Based on the availability of many nutrients, Moringa oleifera tree leaves have been widely employed as nutrients and nutraceuticals in recent years. The leaves contain a small amount of anti-nutritional factors and are abundant in innumerable bioactive compounds. Recently, in several in vivo and in vitro investigations, moringa leaves’ bioactive components and functionality are highlighted. Moringa leaves provide several health advantages, including anti-diabetic, antibacterial, anti-cancer, and anti-inflammatory properties. The high content of phytochemicals, carotenoids, and glucosinolates is responsible for the majority of these activities as reported in the literature. Furthermore, there is growing interest in using moringa as a value-added ingredient in the development of functional foods. Despite substantial study into identifying and measuring these beneficial components from moringa leaves, bioaccessibility and bioavailability studies are lacking. This review emphasizes recent scientific evidence on the dietary and bioactive profiles of moringa leaves, bioavailability, health benefits, and applications in various food products. This study highlights new scientific data on the moringa leaves containing nutrient and bioactive profiles, bioavailability, health benefits, and uses in various food items. Moringa has been extensively used as a health-promoting food additive because of its potent protection against various diseases and the widespread presence of environmental toxins. More research is needed for utilization as well as to study medicinal effects and bioaccesibility of these leaves for development of various drugs and functional foods.

Industrial decarbonization is crucial for mitigating climate change, with carbon capture, utilization, and storage (CCUS) technologies playing a key role in reducing emissions from hard‐to‐abate sectors such as steelmaking, cement production, and chemical manufacturing. This review adopts a sociotechnical perspective to examine the challenges, emerging solutions, and future CCUS development and implementation prospects. Recent advancements in CCUS encompass postcombustion, precombustion, oxy‐fuel combustion, and direct air capture (DAC), facilitating enhanced carbon capture efficiency. Utilization pathways diversify, converting CO ₂ into synthetic fuels, chemicals, and materials. Storage techniques range from geological sequestration to innovative approaches like mineralization and ocean‐based storage. However, significant barriers persist. Technically, the high energy demand and scalability limitations of CCUS systems present challenges, while economic hurdles such as high costs and insufficient market incentives hinder widespread adoption. Social factors, including public perception and environmental justice concerns, further complicate deployment. Regulatory frameworks remain underdeveloped, with gaps in governance obstructing progress. Emerging solutions are targeting these barriers, with innovations in materials science improving storage efficiency and capture performance. Artificial intelligence and machine learning are enhancing system optimization and monitoring. Hybrid approaches integrating CCUS with renewable energy and collaborative public–private models show promise. Future research should focus on integrating CCUS technologies with societal needs and policy frameworks, prioritizing economic incentives, regulatory development, and addressing gaps in storage safety and lifecycle assessments. CCUS, within a circular carbon economy, presents substantial potential for sustainable industrial practices.