Optimal Design and Discrete Element Method Model Development of the Acute Angle Hoe Opener for No-Till System

Processes Pub Date : 2024-03-30 DOI:10.3390/pr12040711
Zhiwei Wang, Rui Kang, S. Adilet, Guangrui Hu, Huanbo Yang, Guangyao Liu, Qingyu Chen, Yanwu Jiang, Kaiyuan Zhao, Jun Chen
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Abstract

A specialized hoe opener was engineered for no-till systems to apply substantial amounts of wheat seeds and granular fertilizers, effectively suppressing early stage weeds. This distinctive hoe opener plants wheat seeds within a 120 mm wide horizontal band, positioning granular fertilizers precisely at the band’s center, all accomplished in a single pass. Notably, the design excels at covering the fertilizer with soil aggregates, compacting it through a wheat separator, and concurrently depositing wheat seeds from above. Our primary research objectives centered on achieving a consistent seedbed post-fertilizer application and ensuring a uniform distribution of wheat seeds within the horizontal band. The DEM (Discrete Element Method) was exploited to optimize the hoe opener’s parameters. Through extensive simulations and comparisons with experimental outcomes, an optimal wing orifice AB length of 60 mm was identified, effectively covering granular fertilizers with soil aggregates and achieving compaction through the wheat separator. Furthermore, parameters of the wheat seed separator’s hump were fine-tuned using the Box–Behnken algorithm, resulting in an optimal dimension of 40 mm for the top radius (A), 140 degrees for the top angle (B), and 90 mm for the bottom length (C).
免耕系统锐角锄开沟器的优化设计和离散元素法模型开发
专门为免耕系统设计的锄头开沟器可播撒大量小麦种子和颗粒肥料,有效抑制早期杂草。这种独特的锄头开沟器可在 120 毫米宽的水平带内播撒小麦种子,并将颗粒肥料精确地置于水平带的中心,所有这些都可在一次作业中完成。值得注意的是,该设计在用土壤集料覆盖肥料、通过小麦分离器压实肥料以及同时从上方播撒小麦种子方面表现出色。我们的主要研究目标是在施肥后实现一致的苗床,并确保小麦种子在水平带内均匀分布。我们利用离散元素法(DEM)对锄头开沟器的参数进行了优化。通过大量的模拟和与实验结果的比较,确定了最佳的翼孔 AB 长度为 60 毫米,可有效地将颗粒状肥料与土壤集料覆盖在一起,并通过小麦分离器实现压实。此外,还使用 Box-Behnken 算法对小麦种子分离器驼峰的参数进行了微调,最终确定了最佳尺寸:顶部半径为 40 毫米(A),顶部角度为 140 度(B),底部长度为 90 毫米(C)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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