parrot feather watermilfoil Myriophyllum aquaticum
W906 Eurasian water‐milfoil Myriophyllum spicatum
W914 Curly pondweed Potamogeton crispus
W915 Europan water chestnut Trapa natans
G717 Narrow‐leaved cattail Typha angustifolia
G718 Hybrid cattail Typha x glauca
*Species without a CODE should be collected as a voucher specimen, EXCEPT Didymo (do NOT collect)
**Watch List Species are denoted by the {….} and should be recorded the same as invasives.
***EDRR Species are highlighted on this list. If encountered, must follow EDRR reporting process.
Appendix A Supporting Documents – Species Codes – Well Pad Species
222
Species Codes – Well Pad Species CODE Scientific Name Common Name PAGE
ANADARKO Less than 15% Slope
G330 Phleum pratense Timothy 328
G242 Elymus canadensis Canada wild‐rye 345
G351 Schizachyrium scoparium Little bluestem 392
G350 Andropogon gerardii Big bluestem 392
W167 Trifolium repens White clover 593
G220 Panicum clandestinum Deer‐tongue grass 373
W870 Chamaechrista fasciculata Partridge‐pea 572
W537 Rudbeckia hirta Black‐eyed‐susan 941
ANADARKO Greater than 15% Slope
G360 Sorghastrum nutans Indian‐grass 391
G225 Panicum virgatum Switchgrass 385
ERNST Seed Mixes/Kugel Mix
G110 Dactylis glomerata Orchardgrass 333
G238 Tridens flavus Purpletop 350
G245 Elymus virginicus Virginia wild‐rye 347
G177 Festuca rubra Red fescue 320
G336 Lolium multiflorum Ryegrass 329
G159 Carex vulpinoidea Fox sedge 280
G190 Agrostis perrennans Autumn bent‐grass 325
G194 Agrostis gigantea Redtop 324
W166 Trifolium hybridum Alsike clover 592
Appendix A Supporting Documents – Species Codes – Well Pad Species
223
CODE Scientific Name Common Name PAGE
G335 Lolium perenne Perennial ryegrass 329
W163 Lotus corniculatus Bird's‐foot trefoil 588
G178 Schedonorus arundinaceus Tall fescue 329
G103 Bromus cillatus Fringed brome 341
G620 Echinochloa crusgalli Barnyard grass 369
G315 Setaria pumila Yellow foxtail 387
G235 Triticum aestivum Common wheat 347
S400 Cornus ammomum Silky dogwood 716
W723 Plantago lanceolate Narrowleaf plantain 793
W180 Polygonum aviculare Prostrate knotweed 452
W416 Epilobium ciliatum Northern willow‐herb 511
W168 Trifolium pratense Red clover 593
G120 Poa pratensis Kentucky bluegrass 339
X021 Limestone Gravel Limestone Gravel Cover
X022 E & S Materials E & S Materials Cover
Appendix A Supporting Documents – DO Chart
224
Dissolved Oxygen (mg/L) 100% Saturation Chart for Fresh Water Temp°C
BarometricPressure(mmHg)700 705 710 715 720 725 730 735 740 745 750 755 760 765 770
0.0 13.46 13.56 13.65 13.75 13.85 13.94 14.04 14.14 14.23 14.33 14.43 14.52 14.62 14.72 14.81
0.5 13.27 13.37 13.46 13.56 13.65 13.75 13.84 13.94 14.03 14.13 14.23 14.32 14.42 14.51 14.61
1.0 13.09 13.18 13.28 13.37 13.46 13.56 13.65 13.75 13.84 13.93 14.03 14.12 14.22 14.31 14.40
1.5 12.91 13.00 13.09 13.19 13.28 13.37 13.46 13.56 13.65 13.74 13.84 13.93 14.02 14.11 14.21
2.0 12.73 12.82 12.91 13.01 13.10 13.19 13.28 13.37 13.46 13.56 13.65 13.74 13.83 13.92 14.01
2.5 12.56 12.65 12.74 12.83 12.92 13.01 13.10 13.19 13.28 13.37 13.46 13.55 13.64 13.73 13.82
3.0 12.39 12.48 12.57 12.66 12.75 12.84 12.93 13.02 13.10 13.19 13.28 13.37 13.46 13.55 13.64
3.5 12.23 12.31 12.40 12.49 12.58 12.67 12.75 12.84 12.93 13.02 13.11 13.19 13.28 13.37 13.46
4.0 12.07 12.15 12.24 12.33 12.41 12.50 12.59 12.67 12.76 12.85 12.93 13.02 13.11 13.20 13.28
4.5 11.91 11.99 12.08 12.17 12.25 12.34 12.42 12.51 12.59 12.68 12.77 12.85 12.94 13.02 13.11
5.0 11.75 11.84 11.92 12.01 12.09 12.18 12.26 12.35 12.43 12.52 12.60 12.69 12.77 12.86 12.94
5.5 11.60 11.69 11.77 11.86 11.94 12.02 12.11 12.19 12.27 12.36 12.44 12.52 12.61 12.69 12.78
6.0 11.46 11.54 11.62 11.70 11.79 11.87 11.95 12.04 12.12 12.20 12.28 12.37 12.45 12.53 12.61
6.5 11.31 11.39 11.48 11.56 11.64 11.72 11.80 11.88 11.97 12.05 12.13 12.21 12.29 12.37 12.46
7.0 11.17 11.25 11.33 11.41 11.49 11.58 11.66 11.74 11.82 11.90 11.98 12.06 12.14 12.22 12.30
7.5 11.03 11.11 11.19 11.27 11.35 11.43 11.51 11.59 11.67 11.75 11.83 11.91 11.99 12.07 12.15
8.0 10.90 10.98 11.06 11.14 11.21 11.29 11.37 11.45 11.53 11.61 11.69 11.76 11.84 11.92 12.00
8.5 10.77 10.84 10.92 11.00 11.08 11.16 11.23 11.31 11.39 11.47 11.54 11.62 11.70 11.78 11.86
9.0 10.64 10.71 10.79 10.87 10.94 11.02 11.10 11.18 11.25 11.33 11.41 11.48 11.56 11.64 11.71
9.5 10.51 10.59 10.66 10.74 10.81 10.89 10.97 11.04 11.12 11.19 11.27 11.35 11.42 11.50 11.57
10.0 10.39 10.46 10.54 10.61 10.69 10.76 10.84 10.91 10.99 11.06 11.14 11.21 11.29 11.36 11.44
10.5 10.26 10.34 10.41 10.49 10.56 10.64 10.71 10.78 10.86 10.93 11.01 11.08 11.16 11.23 11.30
11.0 10.15 10.22 10.29 10.37 10.44 10.51 10.59 10.66 10.73 10.81 10.88 10.95 11.03 11.10 11.17
11.5 10.03 10.10 10.17 10.25 10.32 10.39 10.47 10.54 10.61 10.68 10.76 10.83 10.90 10.97 11.05
12.0 9.91 9.99 10.06 10.13 10.20 10.27 10.35 10.42 10.49 10.56 10.63 10.71 10.78 10.85 10.92
12.5 9.80 9.87 9.94 10.02 10.09 10.16 10.23 10.30 10.37 10.44 10.51 10.58 10.66 10.73 10.80
13.0 9.69 9.76 9.83 9.90 9.97 10.04 10.11 10.19 10.26 10.33 10.40 10.47 10.54 10.61 10.68
13.5 9.59 9.65 9.72 9.79 9.86 9.93 10.00 10.07 10.14 10.21 10.28 10.35 10.42 10.49 10.56
14.0 9.48 9.55 9.62 9.69 9.76 9.82 9.89 9.96 10.03 10.10 10.17 10.24 10.31 10.37 10.44
Appendix A Supporting Documents – DO Chart
225
Temp°C
BarometricPressure(mmHg)700 705 710 715 720 725 730 735 740 745 750 755 760 765 770
14.5 9.38 9.44 9.51 9.58 9.65 9.72 9.78 9.85 9.92 9.99 10.06 10.13 10.19 10.26 10.33
15.0 9.27 9.34 9.41 9.48 9.54 9.61 9.68 9.75 9.81 9.88 9.95 10.02 10.08 10.15 10.22
15.5 9.18 9.24 9.31 9.38 9.44 9.51 9.58 9.64 9.71 9.78 9.84 9.91 9.98 10.04 10.11
16.0 9.08 9.14 9.21 9.28 9.34 9.41 9.47 9.54 9.61 9.67 9.74 9.80 9.87 9.94 10.00
16.5 8.98 9.05 9.11 9.18 9.24 9.31 9.37 9.44 9.50 9.57 9.64 9.70 9.77 9.83 9.90
17.0 8.89 8.95 9.02 9.08 9.15 9.21 9.28 9.34 9.41 9.47 9.54 9.60 9.66 9.73 9.79
17.5 8.80 8.86 8.92 8.99 9.05 9.12 9.18 9.24 9.31 9.37 9.44 9.50 9.57 9.63 9.69
18.0 8.70 8.77 8.83 8.90 8.96 9.02 9.09 9.15 9.21 9.28 9.34 9.40 9.47 9.53 9.59
18.5 8.62 8.68 8.74 8.80 8.87 8.93 8.99 9.06 9.12 9.18 9.24 9.31 9.37 9.43 9.50
19.0 8.53 8.59 8.65 8.72 8.78 8.84 8.90 8.96 9.03 9.09 9.15 9.21 9.28 9.34 9.40
19.5 8.44 8.50 8.57 8.63 8.69 8.75 8.81 8.87 8.94 9.00 9.06 9.12 9.18 9.25 9.31
20.0 8.36 8.42 8.48 8.54 8.60 8.66 8.73 8.79 8.85 8.91 8.97 9.03 9.09 9.15 9.21
20.5 8.28 8.34 8.40 8.46 8.52 8.58 8.64 8.70 8.76 8.82 8.88 8.94 9.00 9.06 9.12
21.0 8.19 8.25 8.31 8.37 8.43 8.49 8.55 8.61 8.67 8.73 8.79 8.85 8.92 8.98 9.04
21.5 8.11 8.17 8.23 8.29 8.35 8.41 8.47 8.53 8.59 8.65 8.71 8.77 8.83 8.89 8.95
22.0 8.04 8.09 8.15 8.21 8.27 8.33 8.39 8.45 8.51 8.57 8.63 8.68 8.74 8.80 8.86
22.5 7.96 8.02 8.08 8.13 8.19 8.25 8.31 8.37 8.43 8.48 8.54 8.60 8.66 8.72 8.78
23.0 7.88 7.94 8.00 8.06 8.11 8.17 8.23 8.29 8.35 8.40 8.46 8.52 8.58 8.64 8.69
23.5 7.81 7.86 7.92 7.98 8.04 8.09 8.15 8.21 8.27 8.33 8.38 8.44 8.50 8.56 8.61
24.0 7.73 7.79 7.85 7.90 7.96 8.02 8.08 8.13 8.19 8.25 8.30 8.36 8.42 8.48 8.53
24.5 7.66 7.72 7.77 7.83 7.89 7.94 8.00 8.06 8.11 8.17 8.23 8.28 8.34 8.40 8.45
25.0 7.59 7.65 7.70 7.76 7.81 7.87 7.93 7.98 8.04 8.10 8.15 8.21 8.26 8.32 8.38
25.5 7.52 7.58 7.63 7.69 7.74 7.80 7.85 7.91 7.97 8.02 8.08 8.13 8.19 8.24 8.30
26.0 7.45 7.51 7.56 7.62 7.67 7.73 7.78 7.84 7.89 7.95 8.00 8.06 8.11 8.17 8.22
26.5 7.38 7.44 7.49 7.55 7.60 7.66 7.71 7.77 7.82 7.88 7.93 7.99 8.04 8.10 8.15
27.0 7.32 7.37 7.43 7.48 7.53 7.59 7.64 7.70 7.75 7.81 7.86 7.91 7.97 8.02 8.08
27.5 7.25 7.30 7.36 7.41 7.47 7.52 7.57 7.63 7.68 7.74 7.79 7.84 7.90 7.95 8.01
28.0 7.19 7.24 7.29 7.35 7.40 7.45 7.51 7.56 7.61 7.67 7.72 7.77 7.83 7.88 7.93
28.5 7.12 7.18 7.23 7.28 7.33 7.39 7.44 7.49 7.55 7.60 7.65 7.71 7.76 7.81 7.87
29.0 7.06 7.11 7.16 7.22 7.27 7.32 7.38 7.43 7.48 7.53 7.59 7.64 7.69 7.74 7.80
29.5 7.00 7.05 7.10 7.15 7.21 7.26 7.31 7.36 7.42 7.47 7.52 7.57 7.62 7.68 7.7330.0 6.94 6.99 7.04 7.09 7.14 7.20 7.25 7.30 7.35 7.40 7.46 7.51 7.56 7.61 7.66
Appendix B Datasheets
226
Chapter 9 Appendix B Datasheets
Appendix B Datasheets
227
Datasheets
DEP Lab Sample Submission Sheet
Macroinvertebrate Collection Habitat Field Form
Widespread Sampling
Pebble Count
Post Construction Stormwater Management (PCSM)
Well Pad Vegetation Assessment
Pad Invasives Walkabout
Roadside Vegetation Community Monitoring
Roadside Invasive Plant Monitoring
Road Condition Monitoring
Invasive Plant Species Early Detection and Rapid Response (EDRR)
Plant Collection
Coverboards
Grassland Bird Nest Surveys
Pipeline ROW Vegetation Monitoring
Pipeline-Stream Crossing Monitoring
Road-Stream Crossing Assessment
*Alldatasheetscanbefoundviathefollowingpath:
\\nrford12ds1\RPI\RPI_RAID\MonitoringProtocolsandManuals\CurrentManualandProtocols\DatasheetsforManual
Definitions
228
Chapter 10 Definitions
Definitions
229
Definitions
Calibrate Toadjustormark(something,suchasameasuringdevice)sothatitcanbeusedinanaccurateandexactway.
Core Gas Districts Theentirestateforestholdingsofdistricts9,10,12,13,15,16,&20.
Corridor Anarrowtractoflandformingapassagewayorrouteidentifiedbyaspecificcommonpurpose.
Development Permanentortemporaryearthdisturbanceactivitiesrelatedtooilandgasexplorationandproductionnotincludingseismicexploration.
Dissolved Oxygen Theamountofoxygengasthatisdissolvedinwater.Justlikehumans,mostlivingcreaturesinourwatershedsneedoxygentosurvive.Insteadofusinglungstobreatheoxygenintheair,manyaquaticanimalsgetoxygenfromwater,usinggillstobreathe.AstheDOlevelrises,thegillsworkmoreefficiently,butastheDOleveldecreases,itismuchharderforthefishandotheraquaticlifetogettheoxygentheyneedtolive.Dissolvedoxygenconditionsinstreamschangeoverthecourseoftheday,becauseplantsandalgaeproduceoxygenonlyduringthedaytime,whilefish,algaeandotheraquaticlifeconstantlyremoveoxygenfromthewater,dayandnight.StreamswithanunhealthyoverabundanceofalgaeandaquaticlifemayhaveveryseverefluctuationsinDO.Atnightorveryearlyinthemorning,DOconcentrationsmaydroptolevelsthatresultinfishkillsorecosystemdisturbances.(Unitsofmeasure=mg/Lor%DO)
Earth Disturbance Activity (ESCGP‐2)Aconstructionorotherhumanactivitywhichdisturbsthesurfaceoftheland,includinglandclearingandgrubbing,grading,excavations,embankments,landdevelopment,agriculturalplowingortilling,operationofanimalheavyuseareas,timberharvestingactivities,roadmaintenanceactivities,oilandgasactivities,welldrilling,mineralextraction,andthemoving,depositing,stockpiling,orstoringofsoil,rock,orearthmaterials.
Extraction Productionofoilornaturalgasafterawellhasbeendrilledandcompleted.
Exuviae Sloughedoffnaturalanimalcoverings(asintheskinsofsnakes,bugs,etc.)
Gas Districts Districtsthathavebeenrecognizedforthepotentialofunconventionalgasdevelopment(districts2,4,6,8,9,10,12,13,14,15,16,19,&20)
Definitions
230
Hardened Surface TocoveruniformlywithmaterialsthatformacompactedworkingsurfacethatisimperviousasdefinedbyDEP.
Impact Tohaveadirecteffectorinfluence.
Infrastructure Facilitiesandtransportationarteriesassociatedwithgasextractionandtransport(i.e.–wellpads,compressorstations,pipelineright‐of‐ways,impoundments.
Limit of Clearance BOFdesignationthatisnegotiatedbetweenthedistrictandgascompanythatfallswithintheLODwhereactualremovalofpredominantvegetationcover,includingoverstory,midcanopyorunderstoryvegetation,and/ororiginalsoilsubstratewilloccur.
Limit of Disturbance(LOD) LinethatdesignatestheseparationbetweentheareasthatcanbedisturbedandthosethatwillnotbedisturbedbasedonthespecificationsoftheDEPapprovedpermit.
PAD Infrastructuresitesthatincludewellpads,compressorstations,freshwaterimpoundments,storagepads,stonepitsandmeter,valveortapstationsandreferstotheactualspacethedesignatedinfrastructureoccupies.
Pad Edge Theextentofthehardenedsurface,theedgeofwhatcouldbeconsideredusableworkspace.Thisdoesnotincludetoeslopeofmaterial.
pH pHmeasureshowacidicorhowalkalineasolutionisonascalefrom0‐14,with7being"neutral"(neitheracidicoralkaline).Smallervaluesindicategreateraciditywhilelargervaluesindicategreateralkalinity.StreampHmayfluctuateoverthecourseofthedaybecauseofbiologicalactivity.MostplantsandanimalsdobestinfairlyneutralwaterwithapHrangeof6.5‐8.0,andmoreextremevalues(eitherhighorlow)areundesirable.SomestreamsinPennsylvaniaareaffectedbyacidminedrainage(AMD),andhaveverylowpH,creatinginhospitableconditionsforfishandotheraquaticlife.(Unitsofmeasure=standardpHunits)
Post Construction Stormwater Management (PCSM) RefertoDEP§102.8.
Results Toendinaparticularway.
ROW Temporary Workspace Clearedareaoutsideofthepermanentfootprintwhichislegallydefinedwithinthepermitandisutilizedonlyduringconstructionofafacility.
Definitions
231
Sinuosity Thetendencyofastreamtomovebackandforthacrossthefloodplain,inanS‐shapedpattern,overtime.Asthestreammovesbackandforthacrossthefloodplain,itmayleavebehindscarsofwheretheriverchanneloncewas.Astreamthatdoesn'tmeanderatallhasasinuosityof1(Sinuosity=actualpathlengthbetweentwopoints/shorteststraightlinedistancebetweentwopoints).Themoremeandersinastream,thehigherthesinuositywillbe.
Specific Conductance Specificconductanceorconductivityistheabilityofwatertocarryanelectricalcurrent.Purewaterisactuallyafairlygoodinsulator,butsubstancesdissolvedinwater,suchassalt(sodiumchloride,orNaCl),canhelpallowelectricalcurrenttoflow.Whenthesaltdissolves,theindividualNaandClatomssplitapart.Thechlorineatomtendsto"steal"anegativelychargedelectronfromsodium,givingthechlorineanegative(‐)electricchargeandsodiumapositive(+)electriccharge.Thesechargedatomsarecalledions.Itbecomesmucheasierforelectricitytoflowwhentherearelotsofpositivelyandnegativelychargedionsdissolvedinthewater.Conductivitydependsonthetotalnumberandtypeofionsinthewater,notjustNaandClfromtablesalt.Conductivitymayincreaseduringwinter,whenionsfromsnowmeltsaltscanrunoffintothestream.[Unitsofmeasure:microsiemens(μs)/centimeter(cm)]
Turbidity Turbidityisameasureofclarity,orthelightscatteringabilityofwater.Lightisscattered(reflectedinrandomdirections)byparticlesthataresuspendedordissolvedinwater.Turbidityismeasuredbyalightsourceshiningthroughthewaterwhileaverysensitivelightsensormeasurestheamountoflightreflectedata90degreeangle.Iftherearelotsofsmallparticlessuspendedinthewater,suchasclayandsiltfromstreambankerosion,muchofthelightwillnotshinestraightthroughthewatersample,butbescatteredoffindifferentdirections.Itisnaturalforturbiditytoincreasesomewhat,alongwithstreamdischarge,inresponsetowetweather.Severeincreasesinturbiditymayindicatesedimentpollutionfromstreamerosion,andthisfinesedimentcanbeharmfultofishandotheraquaticlife.(Unitsofmeasure=NationalTurbidityUnitsorNTU)
State Forest Reclamation Tochangeanareausedforgasdevelopmenttoanotherdistrictapprovedcondition,e.g.recreationparkinginfrastructure,herbaceousopeningorforestedhabitat.
State Forest Restoration Tobringbacktotheoriginalcontour/grade,landuseandfunction.
Well Pad (DEPESCGP‐2)Theareasurroundinganoilorgaswellheadthatissubjecttoearthdisturbanceandthatisusedorplannedforuseforthedrilling,productionorpluggingofthewell,includingassociatedsupportactivities(suchasstorageofchemicals,wastewater,drillcutting,andequipment).Thewellpaddoesnotincluderoads,pipelines,andfacilitiesforthewithdrawal,storage,andconveyanceoffreshwater.
Bibliography
232
Chapter 11 Bibliography
Bibliography
233
Bibliography BevengerandKing1995. DrawingfromBevengerandKing,1995. EnvironmentSouthland.Didymospheniageminata–SurfaceWaterCaseStudy.
www.biosecurity.govt.nz. HoboU24ConductivityLogger(U24‐00x)Manual.HoboTechnicalSupport=800‐
564‐4377. Keefer,J.S.,Marshall,M.R.&Mitchell,B.R.2010.EarlydetectionofInvasivespecies:
Surveillance,monitoring,andrapidresponse:EasternRiversandMountainsNetworkandNortheastTemperateNetwork.NaturalResourcesReportNPS/ERMN/NRR‐2010/196.NationalParkService,FortCollins,Colorado.
Kershaw,K.A.(1968).ClassificationandordinationofNigeriansavannavegetation.
JournalofEcology56(2):467‐482. Kilroy,Cathy,Lagerstedt,Amy,Davey,Andrew,Robinson,Karen.2006.Studiesonthe
survivabilityoftheinvasivediatomDidymospheniageminateunderarangeofenvironmentalconditions.NationalInstituteofWaterandAtmosphericResearchLtd.
Krajina,V.J.(1969).EcologyofforesttreesinBritishColumbia.EcologyofWestern
NorthAmerica2(1):1‐47. Lacey,John;Short,Sam;Mosley,Jeff.MontanaStateExtension.HowtoCollect,Pressand
MountPlants;RevisedApril,2001. Merriam‐WebsterOnlineDictionay.http://www.merriam‐webster.com/ NewYorkStateDepartmentofEnvironmentalConservationDisinfection;Techniquesfor
FishingandBoatingEquipment;2014.http://www.dec.ny.gov/animals/50267.html PADCNRInventoryManualofProcedureforthe2009StateForestPlan–Inventoryof
BiologicalResources(Phase3);RevisedMarch2011,EditedFebruary2012.(CFIManual)
PADCNRInventoryManualofProcedurefortheFourthStateForestManagementPlan;
July29,1999.(TypingManual) PADCNRManualforInventoryofWildAreas;January2007.
Bibliography
234
PADEP.AnIndexOfBioticIntegrityForBenthicMacroinvertebrateCommunitiesInPennsylvania’sWadeable,Freestone,Riffle‐RunStreams,Harrisburg,PA(December2013)
PADEPInstreamComprehensiveEvaluationprotocol(DEP2009) PADEP.InstreamComprehensiveEvaluationSurveys,HarrisburgPA(July2013)
PADEPWaterQualityStandardsDefintions.
http://pa.water.usgs.gov/pwd/definitions.php PennsylvaniaFishandBoatCommission.2014.DidymoFactSheet
http://www.fish.state.pa.us/water/habitat/ans/didymo/faq_didymo.htm PennsylvaniaStormwaterBestManagementPracticesManual,Chapter6
http://stormwaterpa.org/best‐practices‐overview.html User’sGuidefortheExtechInstrumentsDigitalDataloggingSoundLevelMeter,Model
HD600.Version1.2.2007. User’sGuidefortheExtechInstrumentsSoundLevelCalibrators,Model407744and
407766.Version5.1.2010. WestVirginiaDivisionofNaturalResources.2003.Didymo(RockSnot)FactSheet.
http://www.wvdnr.gov/fishing/didymo.shtm. YSIProfessionalPlus–UserManual,2009.YSITechnicalSupport=800‐897‐4151