谢学虎, 张永, 刘召, 程永健, 刘彩霞, 毕力格图. 大蒜播种机种植机构的设计[J]. 农业工程学报, 2015, 31(1): 34-39. DOI: doi:10.3969/j.issn.1002-6819.2015.01.005
    引用本文: 谢学虎, 张永, 刘召, 程永健, 刘彩霞, 毕力格图. 大蒜播种机种植机构的设计[J]. 农业工程学报, 2015, 31(1): 34-39. DOI: doi:10.3969/j.issn.1002-6819.2015.01.005
    Xie Xuehu, Zhang Yong, Liu Zhao, Cheng Yongjian, Liu Caixia, Bi Ligetu. Design of planting mechanism for garlic planter[J]. Transactions of the Chinese Society of Agricultural Engineering (Transactions of the CSAE), 2015, 31(1): 34-39. DOI: doi:10.3969/j.issn.1002-6819.2015.01.005
    Citation: Xie Xuehu, Zhang Yong, Liu Zhao, Cheng Yongjian, Liu Caixia, Bi Ligetu. Design of planting mechanism for garlic planter[J]. Transactions of the Chinese Society of Agricultural Engineering (Transactions of the CSAE), 2015, 31(1): 34-39. DOI: doi:10.3969/j.issn.1002-6819.2015.01.005

    大蒜播种机种植机构的设计

    Design of planting mechanism for garlic planter

    • 摘要: 为了满足大蒜在栽植过程中保持蒜瓣鳞芽朝上垂直入土且蒜瓣弓背面朝向一致的农艺要求,该文根据蒜瓣的外形特征,设计了一种大蒜播种机种植机构并对该机构进行详细的理论分析,运用Solidworks软件对该机构进行建模并通过3D打印机打印出零件,然后组建试验台对该种植机构进行试验。试验数据显示采用该种植机构不但可以确保大蒜弓背面朝向一致,而且播种机前进速度的变化对蒜瓣垂直度的影响较小。该文为大蒜种植机械种植机构的设计提供了一种设计方法,为研究大蒜播种机和同类机具提供了参考。

       

      Abstract: Abstract: Garlic planters developed relatively late and its technology is not matured in the agricultural machinery. However, due to the growing demand for garlic, intensive planting of garlic has become the trend in modern agriculture. The restricting factor of garlic intensive planting is delayed garlic planting machinery development. This paper proposed two key problems of developing garlic planting machinery: garlic cloves insert vertically and the cloves face towards consistent. To solve these two problems, we designed a garlic planting mechanism which can meet the garlic agricultural cultivation requirement. Based on the study of garlic planter at home and abroad, we designed a mechanism and analyzed it in detailed according to the shape characteristics of garlic cloves. The software of Solidworks was used for modeling the mechanism and the parts were printed by 3D printer, and then the garlic cultivation mechanism was built and tested. The test bench includes mobile platform which can control the speed, stepper motor, garlic planting mechanism, bracket, soil and 10 different sizes of garlic cloves. The garlic cultivation mechanism is fixed on the mobile platform through the bracket and steeper motor is fixed on the mobile platform. The rope of garlic cultivation mechanism is winded up onto the stepper motor. Stepper motor drives the rope of garlic planting mechanism to move with the mobile platform movement and press garlic cloves into the soil. By changing the frequency of the stepper motor and the speed of the mobile platform, we observed the angle between bulbil and soil of different sizes of garlic cloves under different combination of frequency and speed variation. The experimental data showed that changing the mobile platform movement speed had little effect on the angle between cloves bulbil and the soil when the frequency of variable frequency motor was fixed. When the mobile platform movement speed was fixed, changing the frequency of variable frequency motor also had little impact on the angle. While changing the angle between the garlic planting mechanism and the ground, it had large effect on the angle. Using this planting mechanism can not only ensure the garlic camber surface toward consistently but also reduce the effect on the vertical degree of garlic cloves caused by the speed of planter. But the different sizes of garlic had a pronounced impact on this plant mechanism and need to be further optimized. When cloves insert into the soil, the garlic planting mechanism basically had no damage to cloves. This design adopts a brand-new concept and provides a new approach for designing garlic planting mechanism.

       

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