Krafla magma testbed: Understanding and using the magma-hydrothermal connection

The Krafla Magma Testbed (KMT), Krafla Caldera, Iceland, is proposed to be the first magma observatory, an international multi-borehole facility where teams will conduct scientific experiments and engineering tests focused on the magma-hydrothermal interface in a superhot geothermal systems (SHGS)....

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Main Authors: Eichelberger, J, Ingolfsson, HP, Carrigan, C, Lavallee, Y, Tester, JW, Markusson, SH
Format: Conference Object
Language:English
Published: Geothermal Resources Council 2018
Subjects:
Online Access:http://livrepository.liverpool.ac.uk/3027998/
http://livrepository.liverpool.ac.uk/3027998/1/Eichelberger_GRC_2018_revised.pdf
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spelling ftunivliverpool:oai:livrepository.liverpool.ac.uk:3027998 2023-05-15T16:47:42+02:00 Krafla magma testbed: Understanding and using the magma-hydrothermal connection Eichelberger, J Ingolfsson, HP Carrigan, C Lavallee, Y Tester, JW Markusson, SH 2018-01-01 text http://livrepository.liverpool.ac.uk/3027998/ http://livrepository.liverpool.ac.uk/3027998/1/Eichelberger_GRC_2018_revised.pdf en eng Geothermal Resources Council http://livrepository.liverpool.ac.uk/3027998/1/Eichelberger_GRC_2018_revised.pdf Eichelberger, J, Ingolfsson, HP, Carrigan, C, Lavallee, Y orcid:0000-0003-4766-5758 , Tester, JW and Markusson, SH (2018) Krafla magma testbed: Understanding and using the magma-hydrothermal connection. In: Geothermal Resources Council, 2018-10-14 - 2018-10-17, Reno, Nevada, USA. Conference or Workshop Item NonPeerReviewed 2018 ftunivliverpool 2023-01-19T23:31:37Z The Krafla Magma Testbed (KMT), Krafla Caldera, Iceland, is proposed to be the first magma observatory, an international multi-borehole facility where teams will conduct scientific experiments and engineering tests focused on the magma-hydrothermal interface in a superhot geothermal systems (SHGS). Objectives are to: 1) Core and monitor from the roots of the hydrothermal system to the top of the magma body; 2) Provide ground-truth testing of surface-based techniques for locating magma; 3) Perturb the deep system to understand signals interpreted as volcano “unrest”; 4) Advance drilling and completion technology so that superhot and supercritical fluids can be produced from the magma roof zone; and 5) Advance sensor technology so that magma bodies can be monitored directly, vastly improving the eruption warnings important to 10% of Earth's population. KMT will provide a vanguard view of magma and hydrothermal circulation as the single system that it is. It will integrate the separate communities of practice of geothermal energy, which relies heavily on direct drilling observations; and volcanology, which relies on surface observations and theoretical models. The driving force is that geothermal drilling hit magma in Iceland, Kenya, and Hawaii, revealing how close to the surface magma exists and how closely connected magma is to the hydrothermal system. KMT is a 3 rd path in efforts to expand geothermal use. One path is to go deeper in cooler places, the Enhanced Geothermal System (EGS) concept, relying on advances in drilling and reservoir stimulation for economic viability, e.g. Frontier Observatory for Research in Geothermal Energy (FORGE) of the U.S. Department of Energy. Another, within SHGS, is to drill to conditions where fluids should be supercritical, e.g. IDDP-2 of Iceland Deep Drilling Program (IDDP) at Reykjanes. The 3 rd , also SHGS and pursued by KMT, is to access the vicinity of a magma body. This takes advantage of magma's high energy density due to latent heat of crystallization and delivered by ... Conference Object Iceland The University of Liverpool Repository Krafla ENVELOPE(-16.747,-16.747,65.713,65.713) Reykjanes ENVELOPE(-22.250,-22.250,65.467,65.467)
institution Open Polar
collection The University of Liverpool Repository
op_collection_id ftunivliverpool
language English
description The Krafla Magma Testbed (KMT), Krafla Caldera, Iceland, is proposed to be the first magma observatory, an international multi-borehole facility where teams will conduct scientific experiments and engineering tests focused on the magma-hydrothermal interface in a superhot geothermal systems (SHGS). Objectives are to: 1) Core and monitor from the roots of the hydrothermal system to the top of the magma body; 2) Provide ground-truth testing of surface-based techniques for locating magma; 3) Perturb the deep system to understand signals interpreted as volcano “unrest”; 4) Advance drilling and completion technology so that superhot and supercritical fluids can be produced from the magma roof zone; and 5) Advance sensor technology so that magma bodies can be monitored directly, vastly improving the eruption warnings important to 10% of Earth's population. KMT will provide a vanguard view of magma and hydrothermal circulation as the single system that it is. It will integrate the separate communities of practice of geothermal energy, which relies heavily on direct drilling observations; and volcanology, which relies on surface observations and theoretical models. The driving force is that geothermal drilling hit magma in Iceland, Kenya, and Hawaii, revealing how close to the surface magma exists and how closely connected magma is to the hydrothermal system. KMT is a 3 rd path in efforts to expand geothermal use. One path is to go deeper in cooler places, the Enhanced Geothermal System (EGS) concept, relying on advances in drilling and reservoir stimulation for economic viability, e.g. Frontier Observatory for Research in Geothermal Energy (FORGE) of the U.S. Department of Energy. Another, within SHGS, is to drill to conditions where fluids should be supercritical, e.g. IDDP-2 of Iceland Deep Drilling Program (IDDP) at Reykjanes. The 3 rd , also SHGS and pursued by KMT, is to access the vicinity of a magma body. This takes advantage of magma's high energy density due to latent heat of crystallization and delivered by ...
format Conference Object
author Eichelberger, J
Ingolfsson, HP
Carrigan, C
Lavallee, Y
Tester, JW
Markusson, SH
spellingShingle Eichelberger, J
Ingolfsson, HP
Carrigan, C
Lavallee, Y
Tester, JW
Markusson, SH
Krafla magma testbed: Understanding and using the magma-hydrothermal connection
author_facet Eichelberger, J
Ingolfsson, HP
Carrigan, C
Lavallee, Y
Tester, JW
Markusson, SH
author_sort Eichelberger, J
title Krafla magma testbed: Understanding and using the magma-hydrothermal connection
title_short Krafla magma testbed: Understanding and using the magma-hydrothermal connection
title_full Krafla magma testbed: Understanding and using the magma-hydrothermal connection
title_fullStr Krafla magma testbed: Understanding and using the magma-hydrothermal connection
title_full_unstemmed Krafla magma testbed: Understanding and using the magma-hydrothermal connection
title_sort krafla magma testbed: understanding and using the magma-hydrothermal connection
publisher Geothermal Resources Council
publishDate 2018
url http://livrepository.liverpool.ac.uk/3027998/
http://livrepository.liverpool.ac.uk/3027998/1/Eichelberger_GRC_2018_revised.pdf
long_lat ENVELOPE(-16.747,-16.747,65.713,65.713)
ENVELOPE(-22.250,-22.250,65.467,65.467)
geographic Krafla
Reykjanes
geographic_facet Krafla
Reykjanes
genre Iceland
genre_facet Iceland
op_relation http://livrepository.liverpool.ac.uk/3027998/1/Eichelberger_GRC_2018_revised.pdf
Eichelberger, J, Ingolfsson, HP, Carrigan, C, Lavallee, Y orcid:0000-0003-4766-5758 , Tester, JW and Markusson, SH (2018) Krafla magma testbed: Understanding and using the magma-hydrothermal connection. In: Geothermal Resources Council, 2018-10-14 - 2018-10-17, Reno, Nevada, USA.
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