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Pesticide Residue and Bio-pesticides in Vegetable Crops 蔬菜作物中的农药残留和生物农药
Pub Date : 2024-02-10 DOI: 10.61180/vegsci.2024.v51.spl.08
Sujan Majumder, B. R. Reddey, Juhi Pandey, Anindita Paul, Anup Kumar, Kaushik Banerjee
Intensive vegetable production using pesticides has biggest threat to growers and the consumers. In such instances the accumulation of pesticide residues is increased due to relatively short pre-harvest interval. Use of pesticides without knowing the label claim information increases the cost of production, increases the number of spray and labour cost, ultimately leading to decrease in farmers profitability. Hence, the adoption of pesticide as per label claim is very much essential. The level of residues should be below the maximum residue limit (MRL) at the time of harvest. Most of the detected pesticides in vegetables are not registered by Central Insecticide Board and Registration committee (CIBRC) for use on that specific vegetable which is the off label use of pesticides. Crops grouping is the development of a model that allows extrapolation of residue data from a few representative crops to many other crops in the same group. This allows establishment of residue tolerances for the entire group of crops based on the residue values from certain key crops that are similar. The acceptance of representative crop is a critical component of the savings from using the crop groups. IR-4’s involvement with efforts to remove pesticide residues as a barrier for exports for US-grown specialty crops has been growing in importance over the last 20 years. By establishing a common MRL on a specialty crop from a particular crop protection product use, trade irritants between the two countries can be prevented before they have the potential to become a major problem for specialty crop growers on each side of the border. The U.S./Canadian specialty crop partnership has yielded valuable results for all the stakeholders involved. IR4 signed MOUs with Canada, New Zealand, Brazil, Costa Rica, and Colombia. This model is also much needed for India to regulate the pesticide label claims for numerous crops.
使用杀虫剂的密集型蔬菜生产对种植者和消费者构成了最大的威胁。在这种情况下,由于收获前的间隔期相对较短,农药残留的积累会增加。在不了解标签声明信息的情况下使用农药会增加生产成本,增加喷洒次数和劳动力成本,最终导致农民收益下降。因此,必须按照标签要求使用农药。收获时的残留水平应低于最高残留限量(MRL)。在蔬菜中检测到的大多数杀虫剂都没有在杀虫剂中央登记委员会(CIBRC)登记用于特定蔬菜,这就是标签外使用杀虫剂。作物分组是开发一种模型,可将少数代表性作物的残留数据外推至同组的许多其他作物。这样,就可以根据某些相似的主要作物的残留值来确定整个作物组的残留容许量。接受有代表性的作物是使用作物组节省成本的关键因素。在过去 20 年中,IR-4 参与了消除农药残留对美国种植的特种作物出口的障碍,其重要性与日俱增。通过对使用特定作物保护产品的特种作物制定共同的最高残留限量,可以在有可能成为边境两侧特种作物种植者的主要问题之前,防止两国之间的贸易摩擦。美国/加拿大特种作物合作伙伴关系为所有相关利益方带来了宝贵的成果。IR4 与加拿大、新西兰、巴西、哥斯达黎加和哥伦比亚签署了谅解备忘录。印度也非常需要这种模式来规范众多作物的农药标签声明。
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引用次数: 0
Post-Harvest Management and Value Addition in Vegetable Crops 收获后管理和蔬菜作物增值
Pub Date : 2024-02-10 DOI: 10.61180/vegsci.2024.v51.spl.04
Sudhir Singh, Swati Sharma, Shreya Panwar, H. Krishna, S. K. Singh, Anant Bahadur, T. K. Behera
Horticultural production is reaching new heights every passing year. Presently, India is the second largest producer of vegetables after China. However, humongous postharvest losses and waste occur due to improper management and handling. Postharvest loss has been one of the main global challenges towards ensuring food security. This waste seems inhumane especially when tens of millions of people worldwide are suffering from hunger, malnutrition, under-nutrition and other chronic diseases while the food waste contributes to global warming as well. Fresh vegetables are highly perishable. Lack of proper transportation, especially temperature management during transit and storage further reduces their storability and marketing window. United Nations sustainable developmental goal 2 aims to reduce food losses by 50% by 2030. Several approaches like value addition particularly drying technology, temperature and storage atmosphere control, using edible coatings and different anti-senescent molecules like salicylic acid, nitric oxide, 1-methylcyclopropene, methyl jasmonate, polyamines, etc. have been undertaken world-wide to enhance storability of fresh vegetables. This review is an attempt to present a bird’ eye view of postharvest losses and possible strategies for the management and reduction of losses in vegetables.
园艺生产年年攀新高。目前,印度是仅次于中国的第二大蔬菜生产国。然而,由于管理和处理不当,采后损失和浪费巨大。收获后损失一直是确保粮食安全所面临的主要全球性挑战之一。这种浪费似乎是不人道的,尤其是当全球数以千万计的人正在遭受饥饿、营养不良、营养不足和其他慢性疾病的折磨,同时粮食浪费还加剧了全球变暖。新鲜蔬菜极易变质。缺乏适当的运输,特别是运输和储存过程中的温度管理,进一步降低了其储存性和销售窗口。联合国可持续发展目标 2 旨在到 2030 年将粮食损耗减少 50%。为了提高新鲜蔬菜的贮藏性,世界范围内采取了多种方法,如增值技术(尤其是干燥技术)、温度和贮藏气氛控制、使用可食用涂层和不同的抗增鲜分子(如水杨酸、一氧化氮、1-甲基环丙烯、茉莉酸甲酯、多胺等)。本综述试图从鸟瞰的角度介绍蔬菜收获后的损失以及管理和减少损失的可能策略。
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引用次数: 0
Navigating Challenges and Prospects in Off-Season Vegetable Production 驾驭反季节蔬菜生产的挑战与前景
Pub Date : 2024-02-10 DOI: 10.61180/vegsci.2024.v51.spl.09
H. Krishna, S. Hebbar, Pradeep Kumar, Swati Sharma, Rajeev Kumar, Shubham K. Tiwari, S. Maurya, Kuldeep Srivastava, Govind Pal, Anant Bahadur, T. K. Behera
The demand for vegetables in India is substantial, driven by widespread vegetarian dietary preferences. However, the supply often falls short due to the inability to grow all types of vegetables throughout the year. This emphasizes the significance of off-season vegetable cultivation, offering a solution for year-round production, controlling price fluctuations during off-seasons, and ensuring accessibility for people across different economic classes. Off-season cultivation plays a pivotal role in addressing nutritional deficiencies and providing economic returns to farmers, especially during periods of market surplus and falling prices. Consequently, there has been a notable increase in off-season cultivation practices, where crops are grown outside the regular cropping calendar to counter supply shortages and capitalize on high market prices. Various methods are employed for cultivating off-season vegetables, including leveraging a country’s agro-climatic diversity, using different varieties, cultivating in diara lands/riverbeds, and employing protected cultivation. However, this review specifically focuses on diara/riverbed and protected cultivation of vegetables for their off-season production. While these practices have shown promise, ensuring consistent technical support, training, and a reliable supply of inputs like seeds and fertilizers, along with market information, is crucial for sustaining the adoption of agricultural technologies. Long-term success depends on accessible extension services, and the combined impact of various technologies contributes to improved off-season agricultural practices. This underscores the importance of farmer-centric policies in guiding enduring technology adoption. Factors such as education, experience in vegetable production, access to extension services, and training significantly influence farmers’ decisions regarding technology adoption.
由于普遍的素食偏好,印度对蔬菜的需求量很大。然而,由于无法全年种植所有类型的蔬菜,供应往往不足。这就凸显了反季节蔬菜种植的重要性,它为全年生产提供了解决方案,控制了反季节期间的价格波动,并确保不同经济阶层的人们都能获得蔬菜。反季节种植在解决营养缺乏问题和为农民提供经济回报方面发挥着关键作用,尤其是在市场过剩和价格下跌时期。因此,反季节种植的做法明显增加,即在正常耕作日历之外种植作物,以应对供应短缺和利用高市场价格。反季节蔬菜的种植方法多种多样,包括利用一国的农业气候多样性、使用不同品种、在荒地/河床种植以及采用保护性耕作。不过,本综述特别关注反季节蔬菜生产中的荒地/河床和保护性栽培。虽然这些做法前景看好,但确保持续的技术支持、培训、种子和肥料等投入的可靠供应以及市场信息,对于持续采用农业技术至关重要。长期的成功有赖于便捷的推广服务,各种技术的综合影响有助于改善淡季农业生产方式。这强调了以农民为中心的政策在指导持久采用技术方面的重要性。教育程度、蔬菜生产经验、获得推广服务的机会以及培训等因素对农民采用技术的决定有重大影响。
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