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GEOCHEMICAL EVALUATION OF KHUMNOH LIMESTONE, KASHMIR, INDIA: IMPLICATIONS FOR CEMENT INDUSTRY AND SUSTAINABLE RESOURCE UTILIZATION Gazala Yousuf Mir
International Journal of Economic, Business, Accounting, Agriculture Management and Sharia Administration (IJEBAS) Vol. 5 No. 1 (2025): February
Publisher : CV. Radja Publika

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.54443/ijebas.v5i1.2549

Abstract

The Khumnoh limestone deposits of Kashmir, situated within the tectonically active northwestern Himalayas, hold significant economic potential for the cement industry. However, a comprehensive geochemical and mineralogical evaluation is essential to ascertain their suitability for industrial applications. This study integrates major and trace element geochemistry, petrographic analysis, and industrial feasibility assessments to characterize the limestone’s composition, depositional history, and potential for clinker production. A total of eight representative limestone samples were systematically collected and subjected to X-ray fluorescence (XRF), X-ray diffraction (XRD), and petrographic investigations. The geochemical analysis reveals that the CaO content ranges from 50.12% to 54.89%, with low SiO₂, Al₂O₃, and Fe₂O₃ concentrations, indicating high chemical purity. The trace element profiling exhibits minimal Mn, Sr, and P₂O₅, further enhancing its desirability for cement manufacturing. Petrographic observations confirm the dominance of fine- to medium-grained calcite with minor dolomitization and siliceous impurities, suggesting a shallow marine depositional environment with diagenetic overprinting. The findings demonstrate that the Khumnoh limestone meets international cement-grade standards (ASTM C150, BIS 4032-2022), positioning it as a viable raw material for clinker production. However, localized variations in siliceous and argillaceous intercalations necessitate beneficiation strategies to optimize its industrial utility. The study also underscores the imperative of sustainable extraction practices, given the region’s geological sensitivity and ecological constraints.This research provides a scientific framework for resource evaluation, industrial application, and sustainable utilization of the Khumnoh limestone. The results hold critical implications for cement manufacturing, regional economic development, and strategic raw material management in the Himalayan domain.
ADVANCING CLIMATE RESILIENCE THROUGH SUSTAINABLE FOREST MANAGEMENT: INTEGRATING ECOSYSTEM RESPONSE MODELING, ADAPTATION–MITIGATION STRATEGIES, AND CARBON CONSERVATION FRAMEWORKS Gazala Yousuf Mir
International Journal of Social Science, Educational, Economics, Agriculture Research and Technology (IJSET) Vol. 5 No. 3 (2026): FEBRUARY
Publisher : RADJA PUBLIKA

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Abstract

Forest ecosystems are increasingly recognized as essential components in strengthening climate resilience and addressing the growing challenges posed by global climate change. Effective forest management not only supports ecological stability but also contributes significantly to climate change mitigation and adaptation efforts. With the rising intensity and frequency of extreme climatic events, traditional forest management approaches require transformation toward more adaptive, science-based, and forward-looking strategies. This study emphasizes the integration of adaptation and mitigation measures within the framework of Sustainable Forest Management (SFM) to enhance ecosystem stability and long-term resilience. Anticipating how forest species and ecological processes respond to variations in temperature, precipitation patterns, and climatic extremes is fundamental for informed decision-making. The use of advanced monitoring technologies, predictive modeling, and early-warning systems enables managers to detect ecological shifts, including species redistribution, altered growth dynamics, and increased vulnerability to disturbances. Adaptation strategies involve modifying silvicultural practices, adjusting harvesting regimes, promoting climate-tolerant species, and improving overall forest productivity and regeneration capacity. Simultaneously, mitigation measures focus on strengthening carbon sequestration through afforestation, reforestation, improved forest conservation, and sustainable utilization of forest resources. The combined implementation of adaptation and mitigation strategies enhances forests’ capacity to function as resilient ecosystems while contributing to the reduction of greenhouse gas emissions. Given the critical role forests play in regulating the global carbon cycle, integrating carbon management into routine forestry practices is essential for achieving international climate objectives. A comprehensive and balanced management approach that incorporates ecological sustainability, economic viability, and social well-being is therefore necessary to ensure that forests continue to deliver ecosystem services and maintain their resilience under future climate uncertainties.