Power component for walking robot and robot with adjustable walking posture
A technology for walking robots and power components, applied in motor vehicles, vehicle components, control devices, etc., can solve problems such as limited mission benefits, difficult operating conditions, and complex terrain and environment.
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Embodiment 1
[0074] like Figure 1 to Figure 3 As shown, the power components used for the walking robot include a planetary reducer, a second chuck 15 coaxial with the planetary carrier 16 is also fixed on the planetary carrier 16 of the planetary reducer, and on the sun gear 12 of the planetary reducer A first chuck 13 coaxial with the sun gear 12 is fixed, and a locking piece 14 for realizing the rotation locking of the first chuck 13 and the second chuck 15 is further included. The locking piece 14 includes a mounting seat 20, a a worm shaft 17 coaxially provided with a worm and rotatably mounted on the mounting seat 20, and a rod-shaped second jaw 19 arranged between the first chuck 13 and the second chuck 15;
[0075] The second claw 19 is threadedly connected to the mounting seat 20, and a worm wheel 21 that engages with the worm is also provided on the second claw 19;
[0076] The second jaw 19 can move laterally between the first chuck 13 and the second chuck 15 relative to the m...
Embodiment 2
[0087] This embodiment is further improved and optimized on the basis of Embodiment 1:
[0088] As a way of realizing the braking of the first chuck 13 and the second chuck 15, the force on both sides of the corresponding chuck can be applied to avoid deformation or even permanent deformation of the corresponding chuck during the braking process due to braking. The technical solution for providing sufficient braking force for the corresponding chuck is set as follows: the locking member 14 further includes a first claw 18 , the first claw 18 is mounted on the mounting seat 20 and the first claw 18 is further provided there is a gap;
[0089] Both the first chuck 13 and the second chuck 15 are partially embedded in the notch;
[0090] One end of the second claws 19 is directly opposite to one side of the notch, and the other end of the second claws 19 is directly opposite to the other side of the notch;
[0091] Both the first chuck 13 and the second chuck 15 can be clamped i...
Embodiment 3
[0093] This embodiment is further improved and optimized on the basis of Embodiment 2:
[0094] This embodiment provides a more specific implementation form of the first jaw 18: the first jaw 18 is a bent rod-shaped structure with a plurality of inflection points set thereon;
[0095] The gap is located on one of the edges of the bent rod-shaped structure;
[0096] The first claw 18 is threadedly connected to the mounting seat 20, and a worm wheel 21 engaged with the worm is also fixed on the first claw 18;
[0097] The worm gear 21 on the first jaw 18 and the worm gear 21 on the second jaw 19 are located on a pair of opposite sides of the worm;
[0098] In the process of forward and reverse rotation of the worm shaft 17, the connecting thread between the first jaw 18 and the mounting seat 20 can guide the first jaw 18 to translate along the axis of the sun gear 12;
[0099] The translation satisfies: according to the translation direction, for any one of the two, the end of t...
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