Optimizing Crop Planting Strategy Based on Goal Programming and Differential Genetic Algorithm
DOI:
https://doi.org/10.54097/m0sgxq03Keywords:
Agricultural Economic Benefits, Sustainable Development, Differential Genetic Algorithms, Monte Carlo Simulation.Abstract
The formulation of crop planting strategy is of great significance to effectively utilize rural cultivated land resources and promote the sustainable development of rural economy. The optimal planting strategy is to make full use of cultivated land resources to plant crops in order to obtain the maximum expected profit under the premise of following the law of crop growth. Based on the given rural planting conditions, the growth law of various crops, the expected sales volume of various crops, the yield per mu, the planting cost and the uncertainty of the selling price, this paper constructs a single objective programming model to maximize the expected total profit of crops as the objective function, and introduces conditional value at risk to carry out robust optimization of the objective function. The uncertainty parameters were simulated by Monte Carlo method, and their expectation and variance were estimated by kernel density estimation method. Finally, differential genetic algorithm was used to solve the model, and the optimal planting strategy was obtained.
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[1] Janouek Z, et al. Optimal model utilization of arable land with regard to food self-sufficiency and soil protection[J]. Journal of Maps, 2022, 18: 362 - 369.
[2] Rumpel C, Amiraslani F, Koutika L-S, Smith P, Whitehead D, & Wollenberg E. Put more carbon in soils to meet Paris climate pledges[J]. Nature, 2018, 564(7734): 32–34.
[3] Dan Simon. Biogeography-based optimization[J]. IEEE Transactions on Evolutionary Computation, 2008, 6(12) : 702-713
[4] VON LÜCKEN C, ACOSTA A, ROJAS N. Solving a many-ob jective crop rotation problem with evolutionary algorithms[M]// Smart Innovation, Systems and Technologies. Singapore: Spring er Singapore, 2021: 59-69.
[5] FENZ S, NEUBAUER T, FRIEDEL J K, et al. AI- and data-driv en crop rotation planning[J]. Computers and electronics in agri culture, 2023, 212: ID 108160.
[6] ZHANG D Y, DING Y, CHEN P F, et al. Automatic extraction of wheat lodging area based on transfer learning method and deep labv3+ network[J]. Computers and electronics in agriculture, 2020, 179: ID 105845.
[7] Luo Dan, Jiang Bingbing. A multi-objective particle swarm optimization and biogeography optimization algorithm for tomato planting planning problem [J]. Computer Application and Software, 2023, 40 (07): 294-299.
[8] Study on optimization of planting structure in tropical grassland climate irrigation district based on stochastic dynamic programming [J]. Water Saving Irrigation, 2024, (10): 15-21.
[9] Jia Hansi, Shi Yingling, Zi Xueming, Liao Mingshan, Yang Ke. Optimal planting density of maize in Western Yunnan based on AquaCrop model [J]. Journal of Yunnan Agricultural University (Natural Science), 2024, 39 (06): 169-176.
[10] Hu Chenyang, Gao Yuelin, Sun Ying. Multi-stage Investment Portfolio Model Based on Genetic Differential Co-evolution in Fuzzy Environment [J]. Journal of Engineering Mathematics, 2024, 41 (01): 39-52.
[11] Han Chen, Zhang Zhi, Duan Baiping, Ren Xiangjin, Yang Rui. Analysis and Design of Dynamic Spectrum Interference between Mobile Communication System and Satellite Communication System Based on Monte Carlo Method [J]. Telecommunications Science, 2024, (S2): 1-8.
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