Green Geochemical Education in Libya: Current Status, Applications, Challenges, and Future Perspectives

المؤلفون

  • Osama Rahil Shaltami Department of Earth Sciences, Faculty of Science, Benghazi University, Libya Author
  • Mustafa A. Ben Hkoma Libyan Centre for Sustainable Development Researches Author
  • Tareq Alnnale Higher Institute of Science and Technology, Ragdalin – Libya Author

DOI:

https://doi.org/10.65405/j03c5d39

الكلمات المفتاحية:

Green Geochemical Education; Green Geochemistry; Sustainable Development; Libya.

الملخص

The integration of geochemistry education with green technology, sustainable resource management techniques, and environmental sustainability concepts is known as green geochemical education. Due to issues with groundwater quality, petroleum operations, environmental pollution, climate change, and sustainable resource use, Libya has a greater need for environmentally conscious education. Current studies conducted in Libya indicate that there is an association between sustainability and geoscience education and development, albeit to a small extent. Education in sustainability through geochemistry present possibilities for incorporating green principles within geochemical education, laboratories, and research. Inclusion of green learning practices within the realm of geochemistry can foster awareness among learners, instill sustainable practices in the lab, and help develop future geochemists who will be able to face environmental issues. The principles, uses, prospects, difficulties, and potential future paths of green geochemical education in Libya are all examined in this paper.

التنزيلات

تنزيل البيانات ليس متاحًا بعد.

المراجع

Acosta, J.A., Faz, A., Martínez-Martínez, S., Zornoza, R., Carmona, D.M. and Kabas, S. (2011): Multivariate statistical and GIS-based approach to evaluate heavy metals behavior in mine sites for future reclamation. Journal of Geochemical Exploration; 109(1-3): 8-17.

Armenta, S., Garrigues, S., Esteve-Turrillas, F.A. and de la Guardia, M. (2019): Green extraction techniques in green analytical chemistry. TrAC Trends in Analytical Chemistry; 116: 248-253.

Ben Hkoma, M., Al-Lasqa, F., Farhat, A., Al-Muntasir, S. and Marah, D. (2026): Developmental education and sustainable learning: A developmental vision for basic education curricula in Libya. Al-imad Journal of Humanities and Applied Sciences (AJHAS); 2(1): 197-220.

Dornan, T., O'Sullivan, G., O'Riain, N., Stueeken, E. and Goodhue, R. (2020): The application of machine learning methods to aggregate geochemistry predicts quarry source location: An example from Ireland. Computers and Geosciences; 140: 104495.

Eklund, E. (2015): Mining in Australia: An historical survey of industry–community relationships. The Extractive Industries and Society; 2(1): 177-188.

Fang, Y., Li, Y. and Fan, L. (2025): Enhanced education on geology by 3D interactive virtual geological scenes. Computers and Education: X Reality; 6: 100094.

Fedeski, M. and Gwilliam, J. (2007): Urban sustainability in the presence of flood and geological hazards: The development of a GIS-based vulnerability and risk assessment methodology. Landscape and Urban Planning; 83(1): 50-61.

Ferraro, F.X., Schilling, M.E., Baeza, S., Oms, O. and Sá, A.A. (2020): Bottom-up strategy for the use of geological heritage by local communities: Approach in the “Litoral del Biobío” Mining Geopark project (Chile). Proceedings of the Geologists' Association; 131(5): 500-510.

Gasbarro, F., Rizzi, F. and Frey, M. (2017): Sustainable institutional entrepreneurship in practice. International Journal of Entrepreneurial Behavior and Research; 24(2): 476-498.

Hao, H., Jiu, B., Huang, W., Wang, Z., Qin, B. and Huang, L. (2025): Constraining rutile provenance in Nb-rich coal-bearing strata: An approach integrating trace element geochemistry and machine learning. International Journal of Coal Geology; 311: 104898.

Jonbekova, D., Kuchumova, G., Kim, T., Mukhamejanova, D., Gimranova, D., Abdildin, Y. and Alimkhanova, D. (2025): Motivations, benefits, and challenges of university-industry partnerships in Kazakhstan. International Journal of Educational Research; 130: 102486.

Kaya, S.I., Cetinkaya, A. and Ozkan, S.A. (2022): Green analytical chemistry approaches on environmental analysis. Trends in Environmental Analytical Chemistry; 33: e00157.

Koretsky, C.M., Petcovic, H.L. and Rowbotham, K.L. (2012): Teaching environmental geochemistry: An authentic inquiry approach. Journal of Geoscience Education; 60: 311-324.

Momo, M.N., Yemefack, M., Tematio, P., Beauvais, A. and Ambrosi, J. (2016): Distribution of duricrusted bauxites and laterites on the Bamiléké plateau (West Cameroon): Constraints from GIS mapping and geochemistry. CATENA; 140: 15-23.

Moniz, T. and Sarraguça, M. (2026): Green solvents in analytical chemistry: From sustainable innovation to education for a greener future. Green Analytical Chemistry; 17: 100340.

Needle, M.D., Mooc, J., Akers, J.F. and Crider, J.G. (2022): The Structural Geology Query Toolkit for digital 3D models: Design custom immersive virtual field experiences. Journal of Structural Geology; 163: 104710.

Panda, D. and Haque, S. (2026): Sustainable value creation using open data: Best practices from the manufacturing sector. Cleaner Production Letters; 10: 100144.

Paswan, P.K. and Mehta, D. (2025): Promoting green practices within and beyond school for a sustainable future. AKSHARWARTA; XXI(IV): 180-184.

Ravachol, D.O. (2018): Fieldwork and geological acculturation: Between necessity and false evidences. International Journal of Geoheritage and Parks; 6(2): 25-39.

Scheihing, K.W., Fraser, C.M., Vargas, C.R., Kukurić, N. and Lictevout, E. (2022): A review of current capacity development practice for fostering groundwater sustainability. Groundwater for Sustainable Development; 19: 100823.

Shaltami, O.R. (2022): Green geochemistry: Principles and applications. 1st edition, Amazon Kindle Direct Publishing (KDP); 154p.

Shaltami, O.R., Algomati, A.E., Muhammed, F.K. and Almahdi, K.A. (2025a): Geochemical and industrial characteristics of phosphate-bearing rocks in seven Libyan areas. NOON Scientific Journal (NOONSJ); 1(1): 103-110.

Shaltami, O.R., Al Matoni, H. and Salem, R. (2025b): Hydrogeochemical characteristics of groundwater in the southwestern part of the Murzuq Basin, SW Libya. Libyan Journal of Engineering Science and Technology (LJEST); 5(3): 264-284.

Shaltami, O.R., Ben Hkoma, M., Dulayoum, M.M., Algomati, A.E., Muhammed, F.K. and Almahdi, K.A. (2025c): Achieving sustainable development in Libya through karst geochemistry. Derna Academy Journal for Applied Sciences (DAJAS); 5(2): 105-112.

Shaltami, O.R., Al Matoni, H., Salem, R. and Ben Hkoma, M. (2025d): Blue geochemistry: Sustainable development in Libya based on blue carbon. Derna Academy Journal for Applied Sciences (DAJAS); 4(2): 17-24.

Shaltami, O.R., Ben Hkoma, M., Muhammed, F.K., Almahdi, K.A. and Algomati, A.E. (2026): Employing soil geochemistry to promote sustainable development: A case study of the Wadi Al Khali and Wadi Al Hamim areas, NE Libya. The Journal of Comprehensive Sciences; 10(40): 101-122.

Skeppström, K. and Olofsson, B. (2005): Radon in groundwater: analysis of causes using GIS and multivariate statistics: A case study in the Stockholm county. International Congress Series; 1276: 206-207.

Tobiszewski, M. and Namieśnik, J. (2012): Direct chromatographic methods in the context of green analytical chemistry. TrAC Trends in Analytical Chemistry; 35: 67-73.

van Loon, A.J. (2008): Geological education of the future. Earth-Science Reviews; 86(1-4): 247-254.

Wagner, J. (2011): Incentivizing sustainable waste management. Ecological Economics; 70(4): 585-594.

Wiseman, A., Goldfarb, P.S. and Woods, L.F.J. (2005): Can greener technology sustain downstream processing in novel food bioprocessing by elimination of reactive oxygen species? Food and Bioproducts Processing; 83(1): 68-69.

التنزيلات

منشور

2026-06-16

كيفية الاقتباس

Green Geochemical Education in Libya: Current Status, Applications, Challenges, and Future Perspectives. (2026). مجلة الفاروق للعلوم, 2(4), 347-356. https://doi.org/10.65405/j03c5d39

الأعمال الأكثر قراءة لنفس المؤلف/المؤلفين