Bionic multi-degree-of-freedom adjustable exoskeleton robot hip joint mechanical structure
An exoskeleton robot and mechanical structure technology, which is applied in the direction of manipulators, program-controlled manipulators, manufacturing tools, etc., can solve the problems that affect the use of users, strong sense of falling on the waist or back, poor coordination of human body movements, etc., to reduce the sense of falling , The effect of reducing the sense of falling and strong coordination
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Embodiment 2
[0078] On the basis of Embodiment 1, in some embodiments, the drive unit includes a drive motor 5; the rotating shaft of the drive motor 5 is fixedly connected with the end of the thigh support 2; the drive motor 5 is connected with a third an encoder, the third encoder is used to detect the third angle value of the rotation of the drive motor 5;
[0079] The output end of the third encoder is connected with a third control unit, and the third control unit is configured to:
[0080] receiving the third angle value;
[0081] When it is determined that the third angle value exceeds the third set range, the drive motor 5 is controlled to rotate to the initial state; in the initial state, the third angle value is 0.
[0082] Specifically, the third setting range is: -15° to 20°; in the initial state, the human body is in a natural standing state, and the third angle value is 0 at this time.
[0083] For example: when the wearer is performing a larger leg lift, the third encoder ...
Embodiment 3
[0092] On the basis of Embodiment 1, in some embodiments, such as image 3 As shown, a first rotating shaft 11 is fixedly installed on the back plate 1, the first end of the first hip connecting rod 3 is rotatably connected with the first rotating shaft 11, and the first rotating axis is the the central axis of the first rotating shaft 11;
[0093] A first encoder 12 is installed on the first hip connecting rod 3 and corresponding to the first rotating shaft 11 , and the first encoder 12 is used to detect the first angle value θ of the rotation of the first hip connecting rod 3 1 ; The output end of the first encoder 12 is connected with a first control unit, and the output end of the first control unit is connected with a first alarm unit;
[0094] The first control unit is configured to:
[0095] s11: Receive the first angle value θ 1 ;
[0096]s12: Calculate the first angle θ according to formula (1) a :
[0097] θ a =θ 0 +θ 1 ; (one)
[0098] where θ 0 When the ...
Embodiment 4
[0108] On the basis of Embodiment 3, in some embodiments, such as Figure 4 As shown, the second end of the first hip connecting rod 3 is rotatably mounted with a second rotating shaft 31, and the first end of the second hip connecting rod 4 is fixedly connected with the second rotating shaft 31, and the The second rotation axis is the central axis of the second rotation shaft 31;
[0109] A second encoder 32 is installed on the first hip connecting rod 3 and corresponding to the second shaft 31 , and the second encoder 32 is used to detect the second angle value θ at which the second shaft 31 rotates 2 ; The output end of the second encoder 32 is connected with a second control unit, and the output end of the second control unit is connected with a second alarm unit;
[0110] The second control unit is configured to:
[0111] s21: Receive the second angle value θ 2 ;
[0112] s22: Determine the second angle value θ 2 When the range of the second threshold value is exceed...
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