轮腿机器人的同心安装机构

By integrating the leg unit onto the wheel unit, the problems of large space occupation and high cost of wheel-leg robots are solved, and the efficiency and stability of wheel-leg transformation are achieved.

CN224511289UActive Publication Date: 2026-07-17SHANGHAI UNIV OF ENG SCI

Patent Information

Authority / Receiving Office
CN · China
Patent Type
Utility models(China)
Current Assignee / Owner
SHANGHAI UNIV OF ENG SCI
Filing Date
2025-09-29
Publication Date
2026-07-17

AI Technical Summary

Technical Problem

Existing wheeled and legged robots require separate installation of wheel systems and bionic limbs on the main support frame, resulting in large space occupation and high costs.

Method used

By integrating leg units onto the wheel unit, concentric installation of the wheel and leg is achieved, reducing the space occupied by the main support and lowering costs.

Benefits of technology

It enables wheeled-legged robots to efficiently transform on the same structure, saving space and reducing costs, while achieving stable movement in complex terrain.

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Abstract

本实用新型属于轮腿机器人领域,公开了轮腿机器人的同心安装机构,包括轮体单元,其具有圆环状的驱动轮,驱动轮的中心为空心结构,腿式支撑单元固定环,其经空心结构活动安装在驱动轮上,并与驱动轮同心;腿式支撑单元,其固定安装在腿式支撑单元固定环上;腿式支撑单元包括壳体,其固定安装在腿式支撑单元固定环的内圈上,壳体的上表面安装有机械臂。因为本实用新型将腿式支撑单元集成到轮式单元上,使本轮腿机器人在同一种结构上实现轮腿变换,相比于现有技术中的需要在主体支架上分别安装轮系装置和仿生肢,为此,本轮腿机器人可节省空间,另外一方面也会降低成本;具体为:沿L的反向,轮胎、驱动轮、内齿圈和腿式支撑单元固定环均同心安装。
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Claims

1. A concentric mounting mechanism of a wheel-legged robot, characterized by, include, The wheel unit has a circular drive wheel with a hollow center. The leg-type support unit fixing ring is movably mounted on the drive wheel via a hollow structure and is concentric with the drive wheel; A leg-type support unit is fixedly installed on the leg-type support unit fixing ring; The leg support unit includes a housing, which is fixedly installed on the inner ring of the leg support unit fixing ring, and a robotic arm is installed on the upper surface of the housing.

2. The concentric mounting mechanism for the wheeled-legged robot according to claim 1, characterized in that: The robotic arms are two in number on the housing and extend along both ends of the drive wheel.

3. The concentric mounting mechanism for the wheeled-legged robot according to claim 2, characterized in that: The direction from the center of the drive wheel to its circumference is taken as the inner diameter direction. The drive wheel has a drive wheel chamber inside, and the drive wheel chamber extends in the opposite direction along its inner diameter until it opens inward and connects with the hollow structure.

4. The concentric mounting mechanism for the wheeled-legged robot according to claim 2, characterized in that: The leg-type support unit fixing ring is movably mounted on the drive wheel via a hollow structure and drive wheel chamber through a drive mechanism, and is concentric with the drive wheel. The drive mechanism includes an internal gear ring, the smooth surface of which is fixedly mounted in the drive wheel chamber and concentric with the drive wheel; a gear, which is mounted on the housing via a drive component and coupled to the internal gear ring gear; the drive component is a motor; a fixing plate is fixedly connected to the outer ring of the leg-type support unit fixing ring; the fixed end of the motor is mounted on the fixing plate via a mounting bracket; and the gear is sleeved on the free end of the motor.

5. The concentric mounting mechanism for the wheel-legged robot according to claim 2, characterized in that: The opening of the drive wheel chamber is a tapered structure, which draws the edge of the housing into the drive wheel chamber.

6. The concentric mounting mechanism of the wheeled-legged robot according to claim 4, characterized in that: An attitude control module is fixedly connected to the fixed plate, which is used to switch between the wheel unit and the robotic arm, facilitating the switching between the wheel unit's rolling mode and the robotic arm's walking mode. Both the attitude control module and the motor are located inside the drive wheel chamber. The attitude control module has a gyroscope, a sensor used to measure or maintain the attitude of the device, which can detect changes in angular velocity; and an accelerometer, a device used to measure the acceleration of the device, assisting the attitude control module in determining the robot's motion state.