Ensuring Accuracy: Critical Validation Techniques in Geochemical Analysis for Sustainable Geothermal Energy Development
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Published:2024-04-28
Issue:1
Volume:2
Page:19-29
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ISSN:2988-7038
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Container-title:Leuser Journal of Environmental Studies
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language:
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Short-container-title:Leuser J. Environ. Stud.
Author:
Idroes Ghazi Mauer,Suhendrayatna Suhendrayatna,Khairan Khairan,Suhartono Eko,Prasetio Rasi,Riza Medyan
Abstract
Geochemical analysis is a critical tool in geothermal exploration, providing valuable insights into reservoir characteristics. However, obtaining accurate and reliable geochemical data requires rigorous validation techniques. This review examines key factors affecting the accuracy of geochemical data and discusses best practices for ensuring quality. Proper sampling methods, including selection of representative locations, use of appropriate equipment, and adherence to robust protocols for sample collection, filtration, preservation, and storage, are essential for maintaining integrity. Analytical techniques must be carefully selected, with regular calibration and standardization of instruments using certified reference materials. Implementing comprehensive quality assurance and quality control procedures, such as analyzing blanks, duplicates, and spike samples, helps monitor precision and accuracy. Data interpretation should consider the complexities of the geological and hydrological settings, integrating multiple lines of evidence. By following established guidelines and continuously updating methods based on emerging technologies and inter-laboratory comparisons, geothermal teams can optimize the reliability of their geochemical data. Accurate and precise geochemical information, when combined with geological, geophysical, and hydrological data, enables informed decision-making and enhances the success of geothermal projects. As geothermal energy gains importance in the transition to sustainable resources, ensuring the accuracy of geochemical analysis will be crucial for effective exploration and development.
Publisher
PT. Heca Sentra Analitika
Reference103 articles.
1. Chen, S., Zhang, Q., Andrews-Speed, P., and Mclellan, B. (2020). Quantitative Assessment of the Environmental Risks of Geothermal Energy: A Review, Journal of Environmental Management, Vol. 276, 111287. doi:10.1016/j.jenvman.2020.111287. 2. Rahayudin, Y., Kashiwaya, K., Tada, Y., Iskandar, I., Koike, K., Atmaja, R. W., and Herdianita, N. R. (2020). On the Origin and Evolution of Geothermal Fluids in the Patuha Geothermal Field, Indonesia Based on Geochemical and Stable Isotope Data, Applied Geochemistry, Vol. 114, 104530. doi:10.1016/j.apgeochem.2020.104530. 3. Rabbani, A., Banks, J., Brinsky, J., and Palombi, D. (2022). Multivariate and Geochemical Analyses of Brines in Devonian Strata of the Western Canada Sedimentary Basin for Geothermal Energy Development, Geothermics, Vol. 105, 102498. doi:10.1016/j.geothermics.2022.102498. 4. Idroes, R., Yusuf, M., Saiful, S., Alatas, M., Subhan, S., Lala, A., Muslem, M., Suhendra, R., Idroes, G. M., Marwan, M., and Mahlia, T. M. I. (2019). Geochemistry Exploration and Geothermometry Application in the North Zone of Seulawah Agam, Aceh Besar District, Indonesia, Energies, Vol. 12, No. 23, 4442. doi:10.3390/en12234442. 5. Rashid, A., Khattak, S. A., Ali, L., Zaib, M., Jehan, S., Ayub, M., and Ullah, S. (2019). Sustainable Development of Enhanced Geothermal Systems Based on Geotechnical Research – a Review, Microchemical Journal, Vol. 145, 1058–1065. doi:10.1016/j.microc.2018.12.025.
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