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Agricultural Water Productivity Using Weighted Aggregated Sum Product Assessment Method 采用加权汇总产品评估法的农业用水生产率
Pub Date : 2024-01-12 DOI: 10.46632/bmes/1/2/4
Water productivity is a unit of agricultural production for water decrease in the size, of crops, and trees, for livestock and fish can be evaluated. Agriculture water productivity per hectare tons of water or kg consumed kg of water the yield is consumed following) yields on the unit size of the water physical productivity disclosure of crop yields total or net present the yield period will change by value water losses or economic productivity incomplete or excluded water consumption with reference volume ( a bank water ) per unit block. Water productivity ‘ per unit crop production ’ will be used and defined as a water's number. Agricultural production systems with water the idea that productivity is ‘ the same more food with water bodies focusing on manufacturing ’ or with ‘ low water bodies production of the same amount of food does. Initially, irrigation performance of methods irrigation ability to describe or water use capacity was used. In terms of agriculture, ‘ water use capacity ’ will produce a plant as the quantity of organic matter is defined. This is, however, the terms used ‘ water use capacity ’ and ‘ performance ’ will not follow the classical concept of it, this is for input and output uses the same units. Therefore, the international water management company ( iwmi ) ‘ water use capacity ’ to ‘ water productivity ’ until the change of nomenclature is proposed. Analysis purpose, size, and domain step water productivity are many you can define more ways. one unit of water revenue equals one unit of water productivity (wp). More food, more money, a better standard of living, and improved ecosystem services result from increased water productivity. One unit of water revenue equals one unit of water productivity (wp). More food, more money, a better standard of living, and improved ecosystem services result from increased water productivity. It aims to produce contains. Crop, livestock, and water of fisheries in the domains of productivity to improve the size of the basin there is considerable opportunity. This will be used to achieve water harvesting in procedures, sub-watering, lack irrigation, precision techniques for irrigation, and practices for protecting soil and water are included. Soil fertility, pest, and disease management, and improved crop selection getting into markets from improvements like such by the interactive effects obtained water management impacts water directly with productivity related procedures. Benefits of using the Waspas technique weighted sum model (WSM) and weighted product model (WPM). Accuracy of ranking waspas alternatives is increased by integrating wsm and wpm. Wasps are an optimal at this point in the calculation of the additive parameter, which will be discussed in more depth later. The finest solution is the waspas method of analysis, which is outstanding. The long-range solution identifies a better answer than the short distance and negative-best, but a comparison of these distances is not th
水生产率是一个农业生产单位,用于评估作物、树木、牲畜和鱼类的水减少量。农业用水生产率是指每公顷吨水或千克水的消耗量(产量消耗量如下),单位面积产量上的水物理生产率披露作物总产量或净现值,产量期间将按价值变化水损失或经济生产率不完全或排除用水量与参考体积(一库水)的单位块。将使用 "单位作物产量水生产力",并将其定义为水量。农业生产系统用水生产率的概念是 "用同样多的水体集中制造更多的粮食 "或 "用低水体生产同样多的粮食"。最初,人们用灌溉性能的方法来描述灌溉能力或水的利用能力。在农业方面,"水的利用能力 "将生产的植物定义为有机物的数量。然而,这两个术语所使用的 "用水能力 "和 "性能 "并不遵循经典的概念,这是因为输入和输出使用了相同的单位。因此,国际水资源管理公司(iwmi)提出了将 "水利用能力 "改为 "水生产力 "直至改变术语的建议。分析目的、规模和领域的步骤水生产力有很多,你可以用更多的方法来定义。水生产力的提高会带来更多的食物、更多的钱、更好的生活水平和更好的生态系统服务。一个单位的水收入等于一个单位的水生产力(WP)。水生产率的提高可带来更多的食物、更多的钱、更好的生活水平和更好的生态系统服务。其目的是生产包含农作物、牲畜和渔业用水等领域的生产力,为扩大流域规模提供了大量机会。这将用于实现程序集水、分水、缺水灌溉、精确灌溉技术以及水土保护做法。土壤肥力、病虫害管理和作物选择的改进,通过水管理的互动效应直接影响到与生产力相关的程序,从而进入市场。使用 Waspas 技术加权总和模型(WSM)和加权乘积模型(WPM)的好处。通过整合 WSM 和 WPM,提高了黄蜂替代方案排序的准确性。在计算加权参数时,黄蜂法是一个最优方案,稍后将对其进行更深入的讨论。黄蜂分析法是最优秀的解决方案。长程解确定的答案比短程解和负最优解更好,但人们认为这些距离的比较并不重要。备选方案是每立方米千克、每立方米美元、每立方米蛋白质克、每立方米卡路里。评价偏好为谷物小麦(每公斤 0.2 美元)、大米(每公斤 0.31 美元)、玉米(每公斤 0.11 美元)、豆类小扁豆(每公斤 0.3 美元)、蚕豆(每公斤 0.3 美元)。从结果可以看出,大米(每公斤 0.31 美元)排名第一,而蚕豆(每公斤 0.3 美元)排名最低。大米(每公斤 0.31 美元)排名第一,蚕豆(每公斤 0.3 美元)排名最低。
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引用次数: 0
Evaluation of a WSM system for a smart system in agricultural systems 评估农业系统中智能系统的 WSM 系统
Pub Date : 2024-01-12 DOI: 10.46632/bmes/1/2/3
On the earth, there will likely be over 9 billion people, and food demand will rise by 50%. In addition, a 10% decrease in agricultural productivity may result from climate change. Because arable land is stable, multi-layered farms are a feasible approach to produce additional food from small regions. Utilizing intelligent technologies to boost production in these farms that mimic factories makes sense. Smart farming (SF) is the application of information and communication technology on equipment; it includes sensors and equipment used in agricultural production systems. Internet of things and cloud computing are recent innovations. This, together with the use of robots and artificial intelligence in agriculture, ought to spur growth. Wheat, barley, fruits, vegetables, and fodder are the most widely consumed agricultural goods. Agriculture's socioeconomic viability is weather-dependent. By choosing the right crops, a farmer can increase productivity and do it at a lower cost. based on the cost and natural resources available A multi-criteria decision-making model (MCDM) can be used to sort crop options, promote sustainable agriculture practises, and identify the optimal crop for the situation. When evaluating the quantity of food produced in a season, a vertical farm's indoor hectare can provide the same yield as 30 hectares of land using 70% less water and no pesticides. One of the key factors impacting the evolution of SF among the numerous systems available was demonstrated to be cohesion. Additional limitations include the education, skills, and ability of farmers to understand and operate SF instruments. Businesses were able to research and address these problems because to these limits, and science can help. India's use of basic for sustainable farming methods The model's development is the main focus of the study. Using MCDM methods, the best crop was identified, followed by soybean, apple, rice, corn, and cucumber. Fruits also become a crop with a high yield. Such a method is applicable to other places and can be expanded to include different crops for sustainable agricultural operations. The Ministry of Environment and Agriculture in India expects help from the study to build an acceptable agricultural policy. Soybean is in 1st rank and Rice is last rank.
地球上的人口将可能超过 90 亿,粮食需求将增加 50%。此外,气候变化可能导致农业生产率下降 10%。由于耕地是稳定的,多层农场是从小区域生产更多粮食的可行方法。在这些模仿工厂的农场中,利用智能技术提高产量是有意义的。智能农业(SF)是信息和通信技术在设备上的应用,包括农业生产系统中使用的传感器和设备。物联网和云计算是最近的创新。这一点,再加上机器人和人工智能在农业中的应用,应该会刺激增长。小麦、大麦、水果、蔬菜和饲料是消费量最大的农产品。农业的社会经济活力取决于天气。通过选择正确的作物,农民可以提高生产率,并以较低的成本实现这一目标。 多标准决策模型(MCDM)可用于对作物选择进行分类,促进可持续农业实践,并根据实际情况确定最佳作物。在评估一季的粮食产量时,垂直农场的室内公顷可提供与 30 公顷土地相同的产量,但用水量减少 70%,且不使用杀虫剂。在现有的众多系统中,影响可持续农业发展的关键因素之一是凝聚力。其他限制因素包括农民的教育、技能以及理解和操作 SF 工具的能力。企业之所以能够研究和解决这些问题,就是因为存在这些限制,而科学可以提供帮助。印度使用基本的可持续耕作方法 该模型的开发是研究的重点。利用 MCDM 方法,确定了最佳作物,其次是大豆、苹果、水稻、玉米和黄瓜。水果也成为高产作物。这种方法适用于其他地方,并可扩展到不同作物,以实现农业的可持续经营。印度环境和农业部希望这项研究能帮助制定可接受的农业政策。大豆排名第一,水稻排名最后。
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引用次数: 0
Condition of Ground Water Quality in Relation to Pollution in Krishnagiri District Taluk, TamilNadu 泰米尔纳德邦 Krishnagiri 塔卢克地区地下水水质状况与污染的关系
Pub Date : 2024-01-12 DOI: 10.46632/bmes/1/2/2
A fundamental natural resource is water, which is essential to life. The increasing urban isation of India has an impact on the quantity and quality of groundwater. According to the Central Ground Water Board, the groundwater beneath Krishnagiri has been reduced by 60%, and additional investigation may reveal salt water intrusion. Our goal in the current work was to investigate groundwater quality assessment.This investigation's goal was to assess Krishnagiri City's groundwater's level of quality. The quality of groundwater determines whether it is suitable for use in industrial, household, agricultural, and drinking water applications. Evaluation of Groundwater Suitability in the Northern and Eastern Krishnagiri District for Irrigation and Drinking Water. Groundwater samples were taken in the research region. In Tamil Nadu's fluorosis-prone Krishnagiri area, water samples were taken from ten villages. Numerous physico-chemical indicators of water quality, including pH, TDS, TH, Ca2+, Mg2+, Na+, K+, Cl, and fluoride (F), have been measured and compared to typical values (WHO and BIS). Groundwater quality has been evaluated by looking at physicochemical elements such pH, TDS, TH, sulphate, chloride, calcium, and magnesium. A substantial linear association between several water quality metrics is revealed by the investigation. Version 16 of the SPSS statistical analysis programme was utilised for the analysis. The outcomes showed that the groundwater's pollutants were almost at the allowable levels. With a few notable exceptions, the bulk of the criteria used to evaluate the water quality showed levels within the range permitted by the Bureau of Indian Standards (BIS). None of the measurements exceeded the BIS-recommended allowed thresholds for determining the water quality, with the exception of pH at a specific point in Zone 1.
水是生命不可或缺的基本自然资源。印度城市化的加剧对地下水的数量和质量都产生了影响。据中央地下水委员会称,克里希纳吉里地下的地下水已经减少了 60%,进一步的调查可能会发现盐水入侵的情况。我们当前工作的目标是调查地下水质量评估。地下水的水质决定了它是否适合用于工业、家庭、农业和饮用水应用。评估克里希纳吉里北部和东部地区地下水是否适合用于灌溉和饮用水。在研究地区采集了地下水样本。在泰米尔纳德邦氟中毒多发的 Krishnagiri 地区,从十个村庄采集了水样。测量了水质的许多物理化学指标,包括 pH 值、TDS、TH、Ca2+、Mg2+、Na+、K+、Cl 和氟化物 (F),并与典型值(世界卫生组织和英国统计局)进行了比较。地下水质量通过物理化学元素进行评估,如 pH 值、TDS、TH、硫酸盐、氯化物、钙和镁。调查显示,几个水质指标之间存在着密切的线性关系。分析使用了 SPSS 统计分析程序第 16 版。结果表明,地下水中的污染物几乎达到了允许水平。除少数明显的例外情况外,大部分用于评估水质的标准都在印度标准局 (BIS) 允许的范围内。除 1 区某一点的 pH 值外,其他测量值均未超过印度标准局建议的水质允许阈值。
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引用次数: 0
A survey on Transportation System Using the WPM method 使用 WPM 方法对运输系统进行调查
Pub Date : 2024-01-12 DOI: 10.46632/bmes/1/2/5
Transportation System, Introduction: Every movement has a goal, a starting point, possibly a number of intermediate places, and a final location. Transport systems, which are made up of infrastructure, modes, and terminals, support and propel mobility. They allow for interaction and the pursuit of economic, social, social, or political endeavors by individuals, organizations, corporations, regions, and nations. The main goal of this textbook is to help readers understand how geography of transportation and mobility are related. With a wide-ranging overview of the field's concepts, procedures, and areas of application, The Geographic location of Transport Systems provides a thorough and approachable introduction. Research significance: There are twelve chapters in the textbook. A particular conceptual aspect of transport topography, such as routes, modes, destinations, and urban transportation, is covered in each of the first ten chapters. Emerging issues like globalization, management of supply chains, computing infrastructure, energy, and also the environment are thoroughly covered in advisement to these traditional subjects. Methodology: Popular Multiple Dimension Analysis (MCDA) and Inter Decision Making (MCDM) techniques include the Weighted Product Model (WPM). The primary distinction is that multiplication has replaced addition as the fundamental mathematical operation. The objective of this research is to suggest a CS evaluation method from the perspective of the customer for the development of personalized products. Alternative: Roadside Assistance, Routing/location Assistance, Convenience services, and Remote Vehicle Diagnosis. Evaluation Option: Extremely satisfied, satisfied, somewhat satisfied, Not Very satisfied, not at all satisfied Result: “from the result it is seen that not at all satisfied and is got the first rank whereas is the Not Very satisfied got is having the lowest rank”. Conclusion: “The value of the dataset for Nutritional Facts in Weighted product method shows that it results in not at all satisfied and top ranking”.
运输系统,导言:每一次移动都有一个目标、一个起点、可能还有若干个中间地点和一个终点站。运输系统由基础设施、运输方式和终点站组成,支持并推动着流动性。它们允许个人、组织、公司、地区和国家进行互动,并追求经济、社会、社会或政治努力。本教科书的主要目的是帮助读者了解交通地理与流动性之间的关系。通过对该领域的概念、程序和应用领域的广泛概述,《运输系统的地理位置》提供了一个全面而平易近人的介绍。研究意义:教材共十二章。前十章各涉及交通地形学的一个特定概念方面,如路线、模式、目的地和城市交通。除了这些传统主题外,还全面介绍了全球化、供应链管理、计算机基础设施、能源和环境等新出现的问题。方法论:流行的多维分析(MCDA)和交互决策(MCDM)技术包括加权产品模型(WPM)。其主要区别在于乘法已取代加法成为基本的数学运算。本研究的目的是从客户的角度提出一种 CS 评估方法,用于个性化产品的开发。替代方案:道路救援、路线/定位援助、便利服务和远程车辆诊断。评估选项:非常满意、满意、有点满意、不太满意、完全不满意 结果:"从结果可以看出,用户对服务质量非常满意:从结果可以看出,"完全不满意 "排名第一,而 "不太满意 "排名最低。结论加权产品法中营养成分的数据集值显示,"完全不满意 "排名第一。
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Building Materials and Engineering Structures
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