Oh Soojin, Cave Gareth, Lu Chungui
School of Animal, Rural and Environmental Sciences, Nottingham Trent University, Nottingham, United Kingdom.
School of Science and Technology, Nottingham Trent University, Nottingham, United Kingdom.
Front Plant Sci. 2021 Aug 23;12:668819. doi: 10.3389/fpls.2021.668819. eCollection 2021.
It is necessary to develop a resilient food supply that will withstand unexpected future shocks and deliver the required amounts of nutrients to consumers. By increasing the sustainability of food and agriculture, the food system will be able to handle challenges such as climate change, declining agricultural resources, growing population/urbanization, pandemics, and recessions/shortages. Micronutrient deficiency, otherwise called hidden hunger, is one of the major malnutrition consequences worldwide, particularly in middle- or low- income countries. Unlike essential mineral or nutrient compounds, micronutrients could be less of a priority due to their small levels of requirement. However, insufficient micronutrients caused critical adverse health symptoms and are excessively vital for young children's development. Therefore, there have been numerous attempts to enhance minerals and nutrients in food crops, including biofortification, food fortification, and supplementation. Based on several interventions involving micronutrients, modern technology, such as nanotechnology, can be applied to enhance sustainability and to reduce the food system's environmental impact. Previous studies have addressed various strategies or interventions to mitigate major micronutrient deficiency including iron, iodine, zinc, and vitamin A. Comparably small amounts of studies have addressed vitamin B deficiency and its fortification in food crops. Vitamin B deficiency causes serious adverse health effects, including in the nervous or blood systems, and occurs along with other micronutrient deficiencies, such as folate, iron, and zinc, worldwide, particularly in middle- and low-income countries. Mitigation for B deficiency has mainly focused on developing pharmacological and medical treatments such as vitamin B serum or supplements. Further studies are required to undertake a sustainable approach to fortify vitamin B in plant-based food sources for public health worldwide. This review paper highlights nanoparticle application as a promising technology for enhancing vitamin B without conventional genetic modification requirements. The nanoparticle can efficiently deliver the mineral/nutrient using coating techniques to targeted sites into the plant. This is mainly because nanoparticles have better solubility and permeability due to their nano size with high surface exposure. Vitamin B-coated nanoparticles would be absorbed, translocated, and accumulated by the plant and eventually enhance the bioavailability in food crops. Furthermore, by reducing adverse environmental effects, such as leaching issues that mainly occur with conventional fertilizer usage, it would be possible to develop more sustainable food fortification.
有必要建立一个有韧性的粮食供应体系,以抵御未来意想不到的冲击,并为消费者提供所需数量的营养物质。通过提高粮食和农业的可持续性,粮食系统将能够应对气候变化、农业资源减少、人口增长/城市化、大流行病以及经济衰退/短缺等挑战。微量营养素缺乏,又称隐性饥饿,是全球范围内主要的营养不良后果之一,尤其是在中低收入国家。与必需的矿物质或营养化合物不同,微量营养素由于需求量小,可能不太受重视。然而,微量营养素不足会导致严重的不良健康症状,对幼儿的发育至关重要。因此,人们进行了许多尝试来提高粮食作物中的矿物质和营养素,包括生物强化、食品强化和补充。基于几项涉及微量营养素的干预措施,现代技术,如纳米技术,可以应用于提高可持续性并减少粮食系统对环境的影响。以前的研究探讨了各种减轻主要微量营养素缺乏的策略或干预措施,包括铁、碘、锌和维生素A。相比之下,针对维生素B缺乏及其在粮食作物中的强化的研究较少。维生素B缺乏会导致严重的不良健康影响,包括对神经系统或血液系统的影响,并且在全球范围内,尤其是在中低收入国家,与其他微量营养素缺乏(如叶酸、铁和锌)同时发生。减轻维生素B缺乏主要集中在开发药理学和医学治疗方法,如维生素B血清或补充剂。需要进一步研究采取可持续的方法,在全球范围内为公共卫生强化植物性食物来源中的维生素B。这篇综述文章强调了纳米颗粒应用作为一种有前景的技术,可在无需传统基因改造的情况下强化维生素B。纳米颗粒可以利用包衣技术将矿物质/营养素有效地输送到植物的目标部位。这主要是因为纳米颗粒由于其纳米尺寸和高表面暴露而具有更好的溶解性和渗透性。包被维生素B的纳米颗粒将被植物吸收、转运和积累,最终提高粮食作物中的生物利用度。此外,通过减少主要与传统肥料使用相关的淋溶问题等不利环境影响,有可能开发出更具可持续性的食品强化方法。