无人机载物的更换系统

By introducing a positioning support structure and roller unit into the drone cargo system, the problem of increased load caused by the extension of the robotic arm was solved, achieving smooth operation of the robotic arm and reducing costs.

CN224512182UActive Publication Date: 2026-07-17BEIJING ANKE INTELLIGENT DEFENSE TECH CO LTD

Patent Information

Authority / Receiving Office
CN · China
Patent Type
Utility models(China)
Current Assignee / Owner
BEIJING ANKE INTELLIGENT DEFENSE TECH CO LTD
Filing Date
2024-12-26
Publication Date
2026-07-17

Smart Images

  • Figure CN224512182U_ABST
    Figure CN224512182U_ABST
Patent Text Reader

Abstract

本申请公开了一种无人机载物的更换系统,包括机械臂装置和仓储货架,所述机械臂装置提供有定位支撑结构,所述定位支撑结构包括定位部和支撑部;所述仓储货架包括仓支架和仓板,所述仓支架为至少一层的框架结构,每层仓支架的地面为所述仓板;所述定位部和所述支撑部被构型为在所述第一伸缩段伸出时所述定位部抵住所述仓支架或者所述仓板的端面,所述支撑部的下表面接合所述仓板,从而形成横向方向上的受力支撑点。本申请的实施例的有益效果至少包括:通过设置定位支撑结构,建立了第二受力点,可以使得机械臂装置运行更加平稳。
Need to check novelty before this filing date? Find Prior Art

Claims

1. A drone-borne cargo replacement system, including a robotic arm and storage racks, characterized in that: The robotic arm device includes a base, a column fixed to the base, and a telescopic arm that is longitudinally slidably coupled to the column; one end of the telescopic arm is provided with a positioning support structure, which includes a positioning part and a support part. The storage rack includes a rack support and a rack panel. The rack support is a frame structure with at least one layer, and the floor of each layer of rack support is the rack panel. The telescopic arm includes a drive section, a first telescopic section laterally coupled to the drive section, and a second telescopic section laterally coupled to the first telescopic section; wherein, the positioning support structure is provided at the end of the first telescopic section away from the drive section, and the positioning support structure is presented in the form of an end step. The positioning part and the supporting part are configured such that when the first telescopic section extends, the positioning part abuts against the end face of the bin bracket or the bin plate, and the lower surface of the supporting part engages with the bin plate, thereby forming a force-bearing support point in the lateral direction.

2. The unmanned aerial object-changing system according to claim 1, characterized in that, The end of the bin plate near the robotic arm device is provided with a roller unit, which is configured to cooperate with the support portion of the positioning support structure, such that when the second telescopic section extends or retracts, the support portion maintains rolling contact with the roller in the roller unit.

3. The unmanned aerial object-changing system of claim 2, wherein, The roller unit includes a shaft and rollers coupled to the shaft, with both ends of the shaft coupled to the bin plate via bearings.

4. The unmanned aerial object-changing system of claim 2, wherein, The roller unit is a single unit extending in the thickness direction of the bin plate; or it can be divided into several segments extending in the thickness direction of the bin plate.

5. The unmanned aerial object-changing system of claim 2, wherein, A support plate is provided in the groove provided for the roller unit on the bin plate.

6. The unmanned aerial object-changing system of claim 1, wherein, It also includes a housing that surrounds the robotic arm device and the storage rack.

7. The unmanned aerial object-changing system of claim 1, wherein, The longitudinally slidable coupling is achieved by a drive component including a first cylinder, a first hydraulic cylinder, and a first motor lead screw, combined with a guide structure including a first guide rail.

8. The unmanned aerial object-changing system of claim 1, wherein, The lateral coupling between the first telescopic section and the drive section is achieved based on the second hydraulic cylinder, the second air cylinder, and the second guide rail, wherein the drive section includes the second cylinder body of the second air cylinder or the second hydraulic cylinder of the second cylinder extending laterally, and the first telescopic section engages the second cylinder rod of the second air cylinder extending laterally, or engages the second cylinder rod of the second hydraulic cylinder.

9. The unmanned aerial object-changing system of claim 1, wherein, The lateral coupling between the second telescopic section and the first telescopic section is achieved based on the third hydraulic cylinder, the third air cylinder, and the third guide rail. The first telescopic section includes the third cylinder body of the third air cylinder or the third hydraulic cylinder of the third hydraulic cylinder extending laterally. The second telescopic section engages with the third cylinder rod of the third air cylinder extending laterally, or engages with the third hydraulic cylinder rod of the third hydraulic cylinder.