CN214689853U - Transfer robot chassis based on non-independent profiling - Google Patents
Transfer robot chassis based on non-independent profiling Download PDFInfo
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- CN214689853U CN214689853U CN202120672651.0U CN202120672651U CN214689853U CN 214689853 U CN214689853 U CN 214689853U CN 202120672651 U CN202120672651 U CN 202120672651U CN 214689853 U CN214689853 U CN 214689853U
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Abstract
The utility model relates to a transfer robot chassis based on non-independent profiling, which comprises a chassis body, four traveling mechanisms, a linkage mechanism and four profiling mechanisms; the four traveling mechanisms are respectively connected with the chassis body in a swinging way through four profiling mechanisms; the linkage mechanism which enables the four copying mechanisms to simultaneously copy is positioned between the four copying mechanisms; the linkage mechanism comprises four linkage parts and four transmission connecting rods; the linkage part comprises a slide rail, a slide block, a connecting piece, a spring and a telescopic piece; the sliding rail is arranged on the chassis body, the sliding block is connected with the sliding rail in a sliding manner, and the connecting piece is arranged on the sliding block; two ends of the spring are respectively connected with the connecting piece and the profiling mechanism; two ends of the telescopic piece are respectively hinged with the connecting piece and the profiling mechanism; two ends of the transmission connecting rod are respectively hinged with the two connecting pieces, and the four transmission connecting rods and the four connecting pieces form a diamond structure in a surrounding mode. The utility model discloses can make chassis body keep steady in the juncture four-wheel linkage profile modeling on level land and slope, belong to the haulage equipment field.
Description
Technical Field
The utility model relates to a haulage equipment field, concretely relates to transfer robot chassis based on non-independent profile modeling.
Background
The robot has become the technology that really changes life now, the important part in the middle of the robot is motion module, and in order to adapt to various topography better, alleviate the impact to upper mechanism, most robot chassis all need install suspension, be used for buffering vibration, and current chassis suspension mostly hangs alone, the problem that exists is at complicated topography such as the juncture on level land and slope, the four-wheel can't land simultaneously or the atress is inhomogeneous, and then influence the stability of motion, reduce robot life, and if use mecanum wheel as the chassis drive wheel, under the condition that the four-wheel can't be simultaneously and evenly touch down, can lead to the motion direction different with the control direction, influence system operation. Therefore, there is a need for a non-independent profiling based carrier robot chassis that can adapt to various terrains, has a simple structure, and is economical and practical.
SUMMERY OF THE UTILITY MODEL
To the technical problem who exists among the prior art, the utility model aims at: provided is a transfer robot chassis based on non-independent profiling, which can keep the chassis body stable by four-wheel linkage profiling at the boundary of a flat ground and a slope.
In order to achieve the above purpose, the utility model adopts the following technical scheme:
a transfer robot chassis based on non-independent profiling comprises a chassis body, four traveling mechanisms, a linkage mechanism and four profiling mechanisms; the four traveling mechanisms are respectively connected with the chassis body in a swinging way through four profiling mechanisms; the linkage mechanism which enables the four copying mechanisms to simultaneously copy is positioned between the four copying mechanisms; the linkage mechanism comprises four linkage parts and four transmission connecting rods; the linkage part comprises a slide rail, a slide block, a connecting piece, a spring and a telescopic piece; the sliding rail is arranged on the chassis body, the sliding block is connected with the sliding rail in a sliding manner, and the connecting piece is arranged on the sliding block; two ends of the spring are respectively connected with the connecting piece and the profiling mechanism; two ends of the telescopic piece are respectively hinged with the connecting piece and the profiling mechanism; two ends of each transmission connecting rod are respectively hinged with the two connecting pieces, the four transmission connecting rods and the four connecting pieces enclose a diamond structure, the four transmission connecting rods are four edges of the diamond, and the four connecting pieces are connecting points between the edges of the diamond; the four slide rails are respectively located on the diagonal line of the rhombus in pairs, and the sliding direction of the slide block on the slide rails is consistent with the diagonal line of the rhombus. After the structure is adopted, the chassis body can adapt to terrain change through the profiling mechanism, and four wheels can be kept at the junction of the flat ground and the slope through the linkage mechanism to be simultaneously linked and profiled, so that the chassis of the transfer robot based on non-independent profiling stably runs.
Preferably, the telescopic piece comprises a rod end joint bearing and a sleeve, one end of the rod end joint bearing is hinged with the profiling mechanism, and the other end of the rod end joint bearing is connected with the sleeve in a sliding manner; one end of the sleeve is hinged with the connecting piece, and the other end of the sleeve is sleeved outside the rod end joint bearing. After the structure is adopted, impact and vibration on the chassis body caused by the profiling mechanism are buffered during profiling.
Preferably, the profiling mechanism comprises a first swing arm and a second swing arm, two ends of the first swing arm are respectively hinged with the travelling mechanism and the chassis body, and two ends of the second swing arm are respectively hinged with the travelling mechanism and the chassis body. After the structure is adopted, the walking mechanism is suitable for walking on various terrains.
Preferably, the first swing arm is located above the second swing arm, the first swing arm and the second swing arm are arranged in parallel, the length of the first swing arm is equal to that of the second swing arm, a hinge point of the first swing arm and the walking mechanism is a first hinge point, a hinge point of the second swing arm and the walking mechanism is a second hinge point, connecting lines of the first hinge point and the second hinge point are located on the same vertical plane, and two ends of the first swing arm are respectively connected with two ends of the second swing arm to form a parallelogram connecting rod structure. After adopting the structure, the running mechanism is kept upright relative to the chassis body.
Preferably, the spring is connected with the second swing arm, and the rod end joint bearing is hinged with the second swing arm; when the second swing arm swings in the vertical direction relative to the chassis body, the rod end joint bearing and the spring both translate in the horizontal direction relative to the chassis body, the spring pulls or pushes the connecting piece to slide on the sliding rail, the diamond-shaped transformation shape surrounded by the transmission connecting rod hinged with the connecting piece translates relative to the chassis body, and the connecting piece hinged with the transmission connecting rod is hinged with the chassis body. After the structure is adopted, when any one walking mechanism is profiled along with the profiling mechanism, the other profiling mechanisms are driven by the linkage mechanism to profile simultaneously.
Preferably, the four traveling mechanisms are distributed in a square shape on the chassis body, when one traveling mechanism swings in the vertical direction relative to the chassis body, the linkage mechanism drives the traveling mechanism opposite to the traveling mechanism to swing in the same direction, and the linkage mechanism drives the two traveling mechanisms adjacent to the traveling mechanism to swing in opposite directions. After the structure is adopted, the four travelling mechanisms can all contact the ground and keep upright, and meanwhile, the four travelling mechanisms are stressed uniformly.
Preferably, the traveling mechanism comprises a wheel set and a steering mechanism, the wheel set is connected with the steering mechanism, the steering mechanism is hinged with the first swing arm, and the steering mechanism is hinged with the second swing arm. After the structure is adopted, the travelling mechanism can be self-adaptively profiled according to terrain change, and simultaneously has a steering function.
Preferably, the chassis further comprises a power supply, wherein the power supply is arranged on the chassis body; the steering mechanism comprises a conductive slip ring, a steering motor and a bearing, wherein the conductive slip ring comprises a fixed part at the upper end and a rotating part at the lower end; the steering motor is a hollow shaft motor and comprises a fixed part and a rotating part; the bearing comprises a fixed part positioned on the outer ring and a rotating part positioned on the inner ring; the steering motor is sleeved outside the conductive slip ring; the fixed part of the bearing is hinged with the second swing arm, the steering motor is positioned at the top of the bearing, the fixed part of the steering motor is arranged at the fixed part of the bearing, and the fixed part of the steering motor is hinged with the first swing arm; the rotating part of the steering motor is fixedly connected with the rotating part of the bearing; the wheel set is fixedly connected with the rotating part of the bearing; the rotating part of the conductive slip ring is connected with the rotating part of the steering motor; the fixed part of the conductive slip ring is connected with a power supply through a lead, and the lead is relatively fixed with the profiling mechanism. By adopting the structure, the wheel set can rotate infinitely in one direction.
Preferably, the wheel set comprises a wheel hub, a wheel bracket, a flange coupling and a driving motor; the wheel support is fixedly connected with the rotating part of the bearing, the stator of the driving motor is installed on the wheel support, the output shaft of the driving motor is connected with the wheel hub through a flange coupler, the rotating parts of the driving motor and the conductive slip ring are connected through a motor wire, and the motor wire rotates along with the rotating part of the conductive slip ring. Preferably, the motor lead passes through the rotating part of the bearing and is connected with the rotating part of the conductive slip ring. With this structure, the wire for connecting the driving motor with the power supply is not twisted together under the influence of the rotation of the steering mechanism.
The utility model discloses the principle: when one running mechanism of the chassis is lifted when encountering an obstacle, two ends of the first swing arm are respectively connected with two ends of the second swing arm to form a parallelogram connecting rod structure, a group of opposite sides of the parallelogram connecting rod structure are respectively connected with the chassis body and the running mechanism, so that the running mechanism can be kept parallel to a vehicle body all the time in the lifting process of the running mechanism, the running mechanism can be always vertical to the ground as long as the vehicle body can be kept horizontal, the rotation and the direction determination of the running mechanism are facilitated, meanwhile, the vertical movement of the running mechanism is converted into the horizontal movement of the telescopic piece and the spring by the parallelogram connecting rod structure, the four connecting pieces and the four transmission connecting rods form a rhombus, the rhombus is provided with uniquely determined freedom, the included angle of adjacent sides can be changed on the basis of keeping the rhombus, and the telescopic piece and the spring are connected with one angle of the rhombus, the four travelling mechanisms respectively correspond to the four corners, so that when one corner moves outwards due to lifting of the travelling mechanism, the opposite corner also moves outwards, the opposite travelling mechanism is lifted, the two adjacent corners move inwards, and the two adjacent travelling mechanisms descend, so that the travelling mechanisms on the chassis have the function that the chassis is not in the same plane and keeps in the same plane, and the self-adaption effect on the ground is realized.
In general, the utility model has the advantages as follows:
1. compared with the robot chassis of the independent profiling mechanism, the robot chassis of the independent profiling mechanism solves the problems that four wheels cannot land or the stress is uneven at the junction of the flat ground and the slope by the linkage mechanism; simultaneously four running gear rectangular distributions, every running gear correspondence are connected with profiling mechanism, thereby the utility model discloses when changing the profile modeling according to the topography, the link gear makes four wheels all carry out the profile modeling simultaneously, keeps the four-wheel to land and the atress is even between each wheel, keeps the stability of chassis body simultaneously, simple structure, and the cost is lower, economical and practical.
2. The link gear still has the absorption impact, and the buffering vibration is connected with the profiling mechanism through the spring, and the extensible member is articulated with the profiling mechanism, and the extensible member extends or contracts when the profiling mechanism profile modeling, and the spring is tensile or compression when the profiling mechanism profile modeling, drives the connecting piece simultaneously and slides on the slide rail, when the link gear drives four-wheel profile modeling simultaneously, avoids directly receiving the impact and causes the atress uneven and suffer the damage.
3. The profiling mechanism is formed by arranging a first swing arm and a second swing arm in parallel, and two ends of the first swing arm are respectively connected with two ends of the second swing arm to form a parallelogram connecting rod structure, so that the travelling mechanism is always kept upright and operates stably during profiling.
4. The utility model discloses a hollow shaft motor cover is outside leading the electrical slip ring, it rotates along with hollow shaft motor rotating part to lead electrical slip ring rotating part, and it is fixed for turning to motor fixed part to lead electrical slip ring fixed part, it passes through the wire and is connected with the power to lead electrical slip ring fixed part, thereby the wire of being connected with leading electrical slip ring fixed part does not rotate along with leading electrical slip ring rotating part, and the rotating part of leading electrical slip ring rotates along with the rotating part of hollow shaft motor, driving motor passes through the motor wire and is connected with the rotating part of leading the electrical slip ring, thereby driving motor's motor wire rotates simultaneously with the rotating part of leading the electrical slip ring, the wire can not intertwine, thereby realize that hollow shaft motor control wheelset can be to the unlimited rotation of a direction.
Drawings
Fig. 1 is a perspective view of a transfer robot chassis based on non-independent profiling.
Fig. 2 is a bottom view of a transfer robot chassis based on non-independent profiling.
Fig. 3 is a partially enlarged view of a transfer robot chassis based on non-independent profiling.
Fig. 4 is a schematic view of a traveling mechanism.
Fig. 5 is a top view of a transfer robot chassis based on non-independent profiling.
The chassis comprises a chassis body 1, a traveling mechanism 2, a first swing arm 3, a second swing arm 4, a rod end joint bearing 5, a sleeve 6, a spring 7, a sliding rail 8, a connecting piece 9, a sliding block 10, a transmission connecting rod 11, a wheel hub 12, a driving motor 13, a flange coupler 14, a wheel support 15, a bearing 16, a motor lead 17, a conductive slip ring 18, a steering motor 19, a power supply 20 and a lead 21.
Detailed Description
The present invention will be described in further detail with reference to specific embodiments.
A transfer robot chassis based on non-independent profiling comprises a chassis body, four traveling mechanisms, a linkage mechanism, four profiling mechanisms and a power supply; the four traveling mechanisms are respectively connected with the chassis body in a swinging way through four profiling mechanisms; the linkage mechanism which enables the four copying mechanisms to simultaneously copy is positioned between the four copying mechanisms; the power supply is arranged on the chassis body; the running mechanism is connected with a power supply through a lead.
The linkage mechanism comprises four linkage parts and four transmission connecting rods; the linkage part comprises a slide rail, a slide block, a connecting piece, a spring and a telescopic piece; the sliding rail is arranged on the chassis body, the sliding block is connected with the sliding rail in a sliding manner, and the connecting piece is arranged on the sliding block; two ends of the spring are respectively connected with the connecting piece and the profiling mechanism; two ends of the telescopic piece are respectively hinged with the connecting piece and the profiling mechanism; two ends of each transmission connecting rod are respectively hinged with the two connecting pieces, the four transmission connecting rods and the four connecting pieces enclose a diamond structure, the four transmission connecting rods are four edges of the diamond, and the four connecting pieces are connecting points between the edges of the diamond; the four slide rails are respectively located on the diagonal line of the rhombus in pairs, and the sliding direction of the slide block on the slide rails is consistent with the diagonal line of the rhombus. When the linkage mechanism transmits, the diamond structure enclosed by the four transmission connecting rods and the four connecting pieces changes, two opposite angles are close to or far away from each other, and the other two opposite angles are also close to or far away from each other simultaneously, so that the spring connected with the connecting pieces is compressed or stretched, the telescopic pieces hinged with the connecting pieces stretch and retract, the profiling mechanism is driven to profile, and the travelling mechanism swings relative to the chassis body.
The telescopic piece comprises a rod end joint bearing and a sleeve, one end of the rod end joint bearing is hinged with the profiling mechanism, and the other end of the rod end joint bearing is connected with the sleeve in a sliding manner; one end of the sleeve is hinged with the connecting piece, and the other end of the sleeve is sleeved outside the rod end joint bearing. When the profiling mechanism profiles, the rod end joint bearing and the sleeve translate relative to the chassis body, the rod end joint bearing slides in the sleeve, and impact and vibration transmitted to the chassis body from the profiling mechanism are buffered when the traveling mechanism adapts to terrain.
The profiling mechanism comprises a first swing arm and a second swing arm, the two ends of the first swing arm are respectively hinged with the travelling mechanism and the chassis body, and the two ends of the second swing arm are respectively hinged with the travelling mechanism and the chassis body.
The first swing arm is located above the second swing arm, the first swing arm and the second swing arm are arranged in parallel, the length of the first swing arm is equal to that of the second swing arm, the hinge point of the first swing arm and the walking mechanism is a first hinge point, the hinge point of the second swing arm and the walking mechanism is a second hinge point, the connecting line of the first hinge point and the second hinge point is located on the same vertical plane, and the two ends of the first swing arm are respectively connected with the two ends of the second swing arm to form a parallelogram connecting rod structure. Therefore, the running mechanism always keeps upright and runs stably during profiling.
The spring is connected with the second swing arm, and the rod end joint bearing is hinged with the second swing arm; when the second swing arm swings in the vertical direction relative to the chassis body, the rod end joint bearing and the spring both translate in the horizontal direction relative to the chassis body, the spring pulls or pushes the connecting piece to slide on the sliding rail, the diamond-shaped transformation shape surrounded by the transmission connecting rod hinged with the connecting piece translates relative to the chassis body, and the connecting piece hinged with the transmission connecting rod is hinged with the chassis body.
The four traveling mechanisms are distributed in a square shape on the chassis body, when one traveling mechanism swings in the vertical direction relative to the chassis body, the linkage mechanism drives the traveling mechanisms opposite to the traveling mechanism to swing in the same direction, and the linkage mechanism drives the two traveling mechanisms adjacent to the traveling mechanism to swing in opposite directions.
The traveling mechanism comprises a wheel set and a steering mechanism, the wheel set is connected with the steering mechanism, the steering mechanism is hinged with the first swing arm, and the steering mechanism is hinged with the second swing arm.
The steering mechanism comprises a conductive slip ring, a steering motor and a bearing, wherein the conductive slip ring comprises a fixed part at the upper end and a rotating part at the lower end; the steering motor is a hollow shaft motor and comprises a fixed part and a rotating part; the bearing comprises a fixed part positioned on the outer ring and a rotating part positioned on the inner ring; the steering motor is sleeved outside the conductive slip ring; the fixed part of the bearing is hinged with the second swing arm, the steering motor is positioned at the top of the bearing, and the fixed part of the steering motor is arranged at the fixed part of the bearing; the rotating part of the steering motor is fixedly connected with the rotating part of the bearing; the wheel set is fixedly connected with the rotating part of the bearing; the rotating part of the conductive slip ring is connected with the rotating part of the steering motor; the fixed part of the conductive slip ring is connected with a power supply through a lead, and the lead is relatively fixed with the profiling mechanism. In this embodiment, the fixed part of steering motor erects on the fixed part of bearing through the support frame, and the support frame is articulated with first swing arm. The support frame comprises a fixed plate, an aluminum column and a support plate; the fixing plate is arranged on the fixing part of the bearing through the aluminum column and the supporting plate frame; the fixed part of the steering motor is connected with the fixed plate. The quantity of aluminium post is four, and the quantity of backup pad is two, and the bottom of four aluminium posts and two backup pads all is connected with the fixed part of bearing, and the setting of two backup pad bilateral symmetry is at the fixed part of bearing, and the setting of four two liang of bilateral symmetry of aluminium post is at the fixed part of bearing, and two both sides that the aluminium post corresponds a backup pad set up, and the fixed plate is installed at backup pad and aluminium post top.
The wheel set comprises a wheel hub, a wheel bracket, a flange coupling and a driving motor; the wheel support is fixedly connected with the rotating part of the bearing, an output shaft of the driving motor is connected with the wheel hub through a flange coupling, the rotating parts of the driving motor and the conductive slip ring are connected through a motor wire, and the motor wire rotates along with the rotating part of the conductive slip ring. In this embodiment, driving motor's stator passes through the sleeve and is connected with the wheel support, and the sleeve is fixed at the wheel support.
The motor lead passes through the rotating part of the bearing and is connected with the rotating part of the conductive slip ring. Therefore, when the rotating mechanism drives the wheel set to rotate, the motor wire cannot wind the wheel set or the rotating mechanism but rotates along with the rotating mechanism, so that the wheel set can rotate infinitely along one direction.
The chassis body is provided with a rotating shaft seat, and the first swing arm is connected with the rotating shaft seat through a rotating shaft; the second swing arm is connected with the chassis body through two hinges which are used as revolute pairs.
The sleeve pipe adopts the carbon fiber pipe, and the standard length of extensible member and the pretightning force of spring have been decided to carbon fiber pipe length.
In this embodiment, the included angle range between the slope and the flat ground is 0-30 degrees, when the traveling mechanism travels at the junction where the included angle between the slope and the flat ground is 30 degrees, the traveling mechanism on the slope is lifted upwards, the traveling mechanism opposite to the traveling mechanism is lifted upwards simultaneously under the driving of the link mechanism, two adjacent traveling mechanisms are swung downwards simultaneously under the driving of the link mechanism, and four traveling mechanisms are kept landing simultaneously, so that the chassis body is kept stable, and the situation that the traveling mechanism does not land on the terrain in the independently-profiled chassis is avoided, so that the chassis body swings and the stress is unbalanced.
In this embodiment, the amplitude of the swing of the traveling mechanism relative to the chassis body is 150 mm. The swing amplitude data of the traveling mechanism relative to the chassis body is determined by a plurality of parameters, such as wheel diameter, swing arm length, connecting rod length and the like, and the swing amplitude of the traveling mechanism relative to the chassis body is correspondingly changed according to the difference of the wheel diameter, the swing arm length and the connecting rod length. Meanwhile, the walking mechanism walks on the terrain with the included angle between the slope and the flat ground ranging from 0 degree to 30 degrees according to the specific structure of the embodiment, and the walking mechanism can also walk on slopes in different ranges according to the parameter changes such as the diameter of the wheel, the length of the swing arm and the length of the connecting rod.
The working process is as follows:
when the chassis meets uneven terrain, wheel groups are restricted by the uneven terrain to move in the vertical direction, the first swing arm and the second swing arm swing correspondingly, the rod end joint bearing and the spring move horizontally relative to the chassis body, the spring stretches or compresses to buffer the impact caused by the swing of the second swing arm, meanwhile, the spring drives the connecting piece and the sliding block to move on the sliding rail, the shape of a diamond structure formed by the four transmission connecting rods and the four connecting pieces changes, so that all the connecting pieces slide on the sliding rail, the springs and the sleeves are correspondingly driven to move horizontally relative to the chassis body, the springs and the sleeves correspondingly drive the second swing arm to swing vertically relative to the chassis body, two ends of the first swing arm are respectively connected with two ends of the second swing arm to form a parallelogram connecting rod structure, and the parallelogram connecting rod structure converts the distance change of the wheel groups into height change, thereby all can touch to the ground and keep the wheelset upright to four wheelsets, the atress is even simultaneously. A single degree of freedom is kept among four travelling mechanisms of the chassis for self-adaptive adjustment corresponding to different terrains, when the chassis is pressed, the chassis can change along with the change of the terrains due to the constraint of the ground on the degree of freedom, and the compression spring and the rod end joint bearing absorb vibration and impact.
The above embodiments are preferred embodiments of the present invention, but the embodiments of the present invention are not limited to the above embodiments, and any other changes, modifications, substitutions, combinations, and simplifications which do not depart from the spirit and principle of the present invention should be equivalent replacement modes, and all are included in the scope of the present invention.
Claims (10)
1. The utility model provides a transfer robot chassis based on non-independent profile modeling which characterized in that: the chassis comprises a chassis body, four traveling mechanisms, a linkage mechanism and four profiling mechanisms; the four traveling mechanisms are respectively connected with the chassis body in a swinging way through four profiling mechanisms; the linkage mechanism which enables the four copying mechanisms to simultaneously copy is positioned between the four copying mechanisms;
the linkage mechanism comprises four linkage parts and four transmission connecting rods; the linkage part comprises a slide rail, a slide block, a connecting piece, a spring and a telescopic piece; the sliding rail is arranged on the chassis body, the sliding block is connected with the sliding rail in a sliding manner, and the connecting piece is arranged on the sliding block; two ends of the spring are respectively connected with the connecting piece and the profiling mechanism; two ends of the telescopic piece are respectively hinged with the connecting piece and the profiling mechanism;
two ends of each transmission connecting rod are respectively hinged with the two connecting pieces, the four transmission connecting rods and the four connecting pieces enclose a diamond structure, the four transmission connecting rods are four edges of the diamond, and the four connecting pieces are connecting points between the edges of the diamond; the four slide rails are respectively located on the diagonal line of the rhombus in pairs, and the sliding direction of the slide block on the slide rails is consistent with the diagonal line of the rhombus.
2. A non-independent profile based transfer robot chassis according to claim 1, wherein: the telescopic piece comprises a rod end joint bearing and a sleeve, one end of the rod end joint bearing is hinged with the profiling mechanism, and the other end of the rod end joint bearing is connected with the sleeve in a sliding manner; one end of the sleeve is hinged with the connecting piece, and the other end of the sleeve is sleeved outside the rod end joint bearing.
3. A non-independent profile based transfer robot chassis according to claim 1, wherein: the profiling mechanism comprises a first swing arm and a second swing arm, the two ends of the first swing arm are respectively hinged with the travelling mechanism and the chassis body, and the two ends of the second swing arm are respectively hinged with the travelling mechanism and the chassis body.
4. A non-independent profile based transfer robot chassis according to claim 3, wherein: the first swing arm is located above the second swing arm, the first swing arm and the second swing arm are arranged in parallel, the length of the first swing arm is equal to that of the second swing arm, the hinge point of the first swing arm and the walking mechanism is a first hinge point, the hinge point of the second swing arm and the walking mechanism is a second hinge point, the connecting line of the first hinge point and the second hinge point is located on the same vertical plane, and the two ends of the first swing arm are respectively connected with the two ends of the second swing arm to form a parallelogram connecting rod structure.
5. A non-independent profile based transfer robot chassis according to claim 3, wherein: the spring is connected with the second swing arm, and the rod end joint bearing is hinged with the second swing arm; when the second swing arm swings in the vertical direction relative to the chassis body, the rod end joint bearing and the spring both translate in the horizontal direction relative to the chassis body, the spring pulls or pushes the connecting piece to slide on the sliding rail, the diamond-shaped transformation shape surrounded by the transmission connecting rod hinged with the connecting piece, and the four connecting pieces hinged with the transmission connecting rod translate relative to the chassis body.
6. A non-independent profile based transfer robot chassis according to claim 1, wherein: the four traveling mechanisms are distributed in a square shape on the chassis body, when one traveling mechanism swings in the vertical direction relative to the chassis body, the linkage mechanism drives the traveling mechanisms opposite to the traveling mechanism to swing in the same direction, and the linkage mechanism drives the two traveling mechanisms adjacent to the traveling mechanism to swing in opposite directions.
7. A non-independent profile based transfer robot chassis according to claim 3, wherein: the traveling mechanism comprises a wheel set and a steering mechanism, the wheel set is connected with the steering mechanism, the steering mechanism is hinged with the first swing arm, and the steering mechanism is hinged with the second swing arm.
8. A non-independent profile based transfer robot chassis according to claim 7, wherein: the power supply is arranged on the chassis body; the steering mechanism comprises a conductive slip ring, a steering motor and a bearing, wherein the conductive slip ring comprises a fixed part at the upper end and a rotating part at the lower end; the steering motor is a hollow shaft motor and comprises a fixed part and a rotating part; the bearing comprises a fixed part positioned on the outer ring and a rotating part positioned on the inner ring; the steering motor is sleeved outside the conductive slip ring; the fixed part of the bearing is hinged with the second swing arm, the steering motor is positioned at the top of the bearing, the fixed part of the steering motor is arranged at the fixed part of the bearing, and the fixed part of the steering motor is hinged with the first swing arm; the rotating part of the steering motor is fixedly connected with the rotating part of the bearing; the wheel set is fixedly connected with the rotating part of the bearing; the rotating part of the conductive slip ring is connected with the rotating part of the steering motor; the fixed part of the conductive slip ring is connected with a power supply through a lead, and the lead is relatively fixed with the profiling mechanism.
9. A non-independent profile based transfer robot chassis according to claim 8, wherein: the wheel set comprises a wheel hub, a wheel bracket, a flange coupling and a driving motor; the wheel support is fixedly connected with the rotating part of the bearing, the stator of the driving motor is installed on the wheel support, the output shaft of the driving motor is connected with the wheel hub through a flange coupler, the rotating parts of the driving motor and the conductive slip ring are connected through a motor wire, and the motor wire rotates along with the rotating part of the conductive slip ring.
10. A non-independent profile based transfer robot chassis according to claim 9, wherein: the motor lead passes through the rotating part of the bearing and is connected with the rotating part of the conductive slip ring.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202120672651.0U CN214689853U (en) | 2021-03-31 | 2021-03-31 | Transfer robot chassis based on non-independent profiling |
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| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202120672651.0U CN214689853U (en) | 2021-03-31 | 2021-03-31 | Transfer robot chassis based on non-independent profiling |
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| Publication Number | Publication Date |
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| CN214689853U true CN214689853U (en) | 2021-11-12 |
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| CN202120672651.0U Expired - Fee Related CN214689853U (en) | 2021-03-31 | 2021-03-31 | Transfer robot chassis based on non-independent profiling |
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Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN112918588A (en) * | 2021-03-31 | 2021-06-08 | 华南理工大学 | Terrain self-adaptive transfer robot chassis |
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2021
- 2021-03-31 CN CN202120672651.0U patent/CN214689853U/en not_active Expired - Fee Related
Cited By (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN112918588A (en) * | 2021-03-31 | 2021-06-08 | 华南理工大学 | Terrain self-adaptive transfer robot chassis |
| CN112918588B (en) * | 2021-03-31 | 2024-04-09 | 华南理工大学 | Topography self-adaptation transfer robot chassis |
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