Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Heavy Oil Waterflood Application of Capacitance Resistance Models

View through CrossRef
Abstract The capacitance-resistance model (CRM) is an analytical tool that uses only injection and production rate to quantify interwell connectivity and response time during a waterflood. It has been widely used in conventional waterfloods for reservoir characterization, performance evaluation and optimization. Heavy oil waterfloods introduce challenges to the application of CRM due to the high mobility ratio and its rapid variation as a function of waterflood maturity. Using conceptual reservoir models and sensitivity studies, we provide guidelines for application of CRM in heavy oil waterfloods. We illustrate our approach in two heavy oil fields under waterflood. In heavy oil waterfloods, it is observed that interwell connectivity and response time varied over time, especially right before and after water breakthrough. The magnitude of CRM parameter variation is a function of viscosity ratio between water and oil, flood maturity, and contrast of flow and storage capacity of the flow units. Case studies of heavy oil watetrflood (one mature, one immature) showed that CRM can be used for waterflood analysis, and forecasting. In the immature flood with one injector and two producers and high permeability contrast, the most extreme variation of CRM parameters was observed. In the pattern flood where injected fluid was distributed relatively evenly among producers and breakthrough had already occurred, the CRM parameters tended to be constant over time. We showed that with frequent analysis (window approach) CRM can be efficiently used in heavy oil waterfloods,
Title: Heavy Oil Waterflood Application of Capacitance Resistance Models
Description:
Abstract The capacitance-resistance model (CRM) is an analytical tool that uses only injection and production rate to quantify interwell connectivity and response time during a waterflood.
It has been widely used in conventional waterfloods for reservoir characterization, performance evaluation and optimization.
Heavy oil waterfloods introduce challenges to the application of CRM due to the high mobility ratio and its rapid variation as a function of waterflood maturity.
Using conceptual reservoir models and sensitivity studies, we provide guidelines for application of CRM in heavy oil waterfloods.
We illustrate our approach in two heavy oil fields under waterflood.
In heavy oil waterfloods, it is observed that interwell connectivity and response time varied over time, especially right before and after water breakthrough.
The magnitude of CRM parameter variation is a function of viscosity ratio between water and oil, flood maturity, and contrast of flow and storage capacity of the flow units.
Case studies of heavy oil watetrflood (one mature, one immature) showed that CRM can be used for waterflood analysis, and forecasting.
In the immature flood with one injector and two producers and high permeability contrast, the most extreme variation of CRM parameters was observed.
In the pattern flood where injected fluid was distributed relatively evenly among producers and breakthrough had already occurred, the CRM parameters tended to be constant over time.
We showed that with frequent analysis (window approach) CRM can be efficiently used in heavy oil waterfloods,.

Related Results

Waterflood Performance Projection Using Classical Waterflood Models
Waterflood Performance Projection Using Classical Waterflood Models
ABSTRACT A semi-empirical method is proposed to forecast waterflood performance using classical waterflood models. The approach adopts an average flood pattern for w...
A Review on the Synergistic Approaches for Heavy Metals Bioremediation: Harnessing the Power of Plant-Microbe Interactions
A Review on the Synergistic Approaches for Heavy Metals Bioremediation: Harnessing the Power of Plant-Microbe Interactions
Heavy metals contamination is a serious threat to all life forms. Long term exposure of heavy metals can lead to different life-threatening medical conditions including cancers of ...
Well Performance Analysis for Heavy Oil With Water Coning
Well Performance Analysis for Heavy Oil With Water Coning
Abstract As conventional petroleum is approaching its maximum production and the world oil demand continues to grow, heavy oil becomes one of the obvious replacem...
Intelligent Waterflood Optimization Advisory System – A Step Change Towards Digital Transformation
Intelligent Waterflood Optimization Advisory System – A Step Change Towards Digital Transformation
Abstract In this paper, we discuss the development of an end-to-end waterflood optimization solution that provides monitoring and surveillance dashboards with artifi...
Polymer Flood Technology For Heavy Oil Recovery
Polymer Flood Technology For Heavy Oil Recovery
Abstract The concept of polymer flooding heavy oil reservoirs for improved oil recovery was investigated by Knight & Rhudy1 as early as 1977. The practical ap...
Girouxville East Montney Waterflood
Girouxville East Montney Waterflood
Abstract This paper presents the design, current status and future expansion plan of the waterflood scheme in the Girouxville East Lower Triassic Montney reservoir, ...
Offshore Heavy Oil in Campos Basin: The Petrobras Experience
Offshore Heavy Oil in Campos Basin: The Petrobras Experience
Abstract Significant volumes of heavy and high viscosity oil have been discovered in the Campos and Santos Basins, offshore Brazil, and its economical production ...
Polymer Flood Application to Improve Heavy Oil Recovery at East Bodo
Polymer Flood Application to Improve Heavy Oil Recovery at East Bodo
Abstract The East Bodo, Lloydminster SS heavy oil pool, has been exploited using primary recovery and waterflood. IOR screening showed that a polymer flood would ...

Back to Top