Antu Uttam Biswas, Roy Tusar Kanti, Roshid Md Mustaqim, Mitu Puja Rani, Barman Manoj Kumar, Tazry Jannatun, Trisha Zannatul Ferdause, Bairagi Goutam, Hossain Sk Arafat, Uddin Md Rafiq, Islam Md Saiful, Mahiddin Nor Aida, Al Bakky Abdullah, Ismail Zulhilmi, Idris Abubakr M
Department of Soil Science, Patuakhali Science and Technology University, Dumki-8602, Patuakhali, Bangladesh.
Department of Agricultural Chemistry, Khulna Agricultural University, Khulna 9100, Bangladesh.
Int J Biol Macromol. 2025 Apr;303:140570. doi: 10.1016/j.ijbiomac.2025.140570. Epub 2025 Feb 2.
Nanocellulose, a promising green material derived from various bio-sources, has potentiality on and off-site in the agricultural sector. Due to its special qualities, which include high strength, hydrophilicity, and biocompatibility, it is a material that may be used in a variety of industries, especially agriculture. This review explores in this article production processes, post-processing procedures, and uses of nanocellulose in soil fertility increment and sustainable agriculture. A variety of plant materials, agricultural waste, and even microbes can be used to isolate nanocellulose. Nanocellulose is produced using both top-down and bottom-up methods, each of which has benefits and limitations of its own. It can be applied as nano-biofertilizer in agriculture to enhance beneficial microbial activity, increase nutrient availability, and improve soil health. Moreover, nanocellulose can be used in fertilizer and pesticide formulations with controlled releases to increase efficacy and lessen environmental effects. Innovative approaches to sustainable agriculture are provided by nanocellulose technologies, which also support the UN's Sustainable Development Goals (SDGs), especially those pertaining to eradicating hunger and encouraging responsible consumption. Nanocellulose promotes climate action and ecosystem preservation by increasing resource efficiency and decreasing dependency on hazardous chemicals, ultimately leading to the development of a circular bioeconomy. Nonetheless, there are still issues with the high cost of production and the energy-intensive isolation procedures. Despite its various potentialities, challenges such as high production costs, environmental concerns, and regulatory issues must be addressed for nanocellulose to be widely adopted and effectively integrated into farming practices.
纳米纤维素是一种源自多种生物源的、很有前景的绿色材料,在农业领域具有场内和场外应用潜力。因其具有高强度、亲水性和生物相容性等特殊性质,它是一种可用于多种行业,尤其是农业的材料。本文综述探讨了纳米纤维素在提高土壤肥力和可持续农业中的生产工艺、后处理程序及用途。多种植物材料、农业废弃物甚至微生物都可用于分离纳米纤维素。纳米纤维素的生产采用自上而下和自下而上两种方法,每种方法都有其自身的优点和局限性。它可作为纳米生物肥料应用于农业,以增强有益微生物活性、提高养分有效性并改善土壤健康。此外,纳米纤维素可用于控释肥料和农药配方,以提高功效并减轻环境影响。纳米纤维素技术为可持续农业提供了创新方法,也支持联合国的可持续发展目标(SDGs),特别是那些与消除饥饿和鼓励负责任消费相关的目标。纳米纤维素通过提高资源效率和减少对有害化学品的依赖来促进气候行动和生态系统保护,最终推动循环生物经济的发展。尽管如此,生产成本高和能源密集型分离程序仍然存在问题。尽管纳米纤维素有各种潜力,但要使其被广泛采用并有效融入农业实践,必须解决生产成本高、环境问题和监管问题等挑战。