Application of Neutron Imaging to Investigate Flow through Fractures for EGS
There is an ongoing effort at Oak Ridge National Laboratory to develop a unique experimental capability for investigating flow through porous and fractured media using neutron imaging techniques. This capability is expected to support numerous areas of investigation associated with flow processes relevant to EGS including, but not limited to: experimental visualization and measurement of velocity profiles and other flow characteristics to better inform reduced-order modeling of flow through fractures; laboratory scale validation of flow models and simulators; and a 'real-time' tool for studying geochemical rock/fluid interactions by noninvasively measuring material effects such as precipitation and dissolution in EGS-representative conditions.
Demonstrating the ability of the technique to generate useful quantitative data is the primary focus at this stage of the effort. Details of the experimental setup and neutron imaging technique will be discussed in this communication, including the description of a custom designed, high pressure, neutron scattering
and imaging compatible triaxial flow cell.
Citation Formats
TY - DATA
AB - There is an ongoing effort at Oak Ridge National Laboratory to develop a unique experimental capability for investigating flow through porous and fractured media using neutron imaging techniques. This capability is expected to support numerous areas of investigation associated with flow processes relevant to EGS including, but not limited to: experimental visualization and measurement of velocity profiles and other flow characteristics to better inform reduced-order modeling of flow through fractures; laboratory scale validation of flow models and simulators; and a 'real-time' tool for studying geochemical rock/fluid interactions by noninvasively measuring material effects such as precipitation and dissolution in EGS-representative conditions.
Demonstrating the ability of the technique to generate useful quantitative data is the primary focus at this stage of the effort. Details of the experimental setup and neutron imaging technique will be discussed in this communication, including the description of a custom designed, high pressure, neutron scattering
and imaging compatible triaxial flow cell.
AU - Polsky, Yarom
A2 - Anovitz, Lawrence M.
A3 - Bingham, Phillip
A4 - Carmichael, Justin
DB - Open Energy Data Initiative (OEDI)
DP - Open EI | National Renewable Energy Laboratory
DO -
KW - geothermal
KW - neutron imaging
KW - fracture flow
KW - egs
KW - neutron imaging fracture flow
KW - high pressure
KW - high temperature
KW - noninvasive
KW - geochemistry
KW - material effects
KW - neutron
LA - English
DA - 2013/02/01
PY - 2013
PB - Oak Ridge National Laboratory
T1 - Application of Neutron Imaging to Investigate Flow through Fractures for EGS
UR - https://data.openei.org/submissions/6735
ER -
Polsky, Yarom, et al. Application of Neutron Imaging to Investigate Flow through Fractures for EGS. Oak Ridge National Laboratory, 1 February, 2013, GDR. https://gdr.openei.org/submissions/422.
Polsky, Y., Anovitz, L., Bingham, P., & Carmichael, J. (2013). Application of Neutron Imaging to Investigate Flow through Fractures for EGS. [Data set]. GDR. Oak Ridge National Laboratory. https://gdr.openei.org/submissions/422
Polsky, Yarom, Lawrence M. Anovitz, Phillip Bingham, and Justin Carmichael. Application of Neutron Imaging to Investigate Flow through Fractures for EGS. Oak Ridge National Laboratory, February, 1, 2013. Distributed by GDR. https://gdr.openei.org/submissions/422
@misc{OEDI_Dataset_6735,
title = {Application of Neutron Imaging to Investigate Flow through Fractures for EGS},
author = {Polsky, Yarom and Anovitz, Lawrence M. and Bingham, Phillip and Carmichael, Justin},
abstractNote = {There is an ongoing effort at Oak Ridge National Laboratory to develop a unique experimental capability for investigating flow through porous and fractured media using neutron imaging techniques. This capability is expected to support numerous areas of investigation associated with flow processes relevant to EGS including, but not limited to: experimental visualization and measurement of velocity profiles and other flow characteristics to better inform reduced-order modeling of flow through fractures; laboratory scale validation of flow models and simulators; and a 'real-time' tool for studying geochemical rock/fluid interactions by noninvasively measuring material effects such as precipitation and dissolution in EGS-representative conditions.
Demonstrating the ability of the technique to generate useful quantitative data is the primary focus at this stage of the effort. Details of the experimental setup and neutron imaging technique will be discussed in this communication, including the description of a custom designed, high pressure, neutron scattering
and imaging compatible triaxial flow cell.
},
url = {https://gdr.openei.org/submissions/422},
year = {2013},
howpublished = {GDR, Oak Ridge National Laboratory, https://gdr.openei.org/submissions/422},
note = {Accessed: 2025-05-03}
}
Details
Data from Feb 1, 2013
Last updated Jun 22, 2017
Submitted Jul 2, 2014
Organization
Oak Ridge National Laboratory
Contact
Yarom Polsky
865.576.0593
Authors
Original Source
https://gdr.openei.org/submissions/422Research Areas
Keywords
geothermal, neutron imaging, fracture flow, egs, neutron imaging fracture flow, high pressure, high temperature, noninvasive, geochemistry, material effects, neutronDOE Project Details
Project Lead Greg Stillman
Project Number FY13 AOP 1
