Asiamah Joshua Yeboah, Mahdi Sakina Haruna, Tamang Kusum R, Carson Christian Bryan, Koirala Prabesh, Reed Emily Anne, Asare Aaron Tettey, Augustine Anu, Ratnaparkhe Milind B, Bansal Kailash C, Valliyodan Babu
Department of Agriculture and Environmental Sciences, Lincoln University, Jefferson City, MO, United States.
Department of Molecular Biology and Biotechnology, University of Cape Coast, Cape Coast, Ghana.
Front Genome Ed. 2025 May 20;7:1572292. doi: 10.3389/fgeed.2025.1572292. eCollection 2025.
Throughout history, leguminous crops have contributed significantly to the human diet. Grain legumes have long been identified as a valuable nutritional source for humans. However, their significance extends beyond nutrition to global food security, reducing reliance on chemical fertilizers, improving soil health and increasing resilience to climate change. Recognizing their vital importance in nutrition and agricultural production, scientists have worked persistently to uncover new genetic traits in legumes, resulting in enhanced yields, improved nutritional value and increased stress tolerance. Recently, the availability of genomic resources for new traits in grain legume plants has greatly increased, laying the groundwork for the adoption of advanced breeding technologies. Gene editing has shown significant potential to improve crop outcomes. This review critically examines the latest developments in gene-editing techniques specific to major grain legumes, focusing on their application in enhancing legume crops with significant agronomic characteristics. The article also shows the potential advantages associated with these advancements. Over the years, advancements in technologies such as Transcription Activator-Like Effector Nucleases (TALENs), Zinc Finger Nucleases (ZFNs), Clustered Regularly Interspaced Short Palindromic Repeats (CRISPR/Cas9), and the more recent Prime Editing technique have significantly contributed to genetic enhancements. These innovations have improved nutritional and market traits, boosted farming incomes, and increased the accessibility of affordable nutritious food, particularly in developing nations. Studies show that CRISPR/Cas9 is the most extensively applied gene editing technology in grain legumes. The advent of this technology has transformed genetic modification by offering exceptional precision and efficiency. This progress has enabled the creation of grain legumes that are more resistant to climate change and enhanced with improved nutritional content. Our research highlights that soybeans have been the primary focus of CRISPR/Cas9 gene editing efforts, surpassing any other grain legume, unlocking significant potential for innovation and improvement. This article presents a scientometric analysis of bibliographic data from the Web of Science using VOSviewer. It highlights global research trends, emphasizing China's leading role in international collaborations, the prominence of soybean () in CRISPR/Cas9 studies, and the key researchers driving advancements in gene editing for food security.
纵观历史,豆科作物对人类饮食做出了重大贡献。谷物豆类长期以来一直被视为人类宝贵的营养来源。然而,它们的重要性不仅体现在营养方面,还关乎全球粮食安全,减少对化肥的依赖,改善土壤健康状况并增强对气候变化的适应能力。认识到它们在营养和农业生产中的至关重要性,科学家们一直在不懈努力,以发现豆类的新遗传特性,从而提高产量、改善营养价值并增强抗逆性。最近,谷物豆类植物新特性的基因组资源可用性大幅增加,为采用先进育种技术奠定了基础。基因编辑在改善作物成果方面显示出巨大潜力。本综述批判性地审视了主要谷物豆类特有的基因编辑技术的最新进展,重点关注其在增强具有重要农艺性状的豆类作物方面的应用。文章还展示了这些进展带来的潜在优势。多年来,诸如转录激活样效应核酸酶(TALENs)、锌指核酸酶(ZFNs)、成簇规律间隔短回文重复序列(CRISPR/Cas9)以及最新的碱基编辑技术等技术的进步,为基因改良做出了重大贡献。这些创新改善了营养和市场特性,增加了农民收入,并提高了人们获取价格合理的营养食品的机会,特别是在发展中国家。研究表明,CRISPR/Cas9是谷物豆类中应用最广泛的基因编辑技术。这项技术的出现通过提供卓越的精准度和效率改变了基因改造。这一进展使得能够培育出更能抵御气候变化且营养成分得到改善的谷物豆类。我们的研究突出表明,大豆一直是CRISPR/Cas9基因编辑工作的主要重点,超过了任何其他谷物豆类,释放了巨大的创新和改进潜力。本文使用VOSviewer对来自科学网的文献数据进行了科学计量分析。它突出了全球研究趋势,强调了中国在国际合作中的主导作用、大豆在CRISPR/Cas9研究中的突出地位,以及推动粮食安全基因编辑进展的关键研究人员。