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Golden Rice, VAD, Covid and Public Health: Saving Lives and Money 黄金大米、VAD、Covid和公共卫生:拯救生命和金钱
Pub Date : 2021-12-23 DOI: 10.5772/intechopen.101535
Adrian C. Dubock, J. Wesseler, Robert M. Russell, Chen Chen, D. Zilberman
On July 21, 2021, Golden Rice was registered in the Philippines allowing cultivation and consumption. Research, as an intervention to combat vitamin A deficiency (VAD), started in 1991, and proof of concept for what was to become Golden Rice, was achieved in 1999. In the 1990s, 23–34% deaths globally of children less than 5 years old were caused by VAD, and in developing countries, the percentage was even higher. By 2013, progress against the Millennium Development Goals had reduced <5-y child deaths globally from VAD to about 2% of all such deaths. The progress included significant vaccination programs against measles, and better access to clean water, as well as vitamin A supplementation, all delivered through community health programs. Economic development and education about diet reduced food insecurity. In contrast to continuing VAD deaths, the Covid-19 pandemic has attracted huge political attention, including in low- and middle-income countries. Community health programs have been adversely affected by the pandemic. There is a danger that as a result VAD rates, child and maternal mortality climbs again toward 1990’s levels. Adoption of Golden Rice provides a safe, culturally simple amelioration and is costless. Other countries should seize the opportunity. Bangladesh is first in line, possibly followed by Indonesia and India.
2021年7月21日,黄金大米在菲律宾注册,允许种植和消费。作为对抗维生素A缺乏症(VAD)的干预措施,研究始于1991年,1999年实现了黄金大米概念的证明。20世纪90年代,全球5岁以下儿童死亡的23%至34%是由VAD造成的,在发展中国家,这一比例甚至更高。到2013年,在实现千年发展目标方面取得的进展已将全球5岁以下儿童因心血管疾病死亡的人数减少到此类死亡总数的2%左右。取得的进展包括重大的麻疹疫苗接种项目,更好地获得清洁水,以及补充维生素A,所有这些都是通过社区卫生项目提供的。经济发展和饮食教育减少了粮食不安全。与持续的VAD死亡相比,Covid-19大流行引起了巨大的政治关注,包括在低收入和中等收入国家。社区卫生项目受到疫情的不利影响。因此,VAD发病率、儿童和孕产妇死亡率有可能再次攀升至1990年的水平。采用黄金大米提供了一种安全的、文化上简单的改良,而且没有成本。其他国家应该抓住这个机会。孟加拉国首当其冲,印尼和印度可能紧随其后。
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引用次数: 0
Emerging Minor Diseases of Rice in India: Losses and Management Strategies 印度水稻新出现的小病害:损失和管理策略
Pub Date : 2021-11-02 DOI: 10.5772/intechopen.99898
R. Shivappa, Devanna B. Navadagi, Mathew Seikholen Baite, Manoj Kumar Yadav, Prabhukarthikeyan S. Rathinam, K. Umapathy, P. Pati, Prakash Chandra Rath
Rice (Oryza sativa L) being one of the imperative food crops of the word contributes immensely to the food and nutritional security of India. The cultivation of rice is changed over the decades from a simple cultivation practices to the advanced cultivation to increase yield. Increased in rice yields especially after 1960s is mainly due to the introduction of high yielding semi-dwarf varieties which requires more inputs like chemical fertilizers, water and other resources. As a result, India achieved self sufficiency in rice and currently producing more than 115 MT of rice to meet country’s demand. Now India is exporting rice to other nations and earning foreign returns. With the change in rice cultivation practices, problems also aroused side by side. A number of biotic and abiotic stresses emerged as major constraints for rice cultivation in diverse agro-climatic conditions and growing ecologies. Diseases are the major biotic constraints to rice which can reduce the yields by 20–100% based on severity. Major diseases like blast, brown spot, bacterial blight, sheath blight and tungro still causing more damage and new minor diseases like bakanae, false smut, grain discoloration, early seedling blight, narrow brown spot, sheath rot have emerged as major problems. The losses due to these diseases may 1–100% based on the growing conditions, varietal susceptibility etc.., At present no significant source of resistance available for any of the above emerging diseases. But looking into the severity of these diseases, it is very important to address them by following integrated management practices like cultural, mechanical, biological and finally chemical control. But more emphasis has to be given to screen gerrmplasm against these diseases and identify stable source of resistance. Finally utilizing these sources in resistance breeding program by employing molecular breeding tools like marker assisted selection (MAS), marker assisted back cross breeding (MABB), gene pyramiding and transgenic tools. The present chapter discusses the importance of these emerging minor diseases of rice, the losses and possible management measures including resistance breeding.
水稻(Oryza sativa L)是世界上最重要的粮食作物之一,对印度的粮食和营养安全做出了巨大贡献。几十年来,水稻的种植从简单的种植方式转变为提高产量的先进种植方式。特别是20世纪60年代以后,水稻产量的增加主要是由于引进了高产的半矮秆品种,这些品种需要更多的化肥、水和其他资源投入。因此,印度实现了大米自给自足,目前生产超过1.15亿吨大米以满足国家需求。现在印度向其他国家出口大米,赚取外国回报。随着水稻种植方式的改变,问题也随之产生。在不同的农业气候条件和生长生态条件下,许多生物和非生物胁迫成为水稻种植的主要制约因素。病害是水稻的主要生物制约因素,根据严重程度可使产量减少20-100%。稻瘟病、褐斑病、细菌性枯萎病、纹枯病、结核等重大病害危害仍在加大,而新的小病害如黑穗病、假黑穗病、谷粒变色、早苗枯萎病、窄褐斑病、鞘腐病等已成为主要问题。根据生长条件、品种易感性等因素,这些病害造成的损失可达1-100%。目前,上述任何新出现的疾病都没有明显的耐药性来源。但是,研究这些疾病的严重程度,通过综合管理措施,如文化、机械、生物和化学控制来解决这些问题是非常重要的。但是,必须更加重视筛选抗这些疾病的种质并确定稳定的抗性来源。最后,利用分子育种工具,如标记辅助选择(MAS)、标记辅助回交育种(MABB)、基因金字塔和转基因工具,利用这些资源进行抗性育种。本章讨论了这些新出现的水稻小病害的重要性、损失和可能的管理措施,包括抗性育种。
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引用次数: 1
Potential Role of Rice Plant Growth Promoting Phylloplane and Rhizospheric Bacteria in Controlling Xanthomonas oryzae pv. oryzae 水稻生长促进叶面和根际细菌在防治水稻黄单胞菌中的潜在作用。oryzae
Pub Date : 2021-10-27 DOI: 10.5772/intechopen.99854
Md. Mahfujur Rahman, Md. Mostafa Masud, M. Iqbal Hossain, Nurali Islam, M. Zahangir Alam, M. Mamunur Rashid, Mohammad Ashik Iqbal Khan, M. Abdul Latif, Krishna Pada Halder, Md. Rashidul Islam
Rice is an important cereal worldwide and it occupies the top position among the cereals in Bangladesh. Rice plant suffers from around 32 diseases of which ten are major in Bangladesh at present. Among the diseases, Bacterial Blight (BB) caused by X. oryzae pv. oryzae (Xoo) considered as a most destructive disease occurs in both rainfed and irrigated seasons of Bangladesh. BB causes considerable yield loss varies from 30 to 50% depending on the outbreak. It is also an important disease in most of the South and Southeast Asian countries. To develop environment-friendly sustainable management approach against BB of rice, in total sixty three plant growth promoting bacteria were identified from rice phylloplane and rhizosphere that are antagonistic to X. oryzae pv. oryzae during boro and aman seasons 2018 and 2019.These bacterial species inhibited the growth of X. oryzae pv. oryzae in vitro by 20.83 to 76.19%. These bacterial isolates were identified by sequencing of PCR products of 16SrDNA belonging to the genera mostly Pseudomonas, Bacillus and Serratia. Out of these bacterial species, 48 bacterial species were found as positive for IAA production, all 63 bacterial species were found positive for siderophore production and 48 were found capable to solubilize insoluble phosphate. Based on growth inhibition of X. oryzae pv. oryzae in in vitro, thirty two bacterial species were selected for plant growth promotion assessment and evaluation of net house and field efficacy in controlling BB of rice. These bacterial species were formulated using talcum powder which was viable for at least three months post formulation. Assessment of plant growth promoting determinants revealed that all 32 bacterial species identified in this study enhance the growth of rice plants as measured by root and shoot length and and reduced the BB severity in susceptible rice cultivar significantly as compared with untreated control.
大米是世界上重要的谷物,在孟加拉国的谷物中占据首位。水稻遭受大约32种病害,其中10种是目前孟加拉国的主要病害。其中,由稻瘟弧菌引起的细菌性疫病(BB)。稻瘟病(Xoo)被认为是一种最具破坏性的疾病,发生在孟加拉国的雨养季节和灌溉季节。BB造成相当大的产量损失,根据疫情的不同,损失从30%到50%不等。在大多数南亚和东南亚国家,它也是一种重要疾病。从水稻叶面和根际共鉴定出63种拮抗稻瘟病的植物生长促进菌,以建立对稻瘟病的环境友好型可持续管理方法。在2018年和2019年的波罗和阿曼季节。这些细菌抑制了稻瘟弧菌的生长。体外Oryzae为20.83% ~ 76.19%。这些分离的细菌经16SrDNA PCR产物测序鉴定,主要属假单胞菌属、芽孢杆菌属和沙雷菌属。在这些细菌种类中,48种细菌被发现对IAA产生阳性,63种细菌被发现对铁载体产生阳性,48种细菌被发现能够溶解不溶性磷酸盐。基于对稻瘟病菌生长抑制作用的研究。选取32个菌种,对水稻进行生长促进评价和室内、田间防治白僵菌效果评价。这些细菌种类是用滑石粉配制的,这种滑石粉在配制后至少可以存活三个月。对植物生长促进决定因素的评估表明,与未处理对照相比,本研究鉴定的所有32种细菌都能促进水稻根系和茎长的生长,并显著降低感病水稻品种的BB严重程度。
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引用次数: 2
Progress and Prospects of Two Line Rice Breeding in India 印度水稻两系育种进展与展望
Pub Date : 2021-10-21 DOI: 10.5772/intechopen.99545
Manonmani Swaminathan
Increasing the yield potential through hybrid rice technology was very well proved in nearby countries. Three line hybrid rice technology is encounted with some of the difficulties in seed production. Identification of Environmentally influenced male sterility overcomes the problem encountered in seed production since it is regulated by the temperature it is called temperature regulated male sterility and hybrids produced using this line is called two line rice hybrids. Types of male sterility and methods to identify the new TGMS lines and breeding methods employed for producing the tgms lines were described. Characterization of tgms lines by both conventional method and molecular tools has been enumerated. Seed multiplication of tgms under fertility inducing environment and seed production of two line hybrids has been explained. Seed production location was exclusively identified for seed multiplication of tgms lines. Heterotic potential of two line rice hybrids has been studied. Future prospectes in tgms research and two line heterotic potential was explained for increasing the yield potential in rice.
通过杂交水稻技术提高产量的潜力在邻近国家得到了很好的证明。三系杂交水稻技术在制种方面遇到了一些困难。环境影响雄性不育的鉴定克服了种子生产中遇到的问题,因为它是由温度调节的,它被称为温度调节雄性不育,使用这一品系生产的杂交种被称为两系水稻杂交种。介绍了雄性不育的类型、鉴定新种质的方法和选育新种质的方法。本文列举了用常规方法和分子方法对tgms系进行表征的方法。对诱导育性环境下转基因种子的增殖和两系杂交种的制种进行了解释。种子生产地点是唯一确定的种子繁殖品种。研究了两系水稻杂交种的杂种优势潜力。展望了转基因研究的前景和两系杂种优势潜力,以期提高水稻的产量潜力。
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引用次数: 1
Aromatic Rice of India: It’s Types and Breeding Strategies 印度芳香稻的种类及育种策略
Pub Date : 2021-09-23 DOI: 10.5772/intechopen.99232
Aarti Sharma, Sandhya., A. Srivastava, Snehanshu Singh, S. Mishra, S. Mohan, Chhavi, A. Singh, A. Singh, H. Jaiswal
The coalescence of organoleptic traits viz., pleasant aroma, cooked rice texture, and taste make aromatic rice unique and distinguished from non-aromatic rice. Aromatic rice is cultivated in every rice growing country; with each country has its own indigenous collection. International trade of rice is dominated by Indica (long grained), Japonica (short grained), aromatic rice (Basmati and Jasmine) and glutinous rice; amidst which, Basmati types from India and Pakistan; and Jasmine types from Thailand have phenomenal demand. In India all types of aromatic rice are cultivated based on Kernel length; short, medium, long and very long grained. Basmati varieties own the major market, while other types of aromatic rice besides Basmati are popular in local market only. The country inherits rich diversity of aromatic rice germplasm; with more than 300 different types, each of the rice growing states of India has its own locally popular aromatic rice varieties. India a country where two third of its population consume rice as part of their daily food; aromatic rice always remain their favorite. Basmati, by virtue of its excellent qualities it dominates both national and international market. Every year, Basmati ranks first in respect of foreign exchange earned from the export of agricultural products from India (APEDA). The phenomenal demand and export figures have augmented Basmati Breeding program. However, only few aromatic varieties are cultivated depending on their demand, and their breeding program is also limited. In India, Basmati has over-shadowed other types of aromatic rice in market and in plant breeding programs too. Breeding for Basmati varieties is undertaken by prime agricultural institutions of India. The country regulates quality standards and development of Basmati varieties with the help of Export of Basmati Rice (Quality Control and Inspection) Rules 2003; Agricultural and Processed Food Products Export Development Authority (APEDA); and Basmati Export Development Foundation (BEDF). However, no such initiatives have been taken to promote the development of other aromatic rice varieties of India besides Basmati.
芳香稻的香气、熟米的质地和口感等感官性状的结合,使芳香稻有别于非芳香稻。每个水稻种植国都种植香稻;每个国家都有自己的本土收藏。大米的国际贸易以籼稻(长粒)、粳稻(短粒)、香米(印度香米和茉莉香米)和糯米为主;其中,来自印度和巴基斯坦的巴斯马蒂香油;而来自泰国的茉莉花则有着惊人的需求。在印度,所有种类的香米都是根据籽粒长度种植的;短,中,长和非常长的纹理。印度香米品种占据了主要市场,而除了印度香米之外,其他种类的香米只在当地市场受欢迎。我国拥有丰富多样的香稻种质资源;印度有300多种不同的水稻品种,每个水稻种植邦都有自己当地受欢迎的芳香水稻品种。在印度,三分之二的人口将大米作为日常食物的一部分;香米一直是他们的最爱。巴斯马蒂凭借其卓越的品质在国内和国际市场上占据主导地位。每年,巴斯马蒂在从印度出口农产品(APEDA)中赚取的外汇中排名第一。巨大的需求和出口数字增加了巴斯马蒂香米育种计划。然而,只有少数芳香品种是根据他们的需求种植的,他们的育种计划也是有限的。在印度,巴斯马蒂在市场上和植物育种项目上都超过了其他类型的香米。印度主要农业机构负责巴斯马蒂品种的育种工作。在《2003年出口巴斯马蒂大米(质量控制和检验)规则》的帮助下,该国规范了巴斯马蒂品种的质量标准和发展;农业和加工食品出口发展局(APEDA);巴斯马蒂出口发展基金会(BEDF)。然而,除了巴斯马蒂之外,印度还没有采取这样的举措来促进其他芳香水稻品种的发展。
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引用次数: 1
Abiotic Stress Tolerance in Rice: Insight in Climate Change Scenario 水稻的非生物抗逆性:在气候变化情景下的洞察
Pub Date : 2021-09-21 DOI: 10.5772/intechopen.98909
Mahesh Kumar, Sandhya., Pankaj Kumar, Akash Gaurav Singh, Aravind Kumar Jukanti
Rice, world’s second major, staple cereal crop that feed the more than 50% of world’s population. To safeguard the production and to fulfill the demand of ever the increasing population and urbanization there is need to increase the rice production. Though the rice yield has increased due to the development of modern technology and climate resilient high yielding cultivars but still it is 10–15 per cent lower than its potential yield due to various biotic and abiotic stress. Drought, extreme temperature, salinity, harmful radiation, heavy metals, gaseous pollutants are the most detrimental abiotic stresses factors that cause the morphological, physiological and biochemical changes in the rice crops and ultimate result is the reduction of rice production globally. Tolerance against these stresses through exploitation of potent biotechnological tools, molecular markers, QTL mapping omices approaches, phytohormones which could offer a more adequate and rapid solution to overcome these abiotic stresses and to enhance the ultimate grain yield of rice.
水稻是世界第二大主要粮食作物,养活了世界上50%以上的人口。为了保障粮食生产,满足日益增长的人口和城市化的需要,必须提高水稻产量。尽管由于现代技术和气候适应型高产品种的发展,水稻产量有所增加,但由于各种生物和非生物胁迫,其产量仍比潜在产量低10 - 15%。干旱、极端温度、盐碱、有害辐射、重金属、气态污染物是造成水稻作物形态、生理和生化变化的最有害的非生物胁迫因子,最终导致全球水稻减产。利用有效的生物技术工具、分子标记、QTL定位方法、植物激素等,可以更充分、更快速地克服这些非生物胁迫,提高水稻的最终产量。
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引用次数: 3
期刊
Integrative Advances in Rice Research [Working Title]
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