Equipment management system for curtain production based on Internet of Things

Abstract

The invention relates to an equipment management system for curtain production based on the Internet of Things, which is applied to the field of electronic digital data processing, and comprises a plurality of production lines and an equipment management platform matched with the production lines, and adopts the arrangement of an auxiliary management end, a shunting guide assembly and a shunting transmission assembly, so that when equipment ends in the production lines fail, the equipment ends in the production lines fail, the equipment ends in the production lines fail, and the equipment ends in the production lines fail. On one hand, control and alarm reminding can be carried out on the fault equipment end in time through the management data processing end, on the other hand, a shunting auxiliary effect can be carried out on the production line with the fault equipment end, the situation of line stop is avoided, the operation stability of other equipment ends on the production line with the fault equipment end is effectively guaranteed, and the production efficiency is improved. According to the curtain production line, the influence of faults on the production efficiency of the whole production line is reduced, the capacity stacking pressure of the front end can be evenly distributed when the middle end has faults, the effectiveness of the capacity of the rear end is guaranteed, the purpose of improving the production efficiency and the utilization rate of the production line is effectively achieved, and the economic benefits of curtain production are effectively promoted.

Description

Technical Field

[0001] The device management system involved in the present invention particularly relates to a device management system for curtain production based on the Internet of Things applied in the field of electronic digital data processing. Background Art

[0002] With the continuous progress of technology, curtain production has gradually entered a new stage of production line automation and intelligence. The curtain automated production line, relying on advanced automation technology, Internet of Things technology and intelligent devices, realizes the automated, intelligent and efficient operation of the whole production process. By installing sensors and actuators on production equipment, this production line can collect key information such as the running status of the equipment and production data in real time, and transmit this information to the central control system, thus achieving remote monitoring of the equipment operation status, facilitating the timely discovery and solution of problems, and significantly improving production efficiency and equipment utilization rate.

[0003] On the curtain automated production line, when individual equipment on a single production line fails, the Internet of Things-driven device management system can timely and effectively transmit fault information to equipment management personnel, enabling them to respond quickly, thereby reducing equipment downtime and ensuring production efficiency and equipment utilization rate.

[0004] However, during the equipment downtime for maintenance, the production of the entire production line will still be significantly affected. This may lead to the suspension of overall production, or cause problems such as the accumulation of raw materials in the previous process and insufficient output in the subsequent process, thereby directly reducing the production efficiency and equipment utilization rate of the entire production line. In addition, after the maintenance is completed, due to the excessive accumulation of raw materials in the previous process, it will bring greater production pressure to this equipment, which is not conducive to its continuous and stable operation.

[0005] Therefore, when faced with the failure of individual equipment on the production line, the existing curtain production equipment management system based on the Internet of Things technology cannot effectively convert and maintain the curtain production process, not only reducing the production efficiency and utilization rate of each equipment, but also causing a sharp increase in the production line pressure during the subsequent production line recovery process, further exacerbating the pressure problem of equipment operation. Summary of the Invention

[0006] Aiming at the above-mentioned prior art, the technical problem to be solved by the present invention is how to effectively convert and maintain the curtain production process on the curtain automated production line when individual equipment fails, so as to ensure the production efficiency and utilization rate of each equipment on the production line and the stability of the production line capacity.

[0007] To solve the above problems, the present invention provides an equipment management system for curtain production based on the Internet of Things, which includes a plurality of production lines and an equipment management platform that cooperates with the production lines. The production line includes an equipment end and an automatic conveying device that cooperates with the equipment end. The equipment management platform includes an equipment data acquisition end, a management data processing end, an equipment management control end, an auxiliary management end, and a parameter interaction end; The input end of the equipment data acquisition end is signal-connected to the parameter interaction end, the input end of the management data processing end is signal-connected to the equipment data acquisition end, and the output end of the management data processing end is respectively signal-connected to the equipment management control end, the auxiliary management end, and the parameter interaction end; The equipment end includes a pre-sequence end, a middle-sequence end arranged behind the pre-sequence end, and a post-sequence end arranged behind the middle-sequence end, and the automatic conveying device cooperates with the pre-sequence end, the middle-sequence end, and the post-sequence end respectively. A plurality of shunt guiding components are installed on the upper end of the automatic conveying device; The input end of the equipment data acquisition end is respectively signal-connected to the pre-sequence end, the middle-sequence end, the post-sequence end, and the automatic conveying device. The output end of the equipment management control end is respectively signal-connected to the pre-sequence end, the middle-sequence end, and the post-sequence end. The output end of the auxiliary management end is respectively connected to a shunt guiding component and a shunt transmission component, and the shunt transmission component cooperates with the automatic conveying device through the shunt guiding component.

[0008] In the above-mentioned equipment management system for curtain production based on the Internet of Things, it can play a shunt auxiliary role for the production line with a faulty equipment end, avoid line stoppage, effectively ensure the operation stability of the remaining equipment ends on the production line with a faulty equipment end, reduce the impact of the fault on the production efficiency of the entire production line, and at the same time, it can evenly distribute the production capacity accumulation pressure at the pre-sequence end when the middle-sequence end fails, and ensure the effectiveness of the production capacity at the post-sequence end when the middle-sequence end fails. Moreover, it can also ensure the production capacity stability of the equipment end after the fault is eliminated, effectively promote its operation stability, and thus effectively achieve the purpose of improving the production efficiency and utilization rate of the production line.

[0009] As a further improvement of the present application, the equipment data acquisition end includes a production line parameter setting unit, an equipment operation setting unit, an equipment status acquisition unit, a conveying parameter setting unit, a conveying status acquisition unit, a shunt parameter setting unit, and a fault shunt feedback unit; The parameter interaction end includes a parameter setting input unit, a management data display unit, and a fault warning unit. The input ends of the production line parameter setting unit, the equipment operation setting unit, the conveying parameter setting unit, and the shunt parameter setting unit are all signal-connected to the parameter setting input unit; The management data processing end includes a device management processing unit. The input ends of the device management processing unit are respectively connected to the production line parameter setting unit, the device operation setting unit, the device status acquisition unit, the conveying parameter setting unit, the conveying status acquisition unit, the shunt parameter setting unit, and the fault shunt feedback unit through signals. The output ends of the device management processing unit are respectively connected to the management data display unit and the fault warning unit through signals.

[0010] As a supplement to the further improvement of this application, the input ends of the device status acquisition unit are respectively connected to the front end, the middle end, and the rear end through signals. The input end of the conveying status acquisition unit is connected to the automatic conveying device through a signal. The input ends of the fault shunt feedback unit are respectively connected to the shunt guiding component and the shunt transmission component through signals; The input end of the parameter setting input unit is connected to the data receiving structure on the device management platform through a signal. The output end of the management data display unit is connected to the data display structure on the device management platform through a signal. The output end of the fault warning unit is connected to the warning structure on the device management platform through a signal.

[0011] As a further improvement of this application, the device management control end includes a device operation control unit, a device parameter regulation unit, a conveying operation control unit, and a conveying parameter regulation unit. The output ends of the device management processing unit are respectively connected to the device operation control unit, the device parameter regulation unit, the conveying operation control unit, and the conveying parameter regulation unit through signals; The auxiliary management end includes a shunt guiding regulation unit and a fault shunt regulation unit. The output ends of the device management processing unit are also respectively connected to the shunt guiding regulation unit and the fault shunt regulation unit through signals.

[0012] As a supplement to the further improvement of this application, the output ends of the device operation control unit and the device parameter regulation unit are respectively connected to the front end, the middle end, and the rear end through signals. The output ends of the conveying operation control unit and the conveying parameter regulation unit are both connected to the automatic conveying device through signals; The output end of the shunt guiding regulation unit is connected to the shunt guiding component through a signal. The output end of the fault shunt regulation unit is connected to the shunt transmission component through a signal.

[0013] As a further improvement of this application, the auxiliary management end further includes a post-maintenance trial verification unit. The output end of the device management processing unit is also connected to the post-maintenance trial verification unit through a signal. The output end of the post-maintenance trial verification unit is connected to the shunt guiding regulation unit through a signal.

[0014] As a supplement to the present application, the flow diversion guiding assembly includes an L-shaped support plate. The left and right ends of the automatic conveying device are fixedly connected with L-shaped support plates, and the two L-shaped support plates at the left and right ends are evenly distributed in the front and rear directions of the automatic conveying device. An electric push rod is installed at the upper end of the L-shaped support plate. The lower end of the electric push rod extends to the lower side of the L-shaped support plate and is fixedly connected with an inclined flow diversion guiding plate. The flow diversion guiding plates at the left and right ends on the same automatic conveying device are symmetrically arranged; The input end of the fault flow diversion feedback unit is signal-connected to the electric push rod, and the output end of the flow diversion guiding control unit is signal-connected to the electric push rod.

[0015] As a supplement to the present application, the flow diversion transmission assembly includes a transmission conveying structure and a flow diversion transmission control box that cooperates with the transmission conveying structure. The input end of the fault flow diversion feedback unit is signal-connected to the flow diversion transmission control box, and the output end of the fault flow diversion control unit is signal-connected to the flow diversion transmission control box; The transmission conveying structure is inclined with different heights at the left and right ends, and the lower end of the transmission conveying structure is lower than the conveying plane of the automatic conveying device, and the upper end of the transmission conveying structure is higher than the conveying plane of the automatic conveying device; A plurality of support frames are fixed at the lower end of the transmission conveying structure, and a flow diversion transmission control box is fixedly installed on the support frame on the lower end side of the transmission conveying structure. A driving wheel set that cooperates with the flow diversion transmission control box is installed at the lower end of the support frame.

[0016] In summary, through the settings of the auxiliary management end, the flow diversion guiding assembly and the flow diversion transmission assembly, when a fault occurs at the equipment end in the production line, on the one hand, the management data processing end can timely control and alarm the faulty equipment end, effectively promoting the fault response rate and reducing the downtime of the faulty equipment end. On the other hand, it can play a role in diverting the production line with the faulty equipment end, avoiding the situation of line stoppage, effectively ensuring the operation stability of the remaining equipment ends on the production line with the faulty equipment end, reducing the impact of the fault on the production efficiency of the entire production line, and at the same time, it can evenly distribute the production capacity accumulation pressure at the front end when a fault occurs at the middle end, and ensure the effectiveness of the production capacity at the rear end when a fault occurs at the middle end. Moreover, it can also ensure the production capacity stability of the equipment end after the fault is eliminated, effectively promoting its operation stability, and thus effectively achieving the purpose of improving the production efficiency and utilization rate of the production line, ensuring the operation stability of the equipment end on the production line, and promoting the economic benefits of curtain production. Description of the Drawings

[0017] Figure 1 It is the equipment management system framework diagram of the first and second implementation manners of the present application; Figure 2 It is the equipment management system control logic diagram of the first and second implementation manners of the present application; Figure 3Topological diagram of the production line in the first and second implementation manners of this application when there is no equipment failure; Figure 4 Topological diagram of the production line in the first and second implementation manners of this application when there is equipment failure; Figure 5 Axonometric view of the shunt guiding component and the shunt transmission component of the automatic conveying device in the first and second implementation manners of this application; Figure 6 Axonometric view of the automatic conveying device and the shunt guiding component in the first and second implementation manners of this application; Figure 7 Axonometric view of the shunt transmission component in the first and second implementation manners of this application; Figure 8 Topological diagram of the production line when the maintenance trial verification unit in the second implementation manner of this application is in operation;

[0018] Explanation of the reference numerals in the figure: 1 Equipment end, 11 Front-end, 12 Middle-end, 13 Rear-end, 2 Automatic conveying device, 3 Shunt guiding component, 31 L-shaped support plate, 32 Electric push rod, 33 Shunt guiding plate, 4 Shunt transmission component, 41 Transmission conveying structure, 42 Shunt transmission control box, 43 Support frame, 44 Driving wheel set. Specific implementation manners

[0019] The following will make a detailed description of the two implementation manners of this application in conjunction with the accompanying drawings.

[0020] The first implementation manner: Figure 1 - Figure 7 It shows an equipment management system for curtain production based on the Internet of Things, including multiple production lines and an equipment management platform that cooperates with the production lines. The production line includes an equipment end 1 and an automatic conveying device 2 that cooperates with the equipment end 1. The equipment management platform includes an equipment data acquisition end, a management data processing end, an equipment management control end, an auxiliary management end, and a parameter interaction end; The input end of the equipment data acquisition end is signal-connected to the parameter interaction end, the input end of the management data processing end is signal-connected to the equipment data acquisition end, and the output end of the management data processing end is respectively signal-connected to the equipment management control end, the auxiliary management end, and the parameter interaction end; The equipment end 1 includes a front-end 11, a middle-end 12 arranged behind the front-end 11, and a rear-end 13 arranged behind the middle-end 12. And the automatic conveying device 2 cooperates with the front-end 11, the middle-end 12, and the rear-end 13 respectively. Multiple shunt guiding components 3 are installed on the upper end of the automatic conveying device 2; The input ends of the device data acquisition terminal are respectively signal-connected to the pre-sequence end 11, the middle-sequence end 12, the post-sequence end 13 and the automatic conveying device 2. The output ends of the device management control terminal are respectively signal-connected to the pre-sequence end 11, the middle-sequence end 12 and the post-sequence end 13. The output ends of the auxiliary management terminal are respectively connected with a shunt guiding component 3 and a shunt transmission component 4. And the shunt transmission component 4 is matched with the automatic conveying device 2 through the shunt guiding component 3. Through the settings of the auxiliary management terminal, the shunt guiding component 3 and the shunt transmission component 4, when a failure occurs at the device end 1 in the production line, on the one hand, the management data processing terminal can timely control and give an alarm reminder to the faulty device end 1, effectively promoting the fault response rate and reducing the downtime of the faulty device end 1. On the other hand, it can play a shunt auxiliary role for the production line with the faulty device end 1, avoiding the situation of line stoppage, effectively ensuring the operation stability of the other device ends 1 on the production line with the faulty device end 1, reducing the impact of the fault on the production efficiency of the whole production line. At the same time, it can also evenly distribute the production capacity accumulation pressure of the pre-sequence end 1 when the middle-sequence end 1 fails, and ensure the effectiveness of the production capacity of the post-sequence end 1 when the middle-sequence end 1 fails. And it can also ensure the production capacity stability of the device end 1 after the fault is eliminated, effectively promoting its operation stability, and then effectively achieving the purpose of improving the production efficiency and utilization rate of the production line, ensuring the operation stability of the device end 1 on the production line, and promoting the economic benefits of curtain production.

[0021] Figure 1 - Figure 4 It is shown that the device data acquisition terminal includes a production line parameter setting unit, a device operation setting unit, a device status acquisition unit, a conveying parameter setting unit, a conveying status acquisition unit, a shunt parameter setting unit and a fault shunt feedback unit; The parameter interaction terminal includes a parameter setting input unit, a management data display unit and a fault warning unit. The input ends of the production line parameter setting unit, the device operation setting unit, the conveying parameter setting unit and the shunt parameter setting unit are all signal-connected to the parameter setting input unit; The management data processing end includes a device management processing unit. The input ends of the device management processing unit are respectively signal-connected to the production line parameter setting unit, the device operation setting unit, the device status acquisition unit, the conveying parameter setting unit, the conveying status acquisition unit, the shunt parameter setting unit, and the fault shunt feedback unit. The output end of the device management processing unit is respectively signal-connected to the management data display unit and the fault warning unit. Through the collaborative action of each unit in the device data acquisition end parameter interaction end and the management data processing end, while realizing the remote control and guarantee function of the device end 1 on the curtain production line through the Internet of Things technology, it can provide real-time and effective monitoring data for the device management processing unit, ensuring the accuracy and effectiveness of its control and regulation of the device end 1 on the production line. While promoting the curtain production efficiency and equipment utilization rate, it promotes the automation and intelligence of the production line, effectively improves the production capacity of the production line, and promotes the economic benefits of curtain production.

[0022] Figure 1 - Figure 4 It is shown that the input ends of the device status acquisition unit are respectively signal-connected to the pre-sequence end 11, the middle-sequence end 12, and the post-sequence end 13. The input end of the conveying status acquisition unit is signal-connected to the automatic conveying device 2. The input ends of the fault shunt feedback unit are respectively signal-connected to the shunt guiding component 3 and the shunt transmission component 4; Real-time monitoring sensors such as temperature sensors, pressure sensors, and rotational speed sensors are installed on the pre-sequence end 11, the middle-sequence end 12, and the post-sequence end 13 to collect the operation parameters of the device in real time, including the rotational speed and temperature of the motor, the stitch force and speed of the sewing machine, etc., and transmit these data to the device status acquisition unit; The input end of the parameter setting input unit is signal-connected to the data receiving structure on the device management platform. The output end of the management data display unit is signal-connected to the data display structure on the device management platform. The output end of the fault warning unit is signal-connected to the warning structure on the device management platform; The data receiving structure on the device management platform includes data input structures such as keyboards, mice, and touch screens directly connected to the device management platform, and also includes data input structures of terminals such as mobile phones, tablets, and computers that are remotely signal-connected to the device management platform through the Internet of Things technology; The data display structure on the device management platform includes data output structures such as monitors and speakers directly connected to the device management platform, and also includes data output structures of terminals such as mobile phones, tablets, and computers that are remotely signal-connected to the device management platform through the Internet of Things technology; The warning structure on the device management platform includes data output structures such as monitors and alarms directly connected to the device management platform, and also includes data output structures of terminals such as mobile phones, tablets, and computers that are remotely signal-connected to the device management platform through the Internet of Things technology; Furthermore, on the one hand, it can realize the control and regulation of the production line through the device management platform, and can also assist device management personnel to view the real-time status of the devices at any time through terminals such as mobile phones and computers, understand the operation of the production line, and promptly detect abnormal operation or potential faults of device 1. It can quickly respond to and handle abnormal operation or potential faults, reduce the downtime of this device, improve the production efficiency and equipment utilization rate of the production line, and can also remotely operate device 1 for curtain production through remote control, such as starting, stopping, speed regulation, and parameter adjustment. For example, when it is necessary to change the production product or make adjustments, there is no need for on-site operation. Just input instructions in the remote control to achieve precise control of device 1, improving production efficiency and flexibility.

[0023] Figure 1 - Figure 4 It is shown that the device management control end includes a device operation control unit, a device parameter regulation unit, a conveying operation control unit, and a conveying parameter regulation unit. The output ends of the device management processing unit are respectively signal-connected to the device operation control unit, the device parameter regulation unit, the conveying operation control unit, and the conveying parameter regulation unit; The auxiliary management end includes a shunt guiding regulation unit and a fault shunt regulation unit. The output ends of the device management processing unit are also respectively signal-connected to the shunt guiding regulation unit and the fault shunt regulation unit. The settings of the device management control end and the auxiliary management end can, on the one hand, realize the operation control and regulation of device 1 on the production line, effectively ensure the production efficiency and operation stability of device 1, and guarantee the production capacity of the entire production line. On the other hand, when a fault occurs in device 1 on the production line, it can, through the regulation of auxiliary shunting between different production lines, avoid the situation of the production line with the faulty device 1 stopping production, and can also play a role in shunting and production capacity guarantee for the production line with the faulty device 1, effectively ensuring the operation stability of the remaining device 1 on this production line during fault maintenance, guaranteeing the curtain production efficiency and promoting the equipment utilization rate, reducing the resource loss generated during the curtain production process, and promoting the economic benefits of curtain production.

[0024] Figure 1 - Figure 4 It is shown that the output ends of the device operation control unit and the device parameter regulation unit are respectively signal-connected to the pre-sequence end 11, the middle-sequence end 12, and the post-sequence end 13, and the output ends of the conveying operation control unit and the conveying parameter regulation unit are both signal-connected to the automatic conveying device 2; Intelligent controllers are provided on the pre-sequence end 11, the middle-sequence end 12, and the post-sequence end 13. The device operation control unit and the device parameter regulation unit transmit instructions through the intelligent controllers to achieve the control and regulation of the pre-sequence end 11, the middle-sequence end 12, and the post-sequence end 13; The output end of the shunt guiding and regulating unit is signal-connected to the shunt guiding component 3, and the output end of the fault shunt regulating unit is signal-connected to the shunt transmission component 4. The cooperation of the shunt guiding and regulating unit and the fault shunt regulating unit can effectively realize the conversion and shunt of the production line capacity. While improving the synergy between the curtain production lines, it effectively improves the production efficiency and utilization rate of each equipment end 1, ensures the stability of the continuous operation of the equipment end 1, reduces the production capacity fluctuation caused by fault maintenance, and ensures the effectiveness of the continuous operation of each equipment.

[0025] Figure 5 - Figure 7 It is shown that the shunt guiding component 3 includes an L-shaped support plate 31. L-shaped support plates 31 are fixedly connected to both the left and right ends of the automatic conveying device 2, and the two L-shaped support plates 31 at the left and right ends are evenly distributed in the front-back direction of the automatic conveying device 2. An electric push rod 32 is installed at the upper end of the L-shaped support plate 31. The lower end of the electric push rod 32 extends to the lower side of the L-shaped support plate 31 and is fixedly connected to an inclined shunt guiding plate 33. The shunt guiding plates 33 at the left and right ends located on the same automatic conveying device 2 are symmetrically arranged; The input end of the fault shunt feedback unit is signal-connected to the electric push rod 32, and the output end of the shunt guiding and regulating unit is signal-connected to the electric push rod 32. The electric push rod 32 can drive the up and down movement of the shunt guiding plate 33, and then can cooperate with the shunt transmission component 4 to shunt and guide the curtain raw materials located on the automatic conveying device 2 and play a role in transmission, effectively ensuring the production capacity stability of the production line with the faulty equipment end 1, reducing the production capacity accumulation during fault maintenance, reducing the operation pressure of the production line after maintenance, and then effectively ensuring the stability and effectiveness of the production line operation after maintenance.

[0026] Figure 5 - Figure 7 It is shown that the shunt transmission component 4 includes a transmission and conveying structure 41 and a shunt transmission control box 42 that cooperates with the transmission and conveying structure 41. The input end of the fault shunt feedback unit is signal-connected to the shunt transmission control box 42, and the output end of the fault shunt regulating unit is signal-connected to the shunt transmission control box 42; The transmission and conveying structure 41 is inclined with different heights at both ends, and the lower end of the transmission and conveying structure 41 is lower than the conveying plane of the automatic conveying device 2, and the upper end of the transmission and conveying structure 41 is higher than the conveying plane of the automatic conveying device 2; A plurality of support frames 43 are fixed at the lower end of the transmission and conveying structure 41, and the shunt transmission control box 42 is fixedly installed on the support frame 43 on one side of the lower end of the transmission and conveying structure 41. A driving wheel set 44 that cooperates with the shunt transmission control box 42 is installed at the lower end of the support frame 43; In the shunt transmission control box 42, a shunt controller, a drive motor that cooperates with the transmission and conveying structure 41, and a transmission structure that cooperates with the drive motor are provided. A positioner and an infrared counter are installed on the transmission and conveying structure 41, and the shunt controller is respectively signal-connected to the positioner, the infrared counter, the drive motor, and the drive wheel set 44. The fault shunt feedback unit realizes signal connection with the positioner and the infrared counter through the shunt controller. The fault shunt feedback unit can collect the moving position of the shunt transmission component 4 and the data volume of the curtain raw materials conveyed on the transmission and conveying structure 41. The fault shunt regulation unit realizes signal connection with the drive motor and the drive wheel set 44 through the shunt controller. The fault shunt feedback unit can control the shunt transmission of the transmission and conveying structure 41, as well as the rotation and steering of the drive wheel set 44, ensuring the position accuracy and effectiveness of the shunt transmission component 4 during application. The cooperation between the shunt transmission component 4 and the shunt guiding component 3 effectively realizes the synergy between production lines. On the one hand, it effectively improves the automation and intelligence level of the curtain production line. On the other hand, it can also effectively promote the continuous stability of the production capacity of each production line, ensure the operation effectiveness of each equipment end 1, reduce the cost of curtain production by ensuring the production efficiency and utilization rate of each equipment end 1, and promote the economic benefits of curtain production.

[0027] Figure 1 - Figure 7 It shows that when the equipment management system based on the Internet of Things technology is applied to the production line of curtain production, equipment managers can allocate an appropriate number of shunt transmission components 4 according to the data volume of the production line in the entire curtain production workshop and the number of equipment ends 1 on the production line. When the production line operates without faults, the shunt transmission components 4 are placed in the waiting area of the curtain production workshop. Multiple waiting areas can be set to facilitate the nearby control of the shunt transmission components 4 and improve the efficiency of shunt regulation.

[0028] First, the equipment management personnel input the basic parameters of the equipment end 1, the automatic conveying device 2, the shunt guiding component 3, and the shunt transmission component 4 in the overall process of curtain production into the parameter setting input unit through the data receiving structure of the equipment management platform, input the basic operation parameters of the production line into the production line parameter setting unit, including but not limited to the production capacity of a single production line, the distribution map of the curtain production workshop, the distribution data of each production line, and the production capacity coordination range of multiple production lines and other relevant parameter data, input the basic operation parameters of the equipment end 1 into the equipment operation setting unit, including but not limited to the start-stop state, the speed and temperature of the motor, the stitch strength, speed, cutting speed program of the sewing machine, the temperature and time of ironing, and the maintenance operation instructions after subsequent failures and other relevant parameters, input the basic operation parameters of the automatic conveying device 2 into the conveying parameter setting unit, including but not limited to the conveying speed, start-stop state of the automatic conveying device 2, and the cooperation data with each equipment end 1 and other relevant parameters, input the relevant basic parameters of the fault shunt regulation into the shunt parameter setting unit, including but not limited to shunt positioning, shunt transmission speed, and shunt guiding data and other relevant parameters. Then, the production line parameter setting unit, the equipment operation setting unit, the conveying parameter setting unit, and the shunt parameter setting unit process and convert the received data and then transmit it to the equipment management processing unit; According to the received data, the equipment management processing unit identifies, judges, and processes it, and then controls the start-stop and operation of the equipment end 1 through the equipment parameter regulation unit, controls the start-stop and operation of the automatic conveying device 2 adapted to each equipment end 1 through the conveying operation parameter regulation unit, and starts all production lines to enable the production line to perform automated production control of curtains; During the operation of each production line, the equipment status acquisition unit can monitor and collect real-time data of each equipment end 1 on the production line, and then transmit the operation status data of each equipment end 1 to the equipment management processing unit. The conveying status acquisition unit can monitor and collect the operation status data of the automatic conveying device 2 in real time, and then transmit the status data of the automatic conveying device 2 to the equipment management processing unit, so that the equipment management processing unit can judge the effectiveness of the coordination and cooperation of each equipment end 1 on the production line and the status of the production capacity of each production line according to the actual operation status data of the equipment end 1 and the automatic conveying device 2 received; When it is judged that the production line operation meets the production capacity requirements and the cooperation between each equipment end 1 and the automatic conveying device 2 on the production line is effective, and the continuity and stability of the operation of each equipment end 1 can be maintained, the equipment management processing unit maintains the operation status of the equipment end 1 and the automatic conveying device 2 at this time, and then transmits the production line operation status data to the data display structure on the equipment management platform through the management data display unit, so that the equipment management personnel can obtain the production line data in a timely and effective manner; When it is determined that the production line's operating capacity is insufficient or exceeds the upper limit, which is likely to cause damage to the operation of each equipment unit 1, the equipment management processing unit, based on the judged data, respectively regulates the operation of each equipment unit 1 on the production line through the equipment operation control unit. When the capacity is insufficient, it increases its operating speed to achieve the effect of increasing production capacity. When the capacity exceeds the upper limit, it reduces its operating speed to reduce the operating burden of equipment unit 1 and the damage caused during continuous overpressure operation. At the same time, through the conveying operation control unit, it conducts an operation regulation on the automatic conveying device 2 that adapts to the operation of equipment unit 1. When equipment unit 1 increases efficiency, it increases the conveying speed of the automatic conveying device 2. When equipment unit 1 reduces efficiency, it reduces the conveying speed of the automatic conveying device 2 to ensure the coordination between equipment unit 1 and the automatic conveying device 2, promote the stability and continuity of the production line operation, effectively guarantee the production efficiency and utilization rate of each equipment unit 1 on the production line, fully improve the production line capacity, and promote the economic benefits of curtain production; The equipment management processing unit can, according to the data transmission of the equipment status acquisition unit and the conveying status acquisition unit, realize the real-time monitoring of the operating status of equipment unit 1 and the automatic conveying device 2, and can also verify the operating status of equipment unit 1 and the automatic conveying device 2 after regulation to ensure the effectiveness of the regulation. Moreover, the equipment management processing unit can continuously transmit the real-time data of the production line to the data display structure on the equipment management platform through the management data display unit, effectively promoting the effectiveness and timeliness of equipment management personnel's access to production line data.

[0029] During the continuous operation of the curtain production line, the equipment status acquisition unit transmits the operating status data of each equipment unit 1 on the production line to the equipment management processing unit. After the equipment management processing unit receives the data indicating that equipment unit 1 has a fault, through the control of the shunt guiding regulation unit and the fault shunt regulation unit, the shunt guiding component 3 and the shunt transmission component 4 act to conduct shunt regulation on the curtain raw materials on the production line. It will also stop the operation of the faulty equipment unit 1 for protection and waiting for maintenance through the equipment operation control unit. At the same time, it issues a fault warning through the fault warning unit to the warning structure on the equipment management platform, enabling equipment management personnel to obtain fault information in a timely manner, make a quick response, improve the maintenance efficiency, reduce the downtime of the faulty equipment unit 1, and ensure the restoration of the production line capacity; Specifically, in this embodiment, the overall production line for curtain production is divided into production line one, production line two, and production line three. On production line one, production line two, and production line three, there are respectively a pre-order end 11, a middle-order end 12, and a post-order end 13 regarding the equipment end 1. At the front ends of the pre-order end 11, the middle-order end 12, and the post-order end 13, there are respectively automatic conveying devices 2 that cooperate with them. Therefore, when the fault management processing unit receives the fault of the middle-order end 12 located on production line two transmitted by the equipment status acquisition unit, the equipment management processing unit first sends an alarm signal to the warning structure of the equipment management platform through the fault warning unit, enabling equipment management personnel to quickly respond to the fault of the middle-order end 12 on production line two according to the warning and carry out maintenance and guarantee for it. At the same time, the equipment management processing unit sends control instructions to the conveying parameter regulation unit and the equipment parameter regulation unit. The conveying parameter regulation unit controls the automatic conveying device 2 at the front end of the middle-order end 12, that is, the automatic conveying device 2 in the stage of the pre-order end 11 on production line two being conveyed to the middle-order end 12, to stop running, avoiding the accumulation of curtain raw materials produced by the pre-order end 11 at the middle-order end 12. The equipment parameter regulation unit controls the middle-order end 12 on production line two to stop, making it wait for the maintenance of equipment management personnel; Then the equipment management processing unit sends a control instruction for fault diversion to the fault diversion regulation unit, enabling the fault diversion regulation unit to transmit the control instruction to the diversion transmission control box 42 of the first component diversion transmission assembly 4, so that the diversion transmission control box 42 controls the driving wheel set 44, enabling the driving wheel set 44 to drive the transmission conveying structure 41 to move to the position of the automatic conveying device 2 in the stage of the pre-order end 11 on production line two being conveyed to the middle-order end 12, and keeping the lower end of the transmission conveying structure 41 at the position of the diversion guiding assembly 3 of the automatic conveying device 2, and keeping the upper end of the transmission conveying structure 41 at the diversion guiding assembly 3 of the automatic conveying device 2 at the same position on production line one or production line three. And the diversion transmission control box 42 starts the transmission function of the transmission conveying structure 41, enabling the curtain raw materials on the automatic conveying device 2 in the stage of the pre-order end 11 on production line two being conveyed to the middle-order end 12 to be respectively transmitted to the automatic conveying devices 2 at the same positions on production line one and production line three through the diversion function of the transmission conveying structure 41, thereby realizing the diversion and auxiliary functions of production line one and production line three for production line two, and thus avoiding the accumulation problem of curtain raw materials output by the pre-order end 11 on production line two; Meanwhile, the simultaneous fault shunt control unit controls the shunt transmission control box 42 of another shunt transmission component 4, so that the shunt transmission control box 42 controls the drive wheel set 44, causing the drive wheel set 44 to drive the transmission and conveying structure 41 to move to the position of the automatic conveying device 2 at the middle sequence end 12 to the post-sequence end 13 stage on production line two, and keeping the high end of the transmission and conveying structure 41 moving to the shunt guiding component 3 of the automatic conveying device 2, keeping the low end of the transmission and conveying structure 41 moving to the shunt guiding component 3 of the automatic conveying device 2 at the same position on production line one or production line three, and the shunt transmission control box 42 starts the transmission function of the transmission and conveying structure 41, which can subsequently realize the curtain raw materials on the automatic conveying device 2 at the middle sequence end 12 to the post-sequence end 13 stage on production line one and production line three are shunt-transmitted back to the automatic conveying device 2 at the same position on production line two through the transmission and conveying structure 41, so as to realize the shunt assistance of production line one and production line three to production line two, effectively maintaining the continuity and stability of the operation of the post-sequence end 13 on production line two, ensuring the production capacity of production line two, and then effectively improving the production efficiency and utilization rate of the remaining equipment ends 1 on production line two during fault maintenance; After the shunt transmission control box 42 starts the transmission and conveying structure 41 and moves it to the corresponding shunt position, the fault shunt feedback unit can obtain this data through the shunt transmission control box 42 and transmit this data to the equipment management and processing unit, and the equipment management and processing unit issues a control instruction to the conveying parameter control unit to restart the automatic conveying device 2 at the pre-sequence end 11 to the middle sequence end 12 stage on production line two, so that it can convey the curtain raw materials produced at the pre-sequence end 11 on production line two; Meanwhile, the device management processing unit also issues a control effect of shunt guidance to the shunt guidance control unit. The shunt guidance control unit intermittently regulates the shunt guidance components 3 on the automatic conveying device 2 in the stage of being conveyed from the pre-stage end 11 to the middle-stage end 12 on the second production line, so that the electric push rods 32 in the two shunt guidance components 3 on the automatic conveying device 2 extend and reset alternately, and the frequency of the alternating and intermittent actions of the electric push rods 32 is adapted to the production efficiency of the pre-stage end 11. When the electric push rod 32 on the front side generates an extension action, the shunt guiding plate 33 is driven to move downward and be flush with the conveying plane of the automatic conveying device 2, guiding the curtain raw materials on the automatic conveying device 2 to the transmission conveying structure 41 that cooperates with it, and then through the conveying of the transmission conveying structure 41, the curtain raw materials are shunted to the automatic conveying devices 2 at the same positions on the first production line or the third production line; when the electric push rod 32 on the front side generates a reset action and drives the shunt guiding plate 33 to move upward and reset, releasing its guiding effect on the curtain raw materials on the automatic conveying device 2, the electric push rod 32 on the rear side generates an extension action, the shunt guiding plate 33 is driven to move downward and be flush with the conveying plane of the automatic conveying device 2, guiding the curtain raw materials on the automatic conveying device 2 to the transmission conveying structure 41 that cooperates with it, and then through the conveying of the transmission conveying structure 41, the curtain raw materials are shunted to the automatic conveying devices 2 at the same positions on the third production line or the first production line, and this cycle of control is carried out. Through the alternating and intermittent control effect of the shunt guidance control unit on the two electric push rods 32, it is possible to alternately shunt the curtain raw materials produced at the pre-stage end 11 on the second production line to the first production line and the third production line. Furthermore, while effectively reducing the accumulation of the curtain raw materials produced at the pre-stage end 11 on the second production line, it is also possible to reduce the impact of the shunt effect on the production capacity of the middle-stage end 12 on the first production line and the third production line, ensuring the stability and effectiveness of the operation of the middle-stage end 12 on the first production line and the third production line; The shunt guiding and regulating unit also intermittently regulates the shunt guiding component 3 in the stage of being transmitted from the middle sequence end 12 to the subsequent sequence end 13 on production line 1 and production line 3. Moreover, only the single shunt guiding component 3 that is in a cooperative relationship with the shunt transmission component 4 on the automatic conveying device 2 is controlled. The intermittence of the shunt guiding component 3 in the stage of being transmitted from the middle sequence end 12 to the subsequent sequence end 13 on production line 1 and production line 3 is applicable to the production efficiency of the subsequent sequence end 13 on production line 2, so as to ensure the stable operation of the subsequent sequence end 13 on production line 2 and avoid affecting the production efficiency of the subsequent sequence end 13 on production line 1 and production line 2. The shunt guiding and regulating unit controls the electric push rod 32 on the shunt guiding component 3 to extend and reset. When the electric push rod 32 on production line 1 generates an extending effect, the shunt guiding plate 33 is driven to move downward and be flush with the conveying plane of the automatic conveying device 2 in the stage of being transmitted from the middle sequence end 12 to the subsequent sequence end 13 on production line 1. The curtain raw materials produced at the middle sequence end 12 on production line 1 are shunted and returned to the automatic conveying device 2 in the stage of being transmitted from the middle sequence end 12 to the subsequent sequence end 13 on production line 2 through the transmission conveying structure 41 that cooperates with it. At the same time, the electric push rod 32 on production line 3 is kept in a contracted state. When the electric push rod 32 on production line 1 generates a reset effect and the shunt guiding plate 33 is driven to move upward and reset, releasing its guiding effect on the automatic conveying device 2 on production line 1, the electric push rod 32 on production line 3 generates an extending effect, and the shunt guiding plate 33 is driven to move downward and be flush with the conveying plane of the automatic conveying device 2 in the stage of being transmitted from the middle sequence end 12 to the subsequent sequence end 13 on production line 3. The curtain raw materials produced at the middle sequence end 12 on production line 3 are shunted and returned to the automatic conveying device 2 in the stage of being transmitted from the middle sequence end 12 to the subsequent sequence end 13 on production line 2 through the transmission conveying structure 41 that cooperates with it. Through such cyclic control, through the intermittent regulation of the electric push rod 32 on the automatic conveying device 2 in the stage of being transmitted from the middle sequence end 12 to the subsequent sequence end 13 on production line 1 and production line 3 by the shunt guiding and regulating unit, it is possible to effectively avoid affecting the production efficiency of the subsequent sequence end 13 on production line 1 and production line 3 during the failure period, maintain its operation stability, and at the same time, through the shunt return method, ensure the production efficiency stability of the subsequent sequence end 13 on production line 2, effectively guarantee the production capacity of production line 2 during the failure maintenance period, and improve the production efficiency and utilization rate of the other equipment end 1 on it; In the process that the shunt guide control unit controls the electric push rods 32 on each shunt guide component 3, the fault shunt feedback unit can collect the operation data of the electric push rods 32 and transmit it to the equipment management processing unit, so that the equipment management processing unit can effectively obtain the shunt data during the fault maintenance, and then transmit the data of each production line during the fault maintenance to the data display structure of the equipment management platform through the management data display unit, so that the equipment management personnel can obtain these data, and then according to the status data of the production line operation, timely maintain and regulate the coordination between the production lines, ensure the effectiveness of the shunt auxiliary effect, and ensure the operation effectiveness and stability of each production line between fault maintenance, fully guarantee the efficiency of curtain production, and promote the economic benefits of curtain production.

[0030] After the maintenance of the middle-order end 12 on the production line 2 is completed, the equipment management personnel transmits the instruction of restoring the operation of the middle-order end 12 to the parameter setting input unit through the data receiving structure of the equipment management platform, and the equipment operation setting unit transmits the instruction to the equipment management processing unit. After receiving the instruction, the equipment management processing unit sends control instructions to the equipment parameter control unit and the diversion guide control unit respectively. The equipment parameter control unit starts the middle-order end 12 on the production line 2 to start running, so that it can process the curtain materials transported by the front-order end 11 on the production line 2. The diversion guide control unit controls all the electric push rods 32 to reset and release their diversion guide function, so that each automatic conveying device 2 on the production line 1, the production line 2 and the production line 3 can convey the curtain materials to the respective matching equipment end 1, and then the equipment management processing unit transmits the control instruction to the fault diversion control unit, so that the fault diversion control unit closes the transmission function of the transmission structure 41 through the control of the diversion transmission control box 42, and drives the diversion transmission component 4 to reset through the function of the driving wheel group 44 and move it to the waiting area; The equipment management processing unit determines the effectiveness of the resetting of the shunt guide component 3 and the shunt transmission component 4 through the shunt feedback data transmitted by the fault shunt feedback unit, determines the stability of the subsequent operation of each production line through the status data transmitted by the equipment status acquisition unit and the conveying status acquisition unit, and transmits the production capacity related data after maintenance to the data display structure of the equipment management platform through the data management display unit, so as to facilitate the equipment management personnel to judge and manage the status of the production line after maintenance, effectively ensuring the improvement of the production efficiency and utilization rate of each equipment end 1 on the production line, and maintaining the stability of the production line capacity, thereby promoting the economy of curtain production.

[0031] Second implementation method: Figure 1 - Figure 8The present invention shows an equipment management system for curtain production based on the Internet of Things. The auxiliary management end also includes a post-maintenance trial verification unit. The output end of the equipment management processing unit is also connected to the signal of the post-maintenance trial verification unit. The output end of the post-maintenance trial verification unit is connected to the signal of the diversion guidance and control unit. The setting of the post-maintenance trial verification unit can perform a trial verification of the production capacity of the equipment end 1 that has undergone fault maintenance, and can actively verify the effectiveness of the maintenance, ensure the effectiveness of the maintenance, and ensure the production efficiency and production quality of the equipment end 1 after maintenance, thereby effectively reducing the fluctuation of the production line production capacity, as well as reducing the rework rate or unqualified rate of curtains, and can add an insurance of operation guarantee for fault maintenance, while maintaining the stability and effectiveness of subsequent production line operations, and effectively improve the economic benefits of curtain production.

[0032] Figure 1 - Figure 8 It is shown that after the equipment management processing unit receives the instruction about the resumption of operation of the middle sequence end 12 on the production line 2 transmitted by the equipment operation setting unit, the equipment management processing unit first starts the automatic conveying device 2 on the production line 2 through the equipment parameter control unit, and then transmits the verification instruction to the post-maintenance trial verification unit, so that the post-maintenance trial verification unit transmits the verification instruction to the diversion guide control unit, so that the diversion guide control unit reduces the frequency of diversion control of the diversion guide component 3, so that the curtain materials produced by the front end 11 on the production line 2 are not all diverted to the production line 1 and the production line 3 through the diversion guide component 3 and the diversion transmission component 4, and some curtain materials can be transported to the middle sequence end 12 after maintenance through the automatic conveying device 2 at the stage of being transmitted from the front end 11 to the middle sequence end 12, and then the equipment management processing unit judges the fault maintenance effect of the middle sequence end 12 through the data about the restored middle sequence end 12 transmitted by the equipment status acquisition unit, After judging that the maintenance of the middle sequence end 12 is qualified, the equipment management processing unit sends control instructions to the equipment parameter control unit and the diversion guidance control unit respectively. The equipment parameter control unit starts the middle sequence end 12 on the production line 2 to start running, so that the curtain materials delivered by the front sequence end 11 on the production line 2 can be processed. The diversion guidance control unit controls all the electric push rods 32 to reset and release their diversion guidance function, so that each automatic conveying device 2 on the production line 1, the production line 2 and the production line 3 can convey the curtain materials to the respective matching equipment end 1. Then the equipment management processing unit transmits control instructions to the fault diversion control unit, so that the fault diversion control unit turns off the transmission function of the transmission structure 41 through the control of the diversion transmission control box 42, and drives the diversion transmission component 4 to reset through the function of the driving wheel group 44 and move it to the waiting area; The device management processing unit determines the effectiveness of the reset of the shunt guiding component 3 and the shunt transmission component 4 through the shunt feedback data transmitted by the fault shunt feedback unit, determines the stability of the subsequent operation of each production line through the status data transmitted by the device status acquisition unit and the conveying status acquisition unit, and transmits the production capacity-related data after maintenance to the data display structure of the device management platform through the data management display unit, facilitating the device management personnel to judge and manage the status of the production line after maintenance. It effectively ensures the improvement of the production efficiency and utilization rate of each device end 1 on the production line while maintaining the stability of the production line capacity, promoting the economy of curtain production; When it is determined that the maintenance of the middle order end 12 is unqualified, the device management processing unit transmits a warning signal to the fault warning unit and transmits an instruction to restore the shunt frequency to the shunt guiding control unit through the maintenance trial verification unit, so that the fault warning unit transmits the problem of unqualified maintenance of the middle order end 12 to the device management personnel through the warning structure of the device management platform, enabling the device management personnel to continue the maintenance and repair of the middle order end 12. The shunt guiding control unit maintains the control frequency of the drainage guidance of the electric push rod 32 to ensure the production capacity stability of production line two during the re-maintenance and repair of the middle order end 12, thereby effectively avoiding the situation of defective curtains and rework on production line two caused by unqualified maintenance, and then reducing the production cost of curtains and promoting the economic benefits of curtain production.

[0033] Combined with the current actual needs, the above implementation manner adopted in this application, the protection scope is not limited thereto. Within the scope of knowledge possessed by those skilled in the art, various changes made without departing from the concept of this application still fall within the protection scope of the present invention.

Claims

1. An equipment management system for curtain production based on the Internet of Things, characterized in that: It includes multiple production lines and an equipment management platform that cooperates with the production lines. The production line includes an equipment end (1) and an automatic conveying device (2) that cooperates with the equipment end (1). The equipment management platform includes an equipment data acquisition end, a management data processing end, an equipment management control end, an auxiliary management end, and a parameter interaction end; The input end of the equipment data acquisition end is signal-connected to the parameter interaction end. The input end of the management data processing end is signal-connected to the equipment data acquisition end. The output end of the management data processing end is respectively signal-connected to the equipment management control end, the auxiliary management end, and the parameter interaction end; The equipment end (1) includes a pre-sequence end (11), a middle-sequence end (12) arranged behind the pre-sequence end (11), and a post-sequence end (13) arranged behind the middle-sequence end (12). And the automatic conveying device (2) cooperates with the pre-sequence end (11), the middle-sequence end (12), and the post-sequence end (13) respectively. A plurality of shunt guiding components (3) are installed on the upper end of the automatic conveying device (2); The input end of the equipment data acquisition end is respectively signal-connected to the pre-sequence end (11), the middle-sequence end (12), the post-sequence end (13), and the automatic conveying device (2). The output end of the equipment management control end is respectively signal-connected to the pre-sequence end (11), the middle-sequence end (12), and the post-sequence end (13). The output end of the auxiliary management end is respectively connected to the shunt guiding component (3) and the shunt transmission component (4). And the shunt transmission component (4) cooperates with the automatic conveying device (2) through the shunt guiding component (3).

2. The device management system for curtain production based on the Internet of Things according to claim 1, wherein: The equipment data acquisition end includes a production line parameter setting unit, an equipment operation setting unit, an equipment status acquisition unit, a conveying parameter setting unit, a conveying status acquisition unit, a shunt parameter setting unit, and a fault shunt feedback unit; The parameter interaction end includes a parameter setting input unit, a management data display unit, and a fault warning unit. The input ends of the production line parameter setting unit, the equipment operation setting unit, the conveying parameter setting unit, and the shunt parameter setting unit are all signal-connected to the parameter setting input unit; The management data processing end includes an equipment management processing unit. The input end of the equipment management processing unit is respectively signal-connected to the production line parameter setting unit, the equipment operation setting unit, the equipment status acquisition unit, the conveying parameter setting unit, the conveying status acquisition unit, the shunt parameter setting unit, and the fault shunt feedback unit. The output end of the equipment management processing unit is respectively signal-connected to the management data display unit and the fault warning unit.

3. The device management system for curtain production based on the Internet of Things according to claim 2, characterized in that: The input end of the equipment status acquisition unit is respectively signal-connected to the pre-sequence end (11), the middle-sequence end (12), and the post-sequence end (13). The input end of the conveying status acquisition unit is signal-connected to the automatic conveying device (2). The input end of the fault shunt feedback unit is respectively signal-connected to the shunt guiding component (3) and the shunt transmission component (4); The input end of the parameter setting input unit is signal-connected to the data receiving structure on the device management platform. The output end of the management data display unit is signal-connected to the data display structure on the device management platform. The output end of the fault warning unit is signal-connected to the warning structure on the device management platform.

4. An equipment management system for curtain production based on the Internet of Things according to claim 2, characterized in that: The device management control end includes a device operation control unit, a device parameter regulation unit, a conveying operation control unit, and a conveying parameter regulation unit. The output end of the device management processing unit is respectively signal-connected to the device operation control unit, the device parameter regulation unit, the conveying operation control unit, and the conveying parameter regulation unit. The auxiliary management end includes a shunt guiding regulation unit and a fault shunt regulation unit. The output end of the device management processing unit is also respectively signal-connected to the shunt guiding regulation unit and the fault shunt regulation unit.

5. The device management system for curtain production based on the Internet of Things according to claim 4, wherein: The auxiliary management end further includes a post-maintenance trial verification unit. The output end of the device management processing unit is also signal-connected to the post-maintenance trial verification unit. The output end of the post-maintenance trial verification unit is signal-connected to the shunt guiding regulation unit.

6. The device management system for curtain production based on the Internet of Things according to claim 4, wherein: The output ends of the device operation control unit and the device parameter regulation unit are respectively signal-connected to the front end (11), the middle end (12), and the rear end (13). The output ends of the conveying operation control unit and the conveying parameter regulation unit are signal-connected to the automatic conveying device (2). The output end of the shunt guiding regulation unit is signal-connected to the shunt guiding component (3). The output end of the fault shunt regulation unit is signal-connected to the shunt transmission component (4).

7. The device management system for curtain production based on the Internet of Things according to claim 6, characterized in that: The shunt guiding component (3) includes an L-shaped support plate (31). The L-shaped support plates (31) are fixedly connected to both the left and right ends of the automatic conveying device (2), and the two L-shaped support plates (31) at the left and right ends are evenly distributed in the front-rear direction of the automatic conveying device (2). An electric push rod (32) is installed at the upper end of the L-shaped support plate (31). The lower end of the electric push rod (32) extends to the lower side of the L-shaped support plate (31) and is fixedly connected to an inclined shunt guiding plate (33). The shunt guiding plates (33) at the left and right ends located on the same automatic conveying device (2) are symmetrically arranged. The input end of the fault shunt feedback unit is signal-connected to the electric push rod (32). The output end of the shunt guiding regulation unit is signal-connected to the electric push rod (32).

8. An equipment management system for curtain production based on the Internet of Things according to claim 6, characterized in that: The shunt transmission component (4) includes a transmission conveying structure (41) and a shunt transmission control box (42) that cooperates with the transmission conveying structure (41). The input end of the fault shunt feedback unit is signal-connected to the shunt transmission control box (42). The output end of the fault shunt regulation unit is signal-connected to the shunt transmission control box (42). The transmission conveying structure (41) is inclined with different heights at both ends, and the low end of the transmission conveying structure (41) is lower than the conveying plane of the automatic conveying device (2), and the high end of the transmission conveying structure (41) is higher than the conveying plane of the automatic conveying device (2). A plurality of support frames (43) are fixed to the lower end of the transmission and conveying structure (41), and a shunt transmission control box (42) is fixedly installed on the support frame (43) on one side of the low end of the transmission and conveying structure (41). A driving wheel set (44) matched with the shunt transmission control box (42) is installed at the lower end of the support frame (43).

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