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Role of Plant Quarantine in Preventing Entry of Exotic Pests 植物检疫在防止外来有害生物入境中的作用
Pub Date : 2022-01-01 DOI: 10.5958/0976-1926.2022.00057.2
V. C. Chalam, K. Gupta, M. Singh, Z. Khan, J. Akhtar, B. Gawade, P. Kumari, Pardeep Kumar, B. Meena, A. Maurya, D. Meena
Plant quarantine is a government endeavour enforced through legislative measures to regulate the introduction of planting material, plant products, soil and living organisms, etc. in order to prevent inadvertent introduction of pests (including fungi, bacteria, viruses, nematodes, insects and weeds) harmful to the agriculture of a country/ state/region, and if introduced, prevent their establishment and further spread. ICAR-National Bureau of Plant Genetic Resources (ICAR-NBPGR) is authorized to issue import permit and undertake quarantine of plant germplasm including transgenics and for issue of Phytosanitary Certificate for material under export. Adopting a systematic workable strategy, using a combination of conventional and modern techniques, over the past forty-five years, a total of 78 exotic pests including fungi (6), viruses (19), insects/ mites (26), nematodes (9) and weeds (18) of great quarantine significance to India have been intercepted. All efforts are made to salvage the infested/ infected materials; however, if the material is unsalvageable, it was incinerated. The interceptions made signify the potential dangers in import of planting material if proper quarantine measures had not been followed. ICAR-NBPGR, also makes concerted efforts to develop and customize the modern detection and eco-friendly salvaging techniques to minimize the risk of escape in quarantine processing. Scientifically sound and transparent risk analysis prior to import is an important tool, so that, our agricultural production is not jeopardized. The Indian phytosanitary regulations provide a fragmented legislative system which needs to be harmonized and integrated to holistically deal with national biosecurity while complying with international norms. Also, there is a need to support research, training, capacity-building, networking and information sharing activities at both national and regional levels.
植物检疫是政府通过立法措施实施的一项努力,旨在规范种植材料、植物产品、土壤和生物有机体等的引进,以防止无意中引入对一个国家/州/地区的农业有害的害虫(包括真菌、细菌、病毒、线虫、昆虫和杂草),并在引入后防止其形成和进一步传播。国家植物遗传资源局(ICAR-NBPGR)被授权签发包括转基因在内的植物种质的进口许可证和检疫,并为出口物资签发植物检疫证书。在过去的45年里,印度采用了一种系统可行的策略,结合了传统技术和现代技术,共截获了78种外来害虫,包括真菌(6)、病毒(19)、昆虫/螨虫(26)、线虫(9)和杂草(18),对印度具有重要的检疫意义。尽一切努力抢救被侵染/感染的材料;但是,如果材料无法回收,则将其焚烧。拦截表明,如果不采取适当的检疫措施,进口种植材料可能存在危险。ICAR-NBPGR还共同努力开发和定制现代检测和环保打捞技术,以最大限度地减少检疫过程中的逃逸风险。科学合理、透明的进口前风险分析是重要的工具,这样,我们的农业生产才不会受到损害。印度的植物检疫条例提供了一个支离破碎的立法体系,需要加以协调和整合,以便在遵守国际规范的同时全面处理国家生物安全问题。此外,还需要支持国家和区域两级的研究、培训、能力建设、联网和信息分享活动。
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引用次数: 0
Access to Plant Genetic Resources: Policy Vista 获取植物遗传资源:政策展望
Pub Date : 2022-01-01 DOI: 10.5958/0976-1926.2022.00037.7
P. Gautam, S. Archak
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引用次数: 0
Use of Crop Wild Relatives (CWRs) of Wheat in Disease Resistance Breeding 小麦作物野生近缘基因在抗病育种中的应用
Pub Date : 2022-01-01 DOI: 10.5958/0976-1926.2022.00062.6
M. Niranjana, M. Saharan, S. Jha, N. Mallick, K. Raghunandan, Vinod
Wheat ( Triticum aestivum L.) is one of the three major cereal crops contributing 20% calories to the world population. The most serious constraints to wheat production are biotic stresses like rusts, blights, powdery mildew, bunts and smuts. Genetic or host plant resistance is the best way to control these diseases than use of chemical pesticides. Continuous search for novel genes is indispensable to counter the dynamic and rapidly evolving pathogen population. In case of some diseases like spot blotch, Karnal Bunt and Fusarium head blight development of resistant cultivars is not an easy task as the resistance to them found in the germplasm is not satisfactory and none of the commercial cultivars showed resistance. Hence, underutilized crop wild relatives prove to be valuable resource in the search for new disease resistance genes to combat wheat diseases.
小麦(Triticum aestivum L.)是为世界人口提供20%卡路里的三大谷类作物之一。对小麦生产最严重的制约是生物胁迫,如锈病、枯萎病、白粉病、黑穗病和黑穗病。遗传或寄主植物抗性是控制这些疾病的最好方法,而不是使用化学农药。不断寻找新的基因是对抗动态和快速进化的病原体群体必不可少的。对于斑疹病、肉芽枯病和赤霉病等病害,抗性品种的培育不是一件容易的事情,种质资源对这些病害的抗性并不令人满意,而且商品品种都没有表现出抗性。因此,未被充分利用的作物野生近缘种被证明是寻找新的抗病基因以对抗小麦病害的宝贵资源。
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引用次数: 0
Development of Genic Simple Sequence Repeat Markers as Novel Genomic Resources in Dolichos Bean (Lablab purpureus L.) 大豆基因简单序列重复标记新基因组资源的开发
Pub Date : 2022-01-01 DOI: 10.5958/0976-1926.2022.00012.2
S. Kumari, Shraddha Ujjainwal, Nita Singh, S. Archak, Wankhede Dhammaprakash Pandhari
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引用次数: 1
Animal Genetic Resources (AnGR) Diversity in India 印度动物遗传资源(AnGR)多样性
Pub Date : 2022-01-01 DOI: 10.5958/0976-1926.2022.00073.0
B. Mishra, S. Niranjan
The history of farm Animal Genetic Resources (AnGR) is about 12 to 14 thousand years old; started with the domestication of the animals for companion, food, fur and hide purposes. Among 40 non-carnivores livestock species domesticated by human being, till date, only cattle, sheep, goat, pig and chicken are highly prevalent and known as ‘Big five’. Other species like buffalo, dromedaries and Bactrian camel, llama, alpaca, yak, and mithun are region specific. At present, about one-fifth of the global food is of animal origin in the world. A vast genetic diversity of AnGR has been generated during hundreds of years through culmination of various evolutionary forces, including intensive selection and preferred mating by human for various utilization purposes. Initial domestication modulated the wild ancestors to adapt to human habitation and making themselves more useful for the human being. Migration of animals by humans across the continents further disseminated the germplasm, initiating the diversification of the farm animals across the globe. However, artificial selection for different needs and likings by the human is the chief element for development of large-scale genetic diversity, in form of distinct breeds and populations. These breeds as well as specialized populations have been evolved for a specific need or utilization pattern like milk, draft, meat, fibre, carting, riding etc. Today, the world possesses more than eight thousand livestock and poultry breeds, evolved from only few founder populations and catering various needs of human society around the world. As per Global data bank on Animal Genetic Resources of FAO, a total of 8774 breeds of 38 species were reported, worldwide (data from 182 countries) in 2014. Among these, 7718 are local breeds (in one country) and 510 are regional transboundary breeds (in one region) and 546 are international transboundary breeds (in more than one region).
农场动物遗传资源(AnGR)的历史约为1.2 ~ 1.4万年;从驯养动物作为伴侣、食物、皮毛和兽皮开始。迄今为止,在人类驯化的40种非食肉家畜中,只有牛、羊、山羊、猪和鸡最为普遍,被称为“五大”。其他物种,如水牛、单峰骆驼和双峰驼、美洲驼、羊驼、牦牛和米图恩是特定地区的。目前,全球约有五分之一的食物来自动物。数百年来,在各种进化力量的共同作用下,包括人类为了各种利用目的而进行的密集选择和择偶,产生了巨大的遗传多样性。最初的驯化调整了野生祖先适应人类居住,使他们对人类更有用。人类跨大陆的动物迁徙进一步传播了种质资源,启动了全球农场动物的多样化。然而,人类对不同需要和喜好的人工选择是大规模遗传多样性发展的主要因素,表现为不同的品种和种群。这些品种以及专门的种群已经进化为特定的需求或利用模式,如牛奶,draft,肉,纤维,马车,骑马等。今天,世界上拥有超过八千种家畜和家禽品种,从少数创始种群进化而来,满足世界各地人类社会的各种需求。根据粮农组织全球动物遗传资源数据库,2014年全球共报告了38个物种的8774个品种(数据来自182个国家)。其中,7718种是地方品种(在一个国家),510种是区域跨界品种(在一个地区),546种是国际跨界品种(在一个以上地区)。
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引用次数: 0
ITPGRFA: An Appraisal as a Prelude to the Ninth Session of the Governing Body 2022, New Delhi ITPGRFA:作为理事会第九届会议前奏的评估,2022年,新德里
Pub Date : 2022-01-01 DOI: 10.5958/0976-1926.2022.00016.x
P. Chandra, Kuldeep Tripathi, Pragya, S. Archak, V. Tyagi, P. Brahmi
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引用次数: 0
Farmers’ Rights and Plant Breeders’ Rights under Indian Regulations of Plant Variety Protection: A TRIPS Compliant Harmonised Coexistence 印度植物品种保护条例下的农民权利和植物育种者权利:符合TRIPS的和谐共存
Pub Date : 2022-01-01 DOI: 10.5958/0976-1926.2022.00033.x
R. Ganesh, Arun Kumar, D. Pilania, A. Singh, D. Choudhury, T. Nagarathna, Dk Agarwal, K. Prabhu
(PPV&FR) Act, 2001’ was enacted by its Parliament in accordance to the Article 27.3(b) of Trade Related Intellectual Property Rights (TRIPS) Agreement. In a signifi cant deviation from the contemporary legislations around the world and also the International Union for the Protection of New Varieties of Plants (UPOV) Acts (1973 and 1991), the PPV&FR Act is a sui generis option, that provides an eff ective system for the protection of plant varieties, the rights of farmers and plant breeders that encouraged development of new varieties as well as those which were in common knowledge of the farmers or were in the possession of farmers traditionally. This article explains how the Indian legislation is the best fi t to match the requirements farmers as well as plant breeders, keeping in view the local agricultural situations, societal constitution and livelihood mechanisms, especially for small-holder farmers.
《2001年PPV&FR法》是根据《与贸易有关的知识产权协定》第27.3(b)条由议会制定的。与世界各地的当代立法以及国际植物新品种保护联盟(UPOV)法案(1973年和1991年)相比,PPV&FR法案是一个独特的选择,它为植物品种保护提供了一个有效的体系。鼓励开发新品种的农民和植物育种者的权利,以及那些为农民所知或传统上为农民所拥有的权利。本文解释了印度的立法如何最适合农民和植物育种者的要求,同时考虑到当地的农业情况、社会结构和生计机制,特别是对小农来说。
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引用次数: 0
Fishing Technologies for Conservation of Marine Fish Genetic Resources 保护海洋鱼类遗传资源的捕捞技术
Pub Date : 2022-01-01 DOI: 10.5958/0976-1926.2022.00092.4
C. Ravishankar, VR Madhu
The advancements in fishing technologies over the years, had helped to significantly increase the fish production from the capture fisheries and has helped to improve the per capita consumption of fish. Increase in the fishing effort, use of unsustainable fishing gears and lack of proper monitoring and surveillance, combined with the climate related changes in the oceans, have caused serious declines of fisheries worldwide. The bycatch, discards and pollution are also becoming concern in several fisheries world over including India. Despite the fact that numerous measures, including gear-based technical measures, have been evaluated and mandated by law, the use and implementation of these measures in the field, remained largely negligible. Ecosystem-based approaches to fishing, reducing plastic pollution, spatial planning and creating biodiversity hotspots with no-take zones, strict regulations and effective implementation strategies, as well as a concerted effort to reduce the capacity of fisheries, are required for conservation of resources.
多年来渔业技术的进步大大提高了捕捞渔业的鱼产量,并有助于提高人均鱼品消费量。捕鱼努力的增加、不可持续渔具的使用以及缺乏适当的监测和监督,再加上海洋中与气候有关的变化,造成了世界范围内渔业的严重衰退。副渔获物、丢弃物和污染也成为包括印度在内的世界几个渔场的关注焦点。尽管许多措施,包括以齿轮为基础的技术措施已经得到评价和法律规定,但这些措施在实地的使用和执行在很大程度上仍然微不足道。保护资源需要基于生态系统的捕捞方法、减少塑料污染、空间规划和建立生物多样性热点禁渔区、严格的法规和有效的实施战略,以及共同努力降低渔业的能力。
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引用次数: 0
Elevated Temperature Disrupts Pollen-Pistil Dynamics and Seed Set in Okra (Abelmoschus esculentus L. Moench) 高温对秋葵花粉-雌蕊动态和结实率的影响
Pub Date : 2022-01-01 DOI: 10.5958/0976-1926.2022.00025.0
S. Singh, NS Chand, R. Gupta, BR Khan
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引用次数: 0
A1/A2 Milk Research in Indian Cattle A1/A2印度牛的牛奶研究
Pub Date : 2022-01-01 DOI: 10.5958/0976-1926.2022.00081.x
M. Sodhi, M. Mukesh, R. Kataria, S. Niranjan, B. Mishra
Bovine beta casein A1 and A2 are the most common variants in cattle breeds. Because of the bioactive peptide beta casomorphin-7 (BCM7) produced by raw or processed A1-milk, which has high affinity for opioid receptors and can exert regulatory activities, A1 variant is considered a risk factor for many human diseases, but not by A2-milk, during digestion. The frequency of A1/A2 allele of beta casein is breed dependent and can be very easily checked with simple PCR-RFLP technique. The aim of this article was to review the different studies and assess the status of A1/A2 in Indian native cattle breeds as well as crossbred/taurine populations and breeding bulls being used at different AI centres in India. Analysis of frequency pattern clearly indicated that all Indian native cattle breeds have high frequency of A2 allele and homozygous A2A2 genotype and hence are very good resource for A2 milk. Crossbred, taurine cattle populations and breeding bulls being used at different AI centres have a higher frequency of A2 allele and A1A2 genotype. The percentage of animals with homozygous A2A2 genotype is low. This suggests the need for screening of crossbred/exotic bulls being used in A1 and modify the existing breeding policy so as to drift the herds towards A2.
牛β酪蛋白A1和A2是牛品种中最常见的变异。由于生的或加工过的A1牛奶产生的生物活性肽β -酪啡肽-7 (BCM7)对阿片受体具有高亲和力,并能发挥调节作用,A1变异被认为是许多人类疾病的危险因素,但a2牛奶在消化过程中却不是。酪蛋白A1/A2等位基因的频率与品种有关,可以很容易地用简单的PCR-RFLP技术进行检测。本文的目的是回顾不同的研究,并评估A1/A2在印度本土牛品种中的状况,以及在印度不同人工智能中心使用的杂交/牛磺酸种群和种牛。频率分析表明,所有印度本土牛品种A2等位基因和A2A2纯合子基因型的频率都很高,是A2乳的良好资源。在不同人工智能中心使用的杂交、牛磺酸牛种群和种牛具有较高的A2等位基因和A1A2基因型频率。纯合子A2A2基因型动物的比例较低。这表明有必要筛选A1地区使用的杂交公牛和外来公牛,并修改现有的育种政策,使畜群向A2地区转移。
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引用次数: 0
期刊
Indian Journal of Plant Genetic Resources
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