Formation Damage in Produced Water Re-Injection
This two-day course will provide an overview at awareness level of common issues in produced water re-injection (PWRI), with a focus on subsurface-related topics such as well injectivity and sweep. PWRI is not only used for disposal purpose but also for voidage replacement and sweep in waterfloods. It is widely acknowledged that if injection under fracturing conditions is allowed, injection water quality specifications can be relieved significantly. On the other hand, induced fracturing creates its own challenges with regard to areal and vertical sweep, and (potential) loss of containment. Moreover, injection under induced fracturing conditions does not resolve all injectivity issues.
Course topics include:
- Overview of the types of formation damage, its prevention, and remediation
- Mathematical modelling and laboratory studies of formation matrix damage
- Injectivity decline for PWRI under matrix (non-fractured) injection conditions
- Water injection under fracturing conditions: introduction and theoretical concepts
- Decision making in water management
- Taking advantage of injectivity damage for IOR
- Case histories
- Causes and mechanisms of well injectivity and productivity damage
- Vertical / areal sweep issues associated with PWRI under fracturing conditions
- Monitoring / surveillance for PWRI under fracturing conditions
- Effects of formation damage on injectivity
Why You Should Attend
Over the last decade, the scale of produced water re-injection (PWRI) in industry has increased tremendously. PWRI is not only used for disposal purpose but also for voidage replacement and sweep in waterfloods. It is widely acknowledged that if injection under fracturing conditions is allowed, injection water quality specifications can be relieved significantly.
Who Should Attend
The course is aimed at drilling, production, and reservoir engineers, simulation, and laboratory specialists involved in water flooding, drilling and well stimulation.
1.6 CEUs (Continuing Education Units) will be awarded for this 2-day course.
To receive a full refund, all cancellations must be received in writing no later than 14 days prior to the course start date. Cancellations made after the 14-day window will not be refunded. Send cancellation requests by email to email@example.com.
Pavel Bedrikovetsky is an author of two books in reservoir engineering and 160 technical papers in international journals and SPE. His research covers formation damage and IOR. From 1991-1994, he was a visiting professor at Delft University of Technology and at Imperial College of Science and Technology. From 1994 and until now Bedrikovetsky is a Petrobras Staff Consultant. Currently, he holds Chair in Petroleum Engineering at Australian School of Petroleum at the University of Adelaide. He served as section chairman, short course instructor, key speaker, and steering committee member at many SPE Conferences. He was a 2008–2009 SPE Distinguished Lecturer.
Bedrikovetsky holds an MSc in applied mathematics, a PhD in fluid mechanics, and a DSc in reservoir engineering from Moscow Oil-Gas Gubkin University.
Paul van den Hoek joined Shell in 1989 and has since worked in a variety of geomechanics and production/reservoir engineering areas, such as fracturing, (produced) water injection, waterflooding, sand management, production operations, artificial lift, and business planning. He is one of the “founding fathers” of Shell proprietary software in the areas of sand production prediction and induced fracturing in waterflooding.
His latest work in the sand arena consisted of developing (and deploying to the field) a quantitative sand production prediction module. His latest work in the waterflood area consisted of leading the development and field deployment of a coupled fracture / reservoir simulator to address risks and opportunities associated with injection under induced fracturing conditions in waterfloods and EOR (e.g. polymer, steam, gas).
Currently, he heads an R&D team in the area of data assimilation and assisted history matching. He is co-author of over 70 technical papers in international journals and SPE. He holds a PhD in physical chemistry from the Free University in Amsterdam, The Netherlands.
Pacelli L.J. Zitha is professor of oil and gas production at the Delft University of Technology, Department of Geotechnology. From 2006 to 2010, he worked as a senior research advisor for Shell International E&P. He is the author of over 65 scientific and technical articles and editor of two books. For many years, he worked in water control and foam diversion. His current research interests include well inflow performance, enhanced oil recovery, heavy oil, and gas hydrates. He has served in various SPE committees, including as a chairman of the European Formation Damage Conference and member the SPE R&D advisory committee.
Zitha holds an MSc degree in theoretical fluid physics (1991) and a PhD degree in condensed matter physics (1994), from the University Pierre et Marie Curie (Paris VI).