UNITED STATES DEPARTMENT OF THE INTERIOR

GEOLOGICAL SURVEY Water Resources Division

DATA ON WELLS, SPRINGS, AND THERMAL SPRINGS

IN LONG VALLEY, MONO COUNTY, CALIFORNIA

By

R. E. Lewis

7 y -

OPEN-FILE REPORT

Menlo Park, California January 16, 1974

CONTENTS

ILLUSTRATIONS

Page

os Q- 3.H.Q scop g- - - - - - - - - - - - jLocation and general features of the area 4Previous work and acknowledgments 4Conversion factors 5Well- and spring-numbering system 6

Shallow test-drilling program 7u J.ass il icat ion ot gp^ings /Temperature measurements in wells and test wells 8References cited 8

Figure 1. Index map 2. Index of quadrangle maps

3-13. Maps showing location of wells and springs3.4.5.6.7.8.9.

10.11.12.13.

T.T.T.T.T.T.T.T.T.T.T.

22233334444

S.,S.,S.,s.,S.,S.,S.,S.,S.,S.,S.,

R.R.R.R.R.R.R.R.R.R.R.

2728292728293027282930

T?

P

P

P

P

P

P

JD

PageQ

in: 11

1213

14151 A

171 R

19 20

21

TABLES

Page Table 1. Description of wells and springs 22

2. Chemical analyses of water 333. Temperature measurements in wells 39

DATA ON WELLS, SPRINGS, AND THERMAL SPRINGS IN LONG VALLEY, MONO COUNTY, CALIFORNIA

By R. E. Lewis

INTRODUCTION

Purpose and Scope

The U.S. Geological Survey started hydrologic, geologic, and geophysical investigations in Long Valley, Calif., in 1972 as part of a national program of geothermal research. As a result of this research, considerable basic data have been collected. The purpose of this report is to make these hydrologic data readily available. The scope of this report includes the tabulation of recent and historical data from wells, test wells, springs, and thermal springs. Included in these data are water-level measurements or flow rates and water temperatures shown in table 1 and chemical analyses shown in table 2. Temperature gradients (change in temperature with well depth) and bottom hole temperature measurements made in selected wells and test wells are shown in table 3.

Location and General Features of the Area

Long Valley is in southwestern Mono County, in east-central California about 35 mi (56 km) northwest of Bishop (fig. 1). The area included in this investigation encompasses about 270 mi2 (700 km2 ) and includes Long Valley and all its contributory drainage areas. The maximum relief of the area is 5,488 ft (1,673 m). The land-surface altitudes range from about 6,780 ft (2,067 m) above sea level at the surface of Lake Crowley to 12,268 ft (3,739 m) at Mount Morrison in the Sierra Nevada near the southern border of the area. The difference in altitudes within this relatively small area is 5,488 ft (1,673 m) and results in extremes of climate.

Precipitation at Long Valley Dam, altitude 6,800 ft (2,073 m), is about 10 in (25 cm) annually. Precipitation along the Sierra Nevada is considerably greater about 28.7 in (72.9 cm) annually at Mammoth Lakes, Calif., altitude 8,930 ft (2,722 m) and 56.5 in (144 cm) at Mammoth Mountain Pass, altitude 9,500 ft (2,896 m). Between 60 and 70 percent of the precipitation falls as snow during the winter months. Summer temperatures in the valley seldom exceed 90°F (32°C [Celsius]); winter temperatures are commonly below 0°F (-18°C).

The study area covers parts of six topographic quadrangles (fig. 2) The locations of wells and springs are shown in figures 3-13.

Previous Work and Acknowledgments

Most of the hydrologic data from Long Valley are from the prominent thermal springs in the area. The most spectacular area, Casa Diablo, was first mentioned in the literature by Whiting (1888) and Russell (1889), Several of the more prominent thermal springs in the Long Valley area were visited by Waring (1915) and briefly described in his paper on the springs of California. A later paper by Stearns, Stearns, and Waring (1937) repeated Waring f s data with minor additional information; the data from that paper were included in a recent report by Waring (1965) but were not updated. A report by the California Department of Water Resources (1967) proposed a water budget for the valley but was primarily concerned with water quality; numerous chemical and spectrographic analyses of surface water, ground water, and water from springs are included in the report. Kaysing (1970) summarized the general features of the major thermal springs in the area but did not include any chemical analyses of the spring waters in his compilation.

The writer acknowledges the assistance of Messrs. Richard Nakahara and Lindsay A. Swain of the U.S. Geological Survey, Hawaii District, in the field collection of well and spring data and test-well drilling in May-July 1972. The cooperation of the U.S. Forest Service, Bureau of Land Management, and the Los Angeles Department of Water and Power in granting drilling permission on lands owned or controlled by them is greatly appreciated.

Conversion Factors

In this report all water temperatures are reported in degrees Celsius (°C). Temperatures originally reported in degrees Fahrenheit (°F) were changed to °C. Degrees F are converted to °C by subtracting 32° and multiplying by 5/9.

In most reports published since 1900, concentrations of the various chemical constituents are reported in parts per thousand, per hundred thousand, or per million. In this report all concentrations are reported in milligrams per liter. Water containing less than about 7,000 ppm (parts per million) of dissolved solids has a density close to unity, and concentration values, for practical purposes, are the same whether expressed in parts per million or milligrams per liter. However, water containing more than about 7,000 ppm of dissolved solids has a density appreciably above unity, and the concentration values expressed in one unit cannot be equated to those expressed in the other (Waring, 1965, P. 4).

Factors for converting English units to the International System of Units (SI) are given below to four significant figures. However, in the text the metric equivalents are shown only to the number of significant figures consistent with the values for the English units.

English

acregal/min (gallon per minute)ft (foot)in (inch)mi (mile)

(square mile)

Multiply by

4.047 x 10"10.063090.30482.5401.6092.590

Metric (SI)

ha (hectare)1/s (liter per second)m (meter)cm (centimeter)km (kilometer)

(square kilometer)

Well- and Spring-Numbering System

Wells and springs are assigned numbers according to their location in the rectangular system for the subdivision of public land. For example, as shown in the accompanying diagram, in the well number 3S/29E-2A1 the part of the number preceding the slash indicates the township (T. 3 S.), the part between the slash and the hyphen indicates the range (R. 29 E.), the number between the hyphen and the letter indicates the section (sec. 2), and the letter indicates the 40-acre subdivision of the section.

MOUNT DIAilO BASE LINE

\V

T.I S.

T.2 S.

\ \

T.3 S.

\

\ T.4 S

R.I E. R.2 E. R.28 E. R.29E.

\

\

\

\

\

\\

6

7

18

19

30

31

5

8

17

20

29

32

4

9

16

21

28

33

3

10

15

22

27

34

2

11

14

23

26

35

/12

13

24

25

36

D

E

M

N

C

F,A

0

B

G'K

P

H

1

Q

2AI

/

Within the 40-acre (16-ha) tract wells and springs are numbered serially, as indicated by the final digit. Thus, well 3S/29E-^A1 is the first well to be listed in the NE%NE%, sec. 2, T. 3 S., R. 29 E., Mount Diablo base line and meridian. Springs are numbered similarly except that an S is placed between the 40-acre (16-ha) subdivision letter and the final digit, as shown in the following spring number: 3S/28E-35ES1.

The letter Z, substituted for the letter designating the 40-acre (16-ha) tract, indicates the well or spring was plotted from unverified descriptions; the described locations of such wells or springs were visited, but the data could not be correlated with existing wells or springs.

SHALLOW TEST-DRILLING PROGRAM

Forty-seven test wells were drilled in May, June, and October 1972 and May 1973 using the hollow-stem auger rig. The locations of the wells are shown in figures 3-13. Depth of the holes ranged from 6 to 107 ft (1.8 to 33 m), and the aggregate depth of the holes is 2,478 ft (755 m). The test wells were drilled to obtain (1) the depth to the ground-water surface, (2) geothermal-gradient measurements, and (3) geologic information about the water-bearing properties of the shallow sedimentary deposits.

Polyvinyl-chloride (PVC) pipe, 2 in (5 cm) in diameter, was set in 40 of the holes. Well points, 18 in (46 cm) in length, were placed at the bottom of the PVC pipe in 28 of the holes; slotted PVC pipe was used in 6 holes. In six test wells where drilling was terminated above the water table, closed-end PVC pipe was emplaced and filled with water in order to obtain subsequent measurements of the geothermal gradient.

CLASSIFICATION OF SPRINGS

Strictly defined, any spring (or well) water whose average temperature is noticeably above the mean annual temperature of the air at the same locality may be classed as thermal (Waring, 1965, p. 4). Among European springs that are developed commercially, only those whose temperature is higher than about 20°C are classified as thermal. In the United States, only those springs are called thermal whose temperature is 15 Fahrenheit degrees (8.4 Celsius degrees) above the mean annual temperature of the air at their localities. In areas where the mean annual air temperature is low, some springs that do not freeze in winter because of their natural protective conditions are considered to be thermal; in tropical areas some springs that are only a few degrees warmer than the temperature of the air may be considered thermal.

In the Long Valley area the average annual temperature is about 45°F (7.2°C). By United States standards, then, and for the purpose of this report, any spring having a temperature of 45° + 15°F or 60°F (15.6°C) may be classified as thermal.

TEMPERATURE MEASUREMENTS IN WELLS AND TEST WELLS

Temperature measurements were obtained from selected wells and test wells at various depth intervals using a measuring system borrowed from J. H. Sass of the U.S. Geological Survey in Menlo Park, Calif. The measuring system consisted of a multiconductor cable and hoist, a thermistor thermometer, and a resistance measuring system and is described in detail in Sass and others (1971). Temperatures converted from measured resistances and their depths are shown in table 3.

REFERENCES CITED

California Department of Water Resources, 1967, Investigation ofgeothermal waters in the Long Valley area, Mono County: California Dept. Water Resources rept., 141 p.

Kaysing, W. C., ed., 1970, Thermal springs of the western United States: Santa Barbara, Calif., Paradise Publishers, 36 p.

McNitt, J. R., 1963, Exploration and development of geothermal power in California: California Div. Mines and Geology, spec. rept. 75, 44 p.

Russell, I. C., 1889, Quaternary history of Mono Valley, California, in Eighth annual report of the United States Geological Survey, 1886-87, J. W. Powell, director: U.S. Geol. Survey annual repts., p. 261-394.

Sass, J. H., Lachenbruch, A. H., Monroe, R. J., Green, G. W., andMoses, T. H., Jr., 1971, Heat flow in the western United States: Jour. Geophys. Research, v. 76, no. 26, p. 6376-6413.

Stearns, N. D., Stearns, H. T., and Waring, G. A., 1937, Thermal springs in the United States: U.S. Geol. Survey Water-Supply Paper 679-B, p. 59-206.

Waring, G. A., 1915, Springs of California: U.S. Geol. Survey Water- Supply Paper 338, 410 p.

Waring, G. A., 1965, Thermal springs of the United States and othercountries of the world--a summary, as revised by R. R. Blankenship and Ray Bentall: U.S. Geol. Survey Prof. Paper 492, 383 p.

Whiting, H. A., 1888, Mono County: California Mining Bureau Eighth annual report, p. 352-401.

19°00'

REA OF V/INDEX MAP

37°30'

MAOERA COUNTY ? Mammoth X Lakes

10 20 30 KILOMETERS

FIGURE 1. Index map.

38°00'

37°45'

37 U30

119°00' 118 0 45' 118°30

MONOCRATERS

1953R.r "

T.2S. F1

U -

DFVII <J

POSTPILE1953 T4S Fl

COWTRACK MTN

27 E.

JURE 3

1962

R.28 E. R.29 E.::::::::::. ::::::! ;; : :;::;;::::::::|

[filFiGURE.ii FIGURE|::i::::i4::::::l 5

JURE6

_

CURE10

FIGURE FIGURE7 8

i_ j.

FIGURE FIGURE11 12

LMT. MORRISON

1953

GLASSMOUNTAIN

1962

1

_.,. IL2JL.L.

FIGURE9

_j

FIGURE13

_LCASA DIABLO MTN.

1953

3B°00'

37 U45

37 U 30119°00 118°45' 118°30

6 MILES

02468 KILOMETERS

individual township maps are indicated by shaded areas and are shown in figures 3 through 13

FIGURE 2. Index of quadrangle maps.

10

Base from U.S. Geological Survey Mono Craters, 1953, Cowtrack Mtn., 1962, Devils Postpile, 1953, and Mt. Morrison, 1953

'FIGURE:!-:: i;3;;:i:i

FIGURE6

FIGURE10

FIGURE4

FIGURE7

FIGURE11

FIGURE5

FIGURE8

FIGURE12

FIGURE9

FIGURE13

EXPLANATION om WELL AND NUMBERJSl SPRING AND NUMBER

2 MILES

3 KILOMETERSCONTOUR INTERVAL 80 FEET DATUM IS MEAN SEA LEVEL

(To convert feet to meters, multiply by 3.048 x 10" 1 )

FIGURE 3. Location of wells and springs in T. 2 S., R. 27 E.

11

118°55' R.28 E

Base from U.S. Geological Survey Cowtrack Mtn., 1962, and Mt. Morrison, 1953

FIGURE3

FIGURE6

FIGURE10

'.FIGURE;;!!!!!.4.!!l!l!

FIGURE7

FIGURE11

FIGURE5

FIGURE8

FIGURE12

FIGURE9

FIGURE13

. EXPLANATION oD1 WELL AND NUMBER Q?S1 SPRING AND NUMBER

2 MILES

3 KILOMETERSCONTOUR INTERVAL 80 FEET DATUM IS MEAN SEA LEVEL

(To convert feet to meters, multiply by 3.048 x ID' 1 )

FIGURE 4. Location of wells and springs in T. 2 S., R. 28 E.

12

R.29 E. 118°45'

37°45'

Base from U.S. Geological Survey Cowtrack Mtn. , 1962, Glass Mountain 1962, Mt. Morrison, 1953, and Casa Diablo Mtn., 1953

FIGURE3

FIGURE6

FIGURE10

FIGURE4

FIGURE7

FIGURE11

iFiGUREiiiii! ; 5iiiii;

FIGURE8

FIGURE12

FIGURE9

FIGURE13

EXPLANATION

o pl WELL AND NUMBER<t>a SITE OF DESTROYED WELL

AND NUMBER

2 MILES

3 KILOMETERSCONTOUR INTERVAL 40 AND 80 FEET

DATUM IS MEAN SEA LEVEL-1(To convert feat to maters, multiply by 3.048 x 10 )

FIGURE 5. Location of wells in T. 2 S., R. 29 E.

13

ii9°oo' R.27 E.

37°40'

Base from U.S. Geological Survey Devils Postpile, 1953. and Mt. Morrison, 1953

FIGURE3

'FIGURE;!!!!!;; 6 I;;;::

FIGURE10

FIGURE4

FIGURE7

FIGURE11

FIGURE5

FIGURE8

FIGURE12

FIGURE9

FIGURE13

EXPLANATION oE1 WELL AND NUMBER

2 MILES

3 KILOMETERS

CONTOUR INTERVAL 80 FEET DATUM IS MEAN SEA LEVEL

(To convert feet to meters, multiply by 3.048 x 10" 1 )

FIGURE 6. Location of wells in T. 3 S., R. 27 E.

14

37°40'

Base from U.S. Geological Survey Mt. Morrison, 1953

FIGURE 3

FIGURE6

FIGURE 10

FIGURE 4

FIGURE;;;;;;; 7 :;;;;!

FIGURE 11

FIGURE 5-

FIGURE8

FIGURE 12

FIGURE9

FIGURE 13

EXPLANATION oR1 WELL AND NUMBER *ES1 THERMAL SPRING AND

SPRING AND NUMBER NUMBER

2 MILES

3 KILOMETERSCONTOUR INTERVAL 80 FEET DATUM IS MEAN SEA LEVEL

(To convert feet to meters, multiply by 3.048 x JO' 1 )

FIGURE 7. Location of wells and springs in T. 3 $., R. 28 £.

15

Base from U.S. Geological Survey Mt. Morrison, 1953, and Casa Diablo Mtn., 1953

FIGURE3

FIGURE6

FIGURE10

FIGURE4

FIGURE7

FIGURE11

FIGURE5

iFIGUREi;;;;H8;==:;;

FIGURE12

FIGURE9

FIGURE13

EXPLANATION WELL AND NUMBER of51 SPRING AND NUMBERSITE OF DESTROYED ^S1 THERMAL SPRING AND

WELL AND NUMBER NUMBER

2 MILES

3 KILOMETERS

CONTOUR INTERVAL 40 AND 80 FEET DATUM IS MEAN SEA LEVEL

(To convert feet to meters, multiply by 3.048 * 10" 1 )

FIGURE 8. Location of wells and springs in T. 3 S., R. 29 E.

16

118°40' R.30 E.

37°40'

Base from U.S. Geological Survey Casa Diablo Mtn.,1953

FIGURE3

FIGURE6

FIGURE10

FIGURE4

FIGURE7

FIGURE11

FIGURE5

FIGURE8

FIGURE12

FIGURE;;;;;;;; 9 ;;;!;;;

FIGURE13

EXPLANATION 0M1 WELL AND NUMBER JDBS1 SPRING AND NUMBER+ K1 SITE OF DESTROYED

WELL AND NUMBER

2 MILES

3 KILOMETERS

CONTOUR INTERVAL 40 FEET DATUM IS MEAN SEA LEVEL

(To convert feet to meters, multiply by 3.048 x 10~ l )

FIGURE 9. Location of wells and springs in T. 3 $., R. 30 E.

17

ii9°oo' R.27 E.

Base from U.S. Geological Survey DeviIs Postpi le, 1953, and Mt. Morrison, 1953

FIGURE3

FIGURE6

IFIGUREI;iiiiilOiiili

FIGURE4

FIGURE7

FIGURE11

FIGURE5

FIGURE8

FIGURE12

FIGURE9

FIGURE13

EXPLANATION

0B1 WELL AND NUMBER

2 MILES

3 KILOMETERSCONTOUR INTERVAL 80 FEET DATUM IS MEAN SEA LEVEL

(To convert feet to meters, multiply by 3.048 x Id" 1 )

FIGURE 10. Location of wells in T. 4 $., R. 27 E.

18

R.28 E. 118°50'

37°35'

Base from U.S. Geological Survey Mt. Morrison, 1953

FIGURE3

FIGURE6

FIGURE10

FIGURE4

FIGURE7

iFIGURE:!:i:::l !:!:::

FIGURE5

FIGURE8

FIGURE12

FIGURE9

FIGURE13

EXPLANATION

0M WELL AND NUMBER <^ FSI SPRING AND NUMBER

<J> R1 SITE OF DESTROYEDWELL AND NUMBER

2 MILES

3 KILOMETERSCONTOUR INTERVAL 80 FEET DATUM IS MEAN SEA LEVEL

(To convert feet to meters, multiply by 3.048 x 10" 1 )

fIGURE 11. Location of wells and springs in T. 4 S., R. 28 E.

19

37°35'

Base from U.S. Geological Survey . Mt. Morrison, 1953, and Casa Oiablo Mtn., 1953

FIGURE3

FIGURE6

FIGURE10

FIGURE4

FIGURE7

FIGURE11

FIGURE5

FIGURE8

JFIGUREi

mm

FIGURE9

FIGURE13

EXPLANATIOND1

0 WELL AND NUMBER

S1 SPR1NG AND NUMBER

nsiTHERMAL SPRING AND NUMBER

2 MILES

3 KILOMETERS

CONTOUR INTERVAL 40 AND 80 FEET DATUM IS MEAN SEA LEVEL

-1,(To convert feet to meters, multiply by 3.048 x 10" )

FIGURE 12. Location of wells and springs in T. 4 S ., R. 29 E.

20

118°40' R.30 E.XX

37°35'

Base from U.S. Geological Survey Casa Diablo Mtn., 1953

FIGURE3

FIGURE6

FIGURE10

FIGURE4

FIGURE7

FIGURE11

FIGURE5

FIGURE8

FIGURE.12

FIGURE9

'FIGURE;;!!!!!J.ai!J!JJ

EXPLANATION

SPRING AND NUMBER

2 MILES

3 KILOMETERSCONTOUR INTERVAL 40 FEET DATUM IS MEAN SEA LEVEL

(To convert feet to meters, multiply by 3.048 x 10~ l )

FIGURE 13. Location of springs in T. 4 S., R. 30 E.

21

TABLE 1. Description of wells and springs

LBoxhead explanations are abstracted from U.S. Geological Survey "Instructions for Using the Punch-Card System for the Storage and Retrieval ofGround-Water Data"]

State well number: The wells are identified according to their location in the rectangular system for the subdivision of public land. The identification consists of the township number, north or south; the range number, east or west; and the section number. The section is further subdivided into sixteen HO-acre tracts lettered consecutively (excepting I and 0), beginning with A in the northeast corner of the section and progressing in a sinusoidal manner to R in the southeast corner. Wells within the HO-acre tract are numbered sequentially. The base line and meridian are indicated by the final letter, as follows: H, Humboldt; M, Mount Diablo; S, San Bernardino.Spring number; Springs are numbered similarly. However the letter S is added after the UO-acre tract letter to differentiate the spring from a well.

Owner or user; The apparent owner or user on the date indicated. In some cases, the local name of the well or spring is given.

C CountyF Federal GovernmentM City, town, or unincorporated

village N Corporation or company,

churches, lodges, and othernonprofit, nongovernmentgroups

P Private S State agency W Water district.

Use of water:

A Air conditioningB BottlingC CommercialD DewateringE Power generationF Fire protectionH DomesticI IrrigationH MedicinalN Industrial, including

mining

P Public supplyR RecreationS Stock supplyT InstitutionalU UnusedV RepressurizationW RechargeX Desalination, public supplyY Desalination, other useZ Other.

X Waste disposal Z Destroyed.

Well data: In tabulation below, C, complete data; N, no data;P, partial data. Complete physical data include depth, diameter, and finish. Complete geologic data include lithology and aquifer thickness. Complete water-level data include altitude of land-surface datum, in feet above mean sea level; water level, in feet above(+) or below land-surface datum; and date of measurement. Complete yield data include rate of pumping and drawdown.

Code symbol 1 2 3 14 5 6 7 8 9 0

Physical Geologic Water level Yield

C C P C C N

C P N P

A Drilling-timeB Casing-collarC Caliper (diameter) surveyD Driller'sE ElectricF Fluid-conductivity or fluid-resistivityG Geologist or sampleH MagneticI InductionJ Gamma-ray

K Dipmeter or directional (inclinometer)survey

L Laterolog H Hicrolog N Neutron 0 Hicrolaterolog P Photographic Q Radioactive-tracer R Radiation (includes both neutron and

gamma-ray) S Sonic

Use of well:

A AnodeD DrainageG Seismic holeH Heat reservoir0 ObservationP Oil or gasR RechargeT Test holeU UnusedW Withdraw water

Chemical analyses:

C CompleteG Dissolved gasesJ Conductance and chlorideK ConductanceL ChlorideH Multiple (complete and one or more

partials) P Partial R Radiochemical (plus partial or complete

chemical) S Special (tritium, carbon-lu, and all

other special determinations) T Trace elements (spectrographic).

T TemperatureU Temperature and fluid-conductivity

(resistivity)V Fluid-velocityW Electric and radiationX Electric, radiation, caliper, and fluid-

velocityY Electric, radiation, and sample (or driller's)Z Electric, radiation, temperature, and fluid-

conductivity.

Depth of well; Depth, in feet below land-surface datum, as reported by owner, driller, or others, or as measured by the Geological Survey.

Depth cased: Length of casing, in feet below land-surface datum, to the top of the first perforations.

Diameter: Inside diameter of the well, in inches; nominal inside diameter, in inches, of the innermost casing at the surface for drilled cased wells

Well finish:

C Porous concreteF Gravel wall, perforated or

slotted casingG Gravel wall, commercial screenH Horizontal gallery or collector0 Open endP Perforated or slotted casingS screeni Sand pointW Walled or shoredX Open hole in aquifer (generally

cased to aquifer)Z Other.

Power:

1 Hand 2 Natural gas engine

A 0-20 hpB >20-60C >50-100D>100-200E >200

Altitude of Isd: Altitude of land-suland surface at the time of the fir

"later level: Depth to water, in feet

Date measured: Month and year of the

Method drilled:

ABCDHJPRTV

WZ

.

RotaryBored or augeredCable-toolDugHydraul ic -rotaryJettedAir percussionReverse-rotaryTrenchingDrivenDrive-washOther.

3 Gasoline engine + L/j.ese.L en£j.ne F 0-5 hp H 0-50 hpG >5-20H >20-50J >50-100K >100-200L >200

rface datum, in

N >50-150P>150--400Q>400-750R >750

feet, above mean sea level. Land-surfacest measurement and used as the plane of reference for all

, above ( * ) or be

water-level mea

low land-surface datuir. .

surement; other data given generally apply

Lift type:

A AirB BucketC CentrifugalJ JetL Multiple (centrifugal)M Multiple (turbine)N NoneP PistonR RotaryS SubmergibleT TurbineZ Other.

5 Electric motor 7 LP gas engineS 0-1 hp (propane or butane)T >l-5 A 0-20 hpU >5-15 B >20-5CV>15-100 C >50-100W >100 D>100-200

6 Wind L >2008 Other.

datum is an arbitrary plane closely approximatingsubsequent measurements.

for this date.

Yieiq ot well (or spring): Yield, in gallons per minute; drawdown, in feet.

22

WELLS

St.ite wo 11 number

2S/27E-35D1

2S/28E-27R1

2S/28E-28R1

2S/28E-29D1

2S/29E-30N1

2S/29E-30N2

2S/29E-31P1

2S/29E-32C1

2S/29E-35N1

2S/29E-36P1

3S/27E-31C1

3S/27E-35E1

3S/28E-14J1

3S/28E-15P1

3S/28E-30R1

3S/28E-30R2

3S/28E-32C1

3S/28E-32E4

3S/28E-32E5

3S/28E-32E6

3S/28E-32E7

3S/28E-32E8

3S/28E-32E9

3S/28E-32E10

3S/28E-32G1

3S/28E-33P4

3S/28E-34R1

3S/28E-35E2

0) T3 T3a) wo)U) i-l i-l>,l-l ,-t 3 3

^ CO rH O O H) iH C cy i-l 'O r-l

Owner or user u rH co 3D <y 01D. CO <U <fl ,J3 U) ^O

H 3 3 J-> rH CO <H CO.^ oj nj *J O u O" tn >j-t m 'O o co 4* 0)w. o o -r-i-a j3« ji a cy ^H (3 u m u M-i rt <i> a) , i a: or. cx^ ex*-' 3 w M <u .c o a> a)0 U y 5: O i-J Q Q

USGS 1 LV-27 F U T G,T 60 60

U U 43

U U C

Arcularius Ranch P H W c T 42

Arcularius Ranch P H W

Arcularius Ranch P U U T 35

P U U C 9

USGS 1 LV-14 F U Z GO

P S W

P U U

Mammoth Mtn. Inn P C W C 110

P U U 14

USGS 1 LV-46 F U T G,T 103 103

U.S. Forest Svc F U U C 14

USGS 1 LV-15 F U T C G,T 57 55

USGS1 LV-44 F U T G,T 79 77

Magma Power Co. PUT.

Magma Power Co. P U U C T 22

Magma Power Co. PUT M 630 400

Magma Power Co. PUT M 810 4o6

Magma Power Co. PUT C 570 352

Magma Power Co. PUT P 513 224

Magma Power Co. PUT C 40? 235

Magma Power Co. PUT 756 192

Magma Power Co. PUT C 670

Mono Co. Sheriff C H W C D 80 51

Mammoth School C T W C 47

Magma Power Co. PUT 805 237

-0 La* -- -

-a ,-i <3 a>0) rH 3 'OrH -0 O 41

C3l-Hcy 'H i-l r-l rJ V-^0>-HrH O 4141 3 QJ Uj.rliw.-icy >J3 «! C

ViHJC-O-^CX U *~^. 41 fl 0) ,C -rl ^ >, T3 U rH W 41 <1 4J o <4J 'O T3 U 341 41 E Ca) c o _ 4-1 a) v-i <u cg -rH i-l JS JwiJO) -rlU-1 O) 1" O r-. CO^-^rHU CO*->3 U^-^ U*-' U t-

rH 111 IV 11 -H O rH fl CO ClQ 3; X! >< J * < 3 Q c

2 Z B 1972 II 7,505 dry 6-12-72

36 P C P 6 7,040 36 6-25-6030.4 5-11-72

PC P 6 7,125 5-11-72

8 P C 1960 P 6 7,100 12.8 6-13-66 11.14 5-11-72

P 6 6,940 5-11-72

8 P C B 6,913 8.90 5-11-72

36 P C P 6 6,915 6 6-13-663.93 5-10-723.60 8- 9-73

B 1972 6,890 8 5-31-72

6 P c P 6 6,914 2.30 5-10-72

6 P C P 6 6,995 69.61 5-10-72

-

6 P C T U 7,880 13.5 5-30-72

2 Z B 1973 N 7,160 dry 5-18-73

30 P 6 7,200 1.01 5- 8-72

2 T B 1972 N 7,340 4,73 5-31-72 5.42 10-4-725.39 5-15-73 4.95 8- 7-73

2 T B 1973 N 7,340 7.53 8- 7-73

12 0 N 7,340

6 P C N 7,340 21.3 6-22-72

8^ 0 H 1959 N 7,360

8^ 0 H I960 N 7,360

&| 0 H I960 N 7,360

12 0 1961 N 7,350

12 0 1962 N 7,350

12 0 1962 N 7,350

12 0 1962 N 7,025 '

8 P C 1961 T T 7,183 23.80 5-12-72

8 P C 1949 7,070 5-23-72

18 o 1961 N 7,025 n . 7 8. ^ 73

minute i-". !£ O i

Drawdown r- '

(feet) i

See footnotes at end of table.

23

WELLS

Statewell number

3S/29E- 2A1

3S/29E-4J1

3S/29E- 4J2

3S/29E-5D1

3S/29E- 7A1

3S/29E-13C1

3S/29E-13C2

3S/29E-16J1

3S/29E-17K2

3S/29E-18B1

3S/29E-18J1

3S/29E-19P1

3S/29E-19R1

3S/29E-21F3

3S/29E-23F2

3S/29E-23F3

3S/29E-23F1*

3S/29E-27L1

3S/29E-27L2

' 3S/29E-27L3

3S/29E-27TA

(a -o 130) U) U)<J) r~t r-t>,.H rH 3 3

>J tO rH O O01 . H Cl 01 rH '<3 rH

Owner or user u ,H « 3 <u <u <uC. CTJ 01 cfl ,O U) ,Q H l< 3 IJ rH qj U-l qj

.rt mmtJ o u otJw 'n U-, 'o o m m a)>-< O O -H T3 ,C <U ,C 0)01 rH g 4J UJ IJ t-lri a) oi rH u; or ex*-' c.^-'Swuioi^o a) a)o u> ;j ;= o J Q n

P S W

USGS 1 LV-7 F U T C G,T 99 69

USGS 1 LV-8 F U T G,T 12 10

USGS 1 LV-1+0 F U T G,T 39 37

USGS 1 LV-25 F U T G,T 1? 15

P S W C 80

USGS 1 LV-21 F U T G,T 22 20

USGS 1 LV-10 F U T C G,T 15 13

USGS 1 LV-Ul F U T C G,T ill 39

USGS 1 LV-31 F U T C G 6 U

USGS 1 LV-30 F U T G 8 6

USGS 1 LV-^7 F U T G,T 102 102

USGS 1 LV-^2 F U T C G,T 22 20

USGS 1 FUG C

USGS 1 LV-9 F U Z G 0

USGS 1 LV-12 F U T G,T 12 10

USGS 1 LV-13 F U Z G 0

USGS 1 LV-6 F U T C G,T 58 56

USGS 1 LV-37 F U T C T 39 36

USGS 1 LV-38 F U T T ly ID

USGS 1 LV-39 F U T 52

Yield^J of well

U) ._-- ---

0 .H 13 U)a) rH 3 'O

1-1 -o o a)C ,H 0) 'n r-l ,H >y >J

^-K ui -H 1-4 o aim 3 <uUJ'HUrHO) >J3 U) O-

i-i OP G -a -H tx u^-v m m QJC: -01,^-H HX T3»J iHlJ 0) (0 i-l 3 UuouH'O'd*-1 3*u a) ts c^oo)QJC! o i-iuoi >jij ocoa)6 -H iH ^3 H U 0) 'H >W 0) '*-! 0) rH -H 3 '4-1nj^i-HiJ n!4-i3 u*-' u*-' u rH f= «J ^^

H (u a) oi r-i o rH <D nl <o V"as>:>^j!ai<: 3 Q u ra

10 P C P 6 6,922 5-10-72

2 P B 1972 N 6,870 +0.6 6-1^-72+0.6 10- i|-72+0.k 5-11-73+0.8 8- 9-73

2 T B 1972 N 6,870 8.15 5-2^-728.99 10- ^-72ii.37 5-11-735.27 8- 9-73

2 T B 1973 N 6,930 18.83 5-17-7318.31 8- U-73

2 T B 1972 N 6,910 10. kk 6- 9-725.57 5-17-736.^2 8- U-73

6 P C N 6,860 flow 5- 9-72 1.8flow 10-9-72 l.U

2 T B 1972 N 6,855 - 8.2 6- 6-728.57 10- 9-728.115 8- 9-73

2 T B 1972 N 6,835 2.81 5-21*- 723.50 10- 9-723.66 8- 9-73

2 T B 1973 N 6,905 0.62 5-17-730.1*7 8- 9-73

2 T B 1972 N 6,930 1*.26 10-20-72+0.01* 5-17-731.85 8- l*-73

2 T B 1972 N 6,915 I*.o8 10-20-721.17 8- i*-73

2 Z B 1973 N 7,025 dry 5-21-73

2 T B 1973 N 6,960 6.01 5-17-736.29 8- 2-736.27 10- 1-73

5 x H 1973 N 6,880 flow 5-8-73 l.i*

B 1972 6,820 5-2U-72

2 T B 1972 N 6,810 ir.24 5-31-72U.92 10- 9-722.78 5-11-73U.29 &. 9.73

B 1972 6,820 5.2 5-31-72

2 T B 1972 N 6,870 1.93 5-22-721.71 5- 3-732.73 >-ls-731.76 8- 2-73

2 P B 1973 N 6,870 0.38 5-16-731.21 b- 2-73

2 P B 1973 K 6,870 0.90 5-16-733.28 8- 2-73

2 p B 1973 N 6,870 2.58 5-16-733.61 8- 2-73

See footnotes at end of table.

24

WELLS

State well number

3S/29E-29K2

3S/29E-29N1

3S/29E-29R1

3S/29E-31G2

3S/29E-31G3

3S/29E-31R1

3S/29E-32A1

3S/29E-33K1

3S/29E-36K1

3S/30E-18K1

3S/30E-19M1

1*S/27E-4B12

1*S/28E- 1F1

1*S/28E- 1L1

1*S/28E- 3J1

1*S/28E- 3J2

1*S/28E- 3R1

1*S/28E- 4P1

1*S/28E- 4P2

1*S/28E- 6R1

1*S/28E-12K1

l*S/28E-ll*Rl

1*S/29E- 3B1

01 -O T3 a) 01 atOl rH r-l

rH rH 3 3r-i <s rH o o

_ OJrHC 0) rH 'O rH

Owner or user *-> -H <a 3 <u <u o>

05 '4H '4J rO O CO (U (UH O O -H T3 .G !U ,C (1)

3 u> U) 0. .£3 O <U (U O 3 P 2: U hJ O ("3

USGSl LV-17 F U Z G 0

USGS 1 LV-18 PUT C G,T 69 67

USGS1 LV-1*5 F U T G,T 96 96

P U U 2

P U U 2

USGS1 LV-16 F U T C G,T 97 95

USGS 1 LV-21* F U T G,T 13 13

USGS1 LV-29 PUT C G,T 35 33

USGS1 LV-11 PUT G,T 75 73

USGS 1 LV-20 F U Z G 0

USGS1 LV-28 PUT C G,T 87 85

YieldT? of wellw - - ~

T3 rH a 01

<U rH 3 'O rH T3 O tU

,C rH UJ 14-! ,_| rH >-l )-> /-x CO -rl rH O Or 0, 3 O

(0 -H 14 rH 0) >JO 10 O.r-l(l)CT3'Hft d)r-^ <U <fl <UCr-s tUr-^'H r-«rN TJ4J rH4-r QJ L04J 34-14JUm'OT34J 3QJ U S C3OQJDC o >-i u aj s-i ai o a -o D6 -H rH J3 (j u (U -H iw !U H-l !U rH -H 3 '4-1

H U 01 01 H O rH CS cd nj'lJO3>:r"ji,<; 3 o o o

B 1972 6,970 6- 2-72

2 T B 1972 N 6,990 19.3 6- 2-72 19.03 10- 9-72 17.32 5-2U-73 17.9!* 8-10-73 18. Ol* 9- 7-73

2 Z B 1973 N 6,970 5-25-73

36 0 D N 7,000 1.02 5- 9-72

36 0 D N 7,000 0.93 5- 9-72

2 T B 1972 N 6,990 1*1.1 6- 1-7261.16 10- 9-72 60.91 5-22-73 60.1*6 8-10-73

2 Z B 1972JJ 6,97!* dry 6- 8-72

2 T B 1972 N 6,975 6.75 5-H-73 6.77 8- 2-73

2 T B 1972 N 6,820 51.5 6-1U-72 51.09 7-25-72 51:11 10-9-72 50.98 5-11-73 51.02 8- 9-73

B 1972 7,005 dry 6-6-72

2 T B 1972 N 6,950 69.35 10-19-72 68.50 8- 9-73

Mammoth County W P W D 1*20 356 2 P H 1969 N 8,260 flow 10-10-69 75 Water District

USGS 1 LV-19 PUT G,T 98 96 2 T B 1972 N 7,090 39.2 6- 7-72 36.78 10- l*-72 36.25 5-2U-73

Mammoth County C C W C 70 Airport

Sierra Materials P C W C

10 P C S T 7,108 5-11-72

6 P C J T 7,100 3i8.i7 5-15-72

Sierra Materials 'P C W 28 15 8 P H 1962 T T 7,100 15 5-15-72

USGS 1 LV-22 F U Z G 0

USGS 1 LV-1 F U Z G 0

B 1972 7,ll*5 6- 6-72

B 1972 7,195 5-16-72

USGS 1 LV-2 PUT G,T 1*3 1*1 2 T B 1972 N 7,195 1*2.65 5-17-72 38.2 8- l*-73

USGS l LV-26 PUT G,T 30 30 2 Z B 1972 N 7,1*10 dry 6- 9-72

Bureau of Sport F T W C D 75 3!* Fisheries

Convict Cr. Resort P C W C D 1*0 25

USGS 1 LV- 5 PUT G,T 97 95

6 P H 1959 S T 7,095 30.8 9-16-59

6 P c 1957 7,580 7 l*-10-57 70 6

2 T B 1972 N 6,81*0 23.1* 5-23-72 23.33 10-1* .73 22.55 5- 3-73 23.27 8- 2-73

See footnotes at end of table.

25

WELLS

State well number

Owner or userD

H

43<n

0)CS0

1S

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(T3 "^

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a a)

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jj<oa)

a)(X

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aa)3 Ula<aeQ)U<0Q

Yieldof well

a)(X

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rH -rH

rH g

O

(3 '"^2 *JO (UO (UU <Mco ^

Q

4S/29E-3C1

4S/29E-4J1

4S/29E-4J2

4S/29E-5B1

4S/29E-5B2

US/29E-5B3

US/29E-7D1

4S/29E-8C1

US/29E-17D1

US/29E-2111

US/29E-2UN1

USGS x LV-23

USGS 1 LV-33

USGS l LV-34

USGS A LV- 3

USGS J LV-35

USGS J LV-36

USGS J LV-4

USGS1 LV-32

F U T G,T 57 23 2 P B 1972 N 6,850 23.84 8- 2-73

F U Z G 0 B 1973 6,855 5- 1-73

FUTCT 96 942TB 1973 N 6,855

F U T C G,T 97 95 2 T B 1972 N 6,918

F U T 75

F U T 5U

F U T G,T 60

73 2 T B 1973 N 6,918

52 2 T B 1973 N 6,918

58 2 T B 1972 N 7,038

FUTCG 23 212TB 1972 6,915

USGS1 LV-U3 F U T G 52

McGee Cr. Lodge P H W 51

Los Angeles Dept. MEW D 90 Water & Power

50 2 T B 1973 N 6,900

6 P C S T 7,000

U4 8 P C 1959 S T 6,8UO

9 5- 1-738.55 5-17-738.46 8- 2-73

44.69 5-17-72 44.49 10- 5-7245.30 5-11-7345.31 5-17-73 44.79 8- 2-73

46.09 5-17-73 46.52 8- 2-73

44.89 5-17-73 44.69 8- 2-73

7.27 5-10-72 3.49 10- 4-72 6.19 5-15-73 2.34 8-19-73

17.85 10-21-72 8.51 5-24-73 8.51 8-10-73

lkL.21 5-18-72

38.9 8-28-59

See footnotes at end of table.

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Chem

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°C

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(mmhos/cm)

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t)

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mea

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ip

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o

f w

ate

r

Use

o

f sp

rin

g

Ch

em

ica

l a

na

lyse

s

Tem

pera

ture

°C

Fie

ld C

onductivity

(mm

hos/

cm)

Altitude o

f Is

d(f

ee

t)

Da

te

me

asu

red

Yie

ld o

f spring

(gal/m

in)

TABLE 2, Chemical a

nalyses of water

Dissolved so

lids

: Values indicate the

residue on

evaporation at 18

0°C,

except those preceded by

the

letter "a

," which have bs

en calculated (s

ura

of determined constituents).

Labo

ratory

; mK> California Department of

Water Resources; LA

EWP,

Los

Angeles Department of

Water and Po

wer;

Ci

3 SLC, a.

S. Geological Su

rvey

, Salt Lake City La

b.;

GS MP,

'J.S.

Geological Survey, Menlo Park La

b.;

'JSA

C, U.S. Agricultural Consultants, Lein La

b.

WELLS

Wel

l nu

mbe

r

B

O V 8 o V Q

^ I "o D.

Q

? 3 V D.

1 u « ^

U.S

. P

ubli

c H

ealt

h Se

rvic

e dr

inki

ng-w

ater

sta

ndar

ds (

1962

)

2S/2

8E-2

8R1

2S/2

8E-2

9D1

2S/2

9E-3

1P1

3S/2

7E-3

1C1

3S

/28

E-1

5P

1

3S/2

8E-3

0R1

3S/2

8E-3

2E4

3S/2

8E-3

2E5

3S/2

8E-3

2E6

3S/2

8E-3

2E7

3S/2

8E-3

2E8

6-2

5-6

0

6-1

3-6

6

6-2

5-6

06-1

3-6

6

6-2

2-6

6

6-2

0-6

6

9-1

0-7

3

6-2

0-6

6

3-1

4-6

33-2

6-6

310

-21

-63

11-2

6-6

3

10

-20

-60

8-3

1-6

09

-27

-60

42 __ 110 14 57 22 630

630

630

630

630

810

810

570

570

513

12.8

3.9

13.3

15.0

53.3

54.4

Resu

lts

in m

illi

gra

ms

per

li

ter,

ex

cept

for

iron,

boro

n,

and

ars

en

ic w

hic

h are

in

mic

rogra

ms

per

li

ter

0 52 a i/5 47 - 64 " - 63 250

256 48 __ 223

200

~ t B 0 -

300

22

,00

0

'a U

S 3 jj "a U

28 10 10 11 3 3

26 51 11 6 12 6 3 0 1.6

4

OD 5 S 3 B a S 5 4 3 3 2 0 10 0 2 1 1 1 0 1 0

Z B 3 "5 OT 13 22 26 25

8 9 9

360

380

420

420

410

405

375

408

415

400

308

^ B 3 efl 01 as O a. 2 5 5.5

5 4 5 3.5

38 47 34 35 32 30 459

44 36 32

^^ 0

U X B o JO S U £

137 95 92 95 46 34

154

549

527

476

458

459

166

423

232

~ O U 1 JO c3 U 0 0 0 0 - 0 0 0 0 0 0 0 90 37 120

x~v O OT u i2 3 OT 250 1 4 12 14 0 5 8.4

120 61 140

139

132

134 62 147

128

130 96

j-^ O 3 JD !c U 250 2 6 5 3 0 1

17 258

276

266

274

288

291

276

301

293

293

227

£ o 'i 3 Z 1.5

0.3 .5

1.2 .6 .1 .3

1.0

11.0

11.0

10.0

20.0

5.0

14.0

13.0

13.0

20

0 Z 0 5 .ti Z 45 4.3 .3

4.3 1.3 .0

0

.33

.8

1.0

1.0

0 0 0 0 6.2

S B O O 09

30 310

120 80 0 0

610

11

,00

0

14

,00

01

2,0

00

13

,40

012,9

00

5,0

00

__ 13,0

00

11

,00

0

8 o .> S Q 500 18

1

150

157

165 55 47

a238

1,3

80

1,3

90

1,3

70

1,4

50

1,4

00

1,4

90

1,4

10

1,5

00

O

U o a S B (0 X 91 42 38 40 16 8

110

127 36 19 34 19 4 4 8

fO O

U as

~

M

Si

%

«-0

B a

O £

Z

a H c 0) 01 *

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__20

0 0 0

190

1,8

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3,5

00

2,0

00

1,0

60

820

200

gu

B J

la

<s3

a !i E.u

O

u '

c

D.^

(A

233

186

194

206 79 696

273

1,8

90

1,9

70

1,9

40

1,7

40

1,8

00

2,0

10

1,9

40

X D.

7.6

7.7

7.7

7.0

5.9

7.2

6.7 6.8

8.8

67

.17

.67.3

7.8

8.6

19

.2

8.9

9.2

6.5

o u to o to

DWR

DWR

DWR

DWR

DWR

DWR

GS

SLC

DWR

McN

itt

(196

3)U

nkno

wn

DWR

USA

CU

SAC

McN

itt

(196

3)U

nkno

wn

Unk

now

nGS

M

P

McN

itt

(196

3)

WEL

LS

Wel

l nu

mbe

r

3S/2

8E-3

2E9

3S/2

8E-3

2G1

3S

/28

E-3

3P

4

3S/2

8E-3

4R1

3S

/29

E-4

J1

3S/2

9E-1

3C1

Dat

e

10-2

0-6

07

-24

-63

5-1

9-7

2

7-2

3-6

3

9-1

0-6

3

3-2

6-6

3

4-

2-6

35

-21

-63

6-2

5-6

38

- 8

-63

9-1

5-6

310-2

1-6

311-

4-6

312-1

0-6

31-1

3-6

42-

3-6

43

-29

-64

4-2

5-6

45-1

1-6

45-1

3-6

4

3-2

6-6

34-

2-6

35-2

1-6

36-2

5-6

39

-16

-63

10-2

1-6

311-1

9-6

31

2-1

0-6

31-1

3-6

42

- 3

-64

3-2

9-6

45-1

1-6

46

-20

-66

10

- 3

-73

6-2

1-6

65-2

3-7

2

Dep

th

405

405

405

670

670 71 __ _ __ __ __ __ __ __ __ __ __ __ "

47 99 80

°C

32.8

31.7

31.7

25 17.8

16.7

16.1

15.6

10.0

9.4

10

Si0

2

96 98 170 13

19

6

100 9

98 75 68 54 60 61 65 71 72 63 62 60 45 60 60 48 46 45 47 47 43 "

54

__ 64

FeC

a 4 1.9

1 0 13

15 9 8 9 13 20 15 17 16 16 14 31 27 13 10 11 13 8 12 13 10 11 12 20 12 13 10 17 4 5.3

Mg

0 2.1

0 1 9 8 12 5 5 5 4 8 8 7 6 7 9 8 9 9 9 8 10 5 5 8 7 5 4 7 7 8 8 0.2

Na

420

475

390

165

430 42

43 43 32 26 33 40 41 44 45 46 40 40 41 58 25 25 28 26 23 23 23 23 23 24 23 24 22 230 39 38

K 38 30 45 50

48

8 7 7 6 6 6 7 7 8 7 7 6 8 7 7 5 5 4 5 5 5 5 5 5 5 4 5 5 10 2 1.3

HC

O3

241

340

450

328

330

117

116

122 90 92 105

117

120

124

128

121

117

175

153

173

120

122

122

115

111

110

117

118

116

129

126

111

110

188 90 111

CO

3

108

139 30 55

128 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 " 0 7 2

.8

SO

4

140 96 130

180

170 16

17 18 12 12 8 17 16 19 16 23 18 19 19 17 5 13 10 12 10 10 9 7 6 8 7 12 7 73 11 3.7

Cl

283

310

280 26

33

0 37

38 38 21 28 25 33 36 37 40 37 34 36 39 33 6 5 10 12 4 5 4 4 4 5 5 11 7

260 3 3

.0

F

14.0

21.0

12 2.1

11.0 .4

.4 .4 .4 .1 .2 .2 .2 .2 .2 .2 .1 .1 .2 .4 .4 .4 .3 .3 .2 .2 .2 .2 .4 .2 .1 .2 .3 .9 .6 .5

7

NO

3

0 1.2

<.0

5

1.2

3.8 .5

0

.51.2

3.8

0 0 0 0 0 0 0 0 0 0 1.0

0.5

1.9

0 0 0 0 0 0 0 0.7 .5

5

0.0

5

B

5,0

00

13,0

00

15,0

00

13

,00

0

1,5

00

1,2

80

1,3

80

1,4

00

960

700

1,0

60

1,6

60

1,4

30

1,4

80

1,5

30

1,4

50

1,4

40

1,4

40

1,2

80

1,4

60

320

280

400

460

340

' 31

0

260

270

330

330

330

280

740

240

Dis

solv

ed

soli

ds

1,4

20

1,5

50

1,4

20

1,2

80

1

,57

0

265

284

280

190

224

228

262

256

276

278

258

236

300

256

310

160

184

180

165

166

166

166

170

140

162

138

144

155

a749 15

516

6

Har

d­

ness 10 11 3 3 4 70

71 72 41 43 53 67 71 76 69 65 64 11

510

1 70 62 65 66 61 51 53 58 57 51 67 59 62 58 75 10 14

Non

- ca

r -

bon-

at

e

Ar­

se

nic

1,6

00

2,2

00

3,0

00 50 10 20

10 10 30

10 0 0 40 80 60 40 40 50 30 30

30 50 95 70 20

Spec

, co

nd.

1,9

70

1,9

20

350

330

357

235

135

262

320

350

360

330

348

315

400

350

409

227

230

247

240

234

205

220

215

22

422

521

6

1,3

20

194

191

PH 9.1

9.3

9.2

5

8.8

9.3

6.7

6

.56.7

6.6

7.1

7.8

6.5

7.3

7.3

7.3

6.8

7.0

7.1

8.0

7.5 7.6

7.3

7.5

7.1

7.0

7.7

7.8

7.2

7.2

7.6

7.9

7.7 7.2

7.5

8.6

8.8

2

Lab

.

Unk

now

nU

nkno

wn

GS

MP

Unk

now

n U

nkno

wn

DWR

USA

CDW

RDW

RU

nkno

wn

USA

CU

SAC

Unk

now

nU

nkno

wn

Unk

now

nU

nkno

wn

USA

CU

SAC

USA

CDW

R

DWR

Unk

now

nDW

RDW

RU

SAC

USA

CU

nkno

wn

Unk

now

nU

nkno

wn

Unk

now

nU

SAC

USA

CDW

R

GS

SLC

DWR

GS

MP

WEL

LS

Wel

l nu

mbe

r

3S

/29E

-16

J1

3S/2

9E-1

7K2

3S/2

9E-1

8B1

3S/2

9E-1

9R1

3S/2

9E-2

1F3

3S/2

9E-2

7L1

3S/2

9E-2

7L2

3S/2

9E-2

9N1

3S/2

9E-3

1R1

3S/2

9E-3

3K1

3S/3

0E-1

9M1

4S/2

8E-1

L1

4S

/28

E-3

J1

4S/2

8E-1

2K1

4S/2

8E-1

4R1

4S

/29E

-4J2

4S/2

9E-5

B1

4S/2

9E-8

C1

Dat

e

6-1

1-7

3

10

- 4-7

3

10

- 2-7

3

10

- 1-7

3

5-1

5-7

3

6-1

1-7

3

6-1

1-7

3

9-

9-7

3

9-1

2-7

3

10-

1-7

3

9-1

2-7

3

6-1

5-6

6

6-2

0-6

6

6-2

1-6

6

6-2

4-6

6

9-1

2-7

3

9-1

1-7

3

6-1

2-7

3

Dep

th

15 41 6 22 58 39 28.5

97 35 87 70 75 40 96 97 23

°C

11 13.2

16.3

39.0

36 49 46 69 32.5

31.0

14.2

14.4

- 9.4

38 43.2

11

Si0

2

62 42 43 90 150

180

170

67 58 67 35 - - 100

140 11

Fe 70

0

2,5

00

1,8

00

480 10

"410

3,4

00

3,3

00

310

19

,00

0

2,9

00

1,1

00

3,1

00

120

Ca

28 34

8

17 34 24 24 15 6.9

20 23 23 11 24 38 45 27 25

Mg

13 2.9 2.5 .7 1.2 .9 .8 .7 .6

2.2

3.6 4 6 1 1 2.6 1.1

1.1

Na

140

130

360

430

430

380

380

260

160

250 26 11 21

1 3

230

370 1

.5

K 10 14 16 26 32 36 36 16 13 24

6.1

2 5 1 2 6.4 4.3 1.4

HC

Oj

441

387

524

850

830

774

771

412

276

510

154

104

110 69 106

547

689 73

CO

3 0 0

144 0 0 0 0 0 0 0 0 ~ 0 - " 0 0 0

SO

4

27 26 16 46 65 67 67 58 38

4.7

12 9 9 8 13 31 66 11

Cl

47 35 79

180

150

170

170

150 85 150 6

.0

3 4 1 2

100

170 1

.0

F 2.4

2.4 5.5

5.8

5.3

5.5

5.7

7.4

3.0

3.8 .7 .3 .4 .1 .1

3.3

4.8 .1

N0

3

0

.06

.03 .02

.10

.04

.16

.24

.01

.18

1.0 .5 .0

2.2 .0

6

.03

0

B

3,1

00

1,8

00

5,3

00

8,9

00

6,7

00

3,4

00

3,4

00

7,0

00

3,8

00

6,2

00

110 60

160 0 0

5,0

00

8,1

00 0

Din

olv

ed

loli

ds

a551

a482

a940

al,

220

al,

900

al,

250

al,

240

a788

a506

a795

a!9

2

135

150 70 140

a794

al,

130

a88

Har

d­

ness

120

97 30 45 90 64 63 40 20 59 72 74 52 64 99 120 72 67

Non

- ca

r-

bon-

at

e

Ar­

se

nic

220 52 79 34

260

410

270

130

270 17 29

0 90 0 0

130

430 1

Spec

, co

nd.

849

722

1,3

60

1,8

20

2,9

40

1,7

90

1,7

80

1,2

00

759

1,2

80

254

194

204

134

206

1,1

90

1,6

70

124

PH 8.2

7.6

8.9 7.7

7.4

8.2

8.1

7.5 7.6

6.9

7.5 8.1

7.4

7.3

7.6

7.3

7.1 7.9

Lab.

GS

SLC

GS

SLC

GS

SLC

GS

SLC

GS

SLC

GS

SLC

G6

SLC

GS

SLC

GS

SLC

GS

SLC

GS

SLC

DWR

DWR

DWR

DWR

GS

SLC

GS

SLC

GS

SLC

SPR

ING

S

Spri

ng

nu

mbe

r

2S/2

7E-2

5AS

1

2S/2

8E-2

0RS

1

3S/2

8E-1

3ES

1

3S/2

8E-1

3ES

3

3S/2

8E-2

5AS

1

3S/2

8E-2

5HS

5

3S/2

8E-3

2ES

3

3S/2

8E-3

3PS

1

3S/2

8E-3

4RS

33S

/28E

-35E

S1

3S

/28

E-3

5JS

1

3S/2

8E-3

5KS

1

Dat

e

6-2

5-6

010

-10

-61

9-2

1-6

65

-21

-72

8-

7-7

3

6-1

3-6

6

6-1

6-6

61-1

2-7

3

5-1

8-7

2

5-1

7-5

75-1

2-6

6

7-2

6-7

3

8-

6-7

3

3-1

2-6

33

-26

-63

4-

2-6

35

-21

-63

7-

2-6

38-

8-6

31-1

3-6

42-1

8-6

43-2

9-6

44-2

5-6

45-1

1-6

45-1

3-6

4

7-2

6-7

39

- 5

-54

12-2

9-6

06

-14

-66

5-2

4-7

2

7-2

6-7

3

4-2

4-5

55-1

4-6

37-

8

-63

11

-26

-63

5-1

1-6

46-1

4-6

61

-13

-73

Dep

th°C

__ 11.1

11 10 11.1

82 79 93 88 93 93 __ 17 17 18 -- 14 14.5

-- 74 60 10.5

12 12 13 12

SiO

2

46 46 __ 58 54 -- __ 79 110

131

-- 130

160 90 54 42 57 43 49 38 39 40 39

5612

617

0 30

0 38 44 27 25 35 32

Fe 40 30

150 40

7,4

00 20

<30 30

<10

Ca 6 8 5 5.1

5.1

11 25 22 50

4 3 1.6

19 15 23 28 16 10 10 29 25 25 25 24 18 10 8.0 7 7 3.3

15 12 13 13 25 14 12 13

Mg

5 5 6 5.9

5.8

5 0.5 .6

0 1

.1

41

9 7 4 10 4 3 3 10 10 9 7 7 8.4

0 1 2.1

4.4

5 4 4 4 3 5 3.9

Na

23 23 24 23 23 25

400

437

410

350

325

360 27 48 50 52 51 18 22 38 43 48 48 51 33 21

376

361

372

380 11 14 16 16 15 16 16 11

K 4 3 4 4.0

4.0

5 30 27 30 20 22 23 17 7 8 7 8 5 5 6 7 7 7 8 6 4.8

23.2

22 23 25

3.1

3 3 3 4 3 4 2.5

HC

03

76 85 95 90 95 102

727

735

497

481

453 0

142

117

115

124 83 86 111

124

132

131

115

105

111

475

409

451

466 84 88 90 90 123 86 91

C0

3

0 0 0 0 0 0 8 0 30 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 1 0 0 0 0 0 0 0

SO 4 3 5 5 8.1

6.7

7 90 103 96 90 84 91

1,50

0 16 28 29 27 18 13 19 31 28 35 31 21 12

116

134

107

120 12 11 8 8 9 10 8 14

Cl

11 11 8 5.7 7.0

8

204

197

200

200

190

210 20 39 55 53 46 10 18 45 52 60 54 62 31 6

.525

824

526

425

0 2.4

2 2 3 3 3 3 1.8

F 0.5 .1 .5 .5 .5 .5

8.6

7.2

8.4

10.0

8.6

8.3 .4 .4 .4 .2 .3 .5 .1 .2 .1 .1 .1 .2 .3 .3

5.0

10.0

11.0

11

.2 .1 .2 .3 .2 .2 .3 .2

N0

3

3.7

1.4

0.1 .1

0

.5 .8 .9 .05

0 1.2 .0

4

.06

.31.5

0.5

2 4.0

0 0 0 0 0.5 .2

8.8

01.9 .5 .0

5

.13

.21.0

1.5

1.5

0.6

3.1

B 150'

590

320

400

340

9,4

00

9,1

00

10

,60

0

10

,00

09

,20

0

9,4

00 50

1,4

00

1,8

50

1,8

40

1,7

00

580

500

1,6

00

1,9

70

2,1

20

1,8

60

2,3

00

1,4

60

270

.11

,10

01

0,4

00

11

,00

013

,00

0 80 100

100

100

170

130 80 100

Dis

solv

ed

soli

ds

112

134

139

156

a!5

4

150

1,2

40

1,6

50

1,2

60

1,1

10

1,0

40

al,

090

al,

820

300

255

282

270

228

254

224

278

262

266

298

300

a!7

5

1,2

16

1,2

25

1,3

00

a!2

8

131

130

130

156

142

120

161

Har

d­

ness 36 41 37 37 37 48 63 58 130 10 12 4

220 75 87 87 81 42 38 85 104

104

100 89 74 60 22 269 56 51 49 49 79 48 51 49

Non

- ca

r -

bon-

at

e

Ar­

se

nic 20 20 20 50

1,1

00

600

740

1,0

00

1,1

00

1,0

00 5

60 120

140 30 70 30 80 50 10 50 60 50

__ 2,0

00

340 20

40 40 40 30 20 20

Spec

, co

nd.

151

179

187

182

185

211

1,9

08

2,0

00

1,9

50

1,6

20

1,5

42

1,6

30

398

420

410

407

160

110

350

390

430

410

400

313

218

1,8

20

1,7

10

1,7

40

1,8

00

164

166

168

174

240

165

173

160

pH 7.3

7.4

7.5

6.8

37

.4

7.2

7.1

8.2

7

6.5

1

8.3

8.2

8.7 3.7

7.0

7.4

7.0

7.1

7.3

7.2

7.6

7.6

8.0

7.1

8.1

7.5

7.3

7.3

57

.48

.27.1

5

7.4

7.5

7.3

7.3

7.4

7.5

7.3

7.6

6

Lab DW

RU

nkno

wn

DWR

GS

MP

GS

SLC

DWR

DWR

LADW

P

GS

MP

Unk

now

nDW

R

GS

SLC

GS

SLC

DWR

DWR

USA

CDW

RDW

RDW

RU

SAC

USA

CU

SAC

USA

CU

SAC

DWR

GS

SLC

GS

MP

Unk

now

nDW

RG

S M

P

GS

SLC

Unk

now

nU

nkno

wn

Unk

now

nU

nkno

wn

Unk

now

nDW

RLA

DWP

SPR

ING

S

Spri

ng

num

ber

3S/2

8E-3

5NS

1

3S/2

8E-3

5NS

2

3S/2

8E-3

5PS

1

3S/2

8E-3

5QS

1

3S/2

8E-3

6MS

1

3S/2

9E-1

7RS

1

3S/2

9E-1

7RS

4

3S/2

9E-2

0NS

1

Dat

e

4-2

4-5

59-2

2-6

012

-29

-60

5-1

4-6

37

- 8

-63

7-1

1-6

39

-16

-63

10

-21

-63

11-2

6-6

312-3

1-6

31-1

3-6

42

-18

-64

3-2

9-6

44-2

5-6

46-1

4-6

6

4-2

4-5

59-2

2-6

05-1

4-6

37-

8-6

37-1

1-6

39-1

6-6

310

-21

-63

11-

4-6

311-1

9-6

312

-31

-63

2-

3-6

43

-10

-64

4-1

3-6

45-1

1-6

46-1

4-6

6

12

-29

-60

5-1

4-6

37-

8-6

311-2

6-6

35-1

1-6

46-1

4-6

6

1-1

2-7

31-1

3-7

3

8-

9-7

3

8-

9-7

3

7-2

6-7

3

Dep

th°C

17 16 16 16 16 _ __ ._ __ __ _.

.. .. 17 17 16 16 16 -- -- ._ 16 13 16 12 __ 37 17.5

66

SiO

2

67 56 56 12 13 13 45 46 46 46 44 44 44 45 63 61 11 11 13 44 45 43 47 43 44 44 45 52 17 16 40 ..

33 39 210

120

130

Fe

<10 30 50 20 30

Ca

12 15 15 9 9 11 14 18 18 12 12 12 14 14 10 11 14 8 8 11 15 16 12 12 12 12 12 12 12 9 10 9 9 13 11 11 16 16 21 23 24

Mg

10 7 10 9 8 9 5 5 6 7 5 7 6 7 7 9 7 10 8 8 4 3 6 7 6 6 6 7 7 7 7 7 8 5 6 6 4.4

4.7 .5

1.4 .1

Na

23 27 28 25 24 25 22 24 24 24 23 24 25 27 24 23 27 24 22 24 21 22 22 22 23 24 23 23 23 22 19 20 20 20 21 19 11 11 470

420

440

K 5 6 5 5 5 4 5 7 5 5 5 5 6 5 5--

5 5 5 6 4 5 5 5 5 5 5 5 5 4.7

4 4 4 4 5 2.6

3.4

35 28 19

HC

O3

130

128

128

120

112

122

106

125

126

121

116

119

124

126

115

128

126

122

107

117

105

108

114

113

115

113

121

123

120

108

104

105

107

108

106

101

__87 97

4

876

836

C0

3

0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 __ 0 0 0 0

SO

4

11 11 5 9 10 9 12 10 12 6 4 9 8 8 8 12 11 8 9 8 12 10 8 10 10 6 10 9 11 7 6 7 8 8 9 7 13 13 66 65 81

Cl 7 8 18 6 6 8 4 7 5 5 2 7 9 9 9 5 6 5 5 7 3 4 3 4 3 8 4 4 5 5 4 3 4 2 6 4 1

.82

.6

190

160

200

F 0.3

_. .3 .3 .3 .3 .2 .2 .4 .2 .2 .1 .1 .1 .3 .3

--.3 .3 .4 .2 .2 .2 .2 .2 .2 .1 .1 .2 .3 .6 .3 .3 .2 .2 .3 .2 .5 5.2

4.4

5.4

N0

3

0.3 .3

2.5

1.0

1.0

1.5

0 0 4.1

0 0 0 0 0.7 .2 .3

1.0

1.0

1.0

3.6

0 0 1.0

1.0

0 0 0 0.7

1.9 1.0

1.0 .9

0 0 1.3 .1

6

.06

.35

.04

B 320

350

240

280

420

290

400

300

330

230

420

440

420

340

200

280

240

240

230

230

210

380

240

250

330

260

240

170

140

140

140

170

170

130 90

100

7,60

0

6,4

00

8,8

00

Dis

solv

ed

soli

ds

188

193

202

170

175

185

158

180

200

172

152

168

168

176

170

181

194

185

175

170

198

150

162

166

138

166

152

150

180

150

146

150

155

146

150

135

169

a!3

4

al,

490

al,

260

al,

320

Har

d­

ness 71 67 79 60 56 65 56 66 70 59 51 59 60 64 54 65 64 61 53 61 54 53 55 59 55 55 55 59 59 52 55 52 56 53 52 52 57 59 55 63 60

Non

- ca

r-

bon-

at

e

Ar­

se

nic

40 50 80 50 50 70 30 40 50 50 50 50 __ _ 60 __ 40 60 40 30 40 30 _ 10 40 _ 50 ~ 50 50 60 80 30 10 16 350

300

460

Spe

c,

cond

.

243

238

291

227

219

241

375

226

267

237

207

222

220

245

214

231

225

223

209

222

360

230

210

243

215

220

212

225

210

201

192

194

200

197

195

187

172

170

2,0

40

1,8

40

1,9

40

pH 7.4

7.7

7.3

7.3

7.3

7.2

7.3

7.0

7.1

7.1

7'.l

8.0

8.0

7.3

7.2

7.5

7.9

7.3

7.3

7.9

7.1

7.1

7.8

7.9

7.2

7.4

7.6

7.7

7.7

7.2

7.5

7.4

7.3

7.4

7.6

7.5

7.9

47.3 7.7

7.7

7.5

Lab

.

DWR

Unk

now

nU

nkno

wn

DWR

DWR

DWR

USA

CU

SAC

USA

CU

SAC

USA

CU

SAC

USA

CU

SAC

DWR

Unk

now

nU

nkno

wn

DWR

DWR

DWR

USA

CU

SAC

USA

CU

SAC

USA

CU

SAC

USA

CU

SAC

USA

CDW

R

DWR

DWR

DWR

USA

CU

SAC

DWR

LADW

PGS

SL

C

GS

SLC

GS

SLC

GS

SLC

SPR

ING

S

Sp

rin

g

num

ber

3S/2

9E-2

1LS

1

3S/2

9E-2

1PS

1

3S/2

9E-2

8HS

1

3S/2

9E-2

9CS

1

3S/2

9E-2

9CS

2

3S/2

9E-2

9DS

1

3S/2

9E-2

9FS

1

3S/2

9E-3

1AS

1

3S/2

9E-3

4KS

1

3S/2

9E-3

6QS

1

3S/3

0E-2

2BS

1

4S

/28E

-9F

S1

4S/2

9E-1

BS

1

4S/2

9E-6

HS

1

4S/2

9E-6

QS

1

4S/2

9E-1

8AS

1

4S/2

9E-3

6LS

1

Dat

e

6-1

1-6

61

-12

-73

6-2

2-6

61-1

2-7

3

5-2

2-7

2

7-2

8-7

3

7-2

8-7

3

8-

4-7

3

7-2

7-7

3

5-

7-57

6-2

5-6

05-1

3-6

65-2

0-7

2

5-2

3-7

2

6-1

1-6

6

1-1

5-7

3

6-1

9-6

6

1-1

5-7

3

8-2

0-4

11-

8-4

610-

3-52

2

-28

-56

12

-12

-61

5-1

2-6

6

2-2

8-5

612-1

2-6

15-1

2-6

6

3-2

0-5

61

2-1

2-6

1

6-1

6-6

6

Dep

th°C

53 56 49 75 52.5

55 29 56 58 41 28 12.0

12 20.6

__ __ 37 __ __ ~ 10

Si0

2

« 167

__ 165

240

170

210

130

110

118

110

120

205

" 63 - 5.8

60 15 32 94 ~ 27 35 -- 23 24 -

Fe 20 20

<30

140 50 80 30

<30

450

<1

0

Ca

28 25 26 25 22 35 35 25 21 18 15 16 15 23

5 11 16 11 16 22 22 20 21 32 31 30 38 37 10

Mg

0.5

0.5 .6 .7

1.2 .4

1.1 .5

1 1.4

1.2

0 3.2

0

.2

9 2 2 2 3 2 2 2 2 2 1

Na

380

385

380

376

400

390

430

460

310

317

306

315

310

320 83 14 5 60 192

132

131

132

130

140 5 5 5 6 6 6

K 37 32 35 32 43 23 26 20 18 19 20 21 22 28 6 3.8 1 3.9

_ 7 10 9 9 1 1 1 3 2 1

HC

03

790

781

845

784

853

859

544

497

482

498

516

695

173 63 46 " __ __ 0

0

110

107 46

C0

3

0 -- 0 0 0 0 0 0 0 0 0 1.9

0 5 0 0 ~ 320

263

263

250

276 97 99 98 __ -- 0

SO

,

60 68 60 69 69 73 81 83 70 80 77 78 81 59 16 5.1

13 19 46 36 48 39 41 24 11 12 20 21

3

Cl

160

145

158

145

170

190

200

200

150

172

181

180

170

150 22 3

.5 1 14

200 71 72 78 Ik 1 6 2 5 5 1

F 4.9

5.0

4.8

5.2

4.8

6.0

4.2 3.1

3.8

._7.0

6.0

7.5

4.6 1.9 .1 .2

1.5

4.0 1.4

1.6

2.9

3.2 .2

0.2 .1

0

.2

N0

3

0.3

2.6

0 1.3 .0

5

.03

.01

.04

.27

_

4.3

0.0

5

<.0

5

.5

2.0

0 4.9

__ 0 0 2 0

.81.2

0

.6 .8 .5

B

31

,00

06

,50

0

31

,00

06

,20

0

8,8

00

8,9

00

8,6

00

8,6

00

6,8

00

8,2

00

8,0

00

8,0

00

8,1

00

580

_20 0

300

4,6

00

3,5

00

2,4

50

3,6

00

3,7

00 30 100 0 30 100 0

Dis

solv

ed

soli

ds

1,2

70

1,6

40

1,2

40

1,6

30

1,3

40

al,

280

al,

420

al,

350

a961

1,1

90

964

960

1,0

00

1,1

30

270

a 14

4 65 269

_ a419

49

2a4

51a5

03 510

a!4

1a!

41

130

a!5

2a!

51 55

Har

d­

ness 70 64 65 64 57 90 92 64 57 42 44 39 62 13 41 40 28 77 63 63 58 65 88 86 83 103

101 29

Non

- ca

r -

bon-

at

e

Ar­

se

nic

520

370

400

360

340

490

510

530

680

__ 1,1

80

840

360

130 1 10 70 460

0 0

Spe

c,

cond

.

1,7

80

1,8

00

1,7

50

1,8

00

1,9

00

1,8

40

1,9

40

1,9

40

1,4

00

1,9

60

1,4

40

1,4

90

1,5

00

1,6

30

403

138

118

340

948

715

774

733

772

759

212

221

191

227

250 86

PH 7.3

8.0

3

7.0

7.9

0

6.6

0

7.0

7.6

7.8

7.3

8.0

7.3

8.2 7.5

3

6.6

4

8.4

8.1 7.6

8.3

2

7.7

8.2 8.1

8.0

8.2

7.6

7.8

7.8

Lab

.

DWR

LADW

P

DWR

LA

DWP

GS

MP

GS

SLC

GS

SLC

GS

SLC

GS

SLC

GS

MP

DW

RDW

RGS

M

P

GS

MP

DWR

GS

SLC

DWR

LADW

P

Unk

now

nU

nkno

wn

Unk

now

n U

nkno

wn

Unk

now

nDW

R

Unk

now

nU

nkno

wn

DWR

Unk

now

nU

nkno

wn

DWR

TABLE 3. Temperature measurements in wells

Depth below^ land surface Date

datum(feet)

Temper­ ature( C)

Depth belowland surface

Date , . datum(feet)

Temper­ ature^

State Well No. 2S/27E-35D1, Project Well No. LV-27

June 19, 1972 5.010.014.016.018.020.022.024.026.028.030.032.034.0

7.968.138.148.418.638.728.748.758.758.758.758.768.79

June 19, 1972 36.038.040.042.044.046.048.050.052.054.056.058.2

Aug. 7, 1973 10.020.0

8.848.878.898.908.918.948.989.019.059.099.129.168.27.6

State Well No. 2S/28E-29D1

June 19, 1972 9.011.013.015.017.019.021.0

9.499.199.189.189.199.219.23

June 19, 1972 23.025.027.029.031.033.034.8

9.249.259.269.259.269.269.31

State Well No. 2S/29E-30N2

June 20, 1972 12.017.022.027.0

7.747.958.248.43

June 20, 1972 29.031.033.035.5

8.679.039.049.13

39

Depth below^ fc land surface Date

datum(feet)

State Well No

May 22, 1973 1.02.03.04.05.0

10.020.030.0

State Well No

June 16, 1972 5.07.09.0

--,.' 11.013.015.017.019.021.023.025.027.029.031.0

State Well No.

May 18, 1973 1.02.03.04.05.06.07.08.09.0

10.0

Temper­ ature

( C)

Depth belowland surface

Date , . datum(feet)

. 3S/28E-14J1, Project Well No. LV-46

9.669.368.878.598.558.88

10.4913.10

May 22, 1973 40.050.060.070.080.090.0

100.0102.7

. 3S/28E-30R1, Project Well No. LV-15

9.419.098.959.109.289.479.69

10.0310.4210.7711.0211.3611.6711.98

June 16, 1972 33.035.037.039.041.043.045.047.049.051.053.055.057.1

Aug. 7, 1973 10.020.0

3S/28E-30R2, Project Well No. LV-44

12.609.027.916.727.367.397.467.567.808.10

May 18, 1973 15.020.025.030.040.050.060.070.075.7

Aug. 7, 1973 10.020.0

Temper­ ature,( '

15.2118.1520.2822.9824.9026.7928.8229.13

12.1512.3312.6812.9113.0313.2513.4513.6613.9314.1314.3114.4715.279.85

10.10

8.8910.2510.9612.0512.6813.5314.4115.3915.8010.3510.30

40

Depth below^ land surface Date , datum

(feet)

Temper­ ature

( C)

Depth belowland surface

Date , . datum(feet)

Temper­ ature

^ '

State Well No. 3S/28E-32E4

June 22, 1972 6.08.0

10.012.0

State Well

May 25, 1972 10.015.020.025.030.035.040.045.050.055.060.065.070.075.080.085.090.092.7

May 2, 1973 1.02.03.04.05.0

17.8619.5019.4419.59

June 22, 1972 14.016.018.020.022.0

No. 3S/29E-4J1, Project Well No. LV-7

8.218.308.528.628.668.678.688.688.698.718.728.738.758.768.788.798.818.814.442.132.584.282.31

May 2, 1973 6.07.08.09.0

10.015.020.025.030.035.040.045.050.055.060.065.070.075.080.085.090.092.0

Aug. 9, 1973 10.020.0

19.6619.7619.8220.0324.13

2.222.252.322.332.362.502.512.883.093.164.494.614.684.734.784.814.794.784.454.384.404.308.377.87

41

Date

May 25, 1972

Aug. 6, 1973

June 16, 1972

June 14, 1972

June 8, 1972

Depth below land surface

datum(feet)

State Well No

11.9

State Well No.

1.02.03.04.05.0 '6.07.08.0

State Well No.

11.013.0

State Well No.

9.011.013.015.0

State Well No.

4.06.0

Temper­ ature

( C)

Depth belowland surface

Date . . datum(teet)

. 3S/29E-4J2, Project Well No. LV-8

7.95 Aug. 9, 1973 10.0

3S/29E-5D1, Project Well No. LV-40

17.3816.9616.0414.9213.7412.6711.5810.65

Aug. 6, 1973 9.010.015.020.025.030.035.037.7

3S/29E-7A1, Project Well No. LV-25

7.577.75

June 16, 1972 15.016.9

Aug. 7, 1973 10.0

3S/29E-13C2, Project Well No. LV-21

8.548.408.378.38

June 14, 1972 19.021.2

Aug. 9, 1973 10.020.0

3S/29E-16J1, Project Well No. LV-10

9.097.79

June 8, 1972 8.010.013.3

Temper­ ature

( c '

8.50

9.969.398.128.688.969.229.299.29

7.967.667.38

8.548.619.308.20

7,557.527.43

42

Depth below land surface Date , 4

datum(feet)

State Well No.

May 2, 1973 2.03.04.05.06.07.0

State Well No.

May 25, 1973 1.02.03.04.05.0

10.015.0

State Well No.

May 28, 1973 1.02.03.04.05.0

10.020.030.0

Temper­ ature

C c)

Depth belowland surface

Date , . datum(feet)

Temper­ ature

^ '

3S/29E-16J1, Project Well No. LV-10 Continued

0.222.292.492.582.592.74

May 2, 1973 8.09.0

10.011.012.0

Aug. 9, 1973 10.0

3S/29E-17K2, Project Well No. LV-41

13.499.958.948.187.597.088.90

May 25, 1973 20.025.030.035.039.0

Aug. 9, 1973 10.020.0

3S/29E-19P1, Project Well No. LV-47

13.0611.5710.429.659.098.39

10.2712.25

May 28, 1973 40.050.060.070.080.090.0

100.0101.5

3.043.023.033.063.537.65

9.8710.7011.2411.6612.2211.4910.26

13.8214.9716.0917.2718.5019.6720.4820.82

43

Date

Aug. 6, 1973

June 14, 1972

May 25, 1972

May 3, 1973

Depth below land surface

datum(feet)

State Well No.

2.03.04.05.06.07.0

State Well No.

6.08.0

State Well No.

5.010.015.020.025.030.035.040.045.050.052.054.056.52.03.04.05.0

Temper­ ature

( C)

Depth below^ ^ land surface Date , . datum

(feet)

3S/29E-19R1, Project Well No. LV-42

29.9830.2430.9731.8033.1734.62

Aug. 6, 1973 8.09.0

10.015.020.020.6

3S/29E-23F3, Project Well No. LV-12

10.178.92

June 14, 1972 10.011.6

Aug. 9, 1973 10.0

3S/29E-27L1, Project Well No. LV-6

17.3819.0323.1428.6033.4138.0742.0945.3247.4848.6848.9449.1649.267.157.247.397.67

May 3, 1973 6.07.08.09.0

10.015.020.025.030.035.040.045.050.055.057.0

Aug. 10, 1973 10.020.0

Temper­ ature

( C;

35.4335.7637.4941.4745.0245.79

8.287.809.57

7.878.368.829.59

10.5615.0319.1122.2123.9540.7543.1745.9046.8546.9746.6022.3730.00

44

Depth below land surface

Date , ^ datum(feet)

State Well No.

June 11, 1973 2.03.04.05.06.07.08.09.0

State Well No.

June 11, 1973 3.04.05.06.07.08.0

State Well No.

June 21, 1972 21.023.025.027.029.031.033.035.037.039.041.043.0

Temper­ature

( C)

Depth below land surface

Date datum(feet)

3S/29E-27L2, Project Well No. LV-37

17.7317.3117.2617.3017.3417.7018.2218.65

June 11, 1973 10.015.020.025.030.034.6

Aug. 10, 1973 10.020.0

3S/29E-27L3, Project Well No. LV-38

17.0616.9516.9417.1917.44

June 11, 1973 9.010.015.018.3

Aug. 10, 1973 10.020.0

3S/29E-29N1, Project Well No. LV-18

26.2827.1727.2027.6628.0728.5628.8729.1729.4929.7229.8629.98

June 21, 1972 45.047.049.051.053.055.057.059.061.063.065.067.0

Temper­ature

( C;

19.2623.8929.1234.2438.3943.2722.9429.93

17.5218.7221.3027.2822.1427.09

30.1130.2130.3630.5030.6330.8030.9031.0731.1831.3431.4931.58

45

Depth below^ land surface Date datum

(feet)

Temper­ ature

( C)

Depth belowland surface

Date , ^ datum(feet)

Temper­ ature

( C)

State Well No. 3S/29E-29N1, Project Well No. LV-18- -Continued

June 21, 1972 69.1May 3, 1973 1.0

2.03.04.05.06.07.08.09.0

10.015.0

State Well No.

May 25, 1973 1.02.03.04.05.0

10.015.020.0

State Well No.

June 8, 1972 45.060.065.070.075.080.090.092.0

31.964.964.945.595.996.186.947.037.388.048.51

12.59

May 3, 1973 20.025.030.035.040.045.050.055.060.065.066.6

Aug. 10, 1973 10.020.0

3S/29E-29R1, Project Well No. LV-45

11.7611.4610.7110.1810.0810.2411.1012.35

May 25, 1973 25.030.040.050.060.070.080.090.096.0

3S/29E-31R1, Project Well No. LV-16

31.0436.4938.1039.4441.1042.5644.9445.26

June 8, 1972 94.0May 5, 1973 1.0

2.03.04.05.06.07.0

16.0117.5918.2819.0719.1419.3019.2519.4320.5721.1724.6420.3325.72

13.8815.1616.7117.7918.6819.5220.8421.9522.78

45.889.838.118.488.798.839.56

10.34

46

Depth below^ land surface Date , datum

(feet)

Temper­ ature

( C)

Depth below^ ^ land surface Date datum

(feet)

Temper­ ature

( C)

State Well No. 3S/29E-31R1, Project Well No. LV-16 Continued

May 5, 1973 8.09.0

10.015.020.025.030.035.040.0

State Well No.

June 15, 1972 2.54.06.0

State Well No.

Aug. 6, 1973 1.02.03.04.05.06.07.0

10.8711.3811.4314.4918.9821.6323.6225.8028.23

May 5, 1973 45.050.055.060.065.070.073.9

Aug. 10, 1973 10.020.0

3S/29E-32A1, Project Well No. LV-24

15.0614.1713.32

June 15, 1972 8.010.012.0

3S/29E-33K1, Project Well No. LV-29

20.9320.9620.9921.0021.0121.0821.15

Aug. 6, 1973 8.09.0

10.015.020.025.030.035.0

30.3232.2234.1636.1038.2239.3240.2915.6018.14

12.7712.6311.90

21.1721.8021.9424.3127.8531.8335.4438.93

47

Depth belowland surface

Date , . datum(feet)

State Well No.

June 14, 1972 56.058.060.063.065.9

May 3, 1973 1.02.03.04.05.06.07.08.09.0

State Well No.

May 3, 1973 1.02.03.04.05.06.07.08.09.0

10.015.020.025.030.0

Temper­ ature

( c;

Depth below land surface

Date datum(feet)

3S/29E-36K1, Project Well No. LV-11

15.6615.7115.7615.8216.124.283.453.292.532.092.052.422.993.41

May 3, 1973 10.015.020.025.030.035.040.045.050.055.060.065.0

Aug. 9, 1973 10.020.0

3S/30E-19M1, Project Well No. LV-28

3.983.512.802.191.511.181.241.541.671.884.205.216.096.12

May 3, 1973 35.040.045.050.055.060.065.070.075.080.085.085.9

Aug. 9, 1973 10.020.0

Temper­ ature

3.865.636.797.617.978.308.748.999.679.99

10.2210.6213.1612.32

6.396.045.725.685.535.435.345.155.225.175.305.30

11.129.08

48

Depth below^ land surface Date

datum(feet)

State Well No.

June 16, 1972 40.042.044.046.048.050.052.054.056.058.060.062.064.066.068.070.072.074.076.078.080.082.084.086.088.090.092.094.096.0

Temper­ ature(°c)

Depth belowland surface

Date , . datum(feet)

4S/28E-1F1, Project Well No. LV-19

10.7310.7410.7510.7710.7810.7810.7710.7710.7510.7510.7510.7310.7310.7310.7210.7210.7210.7210.7210.7310.7310.7410.7410.7510.7610.7710.7810.7910.80

June 16, 1972 98.0May 3, 1973 1.0

2.03.04.05.06.07.08.09.0

10.015.020.025.030.035.040.045.050.055.060.065.070.075.080.085.090.095.0

Aug. 8, 1973 10.020.0

Temper­ ature(°c)

10.7910.017.656.805.775.214.844.594.564.754.977.268.379.22

10.2310.6410.7710.8010.8010.7610.7310.7010.7010.6910.6910.6910.7110.7211.9110.85

49

Depth below^ land surface Date , . datum

(feet)

State Well No.

June 21, 1972 41.043.0

Aug. 6, 1973 2.03.04.05.06.07.0

State Well No.

June 19, 1972 3.05.07.09.0

11.013.015.0

State Well No.

May 2, 1973 1.02.03.04.05.06.07.08.09.0

10.015.020.025.030.0

Temper­ ature

( C)

Depth below land surface

Date datum(feet)

4S/28E-4P2, Project Well No. LV-2

15.6615.4217.4315.2416.3115.6214.9814.29

Aug. 6, 1973 8.09.0

10.015.020.025.030.035.042.4

4S/28E-6R1, Project Well No. LV-26

12.8711.128.118.117.417.117.13

June 19, 1972 17.019.021.023.025.026.9

Aug. 10, 1973 10.020.0

4S/29E-3B1, Project Well No. LV-5

14.7110.148.387.486.646.196.607.668.229.03

10.3912.8714.5015.40

May 2, 1973 35.040.045.050.055.060.065.070.075.080.085.090.0

Aug. 10, 1973 10.020.0

Temper­ ature

^ '

13.6413.0612.6011.0210.5911.6313.2014.4514.90

7.207.287.407.467.537.57

13.048.17

15.8116.0216.4917.0517.5818.1618.5619.0219.6020.0720.7321.0315.3112.98

50

Depth belowland surface

Date , . datum(feet)

State Well No.

June 15, 1972 26.028.030.032.034.036.038.040.042.0

State Well No.

Aug. 6, 1973 1.02.03.04.05.06.07.08.09.0

10.015.0

State Well No.

May 22, 1972 60.065.070.075.080.085.088.090.092.094.0

Temper­ ature

( c)

Depth belowland surface

Date , . datum(feet)

4S/29E-3C1, Project Well No. LV-23

19.4619.5019.5219.5719.6319.7419.8319.9120.22

June 15, 1972 44.046.048.050.052.054.056.057.7

Aug. 10, 1973 10.020.0

4S/29E-4J2, Project Well No. LV-34

23.5123.8024.3224.8024.9725.0525.2225.4125.6326.2527.17

Aug. 6, 1973 20.025.030.035.040,050.060.070.076.5

Aug. 10, 1973 10.020.0

4S/29E-5B1, Project Well No. LV-3

40.0141.0742.7244.2445.4146.8146.8947.2047.3848.16

May 22, 1972 95.095.9

Aug. 6, 1973 1.02.03.04.05.06.07.08.0

Temper­ ature

( C;

20.8421.7922.4222.7623.4224.8425.2825.6716.9715.03

29.0031.8235.4737.7639.0640.8841.9242.7543.3926.5328.72

48.2748.4718.6318.8718.9519.0219.0818.9518.4017.75

51

Depth below ^ land surface Date datum

(feet)

Temper­ ature

( C)

Depth below_ land surface Date , . datum

(feet)

Temper­ ature

( C)

State Well No. 4S/29E-5B1, Project Well No. LV- 3 Continued

Aug. 6, 1973 9.010.015.020.025.030.0

State Well No.

May 28, 1972 10.015.020.025.030.035.040.045.050.052.054.056.057.9

May 3, 1973 l.o2.03.04.0

17.5317.6718.7521.95

-28.49

Aug. 6, 1973 40.050.060.070.080.090.093.9

4S/29E-7D1, Project Well No. LV-4

7.357.317.548.018.579.249.65

10.01-

10.3010.4010.4310.463.602.772.231.63

May 3, 1973 5.06.07.08.09.0

10.015.020.025.030.035.040.045.050.055.059.1

Aug. 9, 1973 10.020.0

34.0838.5039.4742.6846.1048.0148.42

1.501.321.201.181.461.592.243.003.984.635.435.956.216.476.556.66

10.668.62

52