A multi-directional information transmission method and system for garment processing

Abstract

The present invention provides a multi-directional information transmission method and system for garment processing, comprising: connecting each garment-making equipment in a garment-making plant with a control platform respectively, establishing an information transmission path between each garment-making equipment and the control platform, performing anti-interference compensation on each information transmission path respectively, splitting a processing plan issued by a user into tasks through the control platform and issuing the tasks to each, transmitting garment-making work data corresponding to each garment-making equipment to the control platform respectively, analyzing the garment-making work data in the control platform to determine the processing progress of the garment-making plant and displaying the data, establishing a path network specifically for data transmission, managing and supervising multiple equipment, reducing the error of data statistics, and improving the accuracy and timeliness of data analysis.

Description

Technical Field

[0001] The present invention relates to the technical field of data transmission, and in particular to a multi-directional information transmission method and system for garment processing. Background Art

[0002] In the garment processing industry, batch production is generally carried out, mainly using manual assembly lines to complete the production process of finished garments one by one. With the advent of the intelligent era, garment production factories have gradually adopted a systematic intelligent clothing production method. Through the computer administrative management system, the various steps in the garment production are rationally and automatically controlled, which effectively speeds up the efficiency of garment production. However, no matter what brand of computer administrative management system, it needs to be managed according to the workers' processing progress. At present, factories require workers to report their workload after get off work every day or within a prescribed period, and then analyze the workload of all workers in the factory through the computer administrative management system to determine the total workload of the factory within a period of time. Although this method can count the processing progress, there are many equipment and personnel in the factory, and the collected data has a lag, and the communication method used for reporting is generally backward. Now there is an urgent need for a method that can transmit and manage data in real time.

[0003] Therefore, the present invention provides a multi-directional information transmission method and system for garment processing. Summary of the invention

[0004] The present invention provides a multi-directional information transmission method and system for garment processing, which establishes a path network specifically used for data transmission, can manage and supervise multiple devices, reduce data statistical errors, and improve the accuracy and timeliness of data analysis.

[0005] The present invention provides a multi-directional information transmission method for garment processing, comprising:

[0006] Step 1: Connect each garment-making device in the garment-making plant to the control platform, and establish an information transmission path between each garment-making device and the control platform;

[0007] Step 2: performing anti-interference compensation on each of the information transmission paths according to the distribution density of the information transmission paths;

[0008] Step 3: splitting the processing plan sent by the user into tasks through the control platform and sending them to the device display screen corresponding to each of the garment making devices;

[0009] Step 4: Transmitting the garment-making work data corresponding to each garment-making device to the control platform respectively, analyzing the garment-making work data in the control platform to determine the processing progress of the garment-making plant and displaying it.

[0010] In one practicable manner,

[0011] Also includes:

[0012] Respectively obtaining the docking status between each of the clothing making devices and the control platform;

[0013] Obtain the historical network transmission information corresponding to the disconnected garment making equipment in the offline state;

[0014] Determine the docking mode and anti-interference compensation mode between the corresponding disconnected clothing-making equipment and the control platform according to the historical network transmission information;

[0015] Constructing several data transmission characteristics of the disconnected clothing-making equipment according to the historical network transmission information, performing stability evaluation on each of the data transmission characteristics, and determining the disconnection factor of the disconnected clothing-making equipment according to the evaluation results;

[0016] Performing in-depth training on the anti-interference compensation method according to the disconnection factor to obtain a plurality of anti-interference compensation factors;

[0017] Performing factor logic combination on different anti-interference factors to obtain several factor combinations;

[0018] Establishing the docking information logic between the disconnected clothing-making equipment and the control platform according to the historical network transmission information, selecting the target factor combination corresponding to the factor logic combination with the highest similarity to the docking information logic, and obtaining the optimized anti-interference mode;

[0019] The docking mode is optimized and compensated according to the optimized anti-interference mode.

[0020] In one practicable manner,

[0021] Also includes:

[0022] After optimizing and compensating the docking mode according to the optimized anti-interference mode, an effective docking mode is generated, and the disconnected clothing making device is docked with the control platform using the effective docking mode;

[0023] The control platform sends a docking monitoring signal to the disconnected clothing-making device, and collects a docking feedback signal generated by the disconnected clothing-making device;

[0024] Performing frame processing on the docking feedback signal to obtain a plurality of signal frames, and respectively obtaining metadata contained in each of the signal frames;

[0025] Constructing feedback interaction features of the disconnected clothing-making device according to the metadata, searching for each feedback interaction feature in the docking monitoring signal, and obtaining the degree of interaction matching between each feedback interaction feature and the docking monitoring signal;

[0026] When the interaction matching degree corresponding to each of the feedback interaction features is within a preset matching degree threshold range, it is determined that the disconnected clothing-making device is connected to the control platform.

[0027] In one practicable manner,

[0028] The step 1 comprises:

[0029] Step 11: Determine the docking network according to the coverage network corresponding to the garment factory, obtain the connection mode and connection password of the docking network, and send the connection mode and connection password to each of the garment making devices;

[0030] Step 12: Control the clothing-making equipment to connect to the control platform according to the connection mode and the connection password;

[0031] Step 13: Classify the garment-making equipment with the same equipment attributes into several equipment classes, and establish a corresponding information transmission path according to the equipment data type corresponding to each equipment class;

[0032] Step 14: Match the corresponding information transmission path for each of the garment making devices.

[0033] In one practicable manner,

[0034] The step 2 comprises:

[0035] Step 21: draw an equipment distribution map of the garment factory, mark the information transmission path corresponding to each garment equipment in the equipment distribution map, obtain a transmission path distribution map of the garment factory, and obtain path density information between each information transmission path and different information transmission paths in the transmission path distribution map;

[0036] Step 22: respectively obtain the information transmission frequency corresponding to each of the information transmission paths, count the number of clothing-making devices corresponding to each of the information transmission frequencies to establish co-frequency interference information, respectively perform transmission delay detection on each of the information transmission paths, and establish transmission delay information of each clothing-making device according to the detection results;

[0037] Step 23: establishing a density correction condition for the corresponding information transmission path according to the path density information, establishing a time slot allocation condition for the corresponding information transmission path according to the co-channel interference information, and establishing a topology optimization condition for the corresponding information transmission path according to the transmission delay information;

[0038] Step 24: using the modified density condition, time slot allocation condition and topology optimization condition corresponding to the same information transmission path, combined with a preset compensation step length, iteratively perform anti-interference compensation on the corresponding information transmission path.

[0039] In one practicable manner,

[0040] The step 24 comprises:

[0041] Step 241: Analyze the minimum interference value of the corresponding information transmission path according to the path density information, co-channel interference information and transmission delay information corresponding to the same information transmission path, and extract the target information transmission path whose minimum interference value is greater than a preset interference threshold;

[0042] Step 242: Establish a preliminary multiple compensation network using the target density correction condition, target time slot allocation condition and target topology optimization condition corresponding to the same target information transmission path, and establish each iteration correction compensation amount, allocation compensation amount and optimization compensation amount according to the preset compensation;

[0043] Step 243: using the preliminary multiple compensation network to sequentially perform correction compensation, allocation compensation and optimization compensation on the corresponding target information transmission path; after the target information transmission path completes preliminary compensation, the interference elimination amount corresponding to the target information transmission path of each iteration is counted; and the abnormal information transmission path with unqualified interference value is extracted in combination with the corresponding minimum interference value; and the abnormal information transmission path is evaluated for qualification under each condition dimension, and the qualified gap of the abnormal information transmission path under each condition dimension is obtained;

[0044] Step 244: Adjust the preset compensation step size corresponding to each compensation dimension in the multiple compensation network according to the qualified gap to obtain a detailed multiple compensation network, and use the detailed multiple compensation network to perform detailed iterative compensation on the abnormal information transmission path until the interference value corresponding to each of the information transmission paths is less than a preset interference threshold.

[0045] In one practicable manner,

[0046] The step 3 comprises:

[0047] Step 31: Collect the processing plan sent by the user, analyze the processing plan to obtain the duration and total workload of this processing, and determine the daily workload of the garment factory based on the duration and total workload;

[0048] Step 32: Collecting the information of employees on duty on the day in the garment factory, and dividing the daily workload into a number of tasks to be performed based on the job attributes corresponding to each employee on duty;

[0049] Step 33: Match corresponding tasks to be performed for each of the employees on duty, and transmit the tasks to be performed to the corresponding device display screen for display.

[0050] In one practicable manner,

[0051] The step 4 comprises:

[0052] Step 41: respectively collecting the garment-making working data corresponding to each garment-making device, and dividing each working data into a high-frequency data segment and a low-frequency data segment by using a preset discrete wavelet transformation method;

[0053] Step 42: performing high-frequency cleaning on each of the high-frequency data segments, and performing low-frequency cleaning on each of the low-frequency data segments to obtain a plurality of pure data segments corresponding to each of the working data;

[0054] Step 43: using the corresponding information transmission path to transmit each of the pure data segments to the control platform;

[0055] Step 44: Analyze the daily work progress of each garment-making equipment in the control platform, establish the processing progress of the garment-making plant and display it.

[0056] The present invention provides a multi-directional information transmission system for garment processing, comprising:

[0057] The equipment docking module is used to dock each garment-making equipment in the garment-making factory with the control platform and establish an information transmission path between each garment-making equipment and the control platform;

[0058] A path compensation module, used to perform anti-interference compensation on each of the information transmission paths according to the distribution density of the information transmission paths;

[0059] A task issuing module, used to split the processing plan issued by the user into tasks through the control platform and issue them to the device display screen corresponding to each of the garment making devices;

[0060] The progress analysis module is used to transmit the garment-making work data corresponding to each garment-making device to the control platform, analyze the garment-making work data in the control platform to determine the processing progress of the garment-making plant and display it.

[0061] In one practicable manner,

[0062] The device docking module includes:

[0063] A docking preparation unit, configured to determine a docking network according to the coverage network corresponding to the garment factory, obtain a connection mode and a connection password of the docking network, and send the connection mode and the connection password to each of the garment making devices;

[0064] A docking execution unit, used to control the clothing-making equipment to connect to the control platform according to the connection mode and the connection password;

[0065] A path establishing unit, used for classifying garment-making devices with consistent device attributes into a plurality of device classes, and establishing a corresponding information transmission path according to the device data type corresponding to each of the device classes;

[0066] The path allocation unit is used to match a corresponding information transmission path for each of the clothing making devices.

[0067] The beneficial effects that can be achieved by the present invention are as follows: in order to enable each garment-making equipment in a garment-making factory to communicate with the control platform, a one-to-one information transmission path is established between the garment-making equipment and the control platform, and then the information transmission path is subjected to anti-interference processing according to the distribution density of the information transmission path to avoid information loss during the transmission process, and then a corresponding task is assigned to each garment-making equipment through the processing plan issued by the control platform, and the processing progress of the factory is determined by collecting the working data of the garment-making equipment, thereby realizing the effects of real-time collection and step-by-step processing, improving the level of informatization construction and management, and being conducive to further improving the overall informatization level of the garment-making factory.

[0068] Other features and advantages of the present invention will be described in the following description, and partly become apparent from the description, or understood by practicing the present invention. The purpose and other advantages of the present invention can be realized and obtained by the structures particularly pointed out in the written description, claims, and drawings.

[0069] The technical solution of the present invention is further described in detail below through the accompanying drawings and embodiments. BRIEF DESCRIPTION OF THE DRAWINGS

[0070] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0071] Figure 1 Schematic diagram of a workflow of a multi-directional information transmission method for garment processing according to an embodiment of the present invention;

[0072] Figure 2 The figure is a schematic diagram of the composition of a multi-directional information transmission system for garment processing according to an embodiment of the present invention. DETAILED DESCRIPTION

[0073] The preferred embodiments of the present invention are described below in conjunction with the accompanying drawings. It should be understood that the preferred embodiments described herein are only used to illustrate and explain the present invention, and are not used to limit the present invention.

[0074] Example 1

[0075] This embodiment provides a multi-directional information transmission method for garment processing, such as Figure 1 As shown, including:

[0076] Step 1: Connect each garment-making device in the garment-making plant to the control platform, and establish an information transmission path between each garment-making device and the control platform;

[0077] Step 2: performing anti-interference compensation on each of the information transmission paths according to the distribution density of the information transmission paths;

[0078] Step 3: splitting the processing plan sent by the user into tasks through the control platform and sending them to the device display screen corresponding to each of the garment making devices;

[0079] Step 4: Transmitting the garment-making work data corresponding to each garment-making device to the control platform respectively, analyzing the garment-making work data in the control platform to determine the processing progress of the garment-making plant and displaying it.

[0080] In this example, a garment-making factory may contain several garment-making equipment, and the types of garment-making equipment may be one or more;

[0081] In this example, the information transmission path represents the communication path between the control platform and the garment-making equipment, and each garment-making equipment has a unique information transmission path between the control platform;

[0082] In this example, the greater the distribution density, the greater the interference between information transmission paths;

[0083] In this example, each garment-making device is provided with an equipment display screen;

[0084] In this example, the processing progress is updated in real time according to the processing status of workers in the garment factory;

[0085] In this example, when a garment-making device fails to complete a corresponding task on a given day, the task can be reassigned on the next day.

[0086] The working principle and beneficial effects of the above technical solution are as follows: in order to enable each garment-making equipment in the garment-making factory to communicate with the control platform, a one-to-one information transmission path is established between the garment-making equipment and the control platform, and then the information transmission path is subjected to anti-interference processing according to the distribution density of the information transmission path to avoid information loss during the transmission process, and then each garment-making equipment is assigned a corresponding task through the processing plan issued by the control platform, and the processing progress of the factory is determined by collecting the working data of the garment-making equipment, thereby realizing the functions of real-time collection and step-by-step processing, improving the level of informatization construction and management, and facilitating further improving the overall informatization level of the garment-making factory.

[0087] Example 2

[0088] Based on Example 1, the multi-directional information transmission method for garment processing further includes:

[0089] Respectively obtaining the docking status between each of the clothing making devices and the control platform;

[0090] Obtain the historical network transmission information corresponding to the disconnected garment making equipment in the offline state;

[0091] Determine the docking mode and anti-interference compensation mode between the corresponding disconnected clothing-making equipment and the control platform according to the historical network transmission information;

[0092] Constructing several data transmission characteristics of the disconnected clothing-making equipment according to the historical network transmission information, performing stability evaluation on each of the data transmission characteristics, and determining the disconnection factor of the disconnected clothing-making equipment according to the evaluation results;

[0093] Performing in-depth training on the anti-interference compensation method according to the disconnection factor to obtain a plurality of anti-interference compensation factors;

[0094] Performing factor logic combination on different anti-interference factors to obtain several factor combinations;

[0095] Establishing the docking information logic between the disconnected clothing-making equipment and the control platform according to the historical network transmission information, selecting the target factor combination corresponding to the factor logic combination with the highest similarity to the docking information logic, and obtaining the optimized anti-interference mode;

[0096] The docking mode is optimized and compensated according to the optimized anti-interference mode.

[0097] In this example, the process of performing stability evaluation means the process of analyzing the stability of data transmission in different time periods;

[0098] In this example, disconnection factors may be: equipment failure, network failure, low line quality;

[0099] In this example, the anti-interference compensation factor represents a coefficient or method used to eliminate interference for the disconnection factor;

[0100] In this example, the factor logic combination represents the logical relationship between different anti-interference factors;

[0101] In this example, the factor combination represents a new factor obtained by combining the anti-interference compensation factors having a logical relationship;

[0102] In this example, the docking information logic represents the logical relationship that needs to be executed when the disconnected garment making equipment and the control platform are connected to the network;

[0103] In this example, the purpose of selecting an optimized anti-interference method is that different anti-interference factors and different factor combinations are suitable for different garment-making equipment. First, the logical relationship between the anti-interference factors is determined to produce the factor combination, and then the factor combination with the consistent logical relationship is selected based on the network docking information logic between the disconnected garment-making equipment and the control platform, which effectively improves the quality of anti-interference and avoids over-compensation or under-compensation.

[0104] The working principle and beneficial effects of the above technical solution: In order to further improve the effectiveness of data transmission and feedback, when the garment-making equipment is offline, the docking method and anti-interference compensation method between it and the control platform are determined according to its historical network transmission information, and then the data transmission characteristics of the garment-making equipment are used to analyze whether the previous transmission of the garment-making equipment is stable, and then its disconnection factors are deeply trained to obtain several anti-interference compensation factors, and then the factors are further logically combined, and the corresponding target factor combination is selected through the docking information logic between the disconnected garment-making equipment and the control platform, and then an optimized anti-interference method that is most suitable for the disconnected garment-making equipment is generated. After optimizing the docking method by optimizing the anti-interference method, the disconnection problem of the equipment can be solved to ensure the stable connection of the equipment.

[0105] Example 3

[0106] Based on Example 2, the multi-directional information transmission method for garment processing further includes:

[0107] After optimizing and compensating the docking mode according to the optimized anti-interference mode, an effective docking mode is generated, and the disconnected clothing making device is docked with the control platform using the effective docking mode;

[0108] The control platform sends a docking monitoring signal to the disconnected clothing-making device, and collects a docking feedback signal generated by the disconnected clothing-making device;

[0109] Performing frame processing on the docking feedback signal to obtain a plurality of signal frames, and respectively obtaining metadata contained in each of the signal frames;

[0110] Constructing feedback interaction features of the disconnected clothing-making device according to the metadata, searching for each feedback interaction feature in the docking monitoring signal, and obtaining the degree of interaction matching between each feedback interaction feature and the docking monitoring signal;

[0111] When the interaction matching degree corresponding to each of the feedback interaction features is within a preset matching degree threshold range, it is determined that the disconnected clothing-making device is connected to the control platform.

[0112] In this example, metadata refers to data used to describe the signal frame package, including information such as the data source, creation time, update time, data owner, data format, data type, and data label of the signal frame package;

[0113] In this example, the preset matching degree threshold range is 75% and above.

[0114] The working principle and beneficial effects of the above technical solution are as follows: after obtaining an effective docking method, the method is used to achieve docking, and after docking, a docking monitoring signal is sent to the disconnected garment-making equipment, and several feedback interaction features of the disconnected garment-making equipment are determined by analyzing the feedback docking signal generated by the disconnected garment-making equipment, and the docking effect between the disconnected garment-making equipment and the control platform is determined according to the degree of interaction matching between the separate interaction features and the docking monitoring signal. Through such technical means, not only can the disconnected garment-making equipment be reconnected to the control platform, but also the docking quality can be further reviewed to avoid the same disconnection failure from occurring again.

[0115] Example 4

[0116] On the basis of Example 1, the multi-directional information transmission method for garment processing, the step 1 comprises:

[0117] Step 11: Determine the docking network according to the coverage network corresponding to the garment factory, obtain the connection mode and connection password of the docking network, and send the connection mode and connection password to each of the garment making devices;

[0118] Step 12: Control the clothing-making equipment to connect to the control platform according to the connection mode and the connection password;

[0119] Step 13: Classify the garment-making equipment with the same equipment attributes into several equipment classes, and establish a corresponding information transmission path according to the equipment data type corresponding to each equipment class;

[0120] Step 14: Match the corresponding information transmission path for each of the garment making devices.

[0121] The working principle and beneficial effects of the above technical solution are as follows: each garment-making equipment in the garment-making factory is connected to the control platform through a network to facilitate subsequent corresponding data collection work.

[0122] Example 5

[0123] On the basis of Example 1, the multi-directional information transmission method for garment processing, the step 2 comprises:

[0124] Step 21: draw an equipment distribution map of the garment factory, mark the information transmission path corresponding to each garment equipment in the equipment distribution map, obtain a transmission path distribution map of the garment factory, and obtain path density information between each information transmission path and different information transmission paths in the transmission path distribution map;

[0125] Step 22: respectively obtain the information transmission frequency corresponding to each of the information transmission paths, count the number of clothing-making devices corresponding to each of the information transmission frequencies to establish co-frequency interference information, respectively perform transmission delay detection on each of the information transmission paths, and establish transmission delay information of each clothing-making device according to the detection results;

[0126] Step 23: establishing a density correction condition for the corresponding information transmission path according to the path density information, establishing a time slot allocation condition for the corresponding information transmission path according to the co-channel interference information, and establishing a topology optimization condition for the corresponding information transmission path according to the transmission delay information;

[0127] Step 24: using the modified density condition, time slot allocation condition and topology optimization condition corresponding to the same information transmission path, combined with a preset compensation step length, iteratively perform anti-interference compensation on the corresponding information transmission path.

[0128] In this example, the path density information represents information about path distribution established based on distances between different information transmission paths;

[0129] In this example, the information transmission frequency represents the signal frequency corresponding to different information transmission paths;

[0130] In this example, the co-channel interference information refers to the information of mutual influence between information transmission paths using the same information transmission frequency;

[0131] In this example, the transmission delay information indicates the data transmission delay of the clothing-making equipment;

[0132] In this example, the density correction condition represents the condition that needs to be achieved in order to adjust the distribution density of the transmission path;

[0133] In this example, the time slot allocation condition represents the condition that needs to be achieved in order to divide the channel resources of the same information transmission frequency in time;

[0134] In this example, the topology optimization condition represents the condition that needs to be achieved to adjust the structure of the information transmission path;

[0135] In this example, the preset compensation step size is 1.

[0136] The working principle and beneficial effects of the above technical solution: In order to avoid poor data transmission caused by low line quality, the path density information between different information transmission paths is determined according to the equipment distribution map of the garment factory and the information transmission path corresponding to each garment equipment, and then the co-frequency interference information between the garment equipment using the same information transmission frequency is analyzed, and the information transmission path is further tested for transmission delay, the transmission delay information of each garment equipment is determined, and the impact information from multiple angles is obtained, so as to establish corresponding conditions based on this information, and perform iterative anti-interference compensation in combination with a preset compensation step size, thereby eliminating the interference factors of each information transmission path and improving the efficiency of data transmission.

[0137] Example 6

[0138] On the basis of Embodiment 5, the multi-directional information transmission method for garment processing, the step 24 comprises:

[0139] Step 241: Analyze the minimum interference value of the corresponding information transmission path according to the path density information, co-channel interference information and transmission delay information corresponding to the same information transmission path, and extract the target information transmission path whose minimum interference value is greater than a preset interference threshold;

[0140] Step 242: Establish a preliminary multiple compensation network using the target density correction condition, target time slot allocation condition and target topology optimization condition corresponding to the same target information transmission path, and establish each iteration correction compensation amount, allocation compensation amount and optimization compensation amount according to the preset compensation;

[0141] Step 243: using the preliminary multiple compensation network to sequentially perform correction compensation, allocation compensation and optimization compensation on the corresponding target information transmission path; after the target information transmission path completes preliminary compensation, the interference elimination amount corresponding to the target information transmission path of each iteration is counted; and the abnormal information transmission path with unqualified interference value is extracted in combination with the corresponding minimum interference value; and the abnormal information transmission path is evaluated for qualification under each condition dimension, and the qualified gap of the abnormal information transmission path under each condition dimension is obtained;

[0142] Step 244: Adjust the preset compensation step size corresponding to each compensation dimension in the multiple compensation network according to the qualified gap to obtain a detailed multiple compensation network, and use the detailed multiple compensation network to perform detailed iterative compensation on the abnormal information transmission path until the interference value corresponding to each of the information transmission paths is less than a preset interference threshold.

[0143] In this example, the preset interference threshold indicates that the interference probability is 45%;

[0144] In this example, the preliminary multiple compensation network is a network composed of correction compensation, allocation compensation and optimization compensation, and is used to perform correction compensation, allocation compensation and optimization compensation in sequence.

[0145] In this example, the pin interference amount represents the interference amount eliminated after sequential iterative compensation;

[0146] In this example, the qualified gap represents the gap in the qualified rate of the abnormal information transmission path satisfying the corresponding dimension;

[0147] In this example, the detailed multiple compensation network refers to a network generated by reducing the preset compensation step size of the preliminary multiple compensation network.

[0148] The working principle and beneficial effects of the above technical solution: In order to further ensure the effectiveness of iterative compensation, realize accurate compensation and avoid over-compensation, first analyze the minimum interference value of the corresponding information transmission path according to the path density information, co-frequency interference information and transmission delay information corresponding to the same information transmission path. If its minimum interference value is still greater than the preset interference threshold, it is determined that it needs to be compensated, and the target information transmission path to be compensated is input into the established preliminary multiple compensation network for compensation and optimization. After multiple optimizations, analyze whether the eliminated interference amount meets the preset interference threshold, so as to determine the abnormal dimension of the target information transmission path and the qualified gap under the abnormal dimension by performing conditional dimension qualification evaluation, and then use the qualified gap to adjust the preset compensation step of the preliminary multiple network. In this way, large-scale compensation can be performed in the general direction first, and then gradual compensation can be performed for details, which not only improves efficiency but also ensures the effectiveness of compensation.

[0149] Example 7

[0150] Based on Example 1, step 3 of the multi-directional information transmission method for garment processing includes:

[0151] Step 31: Collect the processing plan sent by the user, analyze the processing plan to obtain the duration and total workload of this processing, and determine the daily workload of the garment factory based on the duration and total workload;

[0152] Step 32: Collecting the information of employees on duty on the day in the garment factory, and dividing the daily workload into a number of tasks to be performed based on the job attributes corresponding to each employee on duty;

[0153] Step 33: Match corresponding tasks to be performed for each of the employees on duty, and transmit the tasks to be performed to the corresponding device display screen for display.

[0154] The working principle and beneficial effects of the above technical solution: According to the construction period and total workload set by the processing plan, the daily workload is distributed to each employee in combination with the employees' attendance at work, which not only ensures the smooth progress of the work, but also allows each employee to combine work and rest and cooperate with the processing plan.

[0155] Example 8

[0156] On the basis of Example 1, the multi-directional information transmission method for garment processing, the step 4 comprises:

[0157] Step 41: respectively collecting the garment-making working data corresponding to each garment-making device, and dividing each working data into a high-frequency data segment and a low-frequency data segment by using a preset discrete wavelet transformation method;

[0158] Step 42: performing high-frequency cleaning on each of the high-frequency data segments, and performing low-frequency cleaning on each of the low-frequency data segments to obtain a plurality of pure data segments corresponding to each of the working data;

[0159] Step 43: using the corresponding information transmission path to transmit each of the pure data segments to the control platform;

[0160] Step 44: Analyze the daily work progress of each garment-making equipment in the control platform, establish the processing progress of the garment-making plant and display it.

[0161] In this example, the preset discrete wavelet transformation method represents a mathematical transformation method for decomposing data into components of different scales and frequencies;

[0162] In this example, the high-frequency data segment refers to a data segment in which the amount of data generated in a time period is greater than the average amount of data of the clothing data;

[0163] In this example, the low-frequency data segment refers to a data segment in which the amount of data generated within a time period is smaller than the average amount of data of clothing data.

[0164] The working principle and beneficial effects of the above technical solution are as follows: the garment work data is divided into high-frequency data segments and low-frequency data segments, which are then cleaned separately to obtain several pure data segments, which are finally transmitted. Cleaning different data segments separately not only eliminates redundant data, but also achieves precise cleaning to avoid the loss of useful data.

[0165] Example 9

[0166] This embodiment provides a multi-directional information transmission system for garment processing, including:

[0167] The equipment docking module is used to dock each garment-making equipment in the garment-making factory with the control platform and establish an information transmission path between each garment-making equipment and the control platform;

[0168] A path compensation module, used to perform anti-interference compensation on each of the information transmission paths according to the distribution density of the information transmission paths;

[0169] A task issuing module, used to split the processing plan issued by the user into tasks through the control platform and issue them to the device display screen corresponding to each of the garment making devices;

[0170] The progress analysis module is used to transmit the garment-making work data corresponding to each garment-making device to the control platform, analyze the garment-making work data in the control platform to determine the processing progress of the garment-making plant and display it.

[0171] In this example, a garment-making factory may contain several garment-making equipment, and the types of garment-making equipment may be one or more;

[0172] In this example, the information transmission path represents the communication path between the control platform and the garment-making equipment, and each garment-making equipment has a unique information transmission path between the control platform;

[0173] In this example, the greater the distribution density, the greater the interference between information transmission paths;

[0174] In this example, each garment-making device is provided with an equipment display screen;

[0175] In this example, the processing progress is updated in real time according to the processing status of workers in the garment factory;

[0176] In this example, when a garment-making device fails to complete a corresponding task on a given day, the task can be reassigned on the next day.

[0177] The working principle and beneficial effects of the above technical solution are as follows: in order to enable each garment-making equipment in the garment-making factory to communicate with the control platform, a one-to-one information transmission path is established between the garment-making equipment and the control platform, and then the information transmission path is subjected to anti-interference processing according to the distribution density of the information transmission path to avoid information loss during the transmission process, and then each garment-making equipment is assigned a corresponding task through the processing plan issued by the control platform, and the processing progress of the factory is determined by collecting the working data of the garment-making equipment, thereby realizing the functions of real-time collection and step-by-step processing, improving the level of informatization construction and management, and facilitating further improving the overall informatization level of the garment-making factory.

[0178] Example 10

[0179] On the basis of Example 9, the multi-directional information transmission system for garment processing, the device docking module includes:

[0180] A docking preparation unit, configured to determine a docking network according to the coverage network corresponding to the garment factory, obtain a connection mode and a connection password of the docking network, and send the connection mode and the connection password to each of the garment making devices;

[0181] A docking execution unit, used to control the clothing-making equipment to connect to the control platform according to the connection mode and the connection password;

[0182] A path establishing unit, used for classifying garment-making devices with consistent device attributes into a plurality of device classes, and establishing a corresponding information transmission path according to the device data type corresponding to each of the device classes;

[0183] A path allocation unit is used to match a corresponding information transmission path for each of the clothing making devices.

[0184] The working principle and beneficial effects of the above technical solution are as follows: each garment-making equipment in the garment-making factory is connected to the control platform through a network to facilitate subsequent corresponding data collection work.

[0185] Obviously, those skilled in the art can make various changes and modifications to the present invention without departing from the spirit and scope of the present invention. Thus, if these modifications and variations of the present invention fall within the scope of the claims of the present invention and their equivalents, the present invention is also intended to include these modifications and variations.

Claims

1. A multi-directional information transmission method for garment processing, characterized in that: include: Step 1: Connect each garment-making device in the garment-making plant to the control platform, and establish an information transmission path between each garment-making device and the control platform; Step 2: performing anti-interference compensation on each of the information transmission paths according to the distribution density of the information transmission paths; Step 3: splitting the processing plan sent by the user into tasks through the control platform and sending them to the device display screen corresponding to each of the garment making devices; Step 4: Transmitting the garment-making work data corresponding to each garment-making device to the control platform, analyzing the garment-making work data in the control platform to determine the processing progress of the garment-making plant and displaying it; The step 2 comprises: Step 21: draw an equipment distribution map of the garment factory, mark the information transmission path corresponding to each garment equipment in the equipment distribution map, obtain a transmission path distribution map of the garment factory, and obtain path density information between each information transmission path and different information transmission paths in the transmission path distribution map; Step 22: respectively obtain the information transmission frequency corresponding to each of the information transmission paths, count the number of clothing-making devices corresponding to each of the information transmission frequencies to establish co-frequency interference information, respectively perform transmission delay detection on each of the information transmission paths, and establish transmission delay information of each clothing-making device according to the detection results; Step 23: establishing a density correction condition for the corresponding information transmission path according to the path density information, establishing a time slot allocation condition for the corresponding information transmission path according to the co-channel interference information, and establishing a topology optimization condition for the corresponding information transmission path according to the transmission delay information; Step 24: using the modified density condition, time slot allocation condition and topology optimization condition corresponding to the same information transmission path, combined with a preset compensation step length, to perform iterative anti-interference compensation on the corresponding information transmission path; The step 24 comprises: Step 241: Analyze the minimum interference value of the corresponding information transmission path according to the path density information, co-channel interference information and transmission delay information corresponding to the same information transmission path, and extract the target information transmission path whose minimum interference value is greater than a preset interference threshold; Step 242: Establish a preliminary multiple compensation network using the target density correction condition, target time slot allocation condition and target topology optimization condition corresponding to the same target information transmission path, and establish each iteration correction compensation amount, allocation compensation amount and optimization compensation amount according to the preset compensation step size; Step 243: using the preliminary multiple compensation network to sequentially perform correction compensation, allocation compensation and optimization compensation on the corresponding target information transmission path; after the target information transmission path completes preliminary compensation, the interference elimination amount corresponding to the target information transmission path of each iteration is counted; and the abnormal information transmission path with unqualified interference value is extracted in combination with the corresponding minimum interference value; and the abnormal information transmission path is evaluated for qualification under each condition dimension, and the qualified gap of the abnormal information transmission path under each condition dimension is obtained; Step 244: Adjust the preset compensation step size corresponding to each compensation dimension in the preliminary multiple compensation network according to the qualified gap to obtain a detailed multiple compensation network, and use the detailed multiple compensation network to perform detailed iterative compensation on the abnormal information transmission path until the interference value corresponding to each of the information transmission paths is less than a preset interference threshold.

2. A multi-directional information transmission method for garment processing as claimed in claim 1, characterized in that: Also includes: Respectively obtaining the docking status between each of the clothing making devices and the control platform; Obtain the historical network transmission information corresponding to the disconnected garment making equipment in the offline state; Determine the docking mode and anti-interference compensation mode between the corresponding disconnected clothing-making equipment and the control platform according to the historical network transmission information; Constructing several data transmission characteristics of the disconnected clothing-making equipment according to the historical network transmission information, performing stability evaluation on each of the data transmission characteristics, and determining the disconnection factor of the disconnected clothing-making equipment according to the evaluation results; Performing in-depth training on the anti-interference compensation method according to the disconnection factor to obtain a plurality of anti-interference compensation factors; Performing factor logic combination on different anti-interference compensation factors to obtain several factor combinations; Establishing the docking information logic between the disconnected clothing-making equipment and the control platform according to the historical network transmission information, selecting the target factor combination corresponding to the factor logic combination with the highest similarity to the docking information logic, and obtaining the optimized anti-interference mode; The docking mode is optimized and compensated according to the optimized anti-interference mode.

3. A multi-directional information transmission method for garment processing as claimed in claim 2, characterized in that: Also includes: After optimizing and compensating the docking mode according to the optimized anti-interference mode, an effective docking mode is generated, and the disconnected clothing making device is docked with the control platform using the effective docking mode; The control platform sends a docking monitoring signal to the disconnected clothing-making device, and collects a docking feedback signal generated by the disconnected clothing-making device; Performing frame processing on the docking feedback signal to obtain a plurality of signal frames, and respectively obtaining metadata contained in each of the signal frames; Constructing feedback interaction features of the disconnected clothing-making device according to the metadata, searching for each feedback interaction feature in the docking monitoring signal, and obtaining the degree of interaction matching between each feedback interaction feature and the docking monitoring signal; When the interaction matching degree corresponding to each of the feedback interaction features is within a preset matching degree threshold range, it is determined that the disconnected clothing-making device is connected to the control platform.

4. A multi-directional information transmission method for garment processing as claimed in claim 1, characterized in that: The step 1 comprises: Step 11: Determine the docking network according to the coverage network corresponding to the garment factory, obtain the connection mode and connection password of the docking network, and send the connection mode and connection password to each of the garment making devices; Step 12: Control the clothing-making equipment to connect to the control platform according to the connection mode and the connection password; Step 13: Classify the garment-making equipment with the same equipment attributes into several equipment classes, and establish a corresponding information transmission path according to the equipment data type corresponding to each equipment class; Step 14: Match the corresponding information transmission path for each of the garment making devices.

5. A multi-directional information transmission method for garment processing as claimed in claim 1, characterized in that: The step 3 comprises: Step 31: Collect the processing plan sent by the user, analyze the processing plan to obtain the duration and total workload of this processing, and determine the daily workload of the garment factory based on the duration and total workload; Step 32: Collecting the information of employees on duty on the day in the garment factory, and dividing the daily workload into a number of tasks to be performed based on the job attributes corresponding to each employee on duty; Step 33: Match corresponding tasks to be performed for each of the employees on duty, and transmit the tasks to be performed to the corresponding device display screen for display.

6. A multi-directional information transmission method for garment processing as claimed in claim 1, characterized in that: The step 4 comprises: Step 41: respectively collecting the garment-making working data corresponding to each garment-making device, and dividing each working data into a high-frequency data segment and a low-frequency data segment by using a preset discrete wavelet transformation method; Among them, the high-frequency data segment indicates a data segment in which the amount of data generated in a time period is greater than the average amount of data of the clothing-making data, and the low-frequency data segment indicates a data segment in which the amount of data generated in a time period is less than the average amount of data of the clothing-making data; Step 42: performing high-frequency cleaning on each of the high-frequency data segments, and performing low-frequency cleaning on each of the low-frequency data segments to obtain a plurality of pure data segments corresponding to each of the working data; Step 43: using the corresponding information transmission path to transmit each of the pure data segments to the control platform; Step 44: Analyze the daily work progress of each garment-making equipment in the control platform, establish the processing progress of the garment-making plant and display it.

7. A multi-directional information transmission system for garment processing, characterized in that: include: The equipment docking module is used to dock each garment-making equipment in the garment-making factory with the control platform and establish an information transmission path between each garment-making equipment and the control platform; A path compensation module, used to perform anti-interference compensation on each of the information transmission paths according to the distribution density of the information transmission paths; A task issuing module, used to split the processing plan issued by the user into tasks through the control platform and issue them to the device display screen corresponding to each of the garment making devices; A progress analysis module, used to transmit the garment-making work data corresponding to each garment-making device to the control platform, analyze the garment-making work data in the control platform to determine the processing progress of the garment-making plant and display it; The process of the path compensation module performing anti-interference compensation on each of the information transmission paths according to the distribution density of the information transmission paths includes: Draw an equipment distribution map of the garment factory, mark the information transmission path corresponding to each garment equipment in the equipment distribution map, obtain a transmission path distribution map of the garment factory, and obtain path density information between each information transmission path and different information transmission paths in the transmission path distribution map; Respectively obtain the information transmission frequency corresponding to each of the information transmission paths, count the number of clothing-making devices corresponding to each of the information transmission frequencies to establish co-frequency interference information, respectively perform transmission delay detection on each of the information transmission paths, and establish transmission delay information of each clothing-making device according to the detection results; Establishing density correction conditions for the corresponding information transmission path according to the path density information, establishing time slot allocation conditions for the corresponding information transmission path according to the co-channel interference information, and establishing topology optimization conditions for the corresponding information transmission path according to the transmission delay information; Using the modified density condition, time slot allocation condition and topology optimization condition corresponding to the same information transmission path, combined with a preset compensation step length, iterative anti-interference compensation is performed on the corresponding information transmission path; The process of iteratively performing anti-interference compensation on the corresponding information transmission path by using the modified density condition, time slot allocation condition and topology optimization condition corresponding to the same information transmission path and combining with the preset compensation step length comprises: Analyze the minimum interference value of the corresponding information transmission path according to the path density information, co-frequency interference information and transmission delay information corresponding to the same information transmission path, and extract the target information transmission path whose minimum interference value is greater than the preset interference threshold; A preliminary multiple compensation network is established using the target density correction condition, target time slot allocation condition and target topology optimization condition corresponding to the same target information transmission path, and a correction compensation amount, an allocation compensation amount and an optimization compensation amount are established for each iteration according to the preset compensation step size; The preliminary multiple compensation network is used to sequentially perform correction compensation, allocation compensation and optimization compensation on the corresponding target information transmission path. After the target information transmission path completes the preliminary compensation, the interference elimination amount corresponding to the target information transmission path of each iteration is counted, and the abnormal information transmission path with unqualified interference value is extracted in combination with the corresponding minimum interference value. The abnormal information transmission path is evaluated for qualification under each condition dimension, and the qualified gap of the abnormal information transmission path under each condition dimension is obtained; The preset compensation step size corresponding to each compensation dimension in the preliminary multiple compensation network is adjusted according to the qualified gap to obtain a detailed multiple compensation network, and the detailed multiple compensation network is used to perform detailed iterative compensation on the abnormal information transmission path until the interference value corresponding to each of the information transmission paths is less than a preset interference threshold.

8. A multi-directional information transmission system for garment processing as claimed in claim 7, characterized in that: The device docking module includes: A docking preparation unit, configured to determine a docking network according to the coverage network corresponding to the garment factory, obtain a connection mode and a connection password of the docking network, and send the connection mode and the connection password to each of the garment making devices; A docking execution unit, used to control the clothing-making equipment to connect to the control platform according to the connection mode and the connection password; A path establishing unit, used for classifying garment-making devices with consistent device attributes into a plurality of device classes, and establishing a corresponding information transmission path according to the device data type corresponding to each of the device classes; The path allocation unit is used to match a corresponding information transmission path for each of the clothing making devices.

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