Technological Challenges and Solutions in Hydrothermal Vent Energy Development for Indonesia's Energy Resilience

Fakhriyan Ardyanto; Suyono Thamrin; Rudy Laksmono Widayatno

doi:10.63922/ijeter.v3i04.2576

Fakhriyan Ardyanto Department of Energy Resilience, Faculty of Defense Management, The Republic of Indonesia Defense University, Indonesia
Suyono Thamrin Department of Energy Resilience, Faculty of Defense Management, The Republic of Indonesia Defense University, Indonesia https://orcid.org/0000-0002-8881-7677
Rudy Laksmono Widayatno Department of Energy Resilience, Faculty of Defense Management, The Republic of Indonesia Defense University, Indonesia https://orcid.org/0009-0005-8735-5174

DOI: https://doi.org/10.63922/ijeter.v3i04.2576

Keywords: Technological challenges, Hydrothermal vents, Energy resilience, Energy technology, Renewable energy

Abstract

Indonesia's exceptional geothermal position along the Pacific Ring of Fire presents the nation with an opportunity to develop hydrothermal vent energy as a significant renewable resource, with a potential estimated at 29,000 megawatts. However, despite this promise for energy resilience, formidable technological barriers have prevented the practical implementation of deep-sea thermal systems. This study investigates the primary technological challenges through systematic literature analysis and descriptive research, examining six critical domains: material durability and corrosion resistance, subsea engineering design and equipment reliability, thermal energy extraction and efficiency, infrastructure deployment and maintenance, ecosystem protection, and regulatory frameworks. By synthesizing findings from academic research, government reports, and industry expertise, the research reveals both substantial obstacles and emerging solutions. At the same time, challenges are significant, encompassing material degradation, system reliability, thermodynamic efficiency, and deep-sea deployment. Practical pathways forward exist through the use of advanced materials, innovative engineering, rigorous testing, and adaptive environmental management. The study proposes a phased implementation strategy that progresses from research and pilot demonstrations through technology refinement to commercial deployment. This work offers essential guidance for policymakers, engineers, and energy security specialists seeking to harness Indonesia's hydrothermal potential while maintaining environmental sustainability, operational reliability, and advancing national energy resilience.

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