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Successful Large Utility GIS Implementations John Dirkman, P.E. Sr. Project Manager Telvent Miner & Miner

Successful Large Utility GIS Implementations

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Page 1: Successful Large Utility GIS Implementations

Successful Large Utility GIS Implementations

John Dirkman, P.E.Sr. Project Manager

Telvent Miner & Miner

Page 2: Successful Large Utility GIS Implementations

Presentation Focus

This presentation will focus on largeutility companies, but is applicable

to any size utility

Also, the challenges inherent in implementing are similar to those

inherent in upgrading

Page 3: Successful Large Utility GIS Implementations

Success Requirements

What is a successful implementation project?On scheduleOn budgetMeets business requirements

If you want a successful project:Set a realistic schedule and meet each milestoneSet an adequate scope and contain itGet resource commitments from Business and ITEstablish a collaborative team environment

Page 4: Successful Large Utility GIS Implementations

Top Project Killers

1. Changing requirements2. Overly aggressive schedule3. Inadequate testing4. Inadequate user training5. Lack of corporate support6. Core team changes

It’s about managing expectations and risk.

Page 5: Successful Large Utility GIS Implementations

Top Schedule Drivers

CustomizationComplexityNumber of interfaces

Conversion of dataQuantity, Complexity, QualityPhased Implementation

Configuration of ArcGIS and ArcFMBusiness requirement understanding

Across all 3 activities: corporate experienceImplementation experience: IT, GIS, ArcGIS, ArcFMExperience with corporate structure, legacy systems, and business processes

Page 6: Successful Large Utility GIS Implementations

Successful Large Utility Upgrades

1.Expectation Management2.Methodology & Risk Mitigation

Page 7: Successful Large Utility GIS Implementations

Expectation Management?

Page 8: Successful Large Utility GIS Implementations

User Expectations

Scope Design and Develop Deploy

Func

tiona

lity

Time

Con

tract

Make it Work, Make it Right, Make it BetterActual – Requirements during ScopingActual – Requirements during DesignPerception – Unmanaged ExpectationsPerception – Managed Expectations

Folks get nervous when their jobs change

Page 9: Successful Large Utility GIS Implementations

Risk and Value

Low

Val

ueH

igh

Val

ue

Low Risk High Risk

From Agile Estimating and Planning,by Mike Cohn

Maybe Avoid!

Sweet Spot Maybe

RiskEvaluator

Page 10: Successful Large Utility GIS Implementations

Expectation Management

User expectationsFasterMore stableMore functionalityIntuitive and easy to useNot too different

Business expectationsCheaper to operateCheaper to maintainOn schedule and budget

It’s the game of expectation managementMake sure you understand the project drivers

Page 11: Successful Large Utility GIS Implementations

Controlling Expectations

Per Building Your ArcFM:1. Expose the technology early and often to both

users and management2. Involve key users in the Core Team to build

internal advocates3. Don’t give the technology to users until they are

ready for it, and vice versa

Also establish a Steering Committee – your information conduit upwards

Page 12: Successful Large Utility GIS Implementations

Methodology & Risk Mitigation

1. Gap Analysis2. Data Migration3. Collaborative Design, Programming,

Configuration, and Testing4. Version Schemes and Version Maintenance5. Strategies for Successful Training, Deployment,

and Post-Deployment Support6. Performance

Page 13: Successful Large Utility GIS Implementations

Gap Analysis

Answers the question: What do you need the product to do that it can’t do out of the boxYou may need to think creatively; sometimes a small change in the business requirement or workflow can reduce customizationBring in users who are familiar with the current system as SME’sLook at the application’s What’s New (upgrades)Develop a list of likes and dislikes of the current system and prioritize this listThis will help define expectations that lead to requirements

Page 14: Successful Large Utility GIS Implementations

Data Conversion/Migration

Focus on careful data modeling and build in multiple migration iterations and QC checksAvoid changing the data model late in the gameUse SQL queries for feature counts and attribute checksTrack and manage data model changes closely, changes will impact migration and configuration

Page 15: Successful Large Utility GIS Implementations

Environment Management

Careful environment management is essential

T5252(temp)

I28ILSDR3A52ArcFM2Gas Cutover

INBOUND.TEST3T5656I28ILS3D10ArcFM4Designer Testing

INBOUND.TEST1T5858I28ILSDR1A52ArcFM2Gas Testing

INBOUND.TEST4T5252I23ILS2A35ArcFM1Electric/Land Training

INBOUND.TEST2T5151I24ILSDR2A36ArcFM3Electric/Land Testing

INBOUND.DEFAULTP5151I23ILS1A35ArcFM1Electric/Land Production

QueueDatabaseInstallerIntegration ServerInstallerApp ServerEnvironment

Page 16: Successful Large Utility GIS Implementations

Collaboration

All design and testing must be collaborativeProgramming and configuration may be collaborative as wellChallenges of collaborative programming

Error handlingBase class utilizationTechnical supportIt isn’t easy, it adds risk, and it may end up being more expensive

The benefit is that the utility builds experience in customization, troubleshooting, and maintenance

Page 17: Successful Large Utility GIS Implementations

Collaboration

For collaborative programming and configuration:Make sure your programmers and configurers are properly trainedEstablish standard error handling and class utilization techniquesEstablish a vehicle for technical supportTry to be more than one deepThe more collaboration and customization, the more testing requiredFor maintenance, plan for a knowledge transfer and a support periodProvide access to Development environment via VPN or Webex Access Anywhere

Page 18: Successful Large Utility GIS Implementations

Testing

Conduct a daily wrap-upHave clearly defined acceptance criteriaDefine your P1, P2, and P3 categoriesUse an issue tracking system – BugzillaBugzilla becomes a knowledge baseFor PPL, we tracked 1514 issues; issues included bugs, enhancements, tasks, training issues, etc.Stress-test yoursystem via formalstress tests andduring training

Page 19: Successful Large Utility GIS Implementations

Testing

Where do you test – Factory or Site?All tests at client site – Pros

Essential with interfaces for end-to-end testingKnowledge transfer starts earlierErrors in Test Procedures caught earlierMore time for Change Requests

All tests at client site – ConsFirst round of testing can be ugly

The terms FAT and SAT don’t fit – try“Integrated Testing”

Page 20: Successful Large Utility GIS Implementations

FAT 1 Rework/Retest

FAT 2 Rework/Retest

SAT 1 Rework/Retest

SAT 2 14 WEEKS

TestingTraditional

InstallRun All TestsResolve High Priority Issues – Code, Configuration, DataRepeat

AcceleratedSame as above for first round of testingSubsequent tests as follows:InstallRepeat Failed TestsResolve High Priority Issues – Code, Configuration, DataRepeat – New Installer every evening

2 WEEKS 2 WEEKS 2 WEEKS 2 WEEKS 2 WEEKS 2 WEEKS 2 WEEKS

IT Rework/Retest

Page 21: Successful Large Utility GIS Implementations

Version Schemes

For long-term transactions, use one off DefaultMMBulletinBoard as sibling with Designs and Sessions

SDE.Default

MMBulletinBoardSession 1 Session n… Design 1 Design n…

Page 22: Successful Large Utility GIS Implementations

Reconcile and Posting Services

Good opportunity for labor and cost savingsBatch Post

No need to tie up ArcFM while the user waits for their version to reconcile/postVersions in conflict are bypassed

Batch ReconcileRun at night and on weekends (multiple services)Compress afterwardsKeeps the state tree shorter and improves performance

Conflict FiltersAutomatically accept the parent, but log the results (via XML) for next-day resolutionLook at the benefits of more advanced conflict filtering

Page 23: Successful Large Utility GIS Implementations

Training

Design: Train the Core TeamDeploy: Train-the-TrainerGet your trainers involved in the Design and Testing processTesting is a form of training, but it can be a little rough; manage expectationsProvide Just-in-Time trainingProvide a “sandbox” environment for users to play in

Page 24: Successful Large Utility GIS Implementations

Deployment

Have a Cutover Plan and practice itHost an open house and/or demos to the fieldDo a pilot, then adjust trainingHave work ready for users – backlogCarefully control scopeSet up your help deskEstablish on-site front-line support (former testers) to fortify your help deskThrow a great party

Page 25: Successful Large Utility GIS Implementations

Post-Deployment Support

Users are going to try things that you never suspected – set a standard normal.mxt and lock itHave internal resources available for troubleshootingHave a contract vehicle in place for post-deployment supportProvide follow-on training opportunitiesEstablish a user committee and look for more quick wins

Page 26: Successful Large Utility GIS Implementations

PerformanceBenchmark your systemBe consistentSample tasks may include:

Opening Stored Display • Opening Session/DesignPlacing various features: placement 1 and NTrace a Conductor • Save Session/DesignRun QA/QC • PlotReconcile • Post

Solicit users for additional frequently used tasksPlan for required performance; user counts and roles, hardware, and networkNightly Reconcile/Compress/AnalyzeTune your system periodically

Page 27: Successful Large Utility GIS Implementations

Performance

User’s PC’sApplication &

Integration Server(s)

Database Server

Database

Happy User(s) or Viewer(s) Legacy System(s)

Network

• Operating System• PC Specs

• Citrix Load Balancing• Operating System• ArcGIS• ArcFM• Stored Display • Customizations• Server Specs

• Operating System• DMBS (Oracle,

SQLServer, etc.)• Server Specs

• Maintenance(R/P/D/C/A)

• Tuning

• Training• Quantity

Network

•Network•Message

Queues

Page 28: Successful Large Utility GIS Implementations

1. Set reasonable scale suppression for all feature classes within the stored display.

2. Include all related features and objects. If the related item is in the stored display ArcMap has the information local and does not need to continually go back to the database to retrieve it.

3. Avoid joins and relates.4. Avoid halos and masks.5. Avoid definition queries (if possible).6. Include network junctions and all features participating in the

geometric network if the stored display will be used for editingfeatures that participate in the geometric network.

7. Remove any unnecessary feature classes from the stored display. Organize stored displays based on the type of work being accomplished.

8. Avoid intermediate tables in 1:1 and 1:M relationships; instead,store the foreign key in the child/destination object class.

Optimizing Stored Displays for Performance

Page 29: Successful Large Utility GIS Implementations

1. Organize the stored display in the following order (from top to bottom): annotation, point features, lines, then polygons

2. Use Group Layers to logically group layers to allow users to easily turn on and off groups of data.

3. Alphabetize layers within group layers and after organizing by anno, point, line, and polygon features. This will make it much easier and faster for users to find layers.

4. Reorder attributes (via ArcCatalog): move required attributes upto the top, and group attributes logically.

5. Rename the data frame to match the name of the stored display. This makes it easy to see which stored display you are in.

6. Make landbase layers unselectable in the Selection Tab of the Table of Contents for stored displays that will not be used for landbase edits. This helps prevent inadvertent moving and deleting of landbase layers.

Optimizing Stored Displays for Usability

Page 30: Successful Large Utility GIS Implementations

Geodatabase Toolset (GDBT)

Geodatabase Toolset:Contains tools used to investigate and diagnose geodatabase performance issuesProvides different toolsets for ArcCatalog and ArcMapArcMap: used to review characteristics of Stored Displays, refresh performance, scripting, and DBMS tracingArcCatalog: used to review enterprise geodatabase informationNot a substitute for tuning

http://www.esri.com/software/arcgis/extensions/gdbt/download.html or http://www.miner.com/freetools/

Alternative: MXDPERFSTAT from arcscripts.esri.com

Page 31: Successful Large Utility GIS Implementations

ArcMap - Data Fetching

Page 32: Successful Large Utility GIS Implementations

ArcCatalog - Edit Information

Page 33: Successful Large Utility GIS Implementations

ArcCatalog - Version Lineage

Page 34: Successful Large Utility GIS Implementations

ArcCatalog - Version Lineage

Color Key:Blue - a collapsed series of states indicating achain of multiple states with no branches

Green - a single stateYellow - a named versionRed - SDE.Default

Page 35: Successful Large Utility GIS Implementations

ArcCatalog - Version LineagePseudo-Compress

Page 36: Successful Large Utility GIS Implementations

Freetools

http://www.miner.com/freetools/

Page 37: Successful Large Utility GIS Implementations

Take the old tools awayPolice the tool shedTech/Tech Clerk Case Study

Incentives

Page 38: Successful Large Utility GIS Implementations

Conclusion

Work to understand and manage expectationsUse the 3D methodology and don’t cut corners. Every $1 spent in design = $100 in development.Monitor top management support for the project, and keep management appraised frequentlyKnow the strengths & weaknesses of your team; leverage the strengths, mitigate the weaknessesEstablish a collaborative team environmentSet a realistic schedule and keep itSet an adequate scope and contain itGet resource commitments from Business and IT

Page 39: Successful Large Utility GIS Implementations

Conclusion

May every project be successful!

Is there really any other option?

Questions?