Innovations in the exploitation of Geothermal Energy

Autores

  • Leandro Jose Barbosa Lima UNISINOS

DOI:

https://doi.org/10.69609/1516-2893.2025.v31.n1.a3997

Palavras-chave:

Geothermal energy, Innovation, Energy Transition, Oil Wells

Resumo

While the demand for energy grows worldwide, the world depends on 80% of fossil fuels, which produces greenhouse gases and air pollutants, to generate electricity. Solar and wind energy represent a good opportunity, but these are energies dependent on nature and are not available throughout the day or periods of the year at the same intensity. Geothermal energy is, virtually, infinite, and available, at different depths, anywhere in the world, but it involves a high cost of well construction and production plant. This study, based on a systematic review of the literature, presents innovations ranging from alternatives for reusing oil wells for geothermal exploration to the standardization and automation of the drilling process. These can make geothermal energy economically viable and available

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Referências

ACUÑA, J. A. et al. Reservoir management at Awibengkok geothermal field, West Java, Indonesia. Geothermics, p. 332-346, 2008.

AKERLEY, J. et al. Drilling challenge and pumping innovations for the steamboat hills enhancement. Transactions - Geothermal Resources Council. San Diego: [s.n.]. 2021. p. 1370-1379.

B. HERRING, H.; H. RASHID, M. Geothermal Energy: Addressing the Barriers to Widespread Generation and Use. 5th Global Power, Energy and Communication Conference. Cappadocia: IEEE. 2023. p. 192-197.

BARBOSA LIMA, L. J. Energia segura, sustentável e acessível. In: VIANA DENDASCK, C., et al. Engenharias: Atualização de Área - Janeiro e Fevereiro de 2023. 1. ed. São Paulo: Livros Acadêmicos Núcleo do Conhecimento, 2023. Cap. 3, p. 28-42.

BRUHN, D.; JOLIE, E.; HUENGES, E. European research efforts on engineered and superhot geothermal systems within horizon2020. Transactions - Geothermal Resources Council. Reno: [s.n.]. 2018. p. 2381-2395.

CHATTERJEE, K. et al. High-temperature, 300°C directional drilling system including drill bit, steerable motor, and drilling fluid. Transactions - Geothermal Resources Council. Portland: [s.n.]. 2014. p. 245-248.

CHATTERJEE, K. et al. Development of a directional drilling system for operation at 300°c for geothermal applications. Transactions - Geothermal Resources Council. Sacramento: [s.n.]. 2016. p. 213-218.

COMBS, J.; DRIZIN, J. M. GeoVision technology applied to geothermal exploration. Transactions - Geothermal Resources Council. Reno: [s.n.]. 2012. p. 625-630.

DICK, A. et al. Governments and private companies in the United States and Germany Partner to drive development of innovative geothermal drilling, evaluation and completion technologies. Transactions - Geothermal Resources Council. San Diego: [s.n.]. 2011. p. 151-157.

DW. Politics - Germany. DW, 2023. Disponivel em: <https://www.dw.com/en/scholz-says-nuclear-energy-issue-a-dead-horse-for-germany/a-66702837>. Acesso em: 8 set. 2024.

FIRFIRIS, V. et al. Performance of a covered closed loop shallow geothermal greenhouse heating system. Acta Horticulturae. Thessaloniki: [s.n.]. 2012. p. 457-462.

GAJDOS, M.; KOCIS, I.; KRISTOFIC, T. Update in Development and Deployment of Advanced Pulsed Plasma Drilling Technology. Abu Dhabi International Petroleum Exhibition and Conference. Abu Dhabi: Society of Petroleum Engineers. 2021.

HAMMONS, T. J. Geothermal sustainability in europe and worldwide. Proceedings of the Universities Power Engineering Conference. Padova: [s.n.]. 2008.

HAMMONS, T. J.; GUNNARSSON, A. Geothermal power developments and sustainability in Iceland and worldwide. International Journal of Power and Energy Systems, p. 94-107, 2010.

HE, Y.; WANG, G. Assessing high temperature geothermal resource - An economic and environmental perspective. International Energy Journal, p. 109-114, 2018.

HERBERT, P. TURBODRILLING IN THE GEOTHERMAL ENVIRONMENT. Society of Petroleum Engineers of AIME, (Paper) SPE. Bakersfield: [s.n.]. 1981. p. 559-563.

HERBERT, P. TURBODRILLING IN THE HOT-HOLE ENVIRONMENT. JPT J PET TECHNOL. [S.l.]: [s.n.]. 1982.

HERNÁNDEZ, R.; CHANDARJIT, L.; LEVIE, L. Composite ceramic centralizers - An innovative solution for geothermal well construction in highly corrosive environments: Case history. Transactions - Geothermal Resources Council. Sacramento: [s.n.]. 2010. p. 214-217.

INTERNATIONAL ENERGY AGENCY. Renewable electricity generation by technology, 1990-2026. International Energy Agency, Paris, 2021. Disponivel em: <https://www.iea.org/data-and-statistics/charts/renewable-electricity-generation-by-technology-1990-2026>. Acesso em: 17 set. 2024.

JAGUSZTYN, T. Hydrothermal energy: Sustainable benefits for island and coastal communities. ASHRAE Transactions. Chicago: [s.n.]. 2012. p. 522-529.

JOLIE, E. et al. Geological controls on geothermal resources for power generation. Nature Reviews Earth and Environment. [S.l.]: [s.n.]. 2021. p. 324-339.

JONES, K. L.; SCHULENBURG, N. W.; WRIGHT, C. Hyperspectral remote sensing techniques for locating geothermal areas. Proceedings of SPIE - The International Society for Optical Engineering. Orlando: [s.n.]. 2010.

KUJBUS, A. New approach in the hungarian geothermal exploration. Transactions - Geothermal Resources Council. Reno: [s.n.]. 2007. p. 605-607.

LI, D.; LI, B. Towards a new era of diversified energy development: Innovation in theoretical petroleum geology to meet "dual carbon target". Earth Science Frontiers, p. 1-9, 2022.

LI, Z. et al. Progress and prospect of CNOOC's oil and gas well drilling and completion technologies. Natural Gas Industry. Beijing: [s.n.]. 2021. p. 178-185.

LOCKETT, G. E. HEAT PIPES TO TAP GEOTHERMAL ENERGY. H and V Engineer, p. 7-8, 1986.

MOHAMED, A.; SALEHI, S.; AHMED, R. Significance and Complications of Drilling Fluid Rheology in Geothermal Drilling: A Review. Geothermic, jun. 2021.

MOLLOY, L.; LINDSAY, M.; MALONEY, P. The Lemelson meeting: Scoping the design criteria for the global geothermal challenge. Transactions - Geothermal Resources Council. Reno: [s.n.]. 2009. p. 652-655.

MÜLLER, J. et al. Generalized pan-european geological database for shallow geothermal installations. Geosciences (Switzerland), 2018.

NETO, A. H. Energia geotérmica pode ser uma alternativa com pouco impacto ambiental. Jornal da USP. 2023.

ORAZZINI, S. et al. New roller cone bit technology for geothermal application significantly increases on-bottom drilling hours. Transactions - Geothermal Resources Council. San Diego: [s.n.]. 2011. p. 215-224.

ORAZZINI, S. et al. New HT/HP technology for geothermal application significantly increases on-bottom drilling hours. SPE/IADC Drilling Conference, Proceedings. San Diego: [s.n.]. 2012. p. 70-89.

PEDROSA, S. et al. Unleashing the Full Geothermal Potential of Türkiye Through Collaboration and Learning from the Oil & Gas Industry. SPE Middle East Oil and Gas Show and Conference, MEOS, Proceedings. Manama: [s.n.]. 2023.

PROCTOR, D. Bringing the heat: Geothermal making inroads as baseload power. Power, 2019.

SALERNO, M. S. et al. Innovation process: Which process for which project. Technovation, 2 set. 2014. 59-70.

SALMON, J. P. et al. Guidebook to geothermal power finance. Geothermal Power: Finance Guide and Policy Options, p. 1-61, 2012.

SANTOS, L.; DAHI TALEGHANI, A.; ELSWORTH, D. Repurposing abandoned wells for geothermal energy: Current status and future prospects. Renewable Energy, p. 1288-1302, 2022.

SHALE, L.; NICKELS, N. Developing technology and procedures for geothermal drilling. American Society of Mechanical Engineers, Petroleum Division (Publication) PD. Houston: [s.n.]. 1992. p. 117-122.

SHEMBEKAR, V.; TURAGA, U. Towards affordable geothermal power: Economic impacts of innovation and new technology. Transactions - Geothermal Resources Council. San Diego: [s.n.]. 2011. p. 527-532.

SHERVAIS, J. W. et al. Hotspot: The Snake River geothermal drilling project - An overview. Transactions - Geothermal Resources Council. San Diego: [s.n.]. 2011. p. 995-1003.

STEFÁNSSON, B.; PÁLSSON, B.; FRIOLEIFSSON, G. Ó. Iceland Deep Drilling Project, exploration of supercritical geothermal resources. IEEE Power and Energy Society 2008 General Meeting: Conversion and Delivery of Electrical Energy in the 21st Century, PES. Pittsburgh: [s.n.]. 2008.

SYARIFUDIN, M.; OCTAVIUS, F.; MAURICE, K. Feasibility of Geothermal Energy Extraction from Non-Activated Petroleum Wells in Arun Field. IOP Conference Series: Earth and Environmental Science. Bandung: [s.n.]. 2016.

SZUCS, P. et al. Innovation in assessment of the geothermal energy potential of abondoned hydrocarbon wells in the southenr and southeastern foreground of the Bukk Mountains, northeast Hungary. Hydrogeology Journal, 14 nov. 2022. 2267-2284.

THINKGEOENERGY RESEARCH. ThinkGeoEnergy’s Top 10 Geothermal Countries 2022 – Power Generation Capacity (MW). ThinkGeoEnergy, 16 dez. 2023. Disponivel em: <https://www.thinkgeoenergy.com/thinkgeoenergys-top-10-geothermal-countries-2022-power-generation-capacity-mw/>.

THOMAS, J. E. Fundamentos de Engenharia de Petróleo. [S.l.]: Editora Interciência, 2004.

THORSTEINSSON, H.; GREENE, A. I. Exploration technologies roadmapping. Transactions - Geothermal Resources Council. Washington DC: [s.n.]. 2011. p. 1033-1036.

TUTTLE, J. D. Drilling fluids for the geothermal industry - Recent innovations. Transactions - Geothermal Resources Council. Reno: [s.n.]. 2005. p. 535-540.

TUTTLE, J. D.; LISTI, R.; TATE, R. Drilling Fluids Innovations Combining O&G and Geothermal Technologies for Optimum Performance. Transactions - Geothermal Resources Council. Reno: [s.n.]. 2022. p. 881-892.

WEERS, J. et al. Improving the accessibility and usability of geothermal information with data lakes and data pipelines on the geothermal data repository. Transactions - Geothermal Resources Council. San Diego: [s.n.]. 2021. p. 1349-1357.

WONG, K. V.; TAN, N. Feasibility of using more geothermal energy to generate electricity. ASME International Mechanical Engineering Congress and Exposition, Proceedings (IMECE). Montreal: [s.n.]. 2014.

WONG, K. V.; TAN, N. Feasibility of using more geothermal energy to generate electricity. Journal of Energy Resources Technology, Transactions of the ASME, 2015.

ZEDIKER, M. S. High power fiber lasers in geothermal, oil and gas. Proceedings of SPIE - The International Society for Optical Engineering. San Francisco: [s.n.]. 2014.

ZHANG, Y.; ZHANG, J. Technical improvements and application of air-lift reverse circulation drilling technology to ultra-deep geothermal well. Procedia Engineering. Chengdu: [s.n.]. 2014. p. 243-251.

ZHANG, Z. et al. Successful implementation of HT geothermal drilling technology in Kenya. Society of Petroleum Engineers - IADC/SPE Asia Pacific Drilling Technology Conference 2012 - Catching the Unconventional Tide: Winning the Future Through Innovation. Tianjin: [s.n.]. 2012. p. 362-368.

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Publicado

2025-07-21

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