Millets: Nutrient-rich and climate-resilient crops for sustainable agriculture and diverse culinary applications

被引:1
作者
Sharma, Avinash [1 ]
Ceasar, Stanislaus Antony [2 ]
Pandey, Himanshu [3 ]
Devadas, V. S. [4 ]
Kesavan, Ajith Kumar [1 ]
Heisnam, Punabati [5 ]
Vashishth, Amit [6 ]
Misra, Varucha [7 ]
Mall, Ashutosh Kumar [7 ]
机构
[1] Arunachal Univ Studies, Fac Agr Sci, Namsai 792103, Arunachal Prade, India
[2] Rajagiri Coll Social Sci, Dept Biosci, Div Plant Mol Biol & Biotechnol, Cochin 683104, Kerala, India
[3] ICAR Indian Inst Vegetable Res, Varanasi 221305, Uttar Pradesh, India
[4] Gandhi Inst Engn Technol, Sch Agr, Gunupur 765022, Orissa, India
[5] Cent Agr Univ, Coll Agr, Iroisemba 795004, Manipur, India
[6] COER Univ, Coll Smart Comp, Roorkee 247667, Uttarakhand, India
[7] ICAR Indian Inst Sugarcane Res, Div Crop Improvement, Lucknow 226002, Uttar Pradesh, India
关键词
Millets; Phenology; Stress responses Biofortification; Nutrients; Climate change; Carbon footprint; FINGER MILLET; ANTIOXIDANT ACTIVITY; NUTRITIONAL QUALITY; BOUND PHENOLICS; FOOD-PRODUCTS; DIGESTIBILITY; SORGHUM; GENES; L; EXPRESSION;
D O I
10.1016/j.jfca.2024.106984
中图分类号
O69 [应用化学];
学科分类号
081704 ;
摘要
Millets have been recognized for their health benefits, resilience in challenging environments, and versatility in cuisine, making them essential to global agriculture and foods. This review examines their phenology, stress responses, carbon footprint, biofortification, and diverse culinary applications. Millets adapt well to adverse climatic conditions, thriving in marginal lands with limited inputs. Their efficient root systems contribute to drought tolerance and efficient water use. Millets utilize complex biochemical and molecular mechanisms with antioxidant defense systems and regulating gene expression to enhance resilience to biotic and abiotic stresses. Transcription factors like WRKY, bZIP, and MYB regulate signaling networks, enhancing abiotic stress tolerance. Millets have a lower carbon footprint, with pearl millet and sorghum emitting 3218 kg CO2 eq/ha and 3358 kg CO2 eq/ha, respectively, versus 3700-9900 kg CO2 eq/ha for major cereals. Additionally, millets exhibit superior carbon sequestration, storing 499.6-4024.7 C mg/ha/year. Nutritionally, millets are powerhouses, rich in essential minerals and packed with dietary fiber and protein. Pearl millet contains 3-4 mg/100 g zinc and 4-8 mg/100 g iron, while finger millet contains 344 mg/100 g calcium. Biofortification efforts have shown promise in enhancing millet nutritional profiles through germplasm characterization, genomic approaches, conventional breeding, genetic engineering, and agronomic interventions. In culinary applications, millets are incorporated into a variety of value-added products. Future millet research should focus on leveraging genomic and breeding advancements like CRISPR-Cas tools to develop high-yielding, stress-tolerant varieties with improved traits. Biofortification efforts should aim to enhance nutritional profiles, reduce antinutritional factors, and explore the potential of underutilized millet species. Developing efficient processing technologies, particularly for small-scale operations, will be crucial for wider adoption and utilization of millets in various food applications. The integration of millets into sustainable food systems and climate-smart agriculture is crucial for enhancing food security and environmental sustainability.
引用
收藏
页数:16
相关论文
共 205 条
[31]   Identifying the main crops and key factors determining the carbon footprint of crop production in China, 2001-2018 [J].
Chen, Xiaohui ;
Ma, Changcheng ;
Zhou, Huimei ;
Liu, You ;
Huang, Xiaoman ;
Wang, Mingkuang ;
Cai, Yuanyang ;
Su, Da ;
Muneer, Muhammad Atif ;
Guo, Mengchu ;
Chen, Xuanji ;
Zhou, Yuan ;
Hou, Yong ;
Cong, Wenfeng ;
Guo, Jiuxin ;
Ma, Wenqi ;
Zhang, Weifeng ;
Cui, Zhenling ;
Wu, Liangquan ;
Zhou, Shungui ;
Zhang, Fusuo .
RESOURCES CONSERVATION AND RECYCLING, 2021, 172
[32]   Isolation and expression analysis of EcbZIP17 from different finger millet genotypes shows conserved nature of the gene [J].
Chopperla, Ramakrishna ;
Singh, Sonam ;
Mohanty, Sasmita ;
Reddy, Nanja ;
Padaria, Jasdeep C. ;
Solanke, Amolkumar U. .
3 BIOTECH, 2017, 7
[33]   Drought-Induced Oxidative Stress in Pearl Millet (Cenchrus americanus L.) at Seedling Stage: Survival Mechanisms through Alteration of Morphophysiological and Antioxidants Activity [J].
Choudhury, Shuvasish ;
Moulick, Debojyoti ;
Ghosh, Dibakar ;
Soliman, Mohamed ;
Alkhedaide, Adel ;
Gaber, Ahmed ;
Hossain, Akbar .
LIFE-BASEL, 2022, 12 (08)
[34]   Harnessing the plant microbiome for sustainable crop production [J].
Compant, Stephane ;
Cassan, Fabricio ;
Kostic, Tanja ;
Johnson, Linda ;
Brader, Guenter ;
Trognitz, Friederike ;
Sessitsch, Angela .
NATURE REVIEWS MICROBIOLOGY, 2025, 23 (01) :9-23
[35]  
Das IK, 2016, BIOTIC STRESS RESISTANCE IN MILLETS, P3, DOI 10.1016/B978-0-12-804549-7.00001-9
[36]  
Das I.K., 2013, Sorghum cultivation for value-added diversified products and sweet sorghum perspectives, P99
[37]   Potential processing technologies for utilization of millets: An updated comprehensive review [J].
Dekka, Srenuja ;
Paul, Anjaly ;
Vidyalakshmi, R. ;
Mahendran, R. .
JOURNAL OF FOOD PROCESS ENGINEERING, 2023, 46 (10)
[38]  
Department of Food Science & Nutrition Faculty of Home Science Banasthali University Tonk Rajasthan-304022 India, 2016, Journal of Scientific and Innovative Research, V5, P46, DOI [10.31254/jsir.2016.5204, 10.31254/jsir.2016.5204, DOI 10.31254/JSIR.2016.5204]
[39]  
Deshpande S., 2015, Journal of Grain Processing and Storage, V2, P16
[40]   Understanding the Antinutritional Factors and Bioactive Compounds of Kodo Millet (Paspalum scrobiculatum) and Little Millet (Panicum sumatrense) [J].
Dey, Swarnima ;
Saxena, Alok ;
Kumar, Yogesh ;
Maity, Tanushree ;
Tarafdar, Ayon .
JOURNAL OF FOOD QUALITY, 2022, 2022