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Utah FORGE 4-2492: Final Report and Presentation on Innovative Stimulation Design and Fiber-Optic Diagnostics to Maximize Energy Recovery Efficiency

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This dataset contains the final technical report and closeout presentation for Utah FORGE Project 4-2492, which investigated advanced stimulation design and diagnostic approaches to improve fracture uniformity, inter-well connectivity, and energy recovery efficiency in enhanced geothermal systems. The report documents field stimulation and circulation experiments in wells 16A and 16B, integration of distributed fiber-optic sensing (DTS, DAS, and distributed strain), numerical modeling of fracture growth and fluid flow, and the combined use of tracer, FMI, and fiber-optic data to characterize fracture geometry, conductivity, and connectivity. Results provide guidance for improving completion and stimulation strategies for future high-temperature EGS well pairs at Utah FORGE.

Citation Formats

TY - DATA AB - This dataset contains the final technical report and closeout presentation for Utah FORGE Project 4-2492, which investigated advanced stimulation design and diagnostic approaches to improve fracture uniformity, inter-well connectivity, and energy recovery efficiency in enhanced geothermal systems. The report documents field stimulation and circulation experiments in wells 16A and 16B, integration of distributed fiber-optic sensing (DTS, DAS, and distributed strain), numerical modeling of fracture growth and fluid flow, and the combined use of tracer, FMI, and fiber-optic data to characterize fracture geometry, conductivity, and connectivity. Results provide guidance for improving completion and stimulation strategies for future high-temperature EGS well pairs at Utah FORGE. AU - Sharma, Mukul DB - Open Energy Data Initiative (OEDI) DP - Open EI | National Laboratory of the Rockies DO - KW - geothermal KW - energy KW - Utah FORGE KW - EGS KW - stimulation design KW - fracture uniformity KW - well connectivity KW - energy recovery efficiency KW - technical report KW - stimulation KW - circulation test KW - 16A KW - 16B KW - distributed fiber-optic sensing KW - DTS KW - DAS KW - distributed strain KW - numerical modeling KW - fracture growth KW - FMI KW - tracer KW - fracture geometry KW - geomechanics KW - geophysics LA - English DA - 2025/12/31 PY - 2025 PB - The University of Texas at Austin T1 - Utah FORGE 4-2492: Final Report and Presentation on Innovative Stimulation Design and Fiber-Optic Diagnostics to Maximize Energy Recovery Efficiency UR - https://data.openei.org/submissions/8677 ER -
Export Citation to RIS
Sharma, Mukul. Utah FORGE 4-2492: Final Report and Presentation on Innovative Stimulation Design and Fiber-Optic Diagnostics to Maximize Energy Recovery Efficiency. The University of Texas at Austin, 31 December, 2025, GDR. https://gdr.openei.org/submissions/1837.
Sharma, M. (2025). Utah FORGE 4-2492: Final Report and Presentation on Innovative Stimulation Design and Fiber-Optic Diagnostics to Maximize Energy Recovery Efficiency. [Data set]. GDR. The University of Texas at Austin. https://gdr.openei.org/submissions/1837
Sharma, Mukul. Utah FORGE 4-2492: Final Report and Presentation on Innovative Stimulation Design and Fiber-Optic Diagnostics to Maximize Energy Recovery Efficiency. The University of Texas at Austin, December, 31, 2025. Distributed by GDR. https://gdr.openei.org/submissions/1837
@misc{OEDI_Dataset_8677, title = {Utah FORGE 4-2492: Final Report and Presentation on Innovative Stimulation Design and Fiber-Optic Diagnostics to Maximize Energy Recovery Efficiency}, author = {Sharma, Mukul}, abstractNote = {This dataset contains the final technical report and closeout presentation for Utah FORGE Project 4-2492, which investigated advanced stimulation design and diagnostic approaches to improve fracture uniformity, inter-well connectivity, and energy recovery efficiency in enhanced geothermal systems. The report documents field stimulation and circulation experiments in wells 16A and 16B, integration of distributed fiber-optic sensing (DTS, DAS, and distributed strain), numerical modeling of fracture growth and fluid flow, and the combined use of tracer, FMI, and fiber-optic data to characterize fracture geometry, conductivity, and connectivity. Results provide guidance for improving completion and stimulation strategies for future high-temperature EGS well pairs at Utah FORGE.}, url = {https://gdr.openei.org/submissions/1837}, year = {2025}, howpublished = {GDR, The University of Texas at Austin, https://gdr.openei.org/submissions/1837}, note = {Accessed: 2026-07-05} }

Details

Data from Dec 31, 2025

Last updated Apr 27, 2026

Submitted Apr 23, 2026

Organization

The University of Texas at Austin

Contact

Mukul Sharma

Authors

Mukul Sharma

The University of Texas at Austin

Research Areas

DOE Project Details

Project Name Utah FORGE

Project Lead Lauren Boyd

Project Number EE0007080

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