Reservoir & Production Data Management / Digital Oilfield
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Reservoir & Production Data Management / Digital Oilfield - RE-RPDM-PEA27
| Code | Date | Time | Duration | Location | Currency | Early Bird Fee Per Person |
|---|---|---|---|---|---|---|
| RE-RPDM-PEA27 | 11 - 15 Oct 2027 | 10 AM CST | 4 Hours Per Day |
Online |
USD |
4000 |
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Reservoir & Production Data Management / Digital Oilfield
Description
Every analysis in this industry rests on data that someone entered, allocated, converted or transferred, and a large proportion of technical effort is spent finding, cleaning and reconciling it rather than analysing it. Digital initiatives repeatedly fail not on their analytics but on their data: wells identified differently in different systems, production allocated by methods nobody documented, historians storing compressed approximations of measurements, and no one accountable for any of it. This training addresses that foundation.
The training covers the data landscape first: subsurface data, well data, production data, operational data, commercial data, and the systems that hold each. Master data management follows, including well identity, which is the single most common integration failure in the industry, together with hierarchies, naming conventions and the reconciliation of identifiers across systems. Data quality is then developed through completeness, accuracy, consistency, timeliness and validity dimensions, with practical validation rules. Production allocation is covered in detail because it is the most consequential and least examined data process in most operations. Historian and real time data handling, compression effects and time series management follow. Integration architecture, governance, stewardship and the digital oilfield workflows that consume the data complete the training.
Well identity is where integration fails. The same well appears in the drilling system, the production system, the reservoir model, the maintenance system and the regulatory return under different names, and joining data across them requires a mapping that someone maintains. Where that mapping does not exist or has drifted, every cross-system analysis silently loses or misattributes records. Establishing a unique well identifier with a maintained cross-reference is unglamorous work with a return that exceeds most analytics projects.
Production allocation is a calculation, not a measurement, and its basis is frequently undocumented. Individual well rates in a commingled system are derived from periodic well tests, extrapolated between tests and scaled to match a measured total. The frequency of testing, the validity criteria applied, the allocation method and the handling of wells that have not been tested recently all affect the numbers used for reserves, forecasting, reservoir management and partner accounting. Very few organisations can produce a clear description of their own allocation process.
Historians do not store measurements; they store compressed approximations. Deadband and swinging door compression algorithms discard points that the algorithm judges uninteresting, and the reconstruction of a trend from stored points is not the original signal. For trending and reporting this is adequate. For transient analysis, for event reconstruction, for any calculation involving rates of change, it is not, and analysts working from historian data without understanding its compression settings draw conclusions the data cannot support.
Finally, governance is what makes data quality persist. Cleaning a data set produces a clean data set once; establishing ownership, validation at entry, defined stewardship and a process for handling exceptions produces data that stays clean. Digital initiatives that fund analytics without funding governance produce a period of good results followed by gradual degradation as the underlying data drifts.
By the end of this training, participants will be able to:
- Map the reservoir and production data landscape and the systems holding each data type
- Establish master data management including unique well identity and cross-system reconciliation
- Assess data quality across completeness, accuracy, consistency, timeliness and validity
- Design and implement validation rules at entry and in downstream processing
- Describe and assess production allocation methodology and its integrity
- Handle historian and real time data with understanding of compression and its limits
- Design integration architecture connecting subsurface, production and operational data
- Establish data governance including ownership, stewardship and exception handling
- Specify data requirements for digital oilfield and analytics workflows
- Assess digital initiative proposals against their data foundation
Organisations sending participants to this training will:
- Reduce technical time spent finding, cleaning and reconciling data
- Improve the reliability of production allocation and everything built on it
- Enable cross-system analysis that currently fails on identity mismatch
- Improve the success rate of digital and analytics initiatives
- Establish governance so that data quality persists rather than degrading
- Improve regulatory and partner reporting accuracy
Participants will:
- Assess whether a data set can support an intended analysis
- Recognise allocation, identity and compression problems before they corrupt work
- Design validation and governance that prevents recurring problems
- Specify data requirements for analytics and digital work
- Evaluate digital proposals on their data foundation
- Build a capability that underpins every other technical activity
- Reservoir and production engineers working with field data
- Production accountants and allocation specialists
- Data management, data quality and information staff
- Digital, analytics and technology staff supporting subsurface and operations
- Surveillance and performance engineers
- Technical staff specifying or evaluating digital initiatives
- Managers accountable for data-dependent reporting
Module 1 - The Data Landscape
- Data types across the subsurface and production domains
- Static subsurface data: seismic, wells, logs, cores, models
- Dynamic data: production, injection, pressure, tests, surveillance
- Operational data: equipment, events, maintenance, HSE
- Commercial data: sales, allocation, contracts, costs
- Systems holding each data type and their typical fragmentation
- Data flows between systems and where they break
- Where technical time is actually spent on data
- Cost of poor data quality and its estimation
- Building a data landscape map for an asset
Module 2 - Master Data and Well Identity
- Master data concept and its scope
- Well identity as the central integration problem
- Unique well identifiers and their standards
- Well naming conventions and their drift
- Wellbore, borehole and completion hierarchy
- Sidetracks, recompletions and their identity handling
- Cross-reference tables and their maintenance
- Field, reservoir and zone hierarchies
- Facility and equipment identity
- Reconciling identifiers across systems
- Governance of master data changes
- Consequences of identity failures in analysis
Module 3 - Data Quality
- Data quality dimensions and their definition
- Completeness assessment and gap identification
- Accuracy and its verification against source
- Consistency within and between systems
- Timeliness and data latency
- Validity and conformance to expected ranges and formats
- Uniqueness and duplicate detection
- Profiling a data set to establish its quality
- Quality metrics and their reporting
- Root cause analysis of recurring quality problems
- Validation rules at entry and in processing
- Exception handling and correction workflows
Module 4 - Production Allocation
- Allocation purpose and its consumers
- Measurement points and what is actually metered
- Well test based allocation methodology
- Test frequency, validity criteria and extrapolation
- Theoretical and model based allocation
- Component and back allocation methods
- Handling untested and newly producing wells
- Allocation to zones and commingled completions
- Downtime and deferment recording
- Allocation uncertainty and its magnitude
- Documenting an allocation methodology
- Auditing allocation and its outputs
- Consequences of allocation error across reserves, forecasting and partner accounting
Module 5 - Historian and Real Time Data
- Historian architecture and its purpose
- Tag structure, metadata and naming
- Data compression algorithms and their operation
- Deadband and swinging door compression
- What compression discards and its consequences
- Configuring compression appropriately by tag
- Sampling rate and resolution
- Time synchronisation across systems
- Extracting and reconstructing time series
- Interpolation and its risks
- Analyses that historian data can and cannot support
- Real time data acquisition, transmission and latency
Module 6 - Integration Architecture
- Integration approaches: point to point, hub, data lake, warehouse
- Data models and standards for subsurface and production data
- Industry data exchange standards and their adoption
- Application programming interfaces and their use
- Extract transform load processes and their maintenance
- Data virtualisation against replication
- Reference data and its management
- Metadata and data catalogues
- Search and discoverability
- Cloud, on premise and hybrid considerations
- Cyber security for operational and technical data
- Architecture that supports rather than obstructs analysis
Module 7 - Governance and Stewardship
- Data governance framework and its elements
- Data ownership and accountability assignment
- Data stewardship roles and their practical function
- Policies, standards and their enforcement
- Change control for data and reference values
- Data quality monitoring and reporting
- Issue escalation and resolution processes
- Retention, archiving and disposal
- Regulatory and contractual data obligations
- Data in transactions and its handover
- Building governance that persists beyond a project
- Measuring whether governance is working
Module 8 - Digital Oilfield Workflows
- Digital oilfield scope and its realistic capability
- Surveillance by exception and its data requirements
- Automated well and equipment monitoring
- Production optimisation workflows
- Integrated asset modelling and its data dependency
- Analytics and machine learning data requirements
- Dashboards and reporting and their design
- Workflow automation and its limits
- Change management and user adoption
- Assessing a digital proposal against its data foundation
- Sequencing data work before analytics investment
- Measuring value delivered by digital initiatives
Upon successful completion of this training course, delegates will be awarded an official Certificate of Completion issued by the Petroleum Engineers Association (PEA), an ISO 9001:2015 certified training organization. The certificate carries 10 Credits and formally records the total learning hours completed.
Each certificate is signed by the Course Facilitator and the CEO of the Petroleum Engineers Association, and serves as verifiable proof of professional training that delegates can present to employers and professional bodies worldwide.
Your expert course leader is a senior petroleum engineering consultant, certified trainer and university lecturer with more than 25 years of experience, specialising in reservoir and production data management for digital oilfield applications.
His technical expertise covers data types and their systems, master data and well identity, data quality and validation, production allocation and its integrity, historian and real time data, integration architecture, governance and stewardship, and the digital oilfield workflows that depend on all of it.
Over the course of his career, he has provided consulting and project support to international operators and national oil companies across the Middle East, North Africa, Asia Pacific and the Americas, working on data governance frameworks, production allocation system reviews and digital oilfield implementation projects.
He has designed and delivered technical training programmes on reservoir and production data management for digital oilfield applications for engineers and technical teams, conducting these sessions both onsite and online across the Middle East, Asia Pacific, Africa and Europe.
Frequently Asked Questions
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