Browse wiki

From Open Energy Information

Jump to: navigation, search
Development of Chemical Model to Predict the Interactions between Supercritical CO2 and Fluid, Rocks in EGS Reservoirs Geothermal Project
Geothermal/AwardeeCostShare 606,699  +
Geothermal/AwardeeWebsite http://www.egi.utah.edu/  +
Geothermal/Awardees University of Utah  +
Geothermal/DOEFundingLevel 944,707  +
Geothermal/FundingOpportunityAnnouncemt DE-FOA-0000075  +
Geothermal/FundingSource American Recovery and Reinvestment Act of 2009  +
Geothermal/Impacts If successful, the investigation will provide insights into the behavior and effects of supercritical C02 in EGS reservoirs. Database development will provide parameters and data that is lacking within the scientific literature
Geothermal/LocationOfProject Salt Lake City, Utah +
Geothermal/Objectives Develop a reactive-transport model that predicts mineral precipitation and dissolution reactions within an EGS reservoir as well as EGS surface facilities, as supercritical CO2 is injected into EGS reservoirs.
Geothermal/Partner1 University of Wyoming  +
Geothermal/Partner2 Los Alamos National Laboratory  +
Geothermal/PrincipalInvestigator Chuan Lu, Energy & Geoscience Institute, University of Utah  +
Geothermal/ProjectDesc In order to develop this model, databases In order to develop this model, databases will be assembled and/or updated for thermodynamic and kinetic rate laws for water/brine/rock/CO2 interactions at the pressures and temperatures common to EGS systems. In addition to a literature search, extrapolation of existing data and experimental laboratory work will be conducted to calibrate and verify the datasets. The expected outcome will be a new chemical model capable of evaluating the thermodynamic properties of fluid and formation rocks; to estimate kinetic rate laws of CO2/saline/rock interactions, in high P, T, with phase configurations ranging for single aqueous, SC CO2/aqueous and single SC CO2 phases., SC CO2/aqueous and single SC CO2 phases.
Geothermal/ProjectTypeTopic1 Recovery Act: Enhanced Geothermal Systems Component Research and Development/Analysis  +
Geothermal/ProjectTypeTopic2 Supercritical Carbon Dioxide / Reservoir Rock Chemical Interactions  +
Geothermal/TargetsMilestones - Collect thermodynamic equilibrium consta- Collect thermodynamic equilibrium constants and kinetic rate laws and associated parameters and constants for geochemical reactions relevant to the pressure and temperature of EGS systems; <br />- Modify existing reactive-transport models to account for chemical reactions at variable P, T and CO2 saturation conditions of the EGS system; <br />- Apply the model to investigate the interactions of supercritical CO2 with reservoir rocks. The code modifications will provide essential tools to evaluate the interactions between SC/dissolved CO2 with reservoir rocks for aqueous, two phase and anhydrous conditions in EGS systems. Simulations with the modified simulators will use experimental and literature data to calibrate and verify models in an iterative manner. Investigations conducted within this task will provide deeper insight into the behavior and effects of SC CO2 in EGS reservoirs. Field-scale simulations will be conducted to assess the possibility and suitable conditions for using CO2 as a working fluid and acidization agent. as a working fluid and acidization agent.
Geothermal/TotalProjectCost 1,551,406  +
Name Development of Chemical Model to Predict the Interactions between Supercritical CO2 and Fluid, Rocks in EGS Reservoirs  +
Place Utah +
Has queryThis property is a special property in this wiki. Development of Chemical Model to Predict the Interactions between Supercritical CO2 and Fluid, Rocks in EGS Reservoirs Geothermal Project +
Has improper value forThis property is a special property in this wiki. Geothermal/OtherPrincipalInvestigator  +
Categories Geothermal ARRA Funded Projects  + , Geothermal ARRA Projects  +
Modification dateThis property is a special property in this wiki. 22 July 2011 18:23:35  +
hide properties that link here 
  No properties link to this page.
 

 

Enter the name of the page to start browsing from.