Wearable fabric human body monitoring feedback system based on Internet of Things

Abstract

The present invention relates to the field of fabric monitoring technology, and in particular to a wearable fabric human monitoring feedback system based on the Internet of Things. It includes a fabric monitoring feedback unit, which is used to monitor the real-time state of the wearable fabric; a state preset control module, which is used to receive the initial feedback signal sent by the fabric monitoring feedback unit, and pre-control the running state of the wearable fabric in combination with the initial feedback signal; and a state configuration judgment module, which is used to respond to the supplementary feedback signal sent again by the fabric monitoring feedback unit during the process of the state preset control module pre-executing the control configuration, so as to readjust the control configuration executed by the state preset control module in combination with the range state monitoring judgment. The state preset control module determines the subsequent body movements of the user that match it, so that the state preset control module forms a pre-control configuration for the wearable fabric in combination with the body movements, thereby improving the current intelligent control of the wearable fabric.

Description

Technical Field

[0001] The present invention relates to the technical field of fabric monitoring, and in particular to a wearable fabric human body monitoring feedback system based on the Internet of Things. Background Art

[0002] Wearable fabrics usually refer to wearable massage neck / shoulder supports, hot compress neck patches, hot compress belts, hot compress knee pads, hot compress hand warmers, etc., collectively referred to as wearable fabrics below.

[0003] At present, heating is achieved by configuring carbon fibers in wearable fabrics, that is, when the body is worn, the body is heated by the heating of the carbon fibers to achieve blood circulation in the body. Among them, during the use of the current wearable fabrics, the characteristics of the body are usually collected as control signals to adjust the operating state of the wearable fabric according to different characteristics of the body, such as temperature, mode, etc. However, in some cases, when the characteristics of the body do not make obvious control signals, it is not convenient for the current wearable fabrics to quickly adjust the adaptation state of the body, resulting in the current wearable fabrics themselves The intelligent monitoring and corresponding feedback control are not convenient and fast enough;

[0004] At the same time, since there is no obvious change in the body's special features, the wearable fabric cannot respond immediately to determine whether to adjust the state, and thus, it cannot be convenient to coordinate with the subsequent movements of the body. That is, the current wearable fabric is inconvenient in the specific use process. Summary of the invention

[0005] In view of the above-mentioned shortcomings of the prior art, the present invention provides a wearable fabric human body monitoring feedback system based on the Internet of Things, which can effectively solve the problem in the prior art that when the characteristics of the body do not make obvious control signals, the current wearable fabric is not convenient for realizing its adaptation state regulation of the body, resulting in the wearable fabric being unable to realize intelligent monitoring and corresponding feedback regulation, so that the wearable fabric is not convenient for use in coordination with the body.

[0006] To achieve the above objectives, the present invention is implemented through the following technical solutions:

[0007] The present invention provides a wearable fabric human body monitoring feedback system based on the Internet of Things, comprising:

[0008] A fabric monitoring feedback unit, used to monitor the real-time status of the wearable fabric and generate an initial feedback signal;

[0009] A state preset control module, which is connected to the output end of the fabric monitoring feedback unit, is used to receive the initial feedback signal sent by the fabric monitoring feedback unit, and pre-control the running state of the wearable fabric in combination with the initial feedback signal, and determine whether the wearable fabric is in a response state immediately;

[0010] The state configuration determination module is bidirectionally connected with the state preset control module and the fabric monitoring feedback unit, and is used to respond to the supplementary feedback signal sent again by the fabric monitoring feedback unit during the process of the state preset control module pre-executing the control configuration, and determine to create the range state monitoring of the wearable fabric in combination with the current supplementary feedback signal, so as to readjust the control configuration executed by the state preset control module in combination with the range state monitoring determination.

[0011] Furthermore, the fabric monitoring feedback unit comprises:

[0012] A coordinate monitoring feedback unit for monitoring the coordinates of the wearable fabric;

[0013] A time status monitoring unit, used to monitor the current time;

[0014] and, an operating status monitoring unit for monitoring the operating status of the wearable fabric;

[0015] The wearable fabric also records its own movement history information based on the coordinate monitoring feedback unit. The historical information includes:

[0016] Moving time, moving path, and pause area;

[0017] The instant state is formed by the coordinates, time and running state of the wearable fabric, and the initial feedback signal is formed by the instant state.

[0018] Furthermore, the state preset control module includes:

[0019] A fabric state configuration unit, used to configure the operation mode of the wearable fabric;

[0020] A data sequence matching unit is used to combine the initial feedback signal with the historical information to determine the subsequent movement state of the body;

[0021] The state preset control unit is used to determine the operation mode of the wearable fabric in combination with the action state determined by the data column matching unit, so as to form a pre-control configuration for the operation state of the wearable fabric and determine whether the wearable fabric is in a response state immediately.

[0022] Furthermore, the response status includes:

[0023] The operating state of the wearable fabric is in the execution and stop states.

[0024] Furthermore, the state configuration determination module includes:

[0025] A feedback instruction receiving unit, used for receiving again the supplementary feedback signal sent by the fabric monitoring feedback unit;

[0026] and a range monitoring feedback unit connected to the output end of the feedback instruction receiving unit, for determining the range state monitoring of the wearable fabric to be created in real time based on the supplementary feedback signal;

[0027] The comprehensive feature determination unit is used to combine the comprehensive feature that matches the supplementary feedback signal under range state monitoring, and through the comprehensive feature determination state preset control unit to re-configure the control executed on the wearable fabric, and thereby re-determine whether the wearable fabric is in a responsive state immediately.

[0028] Further, the supplementary feedback signal is:

[0029] The instantaneous state of the wearable fabric is consistent with the historical information and inconsistent with the historical information, where:

[0030] The instantaneous state conforms to the historical information when: the coordinates of the wearable fabric conform to the moving path of the historical information;

[0031] Whether the instant state of the wearable fabric is consistent with the historical information is that the coordinates of the wearable fabric do not conform to the moving path of the historical information.

[0032] Further, when the instantaneous state of the wearable fabric is consistent with the historical information, the scope state monitoring includes:

[0033] Establish a driving path with the coordinates of the current wearable fabric, input the driving path into the historical information to determine the same driving path, re-determine the moving path and the pause area, determine the subsequent running state of the wearable fabric with the moving path and the pause area and perform the control configuration, and determine whether the wearable fabric is in a responsive state immediately;

[0034] When the instantaneous state of the wearable fabric does not match the historical information, the scope of condition monitoring includes:

[0035] Setting the detection range threshold of the wearable fabric;

[0036] Determine the physiological characteristics of the body corresponding to the current wearable fabric; weight, leg circumference and body measurements, which can be pre-collected by the wearable fabric;

[0037] Determine the coordinates of the current wearable fabric;

[0038] The judgment conditions are constructed by combining the monitoring range threshold, body physiological characteristics and coordinates to judge other wearable fabrics, determine the historical information of other wearable fabrics, determine the comprehensive features based on the historical information, and use the comprehensive features to determine the state of the preset control unit to re-execute the control configuration of the wearable fabric, and thereby re-determine whether the wearable fabric is in a responsive state immediately.

[0039] Compared with the known prior art, the technical solution provided by the present invention has the following beneficial effects:

[0040] The instantaneous state of the wearable fabric is determined by the fabric monitoring feedback unit, so that the state preset control module determines the subsequent body movements of the user that match it, and the state preset control module forms a pre-control configuration for the wearable fabric in combination with the subsequent body movements and the upcoming position, thereby improving the current intelligent control of the wearable fabric;

[0041] When the wearable fabric executes the pre-adjustment configuration, the running state of the wearable fabric is used to predict the subsequent body movements that the user needs to perform, which effectively predicts the subsequent body movements that the user who has configured the wearable fabric needs to perform, and is also conducive to their advance preparation;

[0042] Combined with the instant state of the wearable fabric after the change, by creating range state monitoring of the wearable fabric, the state configuration judgment module generates the operating state of the current wearable fabric with the help of other wearable fabrics, so as to accurately enable the wearable fabric to cooperate with the user's subsequent body movements, so that the current wearable fabric can achieve convenient, fast and intelligent regulation. BRIEF DESCRIPTION OF THE DRAWINGS

[0043] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the prior art descriptions are briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention, and for ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.

[0044] Figure 1 It is the overall module block diagram of the present invention;

[0045] Figure 2 A block diagram of a wearable fabric control configuration according to the present invention.

[0046] The numbers in the figure represent:

[0047] 100. Fabric monitoring feedback unit;

[0048] 110. Coordinate monitoring feedback unit; 120. Time status monitoring unit; 130. Operation status monitoring unit;

[0049] 200. Status preset control module;

[0050] 210, fabric state configuration unit; 220, data sequence matching unit; 230, state preset control unit;

[0051] 300, state configuration determination module;

[0052] 310, feedback instruction receiving unit; 320, range monitoring feedback unit; 330, comprehensive item feature determination unit. DETAILED DESCRIPTION

[0053] In order to make the purpose, technical solution and advantages of the embodiments of the present invention clearer, the technical solution in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0054] The present invention will be further described below in conjunction with the embodiments.

[0055] Example 1 (see Figure 1-2 ): Wearable fabric human body monitoring feedback system based on the Internet of Things, including:

[0056] The fabric monitoring feedback unit 100 is used to monitor the real-time status of the wearable fabric and generate an initial feedback signal (in this solution, the wearable fabric includes but is not limited to a wearable massage neck / shoulder support, a hot compress neck patch, a hot compress belt, a hot compress knee pad, a hot compress hand warmer / patch, etc.);

[0057] The state preset control module 200 is connected to the output end of the fabric monitoring feedback unit 100, and is used to receive the initial feedback signal sent by the fabric monitoring feedback unit 100, and pre-control the running state of the wearable fabric in combination with the initial feedback signal, and determine whether the wearable fabric is in a response state immediately; in this embodiment, the real-time state of the wearable fabric on the user's body is monitored in advance by the fabric monitoring feedback unit 100, which can reflect the current state of the wearable fabric and some characteristics of the user's current body, and generate an initial feedback signal from the real-time state. It should be noted that in this solution, the wearable fabric has a built-in GPS positioning system, and then, by combining the initial feedback signal, the state preset The control module 200 determines the subsequent body movements of the user corresponding to the wearable fabric in the historical information recorded by the wearable fabric, and can determine the position of the user at a subsequent time according to the subsequent body movements, so that the state preset control module 200 forms a pre-control configuration for the wearable fabric in combination with the subsequent body movements and the position to be located. The pre-control configuration of the wearable fabric means that the running state of the current wearable fabric is controlled to match the body movements to be performed by the user in the future, so as to achieve the coordination between the wearable fabric and the movements to be formed by the body, thereby improving the current intelligent control of the wearable fabric and making the user more convenient in the process of using the wearable fabric, so as to improve the user experience;

[0058] It should also be noted that in the present solution, since the wearable fabric is pre-controlled by the state preset control module 200, when the wearable fabric executes the pre-controlled configuration, the running state of the wearable fabric can be used to predict the body movements that the user needs to perform later, so as to effectively predict the body movements that some users who have configured the wearable fabric need to perform later, and at the same time facilitate their advance preparation (for this, it is usually used for the elderly or people with memory diseases, because their own functional conditions are affected, and this method can further enhance the actual application needs of such users).

[0059] Based on the above, after the state preset control module 200 forms a pre-control configuration for the wearable fabric, if the instantaneous state of the wearable fabric changes, it can be said that the state of the user changes accordingly. In order to enable the wearable fabric to still realize the operation state of the wearable fabric and the subsequent body movements of the user under the above circumstances, the following adjustments are made to this solution:

[0060] The state configuration determination module 300 is also included, which is bidirectionally connected with the state preset control module 200 and the fabric monitoring feedback unit 100, and is used to respond to the supplementary feedback signal sent again by the fabric monitoring feedback unit 100 during the process of the state preset control module 200 pre-executing the control configuration, and determine to create the range state monitoring of the wearable fabric in combination with the current supplementary feedback signal, so as to readjust the control configuration executed by the state preset control module 200 in combination with the range state monitoring determination; that is, when the instantaneous state of the wearable fabric changes, the fabric monitoring feedback unit 100 immediately generates a supplementary feedback signal, and sends it to the state preset control module 200 through the supplementary feedback signal. The configuration determination module 300 determines to create a range state monitoring of the wearable fabric by the state configuration determination module 300. For the range state monitoring, please refer to the following for details. It can determine the instant state that matches the current wearable fabric among a large number of other wearable fabrics, thereby enabling the state configuration determination module 300 to generate the required operating state for the current wearable fabric with the help of other wearable fabrics, and again perform the control configuration through the state preset control module 200, so as to accurately enable the wearable fabric to cooperate with the user's subsequent body movements, thereby enabling the current wearable fabric to achieve convenient, fast and intelligent control.

[0061] In summary, the present invention proposes a technical solution to solve the problem that the characteristics of the body do not make obvious control signals, the current wearable fabrics are not convenient for realizing the adjustment of the adaptation state of the body, resulting in the wearable fabrics being unable to realize intelligent monitoring and corresponding feedback control, so that the wearable fabrics are not convenient for the body to form a coordinated use. The following is a further explanation:

[0062] The fabric monitoring feedback unit 100 comprises:

[0063] The coordinate monitoring feedback unit 110 is used to monitor the coordinates of the wearable fabric. According to the above, the coordinate monitoring feedback unit 110 monitors the coordinates of the wearable fabric through the GPS positioning system;

[0064] A time status monitoring unit 120, used to monitor the current time;

[0065] And, an operation status monitoring unit 130, for monitoring the operation status of the wearable fabric, the operation status refers to the current operation status of the wearable fabric, whether it is currently in operation and the corresponding operation mode when it is in operation;

[0066] The wearable fabric also records the historical information of its own movement based on the coordinate monitoring feedback unit 110, and the historical information includes:

[0067] Moving time, moving path, and pause area;

[0068] Therefore, the instantaneous state is formed by the coordinate monitoring feedback unit 110, the time state monitoring unit 120 and the operation state monitoring unit 130, and the instantaneous state is formed into an initial feedback signal.

[0069] The state preset control module 200 includes:

[0070] a fabric state configuration unit 210 for configuring the operating mode of the wearable fabric;

[0071] A data sequence matching unit 220 is used to combine the initial feedback signal with the historical information to determine the subsequent movement state of the body;

[0072] The state preset control unit 230 is used to determine the operation mode of the wearable fabric in combination with the action state determined by the data column matching unit 220, so as to form a pre-control configuration for the operation state of the wearable fabric;

[0073] Referring to the above, when the instant state is determined, the instant state is matched with the historical information through the data column matching unit 220 (it means that under the historical moving path (the historical moving path records the user's movement at the specified time through the moving path to the sports venue to exercise), it is determined whether there are coordinates and time that match the instant state). When there is a moving path with the same coordinates as the wearable fabric in multiple moving paths, this path is determined as the target moving path, and the coordinates of the wearable fabric are in the target moving path at the corresponding time, and the pause area in the target moving path is determined to determine whether the pause area is a sports venue related to fitness and exercise. When it is determined to be yes, the pause area is taken as the end point of the target moving path, and it is determined that the user goes to the pause area to exercise, so that the state preset control unit 230 controls the wearable fabric. The wearable fabric is pre-regulated and configured, wherein the pre-regulated configuration of the wearable fabric refers to pre-regulating the wearable fabric to a responsive operating state, such as the fabric state configuration unit 210 pre-configuring the operating state of the wearable fabric to a heating massage state so that the body can be pre-activated (for body exercise and fitness, this solution preheats the body before the body performs the exercise or fitness action, so that the wearable fabric can be used in combination with the specific state of the user's body, while reducing the inconvenience of the user having to set some commands to do so, so that the user can directly perform physical activities when arriving at the pause area), thereby realizing that the wearable fabric can achieve pre-response with the help of the instant state, and form coordination with the user's subsequent body with the intelligent regulation configuration state.

[0074] It should be noted that, since the state preset control unit 230 is a pre-formed control configuration for the wearable fabric, it can predict the subsequent movements of the user's body when the wearable fabric is in motion, so as to indicate the user's advance preparation, thereby improving the actual application scenarios of the current wearable fabric.

[0075] It should also be noted that the operating state of the wearable fabric monitored by the operating state monitoring unit 130 includes an operating mode under operation and non-operation. When determining the target moving path, the operating state monitoring unit 130 is not considered. However, if the control configuration determined by the target moving path is the same as the operating state monitored by the operating state monitoring unit 130, such as heating and massage, etc., then the current operating state needs to be readjusted according to the operating status of the control configuration, so that the execution of the wearable fabric operating state is coordinated with the preheating time and the target time.

[0076] It is worth noting that in order to make the preheating time of the wearable fabric accurately adapt to the subsequent body movements, there will be no unnecessary preheating time that is too long, or inadequate preheating time that is too short:

[0077] When the running state of the wearable fabric forms a pre-regulation configuration, it is determined whether the wearable fabric is in a response state (the response state includes: the running state of the wearable fabric is in an execution and stop state). Therefore, in this solution, the standard preheating time is set to T minutes (T can be 15 minutes, which is not limited here) for body movements. Therefore, after the coordinate monitoring feedback unit 110, the time state monitoring unit 120 and the running state monitoring unit 130 generate the immediate state, when it is determined that the immediate state is in the moving time of the moving path in the historical information (the target moving path), the wearable fabric running state is immediately generated for pre-regulation configuration, and the coordinate monitoring feedback unit 110 determines the real-time coordinates of the current wearable fabric and the coordinates of the pause area in the target moving path. The coordinate monitoring feedback unit 110 determines the target time of the coordinates of the pause area according to the moving speed of the wearable fabric (the speed is determined according to the ratio of the path distance and time monitored by the coordinate monitoring feedback unit 110 between the target moving paths, such as determining the speed by determining the path distance under 10 minutes), and determines that when the wearable fabric reaches the pause area at the target time under the target moving path (this process is that the target time is greater than or equal to the preheating time), the state preset control unit 230 determines that the pre-control configuration of the running state of the wearable fabric is immediately in the response state (it should be noted that the pre-control configuration is immediately in the response state so that the wearable fabric executes the running state, and immediately stops the running state after the preheating time ends), that is, the heating massage, etc. mentioned above;

[0078] It should also be noted that when the determined target time is less than the preheating time, the state preset control unit 230 immediately puts the pre-controlled configuration of the wearable fabric into a response state (the time of the stop motion state is the same as above).

[0079] The state configuration determination module 300 is described. The state configuration determination module 300 includes:

[0080] The feedback instruction receiving unit 310 is used to receive the supplementary feedback signal sent by the fabric monitoring feedback unit 100 again. It should be noted that the supplementary feedback signal is:

[0081] The instantaneous state of the wearable fabric is consistent with the historical information and inconsistent with the historical information, where:

[0082] The instantaneous state conforms to the historical information when: the coordinates of the wearable fabric conform to the moving path of the historical information;

[0083] Whether the instant state of the wearable fabric is consistent with the historical information is that the coordinates of the wearable fabric do not conform to the moving path of the historical information.

[0084] and a range monitoring feedback unit 320 connected to the output end of the feedback instruction receiving unit 310, for determining the range state monitoring of the wearable fabric to be created in real time based on the supplementary feedback signal;

[0085] The comprehensive feature determination unit 330 is used to combine the comprehensive feature matched with the supplementary feedback signal under the range state monitoring, and to re-configure the control performed on the wearable fabric by the comprehensive feature determination state preset control unit 230, and thereby re-determine whether the wearable fabric is in a response state immediately;

[0086] According to the above, when the instantaneous state of the wearable fabric is consistent with the historical information, the scope of state monitoring includes:

[0087] Establish a driving path with the coordinates of the current wearable fabric, input the driving path into the historical information to determine the same driving path, re-determine the moving path and the pause area, determine the subsequent running state of the wearable fabric with the moving path and the pause area, and execute the control configuration, and determine whether the wearable fabric is in a responsive state immediately. In this process, the rules executed and responded by the control configuration formed by the wearable fabric are the same as those described above, so that the wearable fabric can be properly matched with the body;

[0088] When the instantaneous state of the wearable fabric does not match the historical information, the scope of condition monitoring includes:

[0089] Set the monitoring range threshold of the wearable fabric; it can be pre-set to Hm, which can be 30-50m, and is not limited here;

[0090] Determine the body physiological characteristics corresponding to the current wearable fabric, which are weight, leg circumference and body measurements, which can be collected in advance by the wearable fabric;

[0091] Determine the coordinates of the current wearable fabric;

[0092] Combine the monitoring range threshold, the body physiological characteristics and the coordinates to construct the judgment condition, judge other wearable fabrics, determine the historical information of other wearable fabrics, determine the comprehensive characteristics based on the historical information, and use the comprehensive characteristics to determine the state preset control unit 230 to re-execute the control configuration on the wearable fabric, and thereby re-determine whether the wearable fabric is in a responsive state immediately; specifically, through the wearable fabric worn by the current body user, the judgment condition is constructed by the body physiological characteristics, and according to the above-given judgment condition, it is determined that there are other wearable fabrics with the same judgment condition under the monitoring range threshold (there are comprehensive characteristics with the same judgment condition, that is, with The above-mentioned body physiological characteristics are the same, and the movement path of the other wearable fabric (the real-time movement path at this moment) exists in the coordinates of the current wearable fabric), and thus the other wearable fabric corresponds to or matches the current wearable fabric, so the target movement path determined in the other wearable fabric can be used for the target movement path of the current wearable fabric, so that the comprehensive feature determination unit 330 generates a determination result (target movement path), and thus the comprehensive feature determination unit 330 sends it to the state preset control unit 230 to synchronously execute the control configuration on the wearable fabric, and for the response state, its execution method is the same as above.

[0093] The above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit it. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the aforementioned embodiments, or make equivalent replacements for some of the technical features therein. However, these modifications or replacements will not cause the essence of the corresponding technical solutions to deviate from the protection scope of the technical solutions of the embodiments of the present invention.

Claims

1. Wearable fabric human body monitoring feedback system based on Internet of Things, characterized in that: include: A fabric monitoring feedback unit (100), used for monitoring the instantaneous state of the wearable fabric and generating an initial feedback signal; A state preset control module (200) connected to an output end of the fabric monitoring feedback unit (100) and used to receive an initial feedback signal sent by the fabric monitoring feedback unit (100), and to pre-control the operating state of the wearable fabric in combination with the initial feedback signal, and to determine whether the wearable fabric is in a response state immediately; A state configuration determination module (300) is bidirectionally connected to the state preset control module (200) and the fabric monitoring feedback unit (100), and is used to respond to the supplementary feedback signal sent again by the fabric monitoring feedback unit (100) during the process of the state preset control module (200) pre-executing the control configuration, and to determine the creation of range state monitoring of the wearable fabric in combination with the current supplementary feedback signal, so as to readjust the control configuration executed by the state preset control module (200) in combination with the range state monitoring determination; The fabric monitoring feedback unit (100) comprises: A coordinate monitoring feedback unit (110) is used to monitor the coordinates of the wearable fabric; A time status monitoring unit (120), used for monitoring the current time; and, an operating status monitoring unit (130), for monitoring the operating status of the wearable fabric; The wearable fabric also records its own movement history information based on the coordinate monitoring feedback unit (110), and the history information includes: movement time, movement path, and pause area; The coordinates, time and running state of the wearable fabric are used to form an instant state, and an initial feedback signal is formed through the instant state; The state configuration determination module (300) comprises: A feedback instruction receiving unit (310) is used to again receive the supplementary feedback signal sent by the fabric monitoring feedback unit (100); and a range monitoring feedback unit (320) connected to the output end of the feedback instruction receiving unit (310), for determining the range state monitoring of the wearable fabric to be created in real time based on the supplementary feedback signal; The comprehensive feature determination unit (330) is used to combine the comprehensive feature matched with the supplementary feedback signal under the range state monitoring, and to reconfigure the control performed on the wearable fabric through the comprehensive feature determination state preset control unit (230), thereby re-determining whether the wearable fabric is in a response state immediately.

2. The wearable fabric human body monitoring feedback system based on the Internet of Things according to claim 1 is characterized in that: The state preset control module (200) comprises: A fabric state configuration unit (210), used to configure an operating mode of the wearable fabric; A data sequence matching unit (220) is used to combine the initial feedback signal with the historical information to determine the subsequent movement state of the body; The state preset control unit (230) is used to determine the operation mode of the wearable fabric in combination with the action state determined by the data column matching unit (220), so as to form a pre-control configuration for the operation state of the wearable fabric, and to determine whether the wearable fabric is in a response state immediately.

3. The wearable fabric human body monitoring feedback system based on the Internet of Things according to claim 2 is characterized in that: The response state includes: the operation state of the wearable fabric is in the execution state and the stop state.

4. The wearable fabric human body monitoring feedback system based on the Internet of Things according to claim 1 is characterized in that: The supplementary feedback signal is: The instantaneous state of the wearable fabric is consistent with the historical information and inconsistent with the historical information, where: The instantaneous state conforms to the historical information when: the coordinates of the wearable fabric conform to the moving path of the historical information; Whether the instant state of the wearable fabric is consistent with the historical information is that the coordinates of the wearable fabric do not conform to the moving path of the historical information.

5. The wearable fabric human body monitoring feedback system based on the Internet of Things according to claim 4 is characterized in that: When the instantaneous state of a wearable fabric is matched to historical information, range condition monitoring includes: Establish a driving path with the coordinates of the current wearable fabric, input the driving path into the historical information to determine the same driving path, re-determine the moving path and the pause area, determine the subsequent running state of the wearable fabric with the moving path and the pause area and perform the control configuration, and determine whether the wearable fabric is in a responsive state immediately; When the instantaneous state of the wearable fabric does not match the historical information, the scope of condition monitoring includes: Setting the detection range threshold of the wearable fabric; Determine the physiological characteristics of the body that the current wearable fabric corresponds to; Determine the coordinates of the current wearable fabric; Combining the monitoring range threshold, the body physiological characteristics and the coordinates to construct the judgment condition, judge other wearable fabrics, determine the historical information of other wearable fabrics, determine the comprehensive characteristics based on the historical information, and use the comprehensive characteristics to determine the state preset control unit (230) to re-configure the control performed on the wearable fabric, thereby re-determining whether the wearable fabric is in a responsive state immediately.

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