WO2016155095A1

WO2016155095A1 - Wearable device and method for assessing state of injury sustained by human body

Info

Publication number: WO2016155095A1
Application number: PCT/CN2015/079543
Authority: WO
Inventors: 张贯京; 陈兴明; 葛新科; 张少鹏; 方静芳; 普拉纽克⋅克里斯基捏; 古列莎⋅艾琳娜; 波达别特⋅伊万; 高伟明; 梁昊原; 梁艳妮; 周荣
Original assignee: 深圳市贝沃德克生物技术研究院有限公司; 深圳市易特科信息技术有限公司; 深圳市前海安测信息技术有限公司; 深圳市共创百业科技开发有限公司
Priority date: 2015-04-03
Filing date: 2015-05-22
Publication date: 2016-10-06
Also published as: CN104865937B; CN104865937A

Abstract

A wearable device for assessing a state of injury sustained by a human body, comprising a wearable body (100) and a node network (200) arranged on the wearable body (100). The node network (200) is constituted by a central processor (02) and multiple nodes (01). The central processor (02) has a signal connection to at least one of the nodes and is used for receiving specific node information via the node network (200). The nodes (01) comprise a microprocessor (1) and a data port (2), allow extension to the other nodes (01) via the data port (2), control the data port (2) via the microprocessor (1) for data communication with the other nodes (01), and finally transmit the specific node information to the central processor (02). The device is applicable in assessing the state of injury sustained by the human body and allows accurate and rapid detection and assessment of the state of injury sustained by the human body.

Description

Wearable device and method for assessing human injury

Technical field

The present invention relates to the field of electronic information technology, and in particular to a wearable device and method for assessing a human injury condition.

Background technique

Existing assessments of human injuries are often inaccurate, such as knowing only if the human body is injured, and the specific injury conditions (such as the type of injury, type of injury) are not known in time. In the case of combat operations or exercises, bulletproof vests are usually worn to avoid injury. The existing body armor does not have a precise body armor damage detection system. For the detection of wearable body damage, the usual method is to place the loop circuit in the area to be tested. When a link of the loop circuit is destroyed, the damage detection system can obtain the information that has been destroyed, but the loop circuit cannot provide information about the damage. Link details. With the development of technology, in order to distinguish the damaged parts of the area to be tested, each part is designed with a separate circuit, but still has the disadvantages that are difficult to overcome - only part of which is destroyed and applied to textile clothing Monitoring textile damage is very limited because the technology does not allow the creation of high-density loops. Therefore, there are subnets that include many detection loops connected to the local microcontroller and send local status information to the host processor through the local microcontroller, but a large number of subnets means that the data transmission bus is too wide and the data processing speed is high. slow.

Based on this, it is necessary to design a wearable device and method for assessing human injury, which can accurately and quickly detect and evaluate human injury.

Summary of the invention

The main object of the present invention is to provide a wearable device and method for assessing a human injury condition, which can accurately and quickly detect and evaluate a human injury condition.

To achieve the above object, the present invention provides a wearable device for assessing a human body injury condition, the wearable device comprising a wearable body and a network of nodes disposed on the wearable body,

The node network includes a central processing unit and a plurality of nodes, and the node network is configured to acquire and transmit information of all damaged nodes and send the information of the damaged node to a central processing unit;

The node includes a microprocessor and four data ports connected to the microprocessor signal, each of the nodes connecting four neighbor nodes through a data port;

The central processor is connected to at least one of the nodes, and draws the damaged shape according to the information of all the damaged nodes and determines the injured part and the injured type of the human body.

In one embodiment, the wearable device further includes a GPS module, and the GPS module is connected to the central processing unit and is disposed on the wearing body for acquiring geographic location information of the human body and transmitting the location Geographical location information is described to the central processor.

In one of the embodiments, the node network is set to two or more.

In one of the embodiments, a port connector is provided on the data port of the node, the node being signaled by the port connector.

In one embodiment, the wearable device further includes a communication module, and the communication module is connected to the central processing unit and is disposed on the wearing body for data communication with the remote monitoring center or the terminal device. .

In order to achieve the above object, the present invention provides a method for assessing a human body injury condition based on the above-described wearable device, the method for assessing a human body injury condition comprising the following steps:

S1: the node network acquires information of all the damaged nodes and sends the information of the damaged node to the central processing unit;

S2: The central processor draws the damaged shape according to the information of all the damaged nodes and determines the injured part of the human body;

S3: The central processor determines the type of human injury based on the damaged shape.

In one embodiment, the method for assessing a human injury condition further includes the following steps:

S4: The GPS module acquires geographical location information of the human body, and sends the geographical location information to the central processing unit.

S5: The communication module sends the geographical location information, the injured part of the human body and/or the type of human injury to the remote monitoring center or the terminal device.

In one embodiment, the step S1 includes:

S11: a node connected by a data port corresponding to a preset detection direction value of the damaged node is used as a current detection node, and the current detection node acquires information of the damaged node;

S12: Initialize a vector value of a neighbor node connected to the current detection node and a current detection direction value;

S13: determining whether the data port corresponding to the current detection direction value of the current detection node is normal; if yes, executing S14; if not, executing S15;

S14: The current detection node sends the information of the damaged node to the node connected to the data port corresponding to the current detection direction value of the current detection node, and calculates the coordinates of the node connected to the data port corresponding to the current detection direction value, and Determining the node connected to the data port corresponding to the detection direction value as the current detection node; executing S13;

S15: Correct the current detection direction value, the current detection direction value=(current detection direction value+1)%4;

S16: determining whether the data port corresponding to the current detection direction value of the current detection node is normal; if yes, executing S17; if not, executing S18;

S17: Calculate coordinates of a node connected to the data port corresponding to the current detection direction value of the current detection node, and use a node connected to the data port corresponding to the current detection direction value of the current detection node as a current detection node; The current detection direction value, the current detection direction value = (current detection direction value +3)%4; execute S16;

S18: Execute S15 until the current detection node connection node is a central processing unit.

In one embodiment, in the step S11, the information of the damaged node includes a relative coordinate value and a direction value of the damaged node calculated based on coordinates of a certain node in the node network.

The technical solution of the present invention is to provide a wearable device for assessing a human body injury condition, which comprises a wearable body and a network of nodes disposed on the wearable body, through a central processing unit and a plurality of The nodes form a node network, and the central processor is connected with at least one node signal for receiving specific node information through the node network. The node includes a microprocessor and a data port, and other nodes can be extended through the data port, and controlled by the microprocessor. The data port communicates with other nodes, and finally transmits the specific node information to the central processor. The embodiment of the invention is applied to assess the injury condition of the human body, can detect the damage condition of the node in time, and quickly transmit the damaged node information to the central processor through the node network. And because it is a node network composed of nodes, it can be flexibly distributed and placed on the wearing body to form an evaluation system for human injury, which can accurately and quickly detect and evaluate human injury.

DRAWINGS

1 is a schematic structural view of a first preferred embodiment of a wearable device for assessing a human injury condition according to the present invention;

2 is a schematic structural diagram of a node according to the present invention;

3 is a schematic structural diagram of a node connection chip according to the present invention;

4 is a schematic structural view of a second preferred embodiment of a wearable device for assessing a human injury condition according to the present invention;

FIG. 5 is a schematic structural view of a third preferred embodiment of a wearable device for assessing a human injury condition according to the present invention; FIG.

6 is a schematic flow chart of a first preferred embodiment of a method for assessing a human injury condition according to the present invention;

7 is a schematic flow chart of a second preferred embodiment of a method for assessing a human injury condition according to the present invention;

8 is a schematic diagram of a refinement process of S1 in a first preferred embodiment of a method for assessing a human injury condition according to the present invention;

FIG. 9 is a schematic diagram of a data transmission process for destroying one of the damaged nodes based on edge detection when the node network is damaged according to an embodiment of the present invention; FIG.

FIG. 10 is a schematic diagram showing relative coordinates and relative positions of neighbor nodes connected to four data ports of a current detecting node according to an embodiment of the present invention.

The implementation, functional features, and advantages of the present invention will be further described in conjunction with the embodiments.

detailed description

It is understood that the specific embodiments described herein are merely illustrative of the invention and are not intended to limit the invention.

To achieve the above object, the present invention provides a wearable device for assessing a human injury condition.

Referring to FIG. 1, FIG. 1 is a schematic structural view of a first preferred embodiment of a wearable device for assessing a human injury condition according to the present invention.

The wearable device includes a wearable body 100 and a node network 200 disposed on the wearable body, and the wearable body may be provided as a garment such as a body armor, or a wearable body-like wear thereof composed of his fabric. Body, the wearing body should cover a key part of the human body, such as the heart.

The node network 200 includes a central processing unit 02 and a plurality of nodes 01, the node network is used to acquire and transmit information of all damaged nodes and send the information of the damaged node to the central processing unit 02;

Referring to FIG. 2, FIG. 2 is a schematic structural diagram of a node according to the present invention. The node 01 includes a microprocessor 1 and four data ports 2 that are signally connected to the microprocessor 1. Referring to FIG. 1, each node connects four neighbor nodes through a data port;

The node 01 of the present invention is preferably a node connection chip. Referring to FIG. 3, FIG. 3 is a schematic structural diagram of a node connection chip according to the present invention. The node connection chip includes a microprocessor 1 and a data port 2 that is signally connected to the microprocessor 1. The data port 2 includes a switching unit 21, a receiving unit 22, and a transmitting unit 23, and the data port 2 and the The microprocessor 1 is connected through a power input end, a receiving data end, a receiving data ground end, a selecting end, a power output end, a transmitting data end, and a transmitting data ground end signal, and the data port 2 passes through the signal input end and the signal output end. Data communication with the outside world. In the embodiment of the present invention, the node connection chip 01 communicates with the neighbor node through the data port 2 for data communication.

The microprocessor 1 is a microprocessing unit having data processing and storage functions for processing and storing data transmitted and received through the data port 2. The data port 2 is configured to receive data sent by the outside world and send data that the node connection chip needs to send. The data port 2 includes a switching unit 21, a receiving unit 22 and a transmitting unit 23, and the switching unit 21 is configured to control the receiving unit 22 and the transmitting unit 23 to be effective under the control of the microprocessor 1, ie In different cases, the data port 2 is configured to receive data sent by the outside world or data used to send the node connection chip.

The central processing unit 02 is signally connected to at least one of the nodes 01, and draws the damaged shape according to the information of all the damaged nodes and determines the injured part and the injured type of the human body. As shown in FIG. 1, the central processing unit 02 is connected to one of the nodes, and when the node is destroyed, all other nodes are disconnected from the central processing unit. Therefore, in other embodiments, the central processing unit can be connected to multiple nodes to ensure that the central processing unit establishes multiple data transmission channels with other nodes, and transmits the information of the damaged nodes to the central processing unit through the data transmission channel.

A wearable device for evaluating a human body injury condition according to an embodiment of the present invention includes a wearable body and a network of nodes disposed on the wearable body, and a node network is formed by a central processing unit and a plurality of nodes, and the central processor and the at least one node signal Connection, used to receive specific node information through the node network, the node includes a microprocessor and a data port, the other nodes can be extended through the data port, and the data port is communicated with other nodes through the microprocessor control data port, and finally the specific node Information is transferred to the central processor. The embodiment of the invention is applied to assess the injury condition of the human body, can detect the damage condition of the node in time, and quickly transmit the damaged node information to the central processor through the node network. And because it is a node network composed of nodes, it can be flexibly distributed and placed on the wearing body to form an evaluation system for human injury, which can accurately and quickly detect and evaluate human injury.

In one of the embodiments, the node network is set to two or more. Setting more than two node networks can avoid the situation where the central processor of one of the node networks is damaged or one of the segments is damaged, and the other node's damage information cannot be known, so as to obtain the specific node damage information more accurately.

In one of the embodiments, a port connector is provided on the data port of the node, the node being signaled by the port connector. In order to facilitate the formation of the node network, a port connector is set between the node and the node. When any two nodes are connected through the port, the port connector is connected together, which is quick and convenient. When a node is damaged, you can also quickly repair the node network by repairing the port connector or replacing it with a new one.

Referring to FIG. 4, FIG. 4 is a schematic structural view of a second preferred embodiment of a wearable device for assessing a human injury condition according to the present invention. In one embodiment, based on the wearable device for assessing a human body injury condition shown in FIG. 1, the wearable device further includes a GPS module 300, and the GPS module 300 is signally connected to the central processing unit 02, and is disposed on the The wearable body 100 is configured to acquire geographic location information of the human body and send the geographic location information to the central processing unit 02, and the remote monitoring center obtains geographic location information of the human body through GPS positioning. When the human body is injured, the rescue team can be dispatched to rescue or directly notify the nearby friendly forces to rescue the human body wearing the wearable device, and obtain valuable rescue time.

Referring to FIG. 5, FIG. 5 is a schematic structural view of a third preferred embodiment of a wearable device for assessing a human injury condition according to the present invention. In one embodiment, based on the wearable device for assessing a human body injury condition as shown in FIG. 4, the wearable device further includes a communication module 400, and the communication module 400 is signally connected to the central processing unit 02, and is disposed on the The wearable body 100 is configured to perform data communication with a remote monitoring center or a terminal device. The communication module is a wireless communication module. The communication module can timely inform the remote monitoring center or the terminal device in the local area network, the remote monitoring center or the terminal device carrier in the local area network according to the human body injury situation and the geographic information location. It provides timely and correct rescue and valuable time to save the human life system.

To achieve the above object, the present invention also provides a method of assessing a human injury based on the above-described wearable device.

Referring to FIG. 6, FIG. 6 is a schematic flow chart of a first preferred embodiment of a method for assessing a human injury condition according to the present invention.

The method for assessing a human injury condition includes the following steps:

Specifically, the wearable device for evaluating a human body injury condition described in the above embodiment, when the node network located on the wearable body is damaged by a bullet or other remotely launched weapon, the damaged node and the neighbor node perform data communication at the moment to inform the other party. The current state (normal or damaged), the neighbor node will know the relative coordinates of the damaged node and the relative direction value. The neighbor node of the damaged node can obtain the damage state of the damaged node by sending the feedback state of the damaged node, so it can be destroyed by the neighbor node. The node's information is sent to the central processor through the node network. Following the above steps, the node network can obtain information about all corrupted nodes and send them to the central processor. After the central processor knows the information of all the damaged nodes, it can draw the damage shape and determine the injured part according to the relative coordinates and relative positions of the damaged nodes. The central processor then determines the type of human injury based on the damaged shape of the node network, and determines which type of bullet or other remote shooting weapon the specific part of the human body is injured.

In the embodiment of the present invention, the information of all the damaged nodes is obtained by the node network, and the information of the damaged node is sent to the central processing unit. The central processor draws the damaged shape according to the information of all the damaged nodes and determines the injured part of the human body, and the central processor further damages according to the damage. The shape determines the type of human injury and enables accurate and rapid detection and evaluation of human injuries.

Referring to FIG. 7, FIG. 7 is a schematic flow chart of a second preferred embodiment of a method for assessing a human injury condition according to the present invention.

In one embodiment, after the step S3 shown in FIG. 6, the method for assessing a human injury condition further includes the following steps:

When the human body is injured, the rescue team can be dispatched to rescue or directly notify the nearby friendly forces to rescue the human body wearing the wearable device, and obtain valuable rescue time.

The communication module can timely inform the remote monitoring center or the terminal device in the local area network, the remote monitoring center or the terminal device carrier in the local area network according to the human body injury situation and the geographic information location. It provides timely and correct rescue and valuable time to save the human life system.

Referring to FIG. 8 , FIG. 9 and FIG. 10 , FIG. 8 is a schematic diagram showing the refinement process of S1 in the first preferred embodiment of the method for assessing human injury in the present invention, and FIG. 9 is damaged when the node network is damaged according to an embodiment of the present invention. FIG. 10 is a schematic diagram of relative coordinates and relative positions of neighbor nodes connected to four data ports of the current detection node according to an embodiment of the present invention.

In one embodiment, the step S1 includes:

Specifically, in FIG. 9, it is assumed that the node SP is a damaged node, and the preset detection direction is a certain direction adjacent to the damaged node SP. In the embodiment of the present invention, P0 is selected (that is, the data port connection under the damaged node SP is selected. Node) as the current detection node. Of course, it is also possible to select a node that is connected to the data port in the other direction of the node SP as the current detection node. It can be understood that each node of the node network communicates with the neighbor node by default, and reports its status to the neighbor node. Therefore, the current detecting node detects that its neighbor node is damaged (that is, requests its neighbor node to send feedback information. When there is no feedback, it is ready to send the damaged node as the current detection node. Therefore, the current detection node before initialization defaults to a normal node. Get the coordinate value P0=(x, y) of the current detected node.

In one embodiment, in step S12, the vector value of the neighbor node is a preset relative coordinate value of a neighbor node connected to the port, and the current detection direction value is a preset location. A relative position value of a relative position value of a neighbor node currently connected to the detection node.

Specifically, referring to FIG. 10, in the step S12, the current detecting node sets four data ports, and if the coordinate value of the current detecting node P0 is P0=(x, y), it is connected with the data port above the current detecting node. The relative coordinate value of the neighbor node P1 is V0=(0, -1), and the relative position value of the neighbor node P1 connected to the data port above the current detection node is D0=0; and is connected to the left data port of the current detection node. The relative coordinate value of the neighbor node P2 is V1=(-1, 0), and the relative position value of the neighbor node P2 connected to the left data port of the current detection node is D1=1; the neighbor connected to the data port below the current detection node The relative coordinate value of the node P3 is V2=(1,0), the relative position value of the neighbor node P3 connected to the data port above the current detection node is D2=2; and the neighbor node P4 connected to the right data port of the current detection node. The relative coordinate value of the neighboring node P4 connected to the left data port of the current detecting node is D3=3; the current detecting direction value can be set to D0, D1, D2. Or D3. The nodes P0, P1, P2, P3, and P4 initialized in the embodiment of the present invention represent only relative positions, and are not necessarily limited to the positional relationship in FIG.

In one embodiment, the current detection direction value is selected as D2=2, that is, the current detection direction value of the current detection node is the initial detection direction value.

Referring to FIG. 9 , after initializing the vector value of the neighbor node connected to the current detection node and the current detection direction value, the information of the damaged node SP is sent to the CPU by using P0 as the current detection node PX and D2 as the current detection direction value. The specific process is as follows:

That is, it is determined whether the data port corresponding to the current detection direction value D2 (below PX) of the current detection node PX is normal. The method for determining whether the data port is normal may be that the current feedback status request is sent to the neighbor node connected to the data port corresponding to the current detection direction value D2 of the current detection node PX.

S14: The current detection node sends the information of the damaged node to the node connected to the data port corresponding to the current detection direction value of the current detection node, and calculates the coordinates of the node connected to the data port corresponding to the detection direction value, and the Detecting the node connected to the data port corresponding to the direction value as the current detection node; executing S13;

As shown in FIG. 9, if the data port corresponding to the bottom of the current detection node is normal, the coordinates of the node connected to the data port are calculated, and the current node is regarded as the current detection node, and S13 is continued; if it is corresponding to the current detection node If the data port is abnormal, the S15 is executed. For example, when the current detection node PX is the node PZ, the corresponding data port below the node is not connected to the neighbor node or the neighbor node is disconnected (destroyed), and the data port corresponding to the current detection node is considered as Not normal; the calculation method of the coordinates of the node connected to the data port is calculated by the coordinates of the current detection node and the relative coordinates of the neighbor nodes connected to the current detection port of the current detection node. For example, if the current detected node coordinates are (x1, y1), the current detection port is D2, and the relative coordinates of the neighbor nodes connected to the current detection port of the current detection node are (0, -1), then the current detection node is current. The coordinates of the neighbor nodes connected to the detection port are (x1, y1-1), and so on.

S15: Correct the current detection direction value, the current detection direction value=(current detection direction value+1)%4; that is, the current detection direction value=(D2+1)%4, and the current detection direction value is D3, that is, current detection The direction is corrected counterclockwise by 90°.

That is, it is determined whether the data port corresponding to the right of the current detection node PX (for example, the node PZ is normal) is normal, and the method for determining whether the data port is normal may be a data port corresponding to the current detection direction value D3 of the current detection node PX. The connected neighbor node sends a current feedback status request.

S17: Calculate coordinates of a node connected to the data port corresponding to the detection direction value, and use a node connected to the data port corresponding to the detection direction value as a current detection node; correct the current detection direction value, and the current detection direction value= (current detection direction value +3)%4; execute S16;

As shown in FIG. 9 , if the data port corresponding to the right side of the current detection node PX (taking the node PZ as an example) is normal, the coordinates of the node connected to the data port corresponding to the right side of the current detection node PX (taking the node PZ as an example) are calculated. And the node connected to the data port corresponding to the detection direction value is used as the current detection node. At this time, in order to detect the current detection direction value D3 based on the edge detection, the current detection direction value=(D3+3)%4, The current detection direction value becomes D2, that is, it changes back to the last detection direction value. And loop through S16. In the loop execution S16, the D2 (lower) data port of the node connected to the data port corresponding to the right side of the node PZ in FIG. 9 does not actually have a connection node, that is, in S16, the current detection direction value of the current detection node corresponds to The data port is abnormal. You need to execute S18.

S18: Execute S15 until the connection node of the current detection node is a central processing unit.

According to the above steps, S15~S18 are cyclically executed until the connection node of the current detection node is a central processing unit, and the information of the damaged node is transmitted to the central processing unit (CPU). It should be noted that, in FIG. 9, the node SM is an intermediate bridge node. When the node SM is damaged, the node on the left side of the node SM loses contact with the central processor, and at this time, the node information of the node SM cannot be transmitted. To the central processor. Therefore, in other embodiments, multiple central processors may be set according to the layout of the node network, or multiple node networks may be set in the damage detection system to obtain specific node damage information more accurately. In Figure 9, the node SC is a reference node, which is connected to the central processor to implement a data communication bridge between other nodes in the node network and the central processing unit. When the node SC is corrupted, all other nodes lose contact with the central processor. Thus, in other embodiments, the central processor can be connected to multiple nodes to ensure that the central processor establishes multiple data transmission channels with other nodes. In FIG. 9, the node P0 is used as the initial node to transmit the node information of the damaged node SP to the CPU based on the edge detection (shown by the solid line in FIG. 9). Based on the edge detection, the data transmission channel can be established at the fastest speed, and the damaged node information is transmitted.

The data transmission method of each of the damaged nodes in the node network of the present invention can transmit the information of each damaged node to the central processing unit based on the data transmission method of the above preferred embodiment. The central processor can depict the damaged shape according to the information of each damaged node, calculate the damaged area, and judge the damage.

The above are only the preferred embodiments of the present invention, and are not intended to limit the scope of the invention, and the equivalent structure or equivalent process transformations made by the description of the present invention and the drawings are directly or indirectly applied to other related technical fields. The same is included in the scope of patent protection of the present invention.

Claims

A wearable device for assessing a human body injury condition, wherein the wearable device comprises a wearable body and a network of nodes disposed on the wearable body,

The node network includes a central processing unit and a plurality of nodes, and the node network is configured to acquire and transmit information of all damaged nodes and send the information of the damaged node to a central processing unit;

The node includes a microprocessor and four data ports connected to the microprocessor signal, each of the nodes connecting four neighbor nodes through a data port;

The central processor is connected to at least one of the nodes, and draws the damaged shape according to the information of all the damaged nodes and determines the injured part and the injured type of the human body.
The wearable device for assessing a human body injury condition according to claim 1, wherein a port connector is provided on a data port of the node, and the node is connected by the port connector signal.
The wearable device for assessing a human body injury condition according to claim 1, wherein the wearable device further comprises a communication module, wherein the communication module is connected to the central processing unit and is disposed on the wearing body. Used for data communication with remote monitoring centers or terminal devices.
The wearable device for assessing a human body injury condition according to claim 1, wherein the wearable device further comprises a GPS module, wherein the GPS module is connected to the central processing unit and is disposed on the wearing body. And for acquiring geographic location information of the human body and transmitting the geographical location information to the central processing unit.
The wearable device for assessing a human body injury condition according to claim 4, wherein a port connector is provided on the data port of the node, and the node is connected by the port connector signal.
The wearable device for assessing a human body injury according to claim 4, wherein the wearable device further comprises a communication module, wherein the communication module is connected to the central processor and is disposed on the wearable body. Used for data communication with remote monitoring centers or terminal devices.
A wearable device for assessing a human body injury condition according to claim 4, wherein said node network is provided with two or more.
The wearable device for assessing a human body injury condition according to claim 7, wherein a port connector is provided on a data port of the node, and the node is connected by the port connector signal.
The wearable device for assessing a human body injury according to claim 7, wherein the wearable device further comprises a communication module, wherein the communication module is connected to the central processor and is disposed on the wearable body. Used for data communication with remote monitoring centers or terminal devices.
A method for assessing a human body injury condition based on a wearable device for assessing a human injury condition according to claim 1, wherein the method for assessing a human body injury condition comprises the following steps:

S1: the node network acquires information of all the damaged nodes and sends the information of the damaged node to the central processing unit;

S2: The central processor draws the damaged shape according to the information of all the damaged nodes and determines the injured part of the human body;

S3: The central processor determines the type of human injury based on the damaged shape.
The method for assessing a human injury condition according to claim 10, wherein the method for assessing a human injury condition further comprises the following steps:

S4: The GPS module acquires geographical location information of the human body, and sends the geographical location information to the central processing unit.
The method for assessing a human injury condition according to claim 11, wherein the method for assessing a human injury condition further comprises the following steps:

S5: The communication module sends the geographical location information, the injured part of the human body and/or the type of human injury to the remote monitoring center or the terminal device.
The method of claim 10, wherein the step S1 comprises:

S11: a node connected by a data port corresponding to a preset detection direction value of the damaged node is used as a current detection node, and the current detection node acquires information of the damaged node;

S12: Initialize a vector value of a neighbor node connected to the current detection node and a current detection direction value;

S13: determining whether the data port corresponding to the current detection direction value of the current detection node is normal; if yes, executing S14; if not, executing S15;

S14: The current detection node sends the information of the damaged node to the node connected to the data port corresponding to the current detection direction value of the current detection node, and calculates the coordinates of the node connected to the data port corresponding to the current detection direction value, and Determining the node connected to the data port corresponding to the detection direction value as the current detection node; executing S13;

S15: Correct the current detection direction value, the current detection direction value=(current detection direction value+1)%4;

S16: determining whether the data port corresponding to the current detection direction value of the current detection node is normal; if yes, executing S17; if not, executing S18;

S17: Calculate coordinates of a node connected to the data port corresponding to the current detection direction value of the current detection node, and use a node connected to the data port corresponding to the current detection direction value of the current detection node as a current detection node; The current detection direction value, the current detection direction value = (current detection direction value +3)%4; execute S16;

S18: Execute S15 until the current detection node connection node is a central processing unit.
The method for evaluating a human body injury condition according to claim 13, wherein in the step S11, the information of the damaged node includes the damaged node calculated based on coordinates of a certain node in the node network. Relative coordinate values and direction values.