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Base Technologies and Tools for Supercritical Reservoirs Geothermal Lab Call Project
Geothermal/Awardees Sandia National Laboratories  +
Geothermal/DOEFundingLevel 941,000  +
Geothermal/FundingOpportunityAnnouncemt DE-PS36-09GO99017  +
Geothermal/FundingSource American Recovery and Reinvestment Act of 2009  +
Geothermal/LocationOfProject Albuquerque, New Mexico +
Geothermal/Objectives Develop robust downhole tools that can operate in supercritical environments.
Geothermal/PrincipalInvestigator Joseph Henfling  +
Geothermal/ProjectDesc Development of downhole tools capable of rDevelopment of downhole tools capable of reliable operation in supercritical environments is a significant challenge with a number of technical and operational hurdles related to both the hardware and electronics design. Hardware designs require the elimination of all elastomer seals and the use of advanced materials. Electronics must be hardened to the extent practicable since no electronics system can survive supercritical temperatures. To develop systems capable of logging in these environments will require a number of developments. More robust packaging of electronics is needed. Sandia will design and develop innovated, highly integrated, high-temperature (HT) data loggers. These data loggers will be designed and developed using silicon-on-insulator/silicon carbide (SOI/SiC) technologies integrated into a MultiChip Module (MCM); greatly increasing the reliability of the overall system (eliminating hundreds of board-level innerconnects) and decreasing the size of the electronics package. Tools employing these electronics will be capable of operating continuously at temperatures up to 240 °C and by using advanced Dewar flasks, will operate in a supercritical reservoir with temperatures over 450 °C and pressures above 70 MPa. Dewar flasks are needed to protect the electronic components, but those currently available are only reliable in temperature regimes in the range of 350 °C; promising advances in materials will be investigated to improve Dewar technologies. HT wireline currently used for logging operations is compromised at temperatures above 300 °C; along with exploring the development of a HT wireline for logging purposes, alternative approaches that employ HT batteries (e.g., those awarded a recent R&D 100) will also be investigated, and if available will enable deployment using slickline, which is not subject to the same temperature limitations as wireline. To demonstrate the capability provided by these improvements, tools will be developed and fielded. The developed base technologies and working tool designs will be available to industry throughout the project period. The developed techniques and subsystems will help to further the advancement of HT tools needed in the geothermal industry.T tools needed in the geothermal industry.
Geothermal/ProjectTypeTopic1 Laboratory Call for Submission of Applications for Research, Development and Analysis of Geothermal Technologies  +
Geothermal/ProjectTypeTopic2 High-Temperature Downhole Tools  +
Geothermal/TargetsMilestones - Laboratory evaluation of subsystems and - Laboratory evaluation of subsystems and field deployment results from developed high-temperature tools. <br />- Develop and test a Dewarless 240C PTC (Pressure/Temperature/Collar Counter) tool. <br />- Design and fabricate a prototype Dear Flasked PTC tool that operates at 450C. <br />- Develop Dewar Flasked Fluid Sampler that can operate at ~450C.d Fluid Sampler that can operate at ~450C.
Geothermal/TotalProjectCost 941,000  +
Name Base Technologies and Tools for Supercritical Reservoirs  +
Place New Mexico +
Has queryThis property is a special property in this wiki. Base Technologies and Tools for Supercritical Reservoirs Geothermal Lab Call Project +
Categories Geothermal ARRA Funded Projects  + , Geothermal Lab Call Projects  +
Modification dateThis property is a special property in this wiki. 22 July 2011 18:20:55  +
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