Integrated Petrophysics for Unconventional Reservoirs
|Instructor Mark Deakin, PhD (Petrophysics)
Public courses 3 full days. Tailored In-House 3 to 5 days
Who Should Attend?
Petrophysicist’s who seek to future-proof their career with an essential understanding of the petrophysics of unconventional resources. Geologists, operations geologists, structural geologists, geo-modellers, reservoir engineers, well test engineers, geophysicists or core analysts who will create or use petrophysical results for unconventional reservoirs. Basic logs and core analysis, fracking and testing are reviewed, however a familiarity with these is desirable. Bring your laptop with MS Excel.
IPUR slide example | Testimonials
This course will teach you how to acquire and evaluate the critical data for each major unconventional reservoir type and to judge if petrophysical results are fit for purpose. The course outlines the geological, engineering and petrophysical characteristics and challenges of each unconventional reservoir type including Shale Gas, Oil Shale (LTO), Tight Gas, Coal Bed Methane, Geothermal, CO2 Sequestration and Methane Hydrates. Armed with this knowledge the petrophysical data sets and integration techniques required to estimate reserves and producibility are explained. The course covers Quick Look to full mainstream integrated methods including how to recognise and avoid the common problems of petrophysical interpretation in unconventional reservoirs. Examples of the common log analysis failings and the detailed, specific procedures designed to avoid them are explained simply and clearly. Time is allocated in proportion to the global activity and class demand.
Resources types are dealt with one by one and compared and contrasted to enhance the characterisation of each. The basic geological setting is described and the mechanical / engineering requirements which that geology demands is explained. The petrophysical evaluation objectives are then laid out within each framework which leads to the logical choice of data acquisition for each resource. Learning is consolidated by contrasting unconventional data acquisition and evaluation scheme with those familiar to the class. Finally, for each resource, the interpretation and log integration of the various data types is performed, from direct measurements to log responses and answers. Popular interpretation techniques are compared and ranked by class discussion and votes. Daily morning recaps revise and highlight the essential data requirements, problems and petrophysical evaluation processes of each.
Data covered is exhaustive, including Drilling, Core, SCAL, LWD, LithoScanner, NMR, Dielectric, Sigma, Acoustic, Image-logs, MDTs, Fracking (process) and Testing. Recommendations for mudlogs, core, lab work, LWD, Wireline and testing are made for each resource type including special core analysis (SCAL), where appropriate. Basic, expandable petrophysical evaluation templates are provided which may be implemented as xls sheets or as petrophysical software user scripts. The course is delivered via a series of interleaved theory, micro-practicals, demos, workshops and movies to reinforce key facts.
Future proof your petrophysical career
You Will Learn
- The geological and detailed physical characteristics of each major unconventional resource type
- The mechanical / engineering setup each type requires for development
- The key data and evaluation necessary to develop and manage the resource cost-effectively
- The key stages and essential petrophysical techniques for each resource together with a basic appreciation of the strengths and weaknesses of existing popular methods
- How to check if received petrophysical results are fit for purpose or just a table of numbers!
- The pitfalls and uncertainties waiting for you.. How to recognise and circumvent them
- Major future energy sources compared: Conventional, Unconventional, Renewable
- How to become a source of guidance and insight for your peers during Energy discussions
- Unconventional Resources are discussed in proportion to the wells drilled and investment in each resource per year and to class requirements and feedback. This course is oversupplied with content and hence responsive and flexible.
- The geological setting of each major unconventional reservoir type
- Storage mechanisms, porosity types, the key resource parameters (TOC, Brittleness etc.)
- The engineering setup required by that geological setting
- The Formation Evaluation (FE) objectives for each resource
- The minimum data acquisition required to assess reserves and production profiles for each resource. What is the required reference data?
- The common failings of log and data acquisition in terms of its proper objectives
- Quick Look log analysis for each type
- Major steps in core-log-test integrated petrophysical evaluation for each resource
- Primary Uncertainties and their circumnavigation / minimization
- Typical log analysis pitfalls and failings – how to avoid them
- Major rival methods compared, contrasted and ranked vs. correct FE objectives
- Greenlists (checks) for data acquisition, evaluation and results
- Your method vs. the class’s agreed optimal method (class interactive)
- Quick Look evaluation templates
- Useful equations
- What really matters? How to deliver it
- What does netpay mean in this unconventional resource?
- Key recommendations for Data Acquisition and Evaluation
- Daily Interactive Petrophysical Demos, Micropracticals, Workshops, Recaps, Quizzes, Class discussions
- Petrophysical Toolbox for Unconventionals
Dr Mark Deakin is a consultant, author and lecturer in Petrophysical Data Integration. He holds a Ph.D. in ‘Integrated Petrophysics’ from London’s Imperial College, is an ex Amoco petrophysicist, and has more than 30 years’ experience, including 15 as a lecturer and director of PETROPHYSICS Pty Ltd. He has performed over 50 detailed reservoir studies, primarily in Southeast Asia’s difficult carbonate and stacked ‘low-contrast-pay’ reservoirs, keeping abreast of new technologies by technical reading, operations work, attending short courses and lecturing. Mark’s proven approach is to identify and rank reserves uncertainties, then guide companies toward defensible reserves via a process of targeted data acquisition, data-hierarchy and systematic integration. After his Ph.D. Mark authored the first public Integrated Petrophysics course which has evolved into the industry benchmark course for mainstream petrophysics. Deakin also developed “Integrated Petrophysics for Carbonate & Fractured Reservoirs – A Roadmap” and the powerful PetroDB-WEB core-log-test linked database evaluation for complex reservoirs. Deakin is a member of SPWLA with offices in Perth, Australia.
FUTURE PROOF your petrophysical career