Black pea (Pisum sativum ssp. arvense), locally known as kala matar, is an underutilised indigenous legume traditionally cultivated in the cold desert regions of the Indian Himalayas, particularly the Spiti Valley. Despite its high nutritional value and exceptional climate resilience, this hardy pulse has gradually declined due to the replacement of subsistence crops with commercial green peas. The present article highlights the ecological, nutritional, cultural, and economic significance of black peas, emphasizing their adaptation to low temperatures, limited rainfall, and poor soils, along with their role in biological nitrogen fixation and sustainable farming systems.

Agricultural sustainability in the twenty-first century requires more than yield maximization; it demands ecological restoration, nutrient balance, and climate resilience. Declining soil organic carbon and widespread micronutrient deficiencies have weakened the functional capacity of agricultural soils worldwide. At the same time, agriculture remains a significant contributor to greenhouse gas emissions. Micronutrients regulate essential biochemical pathways in plants, while carbon-smart agriculture restores soil organic carbon and enhances resilience against climatic stress. When integrated, these two dimensions create a regenerative framework capable of improving productivity, nutritional quality, and environmental stability simultaneously. It presents a systems-based exploration of the relationship between micronutrient stewardship and carbon-smart agricultural practices, arguing that soil carbon restoration is fundamental to restoring nutrient efficiency and longterm soil health.

With the escalating environmental problems and pressures that humankind has been inflicting, genomics is imperative for solving conservation problems for which attention is needed urgently. Conservation genomics increases the precision and success of conservation programs by coming up with cutting-edge ways to monitor endangered species, assess genetic variability, and understand evolutionary processes. Transcriptomics, whole-genome sequencing, and DNA barcoding can all provide comprehensive insights into species adaptation, population structure, and resilience to environmental changes. Such genomic techniques help to identify imperilled populations and restore genetic diversity while framing appropriate policy for ecosystem management. The text shows how genetics can inform conservation programs on the ground and policy decisions by giving real-life examples that worked. Genomic knowledge must be integrated into conservation activities so that species are preserved, ecosystem services are provided, and ecological sustainability is secured in perpetuity.