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Exploration of medicinal plants for bioactive-producing endophytic fungi is a relatively unmapped source of pharmaceuti¬cally important compounds. In this study, the endophytic fungus Curvularia lunata AREF029 isolated from the medicinal plant Cymbopogon citratus (known as lemongrass) was assessed for its biological activity. The methanolic extract of AREF029 had minimum inhibition concentration (MIC) ranging from 38 to 174 μg/ml against phytopathogenic fungi Alteranria solani, Fusarium oxysporum and Rhizoctonia solani.
The demand for natural colorants in the food, textile, cosmetic, pharmaceutical, and other industries has increased due to the adoption of environmentally friendly alternatives to non-sustainable resources. Microorganisms are preferred over other biological resources because of their high stability, water solubility, year-round availability, and cost-effectiveness. Fungi are prolific producers of a myriad of pigments with therapeutic benefits.
In recent years, there has been a significant increase in artificial intelligence (AI) approaches for Sustainable Development Goals (SDGs), particularly SDG 13: Climate Action. Several AI technologies, such as machine learning, deep learning neural networks, and big data analytics present new tactics to tackle the complex problems of climate change.
India faces environmental issues due to large-scale seasonal in situ burning of crop residues, leading to air pollution and nutrient loss. Biochar application can increase soil carbon content, moisture, and nutrient content while reducing air pollution. India produces 156 Mt. of annual in situ surplus crop residues from ten major crops, with the highest potential for rice residue biomass in Sangrur, Punjab. Biochar could reduce greenhouse gas emissions by 405 Tg annually and its application to soil could sequester 7.5 Tg of carbon.
This study assesses the impact of regional climate variability on forest vulnerability in Assam using a GIS and Machine Learning (ML)-based approach. A grid-based Forest Vulnerability Index (FVI) was developed using eight key indicators, and climate change hotspots were mapped using temperature and precipitation anomalies. The results revealed that 87 forested grids are highly vulnerable, with significant overlaps between climate hotspots and biodiversity risk zones.
This study evaluates spatio-temporal variations in forest biomass in the Pench Tiger Reserve, Maharashtra, India, using a combination of remote sensing, field-based observations, and machine learning approaches. Fractional Vegetation Cover (FVC) layers were generated using the Linear Spectral Unmixing (LSU) Algorithm applied to multi-temporal LANDSAT data (2001-2022). A Linear Regression Model (LRM) was developed to estimate forest biomass across three forest strata: Very Dense Forest (VDF), Moderate Dense Forest (MDF), and Open Forest (OF), based on field sampling plots.
This technical note outlines a systematic approach to baseline quantification for ARR (Afforestation, Reforestation, and Revegetation) carbon finance projects using advanced remote sensing (RS) and GIS methodologies. This approach particularly addresses India's fragmented landscapes, aiming to integrate small and marginal farmers into carbon finance markets, thus enhancing agroforestry potential and providing additional income generation.
Agroforestry, a sustainable land management practice integrating trees with crops and livestock, holds immense potential for climate change mitigation and enhancing rural livelihoods in India. This article explores the synergy between advanced Remote Sensing (RS) technologies, such as vegetation indices like NDVI, and participatory approaches involving Farmer Producer Organizations (FPOs), cooperatives, and other farmer collectives.
This study explores the use of remote sensing and machine learning approaches to monitor forest biomass changes in the Pench Tiger Reserve, Maharashtra, India. It integrates Earth observation data and advanced computational models to assess biomass dynamics, providing critical insights into forest management and conservation efforts. The research underscores the potential of geospatial technologies in supporting sustainable practices, biodiversity conservation, and carbon sequestration initiatives, aligning with India's commitments to environmental sustainability.
In the present study, rice straw-derived cellulose was converted into carboxymethylcellulose (CMC) using alkalization followed by an etherification reaction. The synthesis conditions for this chemical modification were optimized such that CMC with a high degree of substitution (1.02) was obtained. Infrared spectra of the synthesized CMC clearly showed an increased intensity of the C═O bond at 1600cm−1, confirming successful carboxymethylation.