阅读说明：本技术 机械臂和床的联动控制方法及控制系统 (Linkage control method and system for mechanical arm and bed ) 是由 朱雲 于 2021-08-31 设计创作，主要内容包括：本申请涉及一种机械臂和床的联动控制方法、控制系统以及智能人体经络调理设备通过获取经络行走路线；预设行程阈值,基于所述预设行程阈值控制所述机械臂按照所述经络行走路线执行行走指令；判断所述机械臂的行程是否到达所述预设行程阈值,是则发出指令信号并根据所述指令信号生成联动控制指令；根据所述联动控制指令控制床和机械臂联动动作。本申请能够通过判断所述机械臂的行程是否到达所述预设行程阈值实现机械臂和理疗床之间的联动控制,使得机械臂可以在机械臂范围短、行程够不着整个人体的情况下,通过机械臂和床联动,可以在不增加设备本身结构的情况下实现人体全覆盖调理,床和机械臂联动,保证同步,不会走偏。(The application relates to a linkage control method and a linkage control system of a mechanical arm and a bed, and intelligent human body meridian conditioning equipment, which are used for obtaining a meridian walking route; a preset travel threshold value, and controlling the mechanical arm to execute a walking instruction according to the meridian walking route based on the preset travel threshold value; judging whether the stroke of the mechanical arm reaches the preset stroke threshold value or not, if so, sending an instruction signal and generating a linkage control instruction according to the instruction signal; and controlling the linkage action of the bed and the mechanical arm according to the linkage control instruction. This application can be through judging whether the stroke of arm reachs predetermine stroke threshold value and realize the coordinated control between arm and the physiotherapy bed for the arm can be short, the stroke can not be enough under the whole human condition at the arm scope, through arm and bed linkage, can realize human full coverage under the condition that does not increase equipment structure itself and take care of, bed and arm linkage guarantee synchronous, can not walk partially.)

1. A linkage control method of a mechanical arm and a bed is characterized by comprising the following steps:

s1, acquiring a meridian walking route;

s2, presetting a travel threshold, and controlling the mechanical arm to execute a travel instruction according to the meridian travel route based on the preset travel threshold;

s3, judging whether the stroke of the mechanical arm reaches the preset stroke threshold value, if so, sending an instruction signal and generating a linkage control instruction according to the instruction signal; and controlling the linkage action of the bed and the mechanical arm according to the linkage control instruction.

2. The linkage control method of a mechanical arm and a bed according to claim 1, wherein in step S1, the obtaining of the meridian walking route comprises:

acquiring point cloud data of the body surface of a human body;

establishing a meridian walking track according to the human body surface point cloud data;

and identifying and marking track key points in the meridian walking track, and establishing a meridian point portrait list.

3. The linkage control method of a mechanical arm and a bed as claimed in claim 2, wherein in step S2, the controlling the mechanical arm to execute a walking instruction according to the meridian walking route based on the preset stroke threshold includes:

traversing the meridian point image list;

sending track key points in the meridian point portrait list to the mechanical arm;

and receiving the track key points, and controlling the mechanical arm to execute a walking instruction according to the meridian walking track based on the preset stroke threshold.

4. The linkage control method of the mechanical arm and the bed as claimed in claim 2, further comprising, after the identifying and marking the track key points in the meridian walking track:

receiving the track key points;

performing interpolation processing on the track key points based on an interpolation algorithm to obtain interpolated track key points;

and establishing a meridian point image list according to the track key points after interpolation processing.

5. The linkage control method of a robot arm and a bed according to claim 1, further comprising:

s4, presetting a return trip threshold;

s5, presetting a mechanical arm return route and a bed return route based on the return threshold;

and S6, receiving the linkage control instruction, and controlling the mechanical arm to realize linkage action according to the mechanical arm return route and the control bed to realize linkage action according to the bed return route according to the linkage control instruction.

6. The linkage control method of a robot arm and a bed according to claim 5, further comprising:

presetting a return instruction;

judging whether the stroke of the mechanical arm reaches the preset return stroke threshold value or not; if it is

Judging that the stroke of the mechanical arm reaches the preset return stroke threshold value; then

And controlling the mechanical arm to modify the route according to the meridian walking, and executing a preset return instruction.

7. The linkage control method of a robot arm and a bed according to claim 5, wherein in step S5, the presetting of the robot arm return route includes:

acquiring point cloud data of the body surface of a human body, and establishing a meridian walking track;

identifying and marking track key points in the meridian walking track;

based on the return threshold, performing return unified processing on the coordinate values of the track key points to obtain the track key points of which the coordinate values are processed;

and planning and obtaining a preset mechanical arm return route according to the processed track key points of the coordinate values.

8. The linkage control method of a mechanical arm and a bed according to claim 1, wherein in step S3, when judging whether the stroke of the mechanical arm reaches the preset stroke threshold value,

if yes, judging that the stroke of the mechanical arm does not reach the preset stroke threshold; then

And controlling the mechanical arm to continue executing the walking instruction according to the meridian walking route data.

9. A control system, comprising:

a processor;

a memory for storing processor-executable instructions;

wherein the processor is configured to implement the method of linkage control of a robotic arm and a bed of any one of claims 1 to 8 when executing the executable instructions.

10. An intelligent human body meridian conditioning device, which is characterized by comprising a mechanical arm and the control system of claim 9, wherein the control terminal is electrically connected with a controller of the mechanical arm.

Technical Field

The disclosure relates to the technical field of intelligent appliance application, in particular to a linkage control method and a linkage control system of a mechanical arm and a bed and intelligent human body meridian conditioning equipment.

Background

The intelligent human body meridian conditioning equipment is intelligent equipment capable of replacing manual manipulation, which is integrally realized by a leading-edge artificial intelligence technology, a robot technology, a precise servo control technology and a multi-physical-field energy stimulation technology according to the dredging and adjusting principle of traditional Chinese medicine meridians. When the intelligent human body meridian conditioning equipment is used for conditioning, the mechanical arm drives the conditioning equipment to treat the meridian part of the human body.

In the prior art, in a traditional Chinese medicine conditioning system, when a mechanical arm where conditioning equipment is located walks on a human body, the mechanical arm has stroke limitation, so that the arm spread range of the mechanical arm is not long enough; during physical therapy, the bed for physical therapy of a patient is fixed, and the bed does not need to be moved during physical therapy. Thus, during conditioning, the robotic arm does not condition the head and foot positions of the patient's body because the maximum deployment range of the robotic arm has been exceeded. If the size or structure of the equipment is increased, the cost is increased, and the like, the space is occupied.

In addition, when channels and collaterals are conditioned, the back of a human body is a channel and collaterals area with the largest distribution area, the stroke range of the mechanical arm of most traditional Chinese medicine conditioning systems in the prior art is short, the mechanical arm only acts on the area, and the stroke range of the mechanical arm cannot condition the head and the foot positions of the body of a patient.

Disclosure of Invention

In view of the above, the present disclosure provides a linkage control method and a control system for a mechanical arm and a bed, and an intelligent human body meridian conditioning device, wherein linkage control between the mechanical arm and a physiotherapy bed is realized through a control program, so that the mechanical arm can condition the whole human body under the conditions that the mechanical arm has a short range and the stroke is short enough for the whole human body; through the linkage of the mechanical arm and the bed, the full-coverage conditioning of the human body can be realized under the condition that the structure of the equipment is not increased.

According to another aspect of the present disclosure, there is provided a linkage control method of a robot arm and a bed, including the steps of:

s1, acquiring a meridian walking route;

s2, presetting a travel threshold, and controlling the mechanical arm to execute a travel instruction according to the meridian travel route based on the preset travel threshold;

s3, judging whether the stroke of the mechanical arm reaches the preset stroke threshold value, if so, sending an instruction signal and generating a linkage control instruction according to the instruction signal; and controlling the linkage action of the bed and the mechanical arm according to the linkage control instruction.

In one possible implementation form of the method,

in step S1, the acquiring the meridian walking route includes:

acquiring point cloud data of the body surface of a human body;

establishing a meridian walking track according to the human body surface point cloud data;

and identifying and marking track key points in the meridian walking track, and establishing a meridian point portrait list.

In one possible implementation form of the method,

in step S2, the controlling the mechanical arm to execute a walking instruction according to the meridian walking route based on the preset stroke threshold includes:

traversing the meridian point image list;

sending track key points in the meridian point portrait list to the mechanical arm;

and receiving the track key points, and controlling the mechanical arm to execute a walking instruction according to the meridian walking track based on the preset stroke threshold.

In one possible implementation form of the method,

after the identifying and marking track key points in the meridian walking track, the method further comprises the following steps:

receiving the track key points;

performing interpolation processing on the track key points based on an interpolation algorithm to obtain interpolated track key points;

and establishing a meridian point image list according to the track key points after interpolation processing.

In one possible implementation form of the method,

further comprising:

s4, presetting a return trip threshold;

s5, presetting a mechanical arm return route and a bed return route based on the return threshold;

and S6, receiving the linkage control instruction, and controlling the mechanical arm to realize linkage action according to the mechanical arm return route and the control bed to realize linkage action according to the bed return route according to the linkage control instruction.

In one possible implementation form of the method,

further comprising:

presetting a return instruction;

judging whether the stroke of the mechanical arm reaches the preset return stroke threshold value or not; if it is

Judging that the stroke of the mechanical arm reaches the preset return stroke threshold value; then

And controlling the mechanical arm to modify the route according to the meridian walking, and executing a preset return instruction.

In one possible implementation form of the method,

in step S5, the preset robot arm return route includes:

acquiring point cloud data of the body surface of a human body, and establishing a meridian walking track;

identifying and marking track key points in the meridian walking track;

based on the return threshold, performing return unified processing on the coordinate values of the track key points to obtain the track key points of which the coordinate values are processed;

and planning and obtaining the return route of the preset mechanical arm according to the processed track key points of the coordinate values.

In one possible implementation form of the method,

in step S3, when it is determined whether the stroke of the robot arm reaches the preset stroke threshold,

if yes, judging that the stroke of the mechanical arm does not reach the preset stroke threshold; then

And controlling the mechanical arm to continue executing the walking instruction according to the meridian walking route data.

According to an aspect of the present disclosure, there is provided a control system including:

a processor;

a memory for storing processor-executable instructions;

wherein the processor is configured to implement the method of linkage control of the robotic arm and the bed when executing the executable instructions.

According to another aspect of the present disclosure, an intelligent human body meridian conditioning device is provided, which includes a mechanical arm and the control system, wherein the control terminal is electrically connected to a controller of the mechanical arm.

The technical effects are as follows:

the meridian walking route is obtained and sent to the mechanical arm; a preset travel threshold value, and controlling the mechanical arm to execute a walking instruction according to the meridian walking route based on the preset travel threshold value; and judging whether the stroke of the mechanical arm reaches the preset stroke threshold value, if so, executing a linkage instruction. Linkage control between the mechanical arm and the physiotherapy couch can be realized through a control program, so that the mechanical arm can condition the whole human body under the conditions that the range of the mechanical arm is short and the stroke cannot reach the whole human body; through the linkage of the mechanical arm and the bed, the full-coverage conditioning of the human body can be realized under the condition that the structure of the equipment is not increased. By the method, the small mechanical arm can achieve the effect of treating the whole human body, the human body can be accurately walked, and the bed and the mechanical arm are linked to ensure synchronization and prevent deviation.

Other features and aspects of the present disclosure will become apparent from the following detailed description of exemplary embodiments, which proceeds with reference to the accompanying drawings.

Drawings

The accompanying drawings, which are incorporated in and constitute a part of this specification, illustrate exemplary embodiments, features, and aspects of the disclosure and, together with the description, serve to explain the principles of the disclosure.

FIG. 1 is a schematic flow chart illustrating an implementation of the linkage control method of the manipulator and the bed according to the present invention;

fig. 2 is a schematic flow chart illustrating an implementation of a linkage control method of a robot arm and a bed according to embodiment 2 of the present invention;

FIG. 3 is a block diagram of the control system of the present invention;

FIG. 4 is a schematic structural diagram of the intelligent human meridian conditioning device of the invention;

list of reference numerals: 1. the mechanical arm 2, the AI vision system 3, the vibration conditioning head 4 and the floating conditioning bed;

Detailed Description

Various exemplary embodiments, features and aspects of the present disclosure will be described in detail below with reference to the accompanying drawings. In the drawings, like reference numbers can indicate functionally identical or similar elements. While the various aspects of the embodiments are presented in drawings, the drawings are not necessarily drawn to scale unless specifically indicated.

The word "exemplary" is used exclusively herein to mean "serving as an example, embodiment, or illustration. Any embodiment described herein as "exemplary" is not necessarily to be construed as preferred or advantageous over other embodiments.

Furthermore, in the following detailed description, numerous specific details are set forth in order to provide a better understanding of the present disclosure. It will be understood by those skilled in the art that the present disclosure may be practiced without some of these specific details. In some instances, methods, means, elements and circuits that are well known to those skilled in the art have not been described in detail so as not to obscure the present disclosure.

Example 1

As shown in fig. 1, according to another aspect of the present disclosure, there is provided a linkage control method of a robot arm and a bed, including the steps of:

s1, acquiring a meridian walking route and sending the meridian walking route to a mechanical arm;

the meridian walking route is identified by a point cloud acquisition device or a camera or an AI visual system, for example, the AI visual system can be used for scanning and identifying a patient lying on a bed to obtain data, after the data processing is carried out by the system, point cloud data can be established, a virtual meridian model is established according to the data, meridian key points are arranged on the meridian model, and the meridian key points are connected to be used as movement point positions of the mechanical arm, so that the mechanical arm moves according to the meridian points under the control of the system, and the meridian massage conditioning of the body of the patient is realized;

the linkage control between the mechanical arm and the physiotherapy couch is realized through the control program, so that the mechanical arm can condition the whole human body under the conditions that the range of the mechanical arm is short and the stroke of the mechanical arm cannot reach the whole human body; through the linkage of the mechanical arm and the bed, the full-coverage conditioning of the human body can be realized under the condition that the structure of the equipment is not increased.

S2, presetting a travel threshold, and controlling the mechanical arm to execute a travel instruction according to the meridian travel route based on the preset travel threshold;

the mechanical arm executes a walking instruction according to the meridian walking route, wherein the walking instruction is a set route automatically set by the system according to the meridian route. In order to avoid the occurrence of 'the range of the mechanical arm is short, the stroke can not reach the whole human body', a threshold value is set at the position, when the mechanical arm moves to the threshold value, the bed and the mechanical arm move back at the same time by a uniform distance, and several points to be moved next are ensured to be in the range of the mechanical arm.

Specifically, the method comprises the following steps:

according to the size of the bed (the floating conditioning bed 4 described in embodiment 4) and the stroke difference between the floating conditioning bed 4 and the mechanical arm, a threshold value which can enable the working range of the mechanical arm to cover the whole body of the human body after the linkage return stroke of the mechanical arm and the bed is set by a user after calculation;

monitoring the stroke of the mechanical arm according to a set threshold while the mechanical arm executes a walking instruction according to the meridian walking route;

in this embodiment, a stroke switch may be installed in the robot arm and the bed to limit the stroke of the robot arm.

S3, judging whether the stroke of the mechanical arm reaches the preset stroke threshold value, if so, sending an instruction signal and generating a linkage control instruction according to the instruction signal; and controlling the linkage action of the bed and the mechanical arm according to the linkage control instruction.

When the mechanical arm executes a walking instruction according to the meridian walking route, if the stroke of the mechanical arm reaches the preset stroke threshold value, a linkage instruction is triggered, the mechanical arm and the bed are linked to return for a certain distance, and the distance is set by a user;

in addition, when the linkage instruction meets the requirement that the stroke of the mechanical arm reaches the preset stroke threshold, the linkage instruction is triggered to take effect, and the corresponding actions of the mechanical arm and the bed are set in a program in advance by a user; and once the stroke of the mechanical arm reaches the preset stroke threshold value, simultaneously triggering a return instruction of the mechanical arm and the bed to realize linkage action of the mechanical arm and the bed.

The above-mentioned acquisition mode of the meridian walking route is selected by the user, and the corresponding device may be matched according to the data port of the processing system, which is not limited herein.

It should be noted that, although the AI vision system is taken as an example to describe the collection of meridian data as above, those skilled in the art will appreciate that the disclosure should not be limited thereto. In fact, the user can flexibly set the acquisition equipment according to personal preference and/or actual application scenes as long as the body surface point cloud data can be acquired.

Based on the implementation of the embodiment, the meridian walking route is obtained and sent to the mechanical arm; a preset travel threshold value, and controlling the mechanical arm to execute a walking instruction according to the meridian walking route based on the preset travel threshold value; and judging whether the stroke of the mechanical arm reaches the preset stroke threshold value, if so, executing a linkage instruction. Linkage control between the mechanical arm and the physiotherapy couch can be realized through a control program, so that the mechanical arm can condition the whole human body under the conditions that the range of the mechanical arm is short and the stroke cannot reach the whole human body; through the linkage of the mechanical arm and the bed, the full-coverage conditioning of the human body can be realized under the condition that the structure of the equipment is not increased. By the method, the small mechanical arm can achieve the effect of treating the whole human body, the human body can be accurately walked, and the bed and the mechanical arm are linked to ensure synchronization and prevent deviation.

In one possible implementation form of the method,

in step S3, when it is determined whether the stroke of the robot arm reaches the preset stroke threshold,

if yes, judging that the stroke of the mechanical arm does not reach the preset stroke threshold; then

And controlling the mechanical arm to continue executing the walking instruction according to the meridian walking route data.

When the mechanical arm executes a walking instruction according to the meridian walking route, if the stroke of the mechanical arm reaches the preset stroke threshold value, a linkage instruction is triggered, the mechanical arm and the bed are linked to return for a certain distance, and the distance is set by a user;

when the mechanical arm executes the walking instruction according to the meridian walking route, if the stroke of the mechanical arm does not reach the preset stroke threshold value, then the walking instruction is continuously executed according to the meridian walking route; namely, the mechanical arm continues to walk according to the original meridian walking route without changing the established physical therapy walking route.

In one possible implementation form of the method,

in step S1, the acquiring the meridian walking route includes:

acquiring point cloud data of the body surface of a human body;

establishing a meridian walking track according to the human body surface point cloud data;

and identifying and marking track key points in the meridian walking track, and establishing a meridian point portrait list.

The human body surface point cloud data can be obtained by scanning through a camera and a 3D point cloud sensor; after the human body surface point cloud data are identified, establishing a walking track according to the human body surface point cloud data; wherein, the walking track comprises important acupuncture point coordinate information of the human body and the like.

The method is characterized in that track key points (key part points, which can be key meridian points or key parts) in meridian walking tracks are identified and marked, a meridian point portrait list consisting of the track key points is established, and the tracks are sequentially executed according to the meridian point portrait list.

In one possible implementation form of the method,

in step S2, the controlling the mechanical arm to execute a walking instruction according to the meridian walking route based on the preset stroke threshold includes:

traversing the meridian point image list;

sending track key points in the meridian point portrait list to the mechanical arm;

and receiving the track key points, and controlling the mechanical arm to execute a walking instruction according to the meridian walking track based on the preset stroke threshold.

After a meridian point image list is obtained, traversing the meridian point image list to obtain track key points in the meridian point image list, and executing a walking instruction according to the meridian walking track by the mechanical arm according to the track key points in the meridian point image list;

in the process, a threshold value is set, so that the mechanical arm walks under the monitoring of the threshold value; when the arm moves to the threshold, the bed will move back with the arm a uniform distance at the same time, ensuring that several points to be moved next are within the range of the arm.

In order to optimize the key points of the track, an interpolation algorithm is used for carrying out densification on the key points of the track, so that the track can walk more smoothly.

In one possible implementation form of the method,

after the identifying and marking track key points in the meridian walking track, the method further comprises the following steps:

receiving the track key points;

performing interpolation processing on the track key points based on an interpolation algorithm to obtain interpolated track key points;

and establishing a meridian point image list according to the track key points after interpolation processing.

And carrying out densification processing on the track key points based on an interpolation algorithm. In the embodiment, the interpolation algorithm is used for optimizing the track key points, and the track key points are densified, so that the track walking is smoother.

Example 2

On the basis of embodiment 1, in order to avoid the mechanical arm from exceeding the working range and the length of the whole body of the human body after the mechanical arm returns a certain distance in a linkage manner with the bed after reaching a preset stroke threshold, the embodiment sets a return threshold to ensure that the mechanical arm and the bed are linked at a proper distance, and the distance can be set by a user.

As shown in fig. 2, in one possible implementation,

further comprising:

s4, presetting a return trip threshold;

similarly, the return stroke threshold value can be set by the user according to the arm length of the mechanical arm;

s5, presetting a mechanical arm return route and a bed return route based on the return threshold;

when receiving the linkage control instruction signal, when controlling the synchronous linkage action of the mechanical arm and the bed:

the bed and the mechanical arm move back for a certain distance at the same time, and the specific distance is set by a user according to the arm length of the mechanical arm; specifically, the method comprises the following steps:

when the mechanical arm and the bed are in linkage return, a return route of the mechanical arm needs to be set in advance, namely a return instruction of the mechanical arm is set, and when a stroke threshold is triggered and the linkage control instruction signal is received, the mechanical arm is controlled to act according to the return route of the mechanical arm, so that return is realized;

during specific processing, data of the meridian walking route are changed uniformly according to a preset return threshold, the distance of each track key point of the meridian walking route is modified according to the return threshold, and the next point to be walked is ensured to be within the range of the mechanical arm.

The distance of each track key point is not limited to be in one direction, for example, a coordinate value of a track point in the X direction, and the distance needs to be added or subtracted according to the backhaul threshold value, so as to obtain a coordinate value of the track point modified based on the backhaul threshold value, and the modified coordinate value is used as a coordinate value of a next motion point of the mechanical arm.

The technology also needs to set a synchronous linkage instruction of the bed according to a return threshold value, namely, a return route of the bed is preset in advance, so that when the travel threshold value is triggered and the linkage control instruction signal is received, the bed is controlled to synchronously link with the mechanical arm according to the bed return instruction according to the sent linkage control instruction.

When the mechanical arm returns, the bed is linked with the mechanical arm, and the return distance of the mechanical arm is synchronous with that of the bed, so that the return instruction of the bed can be set in advance based on a return threshold value, the return distance of the bed is the same as that of the mechanical arm, and the bed and the mechanical arm can move for the same distance, such as 10cm, along the same X direction;

and S6, receiving the linkage control instruction, and controlling the mechanical arm to realize linkage action according to the mechanical arm return route and the control bed according to the bed return route according to the linkage control instruction.

After receiving the linkage control instruction signal, simultaneously triggering the return linkage instructions of the mechanical arm and the bed, namely respectively controlling the bed and the mechanical arm to execute according to respective corresponding instructions according to a mechanical arm return route and a bed return route which are preset in advance, so as to realize linkage return of the bed and the mechanical arm in the same direction.

While the mechanical arm is moving back, the bed synchronously moves the same distance along with the mechanical arm.

In one possible implementation form of the method,

further comprising:

presetting a return instruction;

judging whether the stroke of the mechanical arm reaches the preset return stroke threshold value or not; if it is

Judging that the stroke of the mechanical arm reaches the preset return stroke threshold value; then

And controlling the mechanical arm to modify the route according to the meridian walking, and executing a preset return instruction.

The return instruction is input by a user in advance, when the stroke of the mechanical arm reaches the preset return threshold, the return instruction is triggered, the mechanical arm is controlled to modify the route according to the meridian walking, and the preset return instruction is executed;

after the return stroke, the mechanical arm and the bed can be reset, the mechanical arm and the bed can also be returned to the initial position, and the mechanical arm and the bed can also be stopped and set by a user.

In one possible implementation form of the method,

in step S5, the preset robot arm return route includes:

acquiring point cloud data of the body surface of a human body, and establishing a meridian walking track;

identifying and marking track key points in the meridian walking track;

based on the return threshold, performing return unified processing on the coordinate values of the track key points to obtain the track key points of which the coordinate values are processed;

and planning and obtaining the return route of the preset mechanical arm according to the processed track key points of the coordinate values.

The human body surface point cloud data can be obtained by scanning through a camera and a 3D point cloud sensor; after the human body surface point cloud data are identified, establishing a walking track according to the human body surface point cloud data; wherein, the walking track comprises important acupuncture point coordinate information of the human body and the like.

Identifying and marking track key points (key part points, which can be key meridian points or key parts) in meridian walking tracks, and establishing a meridian point portrait list consisting of the track key points, so that tracks can be sequentially executed according to the meridian point portrait list in the follow-up process;

the return route of the mechanical arm is set in advance;

during return stroke, the coordinates of the acupuncture points need to be integrally modified and unified, namely coordinate value return stroke unified processing is carried out, and track key points of coordinate values after processing are obtained; planning a walking track according to the processed track key points of the coordinate values, obtaining route data after meridian walking modification, and obtaining a return route of the mechanical arm through the system calculation processing of the route data.

During return, the mechanical arm walks according to a return route of the mechanical arm.

Example 3

According to an aspect of the present disclosure, there is provided a control system including:

a processor;

a memory for storing processor-executable instructions;

wherein the processor is configured to implement the method of linkage control of the robotic arm and the bed when executing the executable instructions.

Referring to fig. 3, a control system of an embodiment of the disclosure includes a processor and a memory for storing processor-executable instructions. Wherein the processor is configured to execute the executable instructions to implement any of the above described methods of linkage control of a robotic arm and a bed.

Here, it should be noted that the number of processors may be one or more. Meanwhile, in the control system of the embodiment of the present disclosure, an input device and an output device may be further included. The processor, the memory, the input device, and the output device may be connected by a bus, or may be connected by other means, and are not limited specifically herein.

The memory serves as a storage medium for storing software programs, computer executable programs, and various modules, such as: the linkage control method of the mechanical arm and the bed of the embodiment of the disclosure corresponds to a program or a module. The processor executes various functional applications and data processing of the device by running software programs or modules stored in the memory.

The input device may be used to receive an input number or signal. Wherein the signal may be a key signal generated in connection with user settings and function control of the device/terminal/server. The output means may comprise a display device such as a display screen.

Example 4

According to another aspect of the present disclosure, an intelligent human body meridian conditioning device is provided, which includes a mechanical arm and the control system, wherein the control terminal is electrically connected to a controller of the mechanical arm.

As shown in fig. 4, the intelligent human body meridian conditioning device provided by this embodiment includes a mechanical arm 1 and the control terminal, and the mechanical arm 1 and the control terminal are controlled and executed according to the schemes described in embodiments 1 to 3.

The human main and collateral channels of intelligence of this embodiment is taked care of equipment, except a pair of arm 1, still include that AI visual system 2, vibration are taked care of head 3 and are floated and take care of 4 constitutions, and AI visual system 2 is used for discerning main and collateral channels, and vibration is taked care of head 3 and is used for the vibration to hit and beat channels and collaterals point etc. and the bed 4 is taked care of in floating is used for the patient to lie down, can adjust spatial position.

Wherein, the mechanical arm 1 is provided with a controller which can communicate with a control system;

the floating conditioning bed 4 is provided with a servo system and the like, and can be operated by receiving the instruction of the control system; and is not described in detail.

The using process is as follows:

when the patient is recuperated by the traditional Chinese medicine equipment, the patient lies on the floating recuperation bed 4 in the supine or prone position;

an AI vision system 2 composed of four cameras rapidly identifies the meridian path on the front or back of a human body, and transmits the meridian path to a mechanical arm 1 after interpolation planning, and the mechanical arm 1 of the technology is a double-arm robot;

then the double-arm robot carries the vibration conditioning head 3 to accurately run along the channels;

achieving the functions of dredging the channels and collaterals, activating the functions of the human body and regulating and controlling the human body.

Having described embodiments of the present disclosure, the foregoing description is intended to be exemplary, not exhaustive, and not limited to the disclosed embodiments. Many modifications and variations will be apparent to those of ordinary skill in the art without departing from the scope and spirit of the described embodiments. The terms used herein were chosen in order to best explain the principles of the embodiments, the practical application, or technical improvements to the techniques in the marketplace, or to enable others of ordinary skill in the art to understand the embodiments disclosed herein.