通过减少收获损失来提高拉式喷雾器的使用效率

Azat Nurmiev, Kamil Khafizov, Kamil Khafizov, Nail Zalakov, Ivan Maksimov
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For the accepted operating conditions of the sprayer (field area Fpolya = 60 ha; head length lgona = 0.8 km; travel distance lper = 3 km; strength factor of the field bearing surface Q1=0.9; volume of work Q=1000 ha; crop - spring wheat; number of weeds - 50 pieces/m2; number of tractors employed in the operation Ntrakt = 1 piece; working day Tdnev = 14 hours; planned yield YP = 40 c/ha; application rate of pesticides H3 = 150 l/ha; pump pressure Pnasosa = 3 MPa, air pressure in tires Pw = 0.16 MPa, number of wheels on one side of the axle Zk = 1 piece, coefficient of adhesion of wheels to soil Kscep = 0.6, coefficient of resistance to wheel rolling fperek = 0.1; soil density pz=1300 kg/m3; soil hardness H=1800000 Pa) revealed the presence of a combination of values of six parameters, when the total energy costs reach a minimum. the volume of the tank for pesticides is 5000 l, the width of the sprayer wheel profile is 0.2 m, the coefficient of distribution of the weight of the sprayer on its support wheels is 0.83. 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引用次数: 0

摘要

研究的目的是在考虑到可能的作物损失的情况下,优化履带式喷雾器的参数,以降低其运行过程中的总能源成本。利用mtz - 80,82拖拉机喷雾器系统能量数学模型进行了计算实验。正在考虑的系统包括子系统-拖拉机,操作员,喷雾器,田地,土壤和作物(toppu)。作为优化喷雾器参数的一个准则,总能量成本除了包括直接和间接的能量成本外,还包括喷雾器参数选择不正确时作物损失的能量。对于喷雾器的可接受操作条件(田间面积Fpolya = 60 ha;头长lgona = 0.8 km;行驶距离lper = 3公里;场承面强度因子Q1=0.9;工程量Q=1000 ha;作物——春小麦;杂草数量- 50片/m2;作业中使用的拖拉机数量Ntrakt = 1台;工作日Tdnev = 14小时;计划产量YP = 40 c/ha;农药施用量H3 = 150 l/ha;泵压力Pnasosa = 3 MPa,轮胎内气压Pw = 0.16 MPa,轴一侧车轮数Zk = 1片,车轮对土壤的附着系数Kscep = 0.6,车轮滚动阻力系数fperek = 0.1;土壤密度pz=1300 kg/m3;土壤硬度H=1800000 Pa)表明,当总能量成本达到最小时,存在6个参数值的组合。农药储罐容积为5000l,喷雾器轮廓宽度为0.2 m,喷雾器重量在其支撑轮上的分布系数为0.83。当机组在现场转动时,总能量成本为4852.9 MJ/ha。在相同的喷雾器最优参数值下,将机组移出现场,总能源成本降低了三倍,达到1365.4 MJ/ha。广泛使用的喷雾器的部分性能指标——生产率、每单位处理面积的燃料消耗——无法确定减少作物损失的方法。
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INCREASING THE EFFICIENCY OF THE USE OF THE PULL-TYPE SPRAYER BY REDUCING HARVEST LOSS
The research was carried out with the aim of optimizing the parameters of the trailed sprayer to reduce the total energy costs during its operation, taking into account possible crop losses. Computational experiments were carried out using a system energy mathematical model of sprayers based on the tractor MTZ-80, 82. The system under consideration includes subsystems - tractor, operator, sprayer, field, soil and crop (TOOPPU). As a criterion for optimizing the parameters of the sprayer, the total energy costs are taken, including, in addition to direct and indirect energy costs, the energy of the crop lost when the parameters of the sprayer are chosen incorrectly. For the accepted operating conditions of the sprayer (field area Fpolya = 60 ha; head length lgona = 0.8 km; travel distance lper = 3 km; strength factor of the field bearing surface Q1=0.9; volume of work Q=1000 ha; crop - spring wheat; number of weeds - 50 pieces/m2; number of tractors employed in the operation Ntrakt = 1 piece; working day Tdnev = 14 hours; planned yield YP = 40 c/ha; application rate of pesticides H3 = 150 l/ha; pump pressure Pnasosa = 3 MPa, air pressure in tires Pw = 0.16 MPa, number of wheels on one side of the axle Zk = 1 piece, coefficient of adhesion of wheels to soil Kscep = 0.6, coefficient of resistance to wheel rolling fperek = 0.1; soil density pz=1300 kg/m3; soil hardness H=1800000 Pa) revealed the presence of a combination of values of six parameters, when the total energy costs reach a minimum. the volume of the tank for pesticides is 5000 l, the width of the sprayer wheel profile is 0.2 m, the coefficient of distribution of the weight of the sprayer on its support wheels is 0.83. When turning the unit within the field, the total energy costs amounted to 4852.9 MJ/ha. With the same values of the optimal parameters of the sprayer, turning the unit outside the field led to a threefold reduction in total energy costs to 1365.4 MJ/ha. Widely used partial performance indicators of sprayers - productivity, fuel consumption per unit of treated area do not allow to identify ways to reduce crop losses.
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