Precision temperature and humidity control system for textile workshops

Abstract

The present invention relates to the technical field of workshop environment control, and in particular to a temperature and humidity precision control system for a textile workshop, comprising: a sensing module, used for sensing temperature and humidity information of the textile workshop; a determination module, used for setting a safety determination interval, receiving in real time the temperature and humidity information of the textile workshop sensed by the sensing module, comparing the received temperature and humidity information of the textile workshop with the safety determination interval, and determining whether the temperature and humidity of the textile workshop are safe; the present invention collects temperature and humidity information of various areas of the textile workshop, and is configured with an alarm logic to realize real-time alarm of temperature and humidity safety issues in the textile workshop, and at the same time, in a situation where the alarm is not triggered, it can also monitor the dynamic risks of temperature and humidity in the textile workshop in real time, thereby adaptively controlling the operation of cooling and dehumidifying equipment in the textile workshop to control and manage the environment of the textile workshop, and finally realizing high-precision and intelligent control of temperature and humidity in the textile workshop, and further reducing the cost of temperature and humidity safety control in the textile workshop.

Description

Technical Field

[0001] The present invention relates to the technical field of workshop environment control, and in particular to a precise temperature and humidity control system for a textile workshop. Background Art

[0002] Textile equipment is a general term for various mechanical devices used in textile production. It includes equipment for fiber combing such as cotton cleaning machines and carding machines, equipment for spinning such as spinning machines, and equipment for weaving such as looms. There are also equipment for dyeing and printing, which together promote the efficient production and development of the textile industry.

[0003] The invention patent with application number 202011600898.8 discloses a precise temperature and humidity control system for a textile workshop, including a patrol robot, a temperature and humidity control part, and a centralized temperature and humidity electronic control part; the patrol robot can move slowly along the direction of the production line and the number of patrol robots is matched with the number of production lines. The patrol robot includes a body and an on-board electronic control device arranged on the body; a walking chassis is provided on the body, and the walking chassis is connected to the chassis drive motor through a transmission mechanism; the on-board electronic control device includes an on-board controller electrically connected to the chassis drive motor; the temperature and humidity control part includes an intake pipe installed on the body of the patrol robot, An outlet pipeline, a temperature control device, a humidity control device and a mixing device; the air intake pipeline and the air outlet pipeline are positioned and installed on the vehicle body, an air extraction pump is provided on the input end of the air intake pipeline, the output end of the air intake pipeline is connected to the input end of the air outlet pipeline through an exhaust electric control valve, and the exhaust electric control valve is a normally open structure, and a plurality of air blowing pipe ends connected to the air outlet pipeline are provided at the product processing position of the production line production unit on the air outlet pipeline; a temperature sensor II and a humidity sensor II for detecting the temperature and humidity of the external environment are also provided on the outer wall of the air intake pipeline and / or the outer wall of the air outlet pipeline; the air extraction pump, the exhaust electric control valve, the temperature sensor II and the humidity sensor II are electrically connected to the vehicle-mounted controller respectively.

[0004] The application aims to solve the problem that "simply controlling the entire enclosed space through air-conditioning projects will often cause local uneven temperature and humidity in the textile workshop due to the relatively slow air circulation speed, and it is impossible to achieve precise control of air temperature and humidity in the local area around multiple production lines."

[0005] However, based on the improvements in the above-mentioned technologies, the existing textile workshops are already fully equipped with the conditions for high-precision temperature and humidity control, but they still lack the intelligent level of control. At present, in order to ensure that the temperature and humidity in the textile workshops are always in a safe state, it can only be achieved through air-conditioning projects with temperature and humidity control or cooling and dehumidification equipment that are always on, but this method will inevitably increase production costs.

[0006] Therefore, a precise temperature and humidity control system for textile workshops is proposed. Summary of the invention

[0007] In view of the above-mentioned shortcomings of the prior art, the present invention provides a precise temperature and humidity control system for a textile workshop, which solves the technical problems raised in the above-mentioned background technology.

[0008] To achieve the above objectives, the present invention is implemented through the following technical solutions:

[0009] Precision temperature and humidity control system for textile workshops, including:

[0010] A sensing module is used to sense the temperature and humidity information of a textile workshop; a judgment module is used to set a safety judgment interval, receive the temperature and humidity information of the textile workshop sensed by the sensing module in real time, and compare the received temperature and humidity information of the textile workshop with the safety judgment interval to determine whether the temperature and humidity of the textile workshop are safe; an alarm module is used to receive the determination result of whether the temperature and humidity of the textile workshop are safe in the determination module, and trigger the operation when the determination result is no, and jump to the determination module to refresh the operation when the determination result is yes; a monitoring module is used to monitor the dynamic risks of temperature and humidity in the textile workshop; a control module is used to set a control trigger interval, receive the dynamic risk monitoring result of temperature and humidity in the textile workshop in the monitoring module, and control the operation of the cooling and dehumidification equipment in the textile workshop based on the comparison of the monitoring result with the control trigger interval; a message module is used to receive system operation information, and use the system operation information to generate a message to feedback to the system end user;

[0011] The system operation information received in the message module includes: the temperature and humidity information sensed by the sensing module, the determination result of the determination module, the alarm record of the alarm module, the dynamic risk monitoring result of the temperature and humidity in the textile workshop monitored by the monitoring module, and the operation record of the cooling and dehumidification equipment controlled by the control module;

[0012] Among them, the message module is connected to the control panel of all textile equipment in the textile workshop. The message module feeds back the messages generated by the operation to the control panel through the wireless network, and the system end user reads or downloads the messages on the control panel;

[0013] The perception module is interactively connected to a linkage unit and a storage unit at its lower level via a wireless network, the perception module is interactively connected to a determination module and an alarm module via a wireless network, the determination module is interactively connected to a monitoring module and a control module via a wireless network, the control module is interactively connected to the storage unit via a wireless network, and the control module is interactively connected to a message module via a wireless network.

[0014] Furthermore, the perception module is integrated by a plurality of groups of temperature sensors and humidity sensors, and the perception modules are evenly deployed on the walls and ceilings of the textile workshop. The perception module is provided with submodules at the lower level, including:

[0015] The linkage unit is used to monitor the operating status of textile equipment in the textile workshop and control the operation of the sensing module based on the operating status of the textile equipment;

[0016] A storage unit, used to receive the temperature and humidity information of the textile workshop sensed by the sensing module, and mark and store the temperature and humidity information of the textile workshop;

[0017] Among them, the linkage unit is provided with a perception module control logic. The linkage unit controls the operation of the perception module based on the perception module control logic. Each perception module uses its own deployment position coordinates and perception time as the marking content to mark the temperature and humidity information perceived by itself. After completing the marking, the storage operation is performed in the storage unit.

[0018] Furthermore, the control logic of the perception module set in the linkage unit is:

[0019] Monitor the operating status of textile equipment in the textile workshop, obtain the location coordinates of the textile equipment in the startup state, identify the perception module closest to the location coordinates of the textile equipment on the deployment surface of each perception module in the textile workshop, control the operating frequency of the perception module to increase, and then control the operating frequency of the perception modules around the perception module to increase;

[0020] The perception module is operated in real time at a user-defined operating frequency on the system side. When the operating frequency of the perception module closest to the textile equipment position coordinate is increased, it is subject to: setting the increase ratio, setting the adjustment period of the textile equipment increase ratio, controlling the perception module closest to the textile equipment position coordinate to increase according to the increase ratio each time, and controlling the perception module closest to the textile equipment position coordinate to continuously increase based on the adjustment period of the textile equipment increase ratio, that is: ; Where: The operating frequency of the perception module is adjusted in real time; The initial operating frequency of the perception module customized by the system end user; For the upward adjustment ratio; The operating time of textile equipment; Adjust the cycle for the increase ratio of textile equipment.

[0021] Furthermore, the perception module control logic further includes: the operating frequency of the perception module adjacent to the perception module closest to the textile equipment position coordinates is always 75% to 95% of the operating frequency of the perception module closest to the textile equipment position coordinates, and is always not less than the initial operating frequency of the perception module customized by the system end user;

[0022] The perception module closest to the textile equipment position coordinates is the center, and the adjacent perception modules from far to near always obey the above perception module control logic.

[0023] When the storage unit stores the temperature and humidity information perceived by the perception module, it traverses the marking content of each temperature and humidity information, and distinguishes and stores the temperature and humidity information based on the corresponding position coordinates of the source perception module in the marking content, so that the temperature and humidity information from the same perception module is stored in the same position in the storage unit, and the temperature and humidity information is sorted and stored based on the perception time marked by the marking content.

[0024] Furthermore, the safety determination interval set in the determination module is manually edited and input by a system end user;

[0025] The alarm module is integrated with a speaker and a computer device with a display function. The speaker of the alarm module stores specified audio. When the received judgment result is no, the alarm module triggers the speaker to play the specified audio. The computer device of the alarm module synchronously obtains and displays the position coordinates of the textile equipment closest to the unsafe temperature and humidity source sensing module, and synchronously drives the textile equipment to stop running.

[0026] Furthermore, the monitoring module triggers the synchronous resetting of the operation after the operation is completed each time the alarm module determines that the result is negative;

[0027] The monitoring logic of the dynamic risk of temperature and humidity in the textile workshop in the monitoring module is expressed as follows: ; Where: It is the dynamic risk performance value of temperature and humidity in the textile workshop; is the total number of perception modules; Marking the time sequence in the content of the temperature and humidity information stored in the storage unit; , is the temperature and humidity value sensed by the i-th sensing module at time j; is the configuration weight of the i-th perception module;

[0028] in, The configuration weights are all positive numbers, and they obey the setting logic that the closer the corresponding perception module is to the textile equipment, the larger the value is, and vice versa. The dynamic risk performance value of temperature and humidity in the textile workshop The smaller the value, the higher the dynamic risk of temperature and humidity in the textile workshop. On the contrary, the lower the dynamic risk of temperature and humidity in the textile workshop, the lower the dynamic risk of temperature and humidity in the textile workshop. If any item in is meaningless, it takes the value of zero.

[0029] Furthermore, the control trigger interval is customized by the system end user. When the monitoring result meets the control trigger interval, the cooling and dehumidification equipment of the textile workshop is triggered to run, otherwise, the control module is refreshed and run;

[0030] Among them, there are several groups of cooling and dehumidification equipment in the textile workshop, and the cooling and dehumidification equipment are evenly distributed in the textile workshop. The control module controls the cooling and dehumidification equipment closest to the textile equipment that is the source of the monitoring results that meet the control trigger interval.

[0031] Furthermore, after the control module controls the operation of the cooling and dehumidification equipment in the textile workshop, it synchronously jumps to the perception module operation stage, and monitors that the latest temperature and humidity information perceived by the perception module is less than or equal to the temperature and humidity information perceived by the perception module for the first time during the current operation of the system.

[0032] Compared with the known public technology, the technical solution provided by the present invention has the following beneficial effects:

[0033] The present invention provides a precise temperature and humidity control system for a textile workshop. During operation, the system collects temperature and humidity information of various areas of the textile workshop through the deployment of sensing devices in the textile workshop, and is configured with alarm logic to realize real-time alarm of temperature and humidity safety issues in the textile workshop. At the same time, in a situation where the alarm is not triggered, the system can also monitor the dynamic risks of temperature and humidity in the textile workshop in real time, thereby adaptively controlling the operation of cooling and dehumidifying equipment in the textile workshop to control and manage the environment of the textile workshop. Finally, with this control logic, high-precision and intelligent control of temperature and humidity in the textile workshop is realized, and the cost of temperature and humidity safety control in the textile workshop is further reduced. BRIEF DESCRIPTION OF THE DRAWINGS

[0034] 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.

[0035] Figure 1 This is a schematic diagram of the structure of the temperature and humidity precision control system for textile workshops. DETAILED DESCRIPTION

[0036] 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.

[0037] The present invention will be further described below in conjunction with the embodiments.

[0038] Embodiment 1:

[0039] The textile workshop temperature and humidity precision control system of this embodiment is as follows: Figure 1 As shown, including:

[0040] The sensing module is used to sense the temperature and humidity information in the textile workshop;

[0041] The perception module is integrated by several groups of temperature sensors and humidity sensors. The perception modules are evenly deployed on the walls and ceilings of the textile workshop. The perception module is equipped with sub-modules, including:

[0042] The linkage unit is used to monitor the operating status of textile equipment in the textile workshop and control the operation of the sensing module based on the operating status of the textile equipment;

[0043] A storage unit, used to receive the temperature and humidity information of the textile workshop sensed by the sensing module, and mark and store the temperature and humidity information of the textile workshop;

[0044] Among them, the linkage unit is provided with a perception module control logic, and the linkage unit controls the operation of the perception module based on the perception module control logic. Each perception module uses its own deployment position coordinates and perception time as the marking content to mark the temperature and humidity information perceived by itself. After completing the marking, the storage operation is performed in the storage unit;

[0045] The control logic of the perception module set in the linkage unit is:

[0046] Monitor the operating status of textile equipment in the textile workshop, obtain the location coordinates of the textile equipment in the startup state, identify the perception module closest to the location coordinates of the textile equipment on the deployment surface of each perception module in the textile workshop, control the operating frequency of the perception module to increase, and then control the operating frequency of the perception modules around the perception module to increase;

[0047] The perception module runs in real time at a user-defined operating frequency on the system side. When the operating frequency of the perception module closest to the textile equipment position coordinates is increased, it is subject to: setting the increase ratio, setting the adjustment period of the textile equipment increase ratio, controlling the perception module closest to the textile equipment position coordinates to increase according to the increase ratio each time, and controlling the perception module closest to the textile equipment position coordinates to continuously increase based on the adjustment period of the textile equipment increase ratio, that is: ; Where: The operating frequency of the perception module is adjusted in real time; The initial operating frequency of the perception module customized by the system end user; For the upward adjustment ratio; The operating time of textile equipment; Adjustment cycle for textile equipment upward ratio;

[0048] Through the above logic, the operation of the sensing module and the textile equipment are more adaptively linked to ensure that the ambient temperature and humidity can be coordinated and monitored when the textile equipment is in production;

[0049] The control logic of the perception module also includes: the operating frequency of the perception module adjacent to the perception module closest to the position coordinates of the textile equipment is always 75% to 95% of the operating frequency of the perception module closest to the position coordinates of the textile equipment, and is always not less than the initial operating frequency of the perception module customized by the user of the system end;

[0050] The perception module closest to the textile equipment position coordinates is the center, and the adjacent perception modules from far to near always obey the above perception module control logic.

[0051] When the storage unit stores the temperature and humidity information sensed by the sensing module, it traverses the marking content of each temperature and humidity information, and distinguishes and stores the temperature and humidity information according to the corresponding position coordinates of the source sensing module in the marking content, so that the temperature and humidity information from the same sensing module is stored in the same position in the storage unit, and the temperature and humidity information is sorted and stored based on the sensing time marked by the marking content when storing;

[0052] The determination module is used to set the safety determination interval, receive the temperature and humidity information of the textile workshop sensed by the sensing module in real time, compare the received temperature and humidity information of the textile workshop with the safety determination interval, and determine whether the temperature and humidity of the textile workshop are safe;

[0053] The alarm module is used to receive the judgment result of whether the temperature and humidity in the textile workshop are safe in the judgment module, and trigger the operation when the judgment result is no, and jump to the judgment module to refresh the operation when the judgment result is yes;

[0054] Monitoring module, used to monitor the dynamic risks of temperature and humidity in textile workshops;

[0055] The monitoring module will reset the operation synchronously after the trigger operation ends each time the alarm module determines that the result is negative;

[0056] The monitoring logic of the dynamic risk of temperature and humidity in the textile workshop in the monitoring module is expressed as follows: ; Where: It is the dynamic risk performance value of temperature and humidity in the textile workshop; is the total number of perception modules; Marking the time sequence in the content of the temperature and humidity information stored in the storage unit; , is the temperature and humidity value sensed by the i-th sensing module at time j; is the configuration weight of the i-th perception module;

[0057] in, The configuration weights are all positive numbers, and they obey the setting logic that the closer the corresponding perception module is to the textile equipment, the larger the value is, and vice versa. The dynamic risk performance value of temperature and humidity in the textile workshop The smaller the value, the higher the dynamic risk of temperature and humidity in the textile workshop. On the contrary, the lower the dynamic risk of temperature and humidity in the textile workshop, the lower the dynamic risk of temperature and humidity in the textile workshop. When any item in is meaningless, the value is zero;

[0058] Through the above logic formula, the dynamic risks of temperature and humidity in the textile workshop are digitally monitored, and the control module is provided with specified control logic.

[0059] The control module is used to set the control trigger interval, receive the dynamic risk monitoring results of temperature and humidity in the textile workshop from the monitoring module, and control the operation of the cooling and dehumidification equipment in the textile workshop based on the comparison between the monitoring results and the control trigger interval;

[0060] The message module is used to receive system operation information, generate messages based on the system operation information and provide feedback to system end users;

[0061] The perception module is interactively connected to the linkage unit and the storage unit through a wireless network, the perception module is interactively connected to the judgment module and the alarm module through a wireless network, the judgment module is interactively connected to the monitoring module and the control module through a wireless network, the control module is interactively connected to the storage unit through a wireless network, and the control module is interactively connected to the message module through a wireless network.

[0062] In this embodiment, the sensing module operates to sense the temperature and humidity information of the textile workshop, the linkage unit synchronously monitors the operating status of the textile equipment in the textile workshop, and controls the operation of the sensing module based on the operating status of the textile equipment. The storage unit receives the temperature and humidity information of the textile workshop sensed by the sensing module, marks and stores the temperature and humidity information of the textile workshop, and the determination module sets a safety determination interval in the post-operation, receives the temperature and humidity information of the textile workshop sensed by the sensing module in real time, and compares the received temperature and humidity information of the textile workshop with the safety determination interval to determine whether the temperature and humidity of the textile workshop are safe. The alarm module further receives the determination result of whether the temperature and humidity of the textile workshop are safe in the determination module, and triggers the operation when the determination result is no. When the determination result is yes, it jumps to the determination module to refresh the operation, and then the monitoring module monitors the dynamic risk of temperature and humidity in the textile workshop. The control module operates to set a control trigger interval, receives the dynamic risk monitoring result of temperature and humidity in the textile workshop in the monitoring module, and controls the operation of the cooling and dehumidification equipment in the textile workshop based on the comparison of the monitoring result and the control trigger interval. Finally, the system operation information is received through the message module, and the system operation information is used to generate a message to feedback to the system end user;

[0063] Through the operation of the system in the above embodiment, a more intelligent, energy-saving and high-precision temperature and humidity management service is provided to the textile workshop, ensuring that the production environment conditions in the textile workshop are safer.

[0064] Embodiment 2:

[0065] In terms of specific implementation, based on Example 1, this example refers to Figure 1 The temperature and humidity precision control system for a textile workshop in Example 1 is further described in detail:

[0066] The safety determination interval set in the determination module is manually edited and input by the system end user;

[0067] The alarm module is integrated with a speaker and a computer device with a display function. The speaker of the alarm module stores a specified audio. When the received judgment result is negative, the alarm module triggers the speaker to play the specified audio. The computer device of the alarm module synchronously obtains and displays the position coordinates of the textile equipment closest to the unsafe temperature and humidity source sensing module, and synchronously drives the textile equipment to stop running.

[0068] The control trigger interval is defined by the system end user. When the monitoring result meets the control trigger interval, the cooling and dehumidification equipment in the textile workshop is triggered to run. Otherwise, the control module is refreshed and run.

[0069] Among them, there are several groups of cooling and dehumidifying equipment in the textile workshop, and each cooling and dehumidifying equipment is evenly distributed in the textile workshop. The control module controls the cooling and dehumidifying equipment closest to the textile equipment that is the source of the monitoring results that meet the control trigger interval;

[0070] After the control module controls the cooling and dehumidification equipment in the textile workshop to operate, it synchronously jumps to the perception module operation stage. After monitoring that the latest temperature and humidity information perceived by the perception module is less than or equal to the temperature and humidity information perceived by the perception module for the first time during the current operation of the system.

[0071] Through the above settings, the operating logic of the alarm module is further limited.

[0072] like Figure 1 As shown, the system operation information received in the message module includes: the temperature and humidity information sensed by the sensing module, the determination result of the determination module, the alarm record of the alarm module, the dynamic risk monitoring result of the temperature and humidity in the textile workshop monitored by the monitoring module, and the operation record of the cooling and dehumidification equipment controlled by the control module;

[0073] Among them, the message module is connected to the control panel of all textile equipment in the textile workshop. The message module feeds back the messages generated by the operation to the control panel through the wireless network, and the system end user reads or downloads the messages on the control panel.

[0074] Through the above settings, the specific content of the message generated by the message module is further limited.

[0075] In summary, during the operation of the system in the above embodiment, the temperature and humidity information of each area of ​​the textile workshop is collected through the deployment of sensing devices in the textile workshop, and the alarm logic is configured to realize the real-time alarm of temperature and humidity safety issues in the textile workshop. At the same time, when the alarm is not triggered, the dynamic risks of temperature and humidity in the textile workshop can be monitored in real time, so as to adaptively control the operation of the cooling and dehumidification equipment in the textile workshop to control and manage the environment of the textile workshop. Finally, with this control logic, high-precision and intelligent control of temperature and humidity in the textile workshop can be achieved, further reducing the cost of temperature and humidity safety control in the textile workshop.

[0076] The above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit the same. 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 replace some of the technical features therein by equivalents. However, these modifications or replacements will not cause the essence of the corresponding technical solutions to deviate from the technical solutions of the embodiments of the present invention.

Claims

1. The temperature and humidity precision control system for textile workshops is characterized by: include: The sensing module is used to sense the temperature and humidity information in the textile workshop; The determination module is used to set the safety determination interval, receive the temperature and humidity information of the textile workshop sensed by the sensing module in real time, compare the received temperature and humidity information of the textile workshop with the safety determination interval, and determine whether the temperature and humidity of the textile workshop are safe; The alarm module is used to receive the judgment result of whether the temperature and humidity in the textile workshop are safe in the judgment module, and trigger the operation when the judgment result is no, and jump to the judgment module to refresh the operation when the judgment result is yes; Monitoring module, used to monitor the dynamic risks of temperature and humidity in textile workshops; The monitoring module triggers the operation to end and reset the operation synchronously each time the alarm module determines that the result is negative; The monitoring logic of the dynamic risk of temperature and humidity in the textile workshop in the monitoring module is expressed as follows: ； Where: It is the dynamic risk performance value of temperature and humidity in the textile workshop; is the total number of perception modules; Marking the time sequence in the content of the temperature and humidity information stored in the storage unit; , The temperature and humidity values ​​sensed by the i-th sensing module at time j; is the configuration weight of the i-th perception module; in, The configuration weights are all positive numbers, and they obey the setting logic that the closer the corresponding perception module is to the textile equipment, the larger the value is, and vice versa. The dynamic risk performance value of temperature and humidity in the textile workshop The smaller the value, the higher the dynamic risk of temperature and humidity in the textile workshop. On the contrary, the lower the dynamic risk of temperature and humidity in the textile workshop, the lower the dynamic risk of temperature and humidity in the textile workshop. When any item in is meaningless, the value is zero; The control module is used to set the control trigger interval, receive the dynamic risk monitoring results of temperature and humidity in the textile workshop from the monitoring module, and control the operation of the cooling and dehumidification equipment in the textile workshop based on the comparison between the monitoring results and the control trigger interval; The message module is used to receive system operation information, generate messages based on the system operation information and provide feedback to system end users.

2. The temperature and humidity precision control system for a textile workshop according to claim 1 is characterized in that: The perception module is integrated by several groups of temperature sensors and humidity sensors. The perception modules are evenly deployed on the walls and ceilings of the textile workshop. The perception module is provided with submodules at the lower level, including: The linkage unit is used to monitor the operating status of textile equipment in the textile workshop and control the operation of the sensing module based on the operating status of the textile equipment; A storage unit, used to receive the temperature and humidity information of the textile workshop sensed by the sensing module, and mark and store the temperature and humidity information of the textile workshop; Among them, the linkage unit is provided with a perception module control logic. The linkage unit controls the operation of the perception module based on the perception module control logic. Each perception module uses its own deployment position coordinates and perception time as the marking content to mark the temperature and humidity information perceived by itself. After completing the marking, the storage operation is performed in the storage unit.

3. The temperature and humidity precision control system for a textile workshop according to claim 2 is characterized in that: The control logic of the perception module set in the linkage unit is: Monitor the operating status of textile equipment in the textile workshop, obtain the location coordinates of the textile equipment in the startup state, identify the perception module closest to the location coordinates of the textile equipment on the deployment surface of each perception module in the textile workshop, control the operating frequency of the perception module to increase, and then control the operating frequency of the perception modules around the perception module to increase; The perception module is operated in real time at a user-defined operating frequency on the system side. When the operating frequency of the perception module closest to the textile equipment position coordinate is increased, it is subject to: setting the increase ratio, setting the adjustment period of the textile equipment increase ratio, controlling the perception module closest to the textile equipment position coordinate to increase according to the increase ratio each time, and controlling the perception module closest to the textile equipment position coordinate to continuously increase based on the adjustment period of the textile equipment increase ratio, that is: ； Where: The operating frequency of the perception module is adjusted in real time; The initial operating frequency of the perception module customized by the system end user; For the upward adjustment ratio; The operating time of textile equipment; Adjust the cycle for the increase ratio of textile equipment.

4. The temperature and humidity precision control system for a textile workshop according to claim 2 is characterized in that: The sensing module control logic further includes: the operating frequency of the sensing module adjacent to the sensing module closest to the textile equipment position coordinates is always 75% to 95% of the operating frequency of the sensing module closest to the textile equipment position coordinates, and is always not less than the initial operating frequency of the sensing module defined by the user of the system end; The perception module closest to the textile equipment position coordinates is the center, and the adjacent perception modules from far to near always obey the above perception module control logic. When the storage unit stores the temperature and humidity information perceived by the perception module, it traverses the marking content of each temperature and humidity information, and distinguishes and stores the temperature and humidity information based on the corresponding position coordinates of the source perception module in the marking content, so that the temperature and humidity information from the same perception module is stored in the same position in the storage unit, and the temperature and humidity information is sorted and stored based on the perception time marked by the marking content.

5. The temperature and humidity precision control system for a textile workshop according to claim 1 is characterized in that: The safety determination interval set in the determination module is manually edited and input by the system end user; The alarm module is integrated with a speaker and a computer device with a display function. The speaker of the alarm module stores specified audio. When the received judgment result is no, the alarm module triggers the speaker to play the specified audio. The computer device of the alarm module synchronously obtains and displays the position coordinates of the textile equipment closest to the unsafe temperature and humidity source sensing module, and synchronously drives the textile equipment to stop running.

6. The temperature and humidity precision control system for a textile workshop according to claim 1 is characterized in that: The control trigger interval is defined by the system end user. When the monitoring result meets the control trigger interval, the cooling and dehumidification equipment of the textile workshop is triggered to run. Otherwise, the control module is refreshed and run. Among them, there are several groups of cooling and dehumidification equipment in the textile workshop, and the cooling and dehumidification equipment are evenly distributed in the textile workshop. The control module controls the cooling and dehumidification equipment closest to the textile equipment that is the source of the monitoring results that meet the control trigger interval.

7. The temperature and humidity precision control system for a textile workshop according to claim 1 is characterized in that: After the control module controls the cooling and dehumidification equipment in the textile workshop to operate, it synchronously jumps to the perception module operation stage. It ends after monitoring that the latest temperature and humidity information perceived by the perception module is less than or equal to the temperature and humidity perceived by the perception module for the first time during the current operation of the system, and the system synchronously refreshes and operates.

8. The temperature and humidity precision control system for a textile workshop according to claim 1 is characterized in that: The system operation information received in the message module includes: the temperature and humidity information sensed by the sensing module, the determination result of the determination module, the alarm record of the alarm module, the dynamic risk monitoring result of the temperature and humidity in the textile workshop monitored by the monitoring module, and the operation record of the cooling and dehumidification equipment controlled by the control module; Among them, the message module is connected to the control panel of all textile equipment in the textile workshop. The message module feeds back the messages generated by the operation to the control panel through the wireless network, and the system end user reads or downloads the messages on the control panel.

9. The temperature and humidity precision control system for a textile workshop according to claim 1, characterized in that: The perception module is interactively connected to a linkage unit and a storage unit at its lower level via a wireless network, the perception module is interactively connected to a determination module and an alarm module via a wireless network, the determination module is interactively connected to a monitoring module and a control module via a wireless network, the control module is interactively connected to the storage unit via a wireless network, and the control module is interactively connected to a message module via a wireless network.

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