Renewable Management Strategies for Geothermal Energy Reservoirs

ABSTRACT: The primary goal of this research is to develop and implement a robust management protocol for geothermal reservoirs that enhances energy extraction efficiency, prolongs operational life, and minimizes environmental impact. The study employs a multifaceted approach starting with geoscientific exploration to pinpoint potential geothermal sites. Detailed feasibility studies follow, examining technical, economic, and environmental aspects to evaluate the viability of energy extraction. Drilling and well-testing are then carried out to acquire precise data on reservoir properties. This data feeds into advanced reservoir modeling using FEM (Finite Element Method), which simulates reservoir behavior to inform infrastructure development and operational strategies. The application of this comprehensive strategy yielded significant improvements in reservoir output and longevity. The findings underscore the efficacy of FEM simulations in optimizing resource management and in mitigating environmental risks. The innovative integration of geoscientific exploration, feasibility analysis, and FEM modeling represents a leap forward in geothermal reservoir management. The study's methodology sets a precedent for the application of sophisticated computational techniques in natural resource management. Effective management of geothermal reservoirs can be achieved through an iterative process of exploration, data acquisition, and simulation-based planning. This approach not only secures the sustainable harnessing of geothermal energy but also ensures that extraction processes are economically viable and environmentally responsible. The customizable nature of the management protocol allows it to be adapted to a variety of geothermal contexts, promising wider applicability across different geologic settings. Introduction Geothermal energy represents a highly sustainable and renewable source of energy, generated from the Earth's internal heat. It is widely recognized for its capability to provide reliable, baseload power while producing minimal greenhouse gas emissions. The effective management of geothermal reservoirs is critical for ensuring their long-term productivity, maximizing the energy output, and mitigating potential environmental impacts. Managing geothermal reservoirs involves several interconnected steps, beginning with exploration and site selection. Extensive geological, geochemical, and geophysical surveys are conducted to identify subsurface formations that exhibit high thermal potential. This initial phase is followed by detailed feasibility studies that assess both the economic and technical viability of the geothermal project. Environmental considerations are central to this analysis, as geothermal systems interact closely with local ecosystems and geological structures.

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Published
2024-11-18
DOI
https://doi.org/10.56952/igs-2024-0872
Primary Topic
Reservoir Engineering and Simulation Methods
Type
article
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article

Renewable Management Strategies for Geothermal Energy Reservoirs

Osman Hamid, Eslam M. Abdalrahman
Reservoir Engineering and Simulation Methods
article

Renewable Management Strategies for Geothermal Energy Reservoirs

Osman Hamid, Eslam M. Abdalrahman
article en

Abstract

ABSTRACT: The primary goal of this research is to develop and implement a robust management protocol for geothermal reservoirs that enhances energy extraction efficiency, prolongs operational life, and minimizes environmental impact. The study employs a multifaceted approach starting with geoscientific exploration to pinpoint potential geothermal sites. Detailed feasibility studies follow, examining technical, economic, and environmental aspects to evaluate the viability of energy extraction. Drilling and well-testing are then carried out to acquire precise data on reservoir properties. This data feeds into advanced reservoir modeling using FEM (Finite Element Method), which simulates reservoir behavior to inform infrastructure development and operational strategies. The application of this comprehensive strategy yielded significant improvements in reservoir output and longevity. The findings underscore the efficacy of FEM simulations in optimizing resource management and in mitigating environmental risks. The innovative integration of geoscientific exploration, feasibility analysis, and FEM modeling represents a leap forward in geothermal reservoir management. The study's methodology sets a precedent for the application of sophisticated computational techniques in natural resource management. Effective management of geothermal reservoirs can be achieved through an iterative process of exploration, data acquisition, and simulation-based planning. This approach not only secures the sustainable harnessing of geothermal energy but also ensures that extraction processes are economically viable and environmentally responsible. The customizable nature of the management protocol allows it to be adapted to a variety of geothermal contexts, promising wider applicability across different geologic settings. Introduction Geothermal energy represents a highly sustainable and renewable source of energy, generated from the Earth's internal heat. It is widely recognized for its capability to provide reliable, baseload power while producing minimal greenhouse gas emissions. The effective management of geothermal reservoirs is critical for ensuring their long-term productivity, maximizing the energy output, and mitigating potential environmental impacts. Managing geothermal reservoirs involves several interconnected steps, beginning with exploration and site selection. Extensive geological, geochemical, and geophysical surveys are conducted to identify subsurface formations that exhibit high thermal potential. This initial phase is followed by detailed feasibility studies that assess both the economic and technical viability of the geothermal project. Environmental considerations are central to this analysis, as geothermal systems interact closely with local ecosystems and geological structures.

King Fahd University of Petroleum and Minerals (SA), Saudi Aramco (United States) (US)
Openalex Percentile: Top 65%
Reservoir Engineering and Simulation Methods
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