Degradation aid preparation method and system based on digitization and degradation aid

Abstract

The invention provides a digitization-based degradation aid preparation method, a digitization-based degradation aid preparation system and a degradation aid, and is characterized in that the corresponding degradation aid can comprise the following substances: 10%-20% of starch, 5%-10% of plant fiber, 40%-50% of PLA, 10%-20% of PCL, 0.5%-1% of a lubricant, 0.5%-1% of a dispersant, 0.2%-0.5% of a light stabilizer, 0.2%-0.5% of a heat stabilizer, 5%-10% of a plasticizer and 0.1%-0.5% of a nucleating agent. The system is suitable for degradation putting pools of various scales and diversified application scenes, has wide applicability and practicability, realizes efficient and accurate putting of the degradation auxiliary through intelligent calculation, customized design and visual operation, remarkably improves the production efficiency, the resource utilization rate and the operation convenience, and is suitable for popularization and application. And reliable technical support is provided for environmental protection engineering and industrial production.

Description

Technical Field

[0001] The present invention relates to data processing technology, and in particular to a method and system for preparing a degradation agent based on digitization, and the degradation agent. Background Art

[0002] With increasingly stringent environmental protection requirements and the continuous improvement of resource utilization efficiency in industrial production, degradation pools have been widely used in waste treatment, chemical production, environmental protection engineering and other fields. By adding degradation aids, the degradation pool can accelerate the decomposition process of waste, thereby improving treatment efficiency and reducing environmental pollution. However, due to the significant differences in waste types, treatment scales and environmental conditions in different application scenarios, the pool specifications (such as length, width, depth, etc.) of the degradation pool are often different, which puts forward higher customization requirements for the placement of degradation aids.

[0003] Traditional production methods for degrading agents usually adopt a standardized delivery mode, that is, materials are delivered according to fixed delivery board specifications and slot numbers. Although this method is simple and easy to implement, it is difficult to adapt to the diverse needs of different tank specifications and is prone to the following problems: (1) The standardized delivery mode may cause excessive delivery of degrading agents under certain tank specifications, resulting in resource waste; (2) Due to the mismatch between the tank specifications and the delivery board specifications, the degrading agents may be unevenly distributed in the tank, affecting the degradation effect; (3) The lack of targeted customized production solutions requires frequent adjustment of equipment parameters during the production process, reducing production efficiency.

[0004] In order to solve the above problems, a technical solution that can realize customized production of degradation agents is urgently needed. Summary of the invention

[0005] Based on the above problems, the present invention is proposed to provide a prodegradant preparation method, system and prodegradant based on digitization, which overcome the above problems or at least partially solve the above problems.

[0006] According to one aspect of the present invention, a method for preparing a prodegradant based on digitalization is provided, comprising the following steps: Determine the quantity of materials to be put in based on the ratio between the specifications of the corresponding degradation pool and the standard amount of monomers to be put in; Traverse each standard delivery board and determine the standard delivery board that has a quantity matching relationship with the delivered material quantity as the target delivery board; A delivery pool model is established based on the pool specifications, and the delivery pool model is divided into regions based on the target delivery board to obtain customized delivery slots corresponding to the number of standard slots on the target delivery board; Select each customized delivery slot corresponding to the quantity of delivered materials to determine as a customized delivery group, and produce products corresponding to the quantity of delivered materials to obtain each degradable delivery material; Establishing a one-to-one association between each degradable delivery material and each customized delivery slot in the customized delivery group, and generating each material identification code for identifying each degradable delivery material; In response to the demand client scanning any material identification code, the customized delivery slot with an associated relationship is marked in the delivery pool model.

[0007] Optionally, in the method according to the present invention, the amount of material to be put in is determined based on the ratio between the tank body specification of the corresponding degradation tank body and the standard amount of monomers to be put in, comprising: In response to receiving a production request sent by a demand client and carrying the pool body specifications and the standard template group corresponding to the degradation disposal pool, a horizontal comparison chart is established based on the width specifications and the length specifications corresponding to the pool body specifications, and a vertical comparison chart is established based on the depth specifications and the length specifications corresponding to the pool body specifications; Sending a picture comparison request to the demand client to receive a top view and a front view of the pool body corresponding to the degradation placement pool sent by the demand client; Comparing the horizontal comparison image and the vertical comparison image with the top view of the pool body and the front view of the pool body, respectively, and determining the horizontal difference and the vertical difference based on the comparison results; The horizontal difference and the vertical difference are respectively multiplied by the retrieved horizontal weight value and the vertical weight value, and the updated horizontal difference and the vertical difference are summed to obtain the specification difference; In response to the specification difference being less than or equal to the preset difference, a ratio calculation is performed between the cell body specification and the retrieved standard single quantity of release, and integer processing is performed based on the obtained ratio value to obtain the quantity of release materials.

[0008] Optionally, in the method according to the present invention, the horizontal comparison image and the vertical comparison image are respectively compared with the top view of the pool body and the front view of the pool body, and the horizontal difference and the vertical difference are determined based on the comparison results, including: Create a transparent first contrast layer and a second contrast layer, and obtain a first image center point, a second image center point, a third image center point, and a fourth image center point corresponding to the horizontal contrast image, the top view of the pool body, the vertical contrast image, and the front view of the pool body, respectively; The horizontal comparison image and the top view of the pool body are sequentially superimposed on the first comparison layer in a manner that the center point of the first image coincides with the center point of the second image, and the vertical comparison image and the front view of the pool body are sequentially superimposed on the second comparison layer in a manner that the center point of the third image coincides with the center point of the fourth image; Taking the center point of the second image as a scaling reference point, scaling the top view of the pool body until at least a portion of the image contour corresponding to the top view of the pool body overlaps with the image contour corresponding to the horizontal comparison graph, and determining the horizontal difference between the horizontal comparison graph and the updated top view of the pool body based on the first comparison layer; Taking the center point of the fourth image as the scaling reference point, the front view of the pool body is scaled until at least a portion of the image contour corresponding to the front view of the pool body overlaps with the image contour corresponding to the vertical comparison image, and the vertical difference between the vertical comparison image and the updated front view of the pool body is determined based on the second comparison layer.

[0009] Optionally, in the method according to the present invention, the method further comprises: Obtain the actual difference degree uploaded by the management end based on the degradation placement pool and the pool body specifications, and compare the specification difference degree with the actual difference degree; When the actual difference is greater than the specification difference, increasing training is performed on the horizontal weight value and the vertical weight value respectively; When the actual difference is less than the specification difference, the horizontal weight value and the vertical weight value are respectively trained to decrease; The horizontal weight value and vertical weight value after training are obtained through the following formula: in, is the horizontal weight value Increase the number of training sessions. is the horizontal weight value The training constant value of is the horizontal weight value Reduce the number of training sessions. is the horizontal weight value after training, is the vertical weight value Increase the number of training sessions. is the vertical weight value The training constant value of is the vertical weight value Reduce the number of training sessions. is the vertical weight value after training.

[0010] Optionally, in the method according to the present invention, determining a standard delivery board having a quantity matching relationship with the quantity of delivered materials as a target delivery board comprises: In response to the fact that the number of standard slots corresponding to the standard delivery slots included in any standard delivery board located in the standard template group is the same as the number of delivered materials, the standard delivery board is determined as the target delivery board; In response to the fact that the number of standard slots corresponding to the standard delivery slots included in each standard delivery board in the standard template group is different from the number of delivered materials, all standard delivery boards corresponding to the number of standard slots greater than the number of delivered materials are determined as a delivery group to be matched; The standard delivery board corresponding to the smallest quantity of delivered materials in the delivery group to be matched is determined as the target delivery board.

[0011] Optionally, in the method according to the present invention, selecting each customized delivery slot corresponding to the quantity of delivered materials to be determined as a customized delivery group includes: In response to the number of standard slots corresponding to the target delivery plate being the same as the number of delivered materials, all customized delivery slots located in the delivery pool body model are determined as a customized delivery group; In response to the number of standard slots corresponding to the target delivery plate being greater than the number of delivered materials, the center point of the plate body corresponding to the target delivery plate is obtained, and the standard delivery slots radially arranged around the center point of the plate body are divided into slots with the center point of the plate body as the center, so as to obtain circle-level groups corresponding to different numbers of circle-level layers; Based on the preset slot symmetry strategy, slots corresponding to the number of materials to be put into each circle group are selected in turn, and each selected standard put-in slot is determined as the put-in reference group; It is determined that each standard delivery slot in the delivery reference group corresponds to each slot position of the target delivery plate, and each customized delivery slot corresponding to each slot position is determined as a customized delivery group in the delivery pool body model.

[0012] Optionally, in the method according to the present invention, based on a preset slot symmetry strategy, slots corresponding to the number of materials to be put into each circle group are selected in sequence, and each selected standard put-in slot is determined as a put-in reference group, including: In response to the quantity of delivered materials being one, a circle-level group corresponding to one circle-level layer in each circle-level group is determined as a target group, and any customized delivery slot located in the target group is determined as a delivery reference group; In response to the number of the delivered materials being greater than one, taking the center point of the plate as a starting point and determining the reflective arrangement as a division direction, the circle-level groups are divided into groups corresponding to different numbers of circle-level layers, to obtain each circle-level set; Obtain the total number of each slot set corresponding to each standard delivery slot included in each circle level set, and compare the total number of each slot set with the quantity of delivered materials; In response to the total number of any slot set being greater than or equal to the quantity of delivered materials, the circle-level set corresponding to the total number of slot sets is determined as a set determination class, and the circle-level set with the smallest number of slot sets in the set determination class is determined as a target set; Taking the center point of the plate as the starting point and the reflective arrangement as the selection direction, the slots corresponding to the quantity of materials to be placed in each circle group in the target set are selected, and the selected standard placement slots are determined as the placement reference group.

[0013] Optionally, in the method according to the present invention, the method further comprises: In response to the center point of the plate being located at the center point of the slot corresponding to any standard delivery slot, the standard delivery slot is determined as a circle-level group with a circle-level number of one; In response to the fact that the center point of the board body is not located at the slot center point corresponding to any standard delivery slot, the slot contours corresponding to each standard delivery slot are determined in the target delivery board, and in response to the fact that the center point of the board body is located at any slot contour, the standard delivery slots corresponding to the slot contour are aggregated into a circle-level grouping with a corresponding circle-level number of one.

[0014] Optionally, in the method according to the present invention, in response to the demand client scanning any material identification code, the slot identification of the customized delivery slot with an associated relationship in the delivery pool body model includes: The delivery pool model is sent to the demand client, and different preset associated colors are assigned to each circle level group based on the retrieved preset color group; In response to the delivery pool model being displayed in the demand client, each customized delivery slot located in the delivery pool model is displayed with a preset first slot size; In response to the demand client scanning the material identification code corresponding to any degradable delivery material, the customized delivery slot corresponding to the material identification code in the delivery pool body model is enlarged from the preset first slot size to the preset second slot size, and the customized delivery slot is filled with the preset associated color corresponding to the circle-level grouping including the customized delivery slot.

[0015] According to another aspect of the present invention, there is provided a digital-based prodegradant preparation device, comprising: The material determination module is configured to determine the quantity of the material to be put in based on the ratio between the tank body specification of the corresponding degradation tank body and the standard amount of the put-in monomer; The template traversal module is configured to traverse each standard delivery board and determine the standard delivery board with a quantity matching relationship with the delivered material quantity as the target delivery board; A region division module is configured to establish a placement pool model based on the pool specifications, and to divide the placement pool model into regions based on a target placement board to obtain customized placement slots corresponding to the number of standard slots on the target placement board; The product production module is configured to select each customized delivery slot corresponding to the quantity of delivered materials to determine as a customized delivery group, and produce products corresponding to the quantity of delivered materials to obtain each degradable delivery material; An identification association module is configured to establish a one-to-one association relationship between each degradable delivery material and each customized delivery slot located in the customized delivery group, and generate each material identification code for identifying each degradable delivery material; The delivery identification module is configured to respond to the demand client scanning any material identification code and identify the customized delivery slots with associated relationships in the delivery pool model.

[0016] According to another aspect of the present invention, a degradation agent is provided, which is prepared based on the above-mentioned digital-based degradation agent preparation method, and includes the following substances: 10%-20% starch, 5%-10% plant fiber, 40%-50% PLA, 10%-20% PCL, 0.5%-1% lubricant, 0.5%-1% dispersant, 0.2%-0.5% light stabilizer, 0.2%-0.5% heat stabilizer, 5%-10% plasticizer and 0.1%-0.5% nucleating agent.

[0017] According to the content of the present invention, the present invention realizes customized production and precise delivery of degradation agents by combining cell body specifications, standard template groups and intelligent calculations, and has the following significant beneficial effects: First, the present invention receives the cell body specifications sent by the demand client, and calculates the amount of delivered materials based on the ratio of the cell body specifications to the standard delivered monomer quantity, so as to accurately determine the delivery amount of the degradation agent and avoid the problem of material waste or insufficient delivery. At the same time, by traversing the standard template group and matching the target delivery board, it is ensured that the number of delivery slots corresponding to the target delivery board has a corresponding matching relationship with the material demand, so as to further improve the accuracy of delivery; secondly, the present invention can create a delivery pool body model based on the pool body specifications, and divide the corresponding delivery pool body model into regions according to the target delivery board, and generate customized delivery slots corresponding to the number of standard slots. This customized design can adapt to the needs of different pool body specifications and ensure the uniform distribution of degradation aids in the pool body, thereby improving the degradation efficiency; then, the present invention realizes the automation and intelligence of the production process by sending the number of delivered materials to the demand production end for the production of degradation aids. At the same time, by establishing the association relationship between the degradable delivery materials and the customized delivery slots and generating material identification codes, the material management and resource utilization efficiency are further optimized; the delivery pool body model is sent to the demand client for display, and dynamically identified by scanning the material identification code The corresponding customized delivery slots enable operators to intuitively understand the location and status of material delivery. This visual design not only improves the convenience of operation, but also reduces the occurrence of human errors. Then, the present invention establishes a one-to-one association between the degradation delivery material and the customized delivery slot, and generates a material identification code, thereby realizing the full-process traceability of the material delivery process. These data can be used for subsequent production optimization and efficiency improvement, providing a scientific basis for the design and operation of the degradation delivery pool. Finally, the present invention can flexibly adjust the delivery strategy and slot design according to the requirements of different pool body specifications and standard template groups, and is suitable for degradation delivery pools of various sizes and diversified application scenarios. It has wide applicability and practicality, and through intelligent calculation, customized design and visual operation, it realizes efficient and accurate delivery of degradation aids, significantly improves production efficiency, resource utilization and operation convenience, and provides reliable technical support for environmental protection projects and industrial production. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 A flow chart of a method for preparing a prodegradant based on digitization according to an embodiment of the present invention is shown; Figure 2 A schematic diagram of the structure of a 3X3 target delivery board corresponding to this embodiment is shown; Figure 3 A schematic diagram of the structure of a 4X2 target delivery board in this embodiment is shown; Figure 4A structural block diagram of a digital-based prodegradant preparation device according to another embodiment of the present invention is shown. DETAILED DESCRIPTION

[0019] The exemplary embodiments of the present disclosure will be described in more detail below with reference to the accompanying drawings. Although the exemplary embodiments of the present disclosure are shown in the accompanying drawings, it should be understood that the present disclosure can be implemented in various forms and should not be limited by the embodiments set forth herein. On the contrary, these embodiments are provided to enable a more thorough understanding of the present disclosure and to fully convey the scope of the present disclosure to those skilled in the art.

[0020] To solve the problems existing in the above-mentioned prior art, the inventor proposes the solution of the present invention. One embodiment of the present invention provides a digital method for preparing a degradation agent, which can be executed in a computing device, wherein the computing device can be understood as a terminal with data processing function, such as a mobile phone or a computer.

[0021] For example, Figure 1 FIG. 1 shows a flow chart of a method for preparing a digitized prodegradant according to an embodiment of the present invention. Figure 1 As shown, the method starts at step S101, and in step S101, the following contents are included: The quantity of materials to be put in is determined based on the ratio between the specifications of the corresponding degradation pool and the standard amount of monomers to be put in.

[0022] For example, in this embodiment, when a customer with degradation demand needs a degradation agent manufacturer to customize a corresponding degradation product, the customer can send a corresponding production request carrying the tank body specifications of the degradation delivery pool and the standard template group to the server of the corresponding manufacturer based on the demand client used by the customer. It should be noted that the degradation delivery pool can be understood as the tank body required for the customer to perform degradation. Generally speaking, when a customer performs a degradation operation on any material, the customer needs to place the corresponding material to be degraded in the corresponding degradation delivery pool, and further add the corresponding degradation agent, so as to start the corresponding degradation operation in the corresponding degradation delivery pool; and since the amount of degradation agent delivery materials required for different tank body specifications is different, the corresponding manufacturer needs to determine the corresponding delivery material amount according to the tank body specifications of the degradation delivery pool owned by the corresponding customer, wherein the determination method is that the server of the corresponding manufacturer retrieves the pre-stored standard delivery monomer amount to perform a corresponding ratio calculation with the tank body specifications to determine the amount of degradation agent delivery materials required by the customer for the degradation operation of the corresponding tank body specifications.

[0023] In addition, when the degradation aids corresponding to the amount of material to be delivered are delivered, in order to make the degradation aids be delivered evenly to the degradation delivery pool, each customer can set the corresponding standard template group according to its degradation delivery pool in advance, wherein the standard template group includes a standard delivery plate, and each standard delivery plate includes standard delivery slots corresponding to different numbers of standard slots, and the standard delivery slots are generally arranged in an array, which can be, for example, , and each standard delivery slot has the same slot size, so that when the customer performs the corresponding degradation operation, the standard delivery plate can be placed in the degradation delivery pool in advance to complete the regional division of the degradation delivery pool, and by further delivering different degradation aids into different standard delivery slots, it is possible to ensure that the delivered degradation aids can be in a relatively uniform state, thereby improving the corresponding degradation efficiency.

[0024] Furthermore, in this embodiment, the above-mentioned "calculating based on the ratio between the tank body specification of the corresponding degradation tank body and the standard amount of monomers to determine the amount of materials to be put in" may also include the following steps: In response to receiving a production request sent by a demand client and carrying the pool body specifications and the standard template group corresponding to the degradation disposal pool, a horizontal comparison chart is established based on the width specifications and the length specifications corresponding to the pool body specifications, and a vertical comparison chart is established based on the depth specifications and the length specifications corresponding to the pool body specifications; Sending a picture comparison request to the demand client to receive a top view and a front view of the pool body corresponding to the degradation placement pool sent by the demand client; Comparing the horizontal comparison image and the vertical comparison image with the top view of the pool body and the front view of the pool body, respectively, and determining the horizontal difference and the vertical difference based on the comparison results; The horizontal difference and the vertical difference are respectively multiplied by the retrieved horizontal weight value and the vertical weight value, and the updated horizontal difference and the vertical difference are summed to obtain the specification difference; In response to the specification difference being less than or equal to the preset difference, a ratio calculation is performed between the cell body specification and the retrieved standard single quantity of release, and integer processing is performed based on the obtained ratio value to obtain the quantity of release materials.

[0025] For example, in this embodiment, the corresponding implementation process of determining the corresponding quantity of delivered materials based on the production request sent by the demand client may include the following: First, the server responds to the production request sent by the demand client, which carries the pool specifications (including width specifications, length specifications and depth specifications) of the degradation pool and the information of the standard template group. Here, the server receives and parses this data to prepare for subsequent processing; Next, in order to determine whether the cell specifications provided by the customer are accurate, the server creates horizontal and vertical comparison graphs based on the received cell specifications: Horizontal comparison diagram: Based on the width and length specifications of the pool body, a two-dimensional plan is generated to represent the horizontal layout of the pool body.

[0026] Vertical comparison chart: Based on the depth specification of the pool body and combined with the length specification, a two-dimensional cross-section chart is generated to represent the vertical layout of the pool body; Furthermore, the server sends a picture comparison request to the client, requiring the client to provide a top view (horizontal view) and a front view (vertical view) of the degradation disposal pool; these view images will be used to compare with the horizontal comparison image and the vertical comparison image generated by the system, so as to determine whether the pool specifications provided by the customer are correct based on the comparison results; Then, the server compares the generated horizontal comparison image with the upper view of the pool body provided by the client, calculates the difference between the two, and obtains the corresponding horizontal difference; at the same time, the generated vertical comparison image is compared with the front view of the pool body provided by the client, and the difference between the two is calculated to obtain the vertical difference. It can be explained that, in this embodiment, the calculation of the corresponding difference can be implemented by using an image similarity algorithm (such as pixel comparison, feature point matching, etc.); Then, the server can retrieve the preset horizontal weight value and vertical weight value from the database, and perform product calculations with the calculated horizontal difference and vertical difference respectively to obtain the updated horizontal difference and vertical difference. Then the two are summed to obtain the specification difference; Finally, the server can compare the calculated specification difference with the preset difference threshold: if the specification difference is less than or equal to the preset difference, it means that the cell specifications provided by the customer are basically consistent with the comparison chart generated by the server, and the subsequent material quantity calculation can be performed; if the specification difference is greater than the preset difference, a difference alarm is sent to the client, requiring rechecking or correcting the cell specification data; Among them, when the corresponding specification difference meets the conditions, the server can further calculate the ratio of the pool body specifications and the retrieved standard single unit quantity to obtain the ratio value. In order to facilitate actual production operations, the system integerizes the ratio value (such as rounding or rounding up) and finally obtains the quantity of released materials.

[0027] Through the above implementation, this embodiment can realize the automatic verification of the specifications of the degradation tank body and the accurate calculation of the material quantity, ensuring the accuracy and efficiency of the production process, while reducing the cost and error risk of manual intervention.

[0028] Furthermore, in this embodiment, the above-mentioned “comparing the horizontal comparison image and the vertical comparison image with the top view of the pool body and the front view of the pool body, respectively, and determining the horizontal difference and the vertical difference based on the comparison results” may also include the following steps: Create a transparent first contrast layer and a second contrast layer, and obtain a first image center point, a second image center point, a third image center point, and a fourth image center point corresponding to the horizontal contrast image, the top view of the pool body, the vertical contrast image, and the front view of the pool body, respectively; The horizontal comparison image and the top view of the pool body are sequentially superimposed on the first comparison layer in a manner that the center point of the first image coincides with the center point of the second image, and the vertical comparison image and the front view of the pool body are sequentially superimposed on the second comparison layer in a manner that the center point of the third image coincides with the center point of the fourth image; Taking the center point of the second image as a scaling reference point, scaling the top view of the pool body until at least a portion of the image contour corresponding to the top view of the pool body overlaps with the image contour corresponding to the horizontal comparison graph, and determining the horizontal difference between the horizontal comparison graph and the updated top view of the pool body based on the first comparison layer; Taking the center point of the fourth image as the scaling reference point, the front view of the pool body is scaled until at least a portion of the image contour corresponding to the front view of the pool body overlaps with the image contour corresponding to the vertical comparison image, and the vertical difference between the vertical comparison image and the updated front view of the pool body is determined based on the second comparison layer.

[0029] For example, it should be noted that since the top view of the pool body sent by the customer can only reflect the specification ratio between the corresponding length specifications and width specifications, the front view of the pool body can reflect the specification ratio between the corresponding length specifications and depth specifications. Therefore, when comparing the top view and the front view sent by the customer based on the comparison diagrams established by the server, it is mainly based on whether the corresponding specification ratio is correct to improve the corresponding comparison efficiency. Specifically, the comparison process can be described as follows: First, the server creates two transparent contrast layers, namely the first contrast layer and the second contrast layer, and further obtains the image center points of the following images: the first image center point of the horizontal contrast image, the second image center point of the top view of the pool body, the third image center point of the vertical contrast image, and the fourth image center point of the front view of the pool body. It can be explained that the acquisition of the image center point can be achieved by calculating the geometric center of the image, for example, determining the center coordinates based on the width and height of the image; Next, the server may overlay the horizontal comparison image and the upper view of the pool body on the first comparison layer, and overlay the vertical comparison image and the front view of the pool body on the second comparison layer, and the corresponding overlay method may be as follows: The center point of the first image of the horizontal comparison map is overlapped with the center point of the second image of the upper view of the pool body, and they are superimposed on the first comparison layer in sequence; The center point of the third image of the vertical comparison image is overlapped with the center point of the fourth image of the pool body front view, and they are superimposed on the second comparison layer in sequence; By using the above-mentioned center point overlap method, it is ensured that the superimposed image has a consistent reference position in the comparison layer, which is convenient for subsequent comparison and analysis; Next, the system performs an image scaling operation on the upper view of the pool body with the center point of the second image as the scaling reference point. The scaling goal is to make at least part of the image contour of the upper view of the pool body overlap with the image contour of the corresponding horizontal contrast image. The specific steps are as follows: Gradually adjust the zoom ratio of the upper view of the pool body and detect its overlap with the horizontal comparison map in real time; When at least a portion of the image contour at the edge of the pool body upper view overlaps with the image contour at the edge of the horizontal comparison image, the zooming operation may be stopped; Next, based on the first comparison layer, the server performs image comparison on the scaled upper view of the pool body and the horizontal comparison map, and calculates the difference between the two. The difference degree can be calculated by pixel comparison, edge detection, or feature point matching. Finally, the server determines the horizontal difference degree, which is used to quantify the difference between the horizontal comparison map and the upper view of the pool body. Similarly, for the pool body front view, the fourth image center point can also be used as the scaling reference point, and the system can perform image scaling operations on the pool body front view. The goal of scaling is to make at least part of the image outline of the corresponding pool body front view overlap with the image outline of the corresponding vertical contrast image. The specific steps are as follows: The server gradually adjusts the scaling ratio of the pool body front view and detects its overlap with the vertical comparison image in real time; When at least a portion of the image contour corresponding to the front view of the pool body overlaps with the image contour corresponding to the vertical contrast image, the zooming operation is stopped; Next, based on the second comparison layer, the server compares the scaled pool body front view with the vertical comparison image and calculates the difference between the two. The calculation method of the difference is similar to the horizontal difference. Finally, the vertical difference is determined to quantify the difference between the vertical comparison image and the pool body front view.

[0030] It should be noted that, when the pool body specifications of the corresponding degradation disposal pool are basically consistent with the comparison chart generated by the server, the horizontal comparison chart and / or vertical comparison chart after scaling should have basically the same image contour as the top view of the pool body and the front view of the pool body provided by the customer. Therefore, when scaling any comparison chart, if at least part of the image contour corresponding to the comparison chart overlaps with the image contour of the corresponding top view of the pool body or the front view of the pool body, it can be indicated that the comparison chart should have been scaled to the same image size as the top view of the pool body or the front view of the pool body. Therefore, the corresponding difference can be obtained based on the scaled comparison chart, so as to determine whether the pool body specifications provided by the customer are accurate based on the obtained difference in the subsequent process.

[0031] Through the above implementation, this embodiment can realize the automatic comparative analysis of the top view and the front view of the pool body, ensure the consistency of the image data, and provide a reliable basis for the subsequent material quantity calculation. At the same time, it reduces the cost and error risk of manual intervention and improves production efficiency.

[0032] It should be noted that, in the present embodiment, from the above content, it can be known that the specification difference is obtained by summing the horizontal difference and the vertical difference, and the updated horizontal difference and vertical difference are obtained by multiplying the horizontal difference and the vertical difference before the update with the retrieved horizontal weight value and the vertical weight value respectively. Based on this, since the specification difference determined by numerical calculation may deviate from the actual situation to a certain extent, in order to improve the corresponding determination accuracy, the corresponding weight values ​​can be updated and trained in real time to realize the process of updating and iterating each weight value, thereby continuously improving the corresponding determination accuracy.

[0033] Here, the update iteration of each weight value can be achieved through the following steps: Obtain the actual difference degree uploaded by the management end based on the degradation placement pool and the pool body specifications, and compare the specification difference degree with the actual difference degree; When the actual difference is greater than the specification difference, increasing training is performed on the horizontal weight value and the vertical weight value respectively; When the actual difference is less than the specification difference, the horizontal weight value and the vertical weight value are respectively trained to decrease; The horizontal weight value and vertical weight value after training are obtained through the following formula: in, is the horizontal weight value Increase the number of training sessions. is the horizontal weight value The training constant value of is the horizontal weight value Reduce the number of training sessions. is the horizontal weight value after training, is the vertical weight value Increase the number of training sessions. is the vertical weight value The training constant value of is the vertical weight value Reduce the number of training sessions. is the vertical weight value after training.

[0034] It should be noted that the above-mentioned management end can be understood as the terminal used by the management personnel of the corresponding manufacturer. The management personnel can regularly visit different customers for on-site comparison to determine the accuracy of the pool specifications, and upload the actual differences to the server to iteratively update the corresponding horizontal weight values ​​and vertical weight values ​​to improve the corresponding determination accuracy.

[0035] In step S102, the following contents are included: Each standard delivery board is traversed, and the standard delivery board with a quantity matching relationship with the quantity of delivered materials is determined as the target delivery board.

[0036] For example, in this embodiment, after the determination of the quantity of the delivered materials is completed, a suitable standard delivery board can be selected based on the standard template group sent by the customer to carry out subsequent delivery planning. It should be noted that, based on the above content, the standard template group includes different standard delivery boards, and each standard delivery board includes standard delivery slots corresponding to different numbers of standard slots. In order to enable the degradation aids corresponding to the quantity of delivered materials to be delivered to different standard delivery slots, it is necessary to ensure that the selected standard delivery board has a corresponding quantity matching relationship with the quantity of delivered materials. Here, when the number of standard slots corresponding to any standard delivery board is greater than or equal to the quantity of delivered materials, it can be indicated that there may be a corresponding quantity matching relationship between the two.

[0037] Furthermore, in this embodiment, the above-mentioned “determining the standard delivery board having a quantity matching relationship with the delivered material quantity as the target delivery board” may also include the following steps: In response to the fact that the number of standard slots corresponding to the standard delivery slots included in any standard delivery board located in the standard template group is the same as the number of delivered materials, the standard delivery board is determined as the target delivery board; In response to the fact that the number of standard slots corresponding to the standard delivery slots included in each standard delivery board in the standard template group is different from the number of delivered materials, all standard delivery boards corresponding to the number of standard slots greater than the number of delivered materials are determined as a delivery group to be matched; The standard delivery board corresponding to the smallest quantity of delivered materials in the delivery group to be matched is determined as the target delivery board.

[0038] For example, in this embodiment, the selection of the standard delivery plate can be achieved based on the following method steps: First, based on the above content, it can be known that the server can calculate and determine the quantity of materials to be put in according to the ratio between the pool body specifications and the standard single unit quantity, which represents the total amount of materials that need to be put in the current production task; Next, the server traverses all standard delivery boards in the standard template group to check each standard delivery board one by one to determine whether the number of standard slots corresponding to each standard delivery slot is the same as the number of delivered materials: If there is a completely matching standard delivery board: that is, the number of standard slots of all standard delivery slots corresponding to a certain standard delivery board is the same as the number of delivered materials, the server can directly determine the standard delivery board as the target delivery board and end the matching process; If there is no completely matching standard delivery board: that is, the number of standard slots of all standard delivery boards is different from the number of delivered materials, the server will filter out all standard delivery boards whose number of standard slots is greater than the number of delivered materials to form a delivery group to be matched. This means that although these standard delivery boards are not completely matched, their capacities can meet the demand for the number of delivered materials; Finally, in the delivery group to be matched, the server can further select the standard delivery board with the smallest difference between the number of standard slots and the number of delivered materials, and determine it as the target delivery board, wherein the specific steps are as follows: Calculate the difference between the number of standard slots and the number of delivered materials for each standard delivery board in the delivery group to be matched; The standard delivery board with the smallest difference is selected as the target delivery board.

[0039] In this way, the system can select the standard delivery board that is closest to the demand and has sufficient capacity, minimizing resource waste so that other standard delivery boards can be used for degradation delivery pools corresponding to other pool body specifications.

[0040] Through the above implementation mode, the present invention can realize intelligent matching of standard delivery plates, ensure the accuracy and efficiency of material delivery during the production process, and reduce resource waste.

[0041] In step S103, the following contents are included: A placement pool model is established based on the pool specifications, and the placement pool model is divided into regions based on the target placement board to obtain customized placement slots corresponding to the standard slot quantity of the target placement board.

[0042] For example, in this embodiment, after completing the selection of the corresponding target delivery board, the corresponding degradation planning can be carried out for the customer's degradation delivery pool based on the target delivery board, wherein, firstly, a delivery pool body model corresponding to the degradation delivery pool can be created based on the aforementioned acquired pool body specifications (the delivery pool body module can correspond to a three-dimensional form), and secondly, the delivery pool body model can be divided into regions based on the corresponding target delivery board to obtain customized delivery slots corresponding to the standard slot number of the target delivery board located in the delivery pool body model, so that the real scene of placing the target delivery board in the degradation delivery pool in a real environment can be simulated, so that subsequent degradation planning can be carried out based on the delivery pool body model.

[0043] In step S104, the following contents are included: Each customized delivery slot corresponding to the quantity of delivered materials is selected to be determined as a customized delivery group, and products corresponding to the quantity of delivered materials are produced to obtain various degradable delivery materials.

[0044] For example, in this embodiment, after the establishment of the delivery pool model is completed, each customized delivery slot corresponding to the quantity of delivery materials can be selected in the delivery pool model, and each customized delivery slot can be further determined as a corresponding customized delivery group. At the same time, the corresponding quantity of delivery materials is sent to the demand production end for the production of the corresponding degradation agent product. Here, the demand production end can be understood as the terminal used by the production personnel of the corresponding manufacturer, such as a mobile phone or a computer.

[0045] In addition, it should be noted that since the number of standard slots included in the target delivery plate may be greater than the number of materials corresponding to the degradation aids, when performing degradation planning based on the delivery pool model, it is necessary to determine which customized delivery slots are suitable for being aggregated into customized delivery groups (that is, corresponding to the need for the delivery of degradation aids) and which customized delivery slots are not suitable for being aggregated into customized delivery groups (that is, corresponding to the need for the delivery of degradation aids).

[0046] In order to determine each customized delivery slot in the customized delivery group, in this embodiment, the above-mentioned "selecting each customized delivery slot corresponding to the quantity of delivered materials to determine as a customized delivery group" may also include the following steps: In response to the number of standard slots corresponding to the target delivery plate being the same as the number of delivered materials, all customized delivery slots located in the delivery pool body model are determined as a customized delivery group; In response to the number of standard slots corresponding to the target delivery plate being greater than the number of delivered materials, the center point of the plate body corresponding to the target delivery plate is obtained, and the standard delivery slots radially arranged around the center point of the plate body are divided into slots with the center point of the plate body as the center, so as to obtain circle-level groups corresponding to different numbers of circle-level layers; Based on the preset slot symmetry strategy, slots corresponding to the number of materials to be put into each circle group are selected in turn, and each selected standard put-in slot is determined as the put-in reference group; It is determined that each standard delivery slot in the delivery reference group corresponds to each slot position of the target delivery plate, and each customized delivery slot corresponding to each slot position is determined as a customized delivery group in the delivery pool body model.

[0047] For example, in this embodiment, the determination of the customized delivery group can be implemented based on the following method steps: First, the server needs to determine the relationship between the number of standard slots on the corresponding target delivery board and the number of delivered materials: If the number of standard slots is the same as the number of materials to be delivered, all customized delivery slots in the delivery pool model are directly determined as customized delivery groups, and the process ends.

[0048] If the number of standard slots is greater than the number of materials put in, the next step is to further select the appropriate slots; When the number of standard slots is greater than the number of materials put in, the server continues to perform the following steps: Determine the center point of the target delivery board, which is usually the geometric center of the target delivery board; Next, with the center point of the board as the center, the standard delivery slots on the target delivery board that are radially arranged around the center point are divided to generate multiple circle-level groups, wherein each circle-level group contains standard delivery slots that are the same or close to the center point, forming multiple concentric circles or radial hierarchical structures, for example, Figure 2 As shown, if a certain target placement board includes standard placement slots corresponding to 3X3, and if the standard placement slot at the center is used as a circle group with one circle level, then the target placement board should include two circle groups with different circle levels (wherein, Figure 2 The standard delivery slot with the number 1 belongs to the circle group with the circle level number of one, and the standard delivery slot with the number 2 belongs to the circle group with the circle level number of two); for another example, if a certain target delivery board includes standard delivery slots corresponding to 4X2, if the four standard delivery slots closest to the center point of the board are taken as the circle group with the circle level number of one, then the target delivery board should also include two circle groups with different circle level numbers (wherein, Figure 3The standard delivery slot with the number 1 belongs to the circle group with the circle level number 1, and the standard delivery slot with the number 2 belongs to the circle group with the circle level number 2); Next, the server selects standard delivery slots for each circle group in turn according to the pre-stored preset slot symmetry strategy until the total number of selected slots meets the requirement of the number of delivered materials, that is, the server selects standard delivery slots that can present a symmetrical distribution from each circle group in order from the inner circle to the outer circle, so as to ensure that the selected slots are evenly distributed in space as much as possible, until the selected standard delivery slots corresponding to the number of delivered materials are determined as the delivery reference group, thereby ensuring that the selected standard delivery slots can be in a relatively even distribution in the target delivery board. Here, generally speaking, the two selected marked delivery slots that present a symmetrical distribution should be in the same circle group; Finally, the server can determine the corresponding customized delivery slots in the delivery pool model according to the position information of each standard delivery slot in the delivery benchmark group, and form these customized delivery slots into a customized delivery group. The specific steps are as follows: Map the position of each standard delivery slot on the target delivery board to the delivery pool model to determine the specific position of each slot in the model; According to the mapping results, the corresponding customized delivery slots are marked in the delivery pool model, and a customized delivery group is generated.

[0049] Through the above implementation, this embodiment can realize the intelligent slot selection of the target delivery plate and the generation of customized delivery groups, ensuring the accuracy and efficiency of material delivery, while reducing the cost and error risk of manual intervention. The method is applicable to degradation delivery pools of various specifications and has wide applicability and practicality.

[0050] It should be noted that, based on the above content, when selecting the standard delivery slots and determining the corresponding delivery reference group, it is necessary to select the standard delivery slots as evenly distributed as possible in the target delivery plate, so as to ensure that the delivered degradation agents are also in a relatively uniform state, so as to improve the degradation efficiency of the degradation agents.

[0051] Furthermore, in this embodiment, the above-mentioned "selecting slots corresponding to the number of materials to be put in each circle group in turn based on the preset slot symmetry strategy, and determining the selected standard put slots as the put reference group" may also include the following steps: In response to the quantity of delivered materials being one, a circle-level group corresponding to one circle-level layer in each circle-level group is determined as a target group, and any customized delivery slot located in the target group is determined as a delivery reference group; In response to the number of the delivered materials being greater than one, taking the center point of the plate as a starting point and determining the reflective arrangement as a division direction, the circle-level groups are divided into groups corresponding to different numbers of circle-level layers, to obtain each circle-level set; Obtain the total number of each slot set corresponding to each standard delivery slot included in each circle level set, and compare the total number of each slot set with the quantity of delivered materials; In response to the total number of any slot set being greater than or equal to the quantity of delivered materials, the circle-level set corresponding to the total number of slot sets is determined as a set determination class, and the circle-level set with the smallest number of slot sets in the set determination class is determined as a target set; Taking the center point of the plate as the starting point and the reflective arrangement as the selection direction, the slots corresponding to the quantity of materials to be placed in each circle group in the target set are selected, and the selected standard placement slots are determined as the placement reference group.

[0052] For example, in this embodiment, based on the aforementioned preset slot symmetry strategy, the slot selection corresponding to the number of materials to be placed in each standard placement slot located in the target placement plate can be implemented based on the following method: The server needs to determine the value of the corresponding number of materials put in. If the number of materials put in is one, it will enter the single slot selection step. If the number of materials put in is greater than one, it will need to enter the multi-slot selection step accordingly. For the single slot selection step, in each circle grouping, the circle grouping with the corresponding circle level number of one is determined as the target grouping. This grouping is usually the innermost circle of slots, which is closest to the center point of the board, and further selects a customized delivery slot from the target group and determines it as the delivery reference group. Since the number of delivered materials is one, only one slot needs to be selected to meet the demand; here, when the number of delivered materials is one, it is only necessary to ensure that the selected standard delivery slot is located at the center point of the board or is closest to the center point of the board compared to other unselected standard delivery slots, so as to meet the corresponding uniform distribution conditions; As for the multi-slot selection step, in this embodiment, when selecting the standard delivery slot, it is necessary to take the center point of the plate as the starting point, determine the direction of the radial arrangement as the division direction, and divide each circle-level grouping into different circle-level layers, to generate multiple circle-level sets, each circle-level set contains multiple circle-level groups, and the circle-level layers between each set are at the same interval. For example, when any target delivery board includes circle-level groups with a circle-level number of 3, then after completing the grouping division with different circle-level numbers, two circle-level sets can be obtained, namely, a circle-level set including two circle-level groups (the interval number of circle-level layers between the two circle-level groups in the circle-level set is 1) and a circle-level set including three circle-level groups. For example, when any target placement board includes each level group with a level number of 4, after completing the grouping division corresponding to different level numbers, four level groups can be obtained, namely, a level group including four level groups (the number of level intervals between the four level groups in the level group is 0) and three level groups including two different level groups respectively (wherein, two level groups respectively include two level groups with a number of level intervals of 1, and the other level group includes two level groups with a number of level intervals of 2; After the division of the corresponding circle-level sets is completed, the total number of all standard delivery slots contained in each circle-level set, that is, the total number of slot sets, can be calculated, and the total number of each slot set can be further compared with the number of delivered materials to determine whether there is a circle-level set whose total number of slot sets is greater than or equal to the number of delivered materials; If there are circle-level sets whose total number of slot sets is greater than or equal to the number of materials put in, these circle-level sets are classified into a set determination class, so as to further select a circle-level set with the smallest total number of slot sets in the set determination class and determine it as a target set, which can meet the demand for the number of materials put in and minimize slot waste; Finally, it should be noted that, since the corresponding degradation agents will be dispersed in a state of diffusion from the center to the outside when they are placed in the standard placement slots for the corresponding degradation operation, in order to increase the coverage area of ​​the degradation agents, it is necessary to take the center point of the plate as the starting point, determine the direction of the radial arrangement as the selection direction, and select the standard placement slots in each circle group in the target set in turn (that is, each circle group can be assigned a priority, and the circle group closer to the center point of the plate should have a higher priority, that is, the corresponding standard placement slots are selected earlier, and only when the circle group with a high priority is selected, the circle group with a low priority can be selected), until the total number of selected slots reaches the number of placed materials, so that all the selected standard placement slots form a placement benchmark group.

[0053] Through the above implementation, this embodiment can intelligently select appropriate slots and generate a placement reference group according to the different quantities of materials to be placed, thereby ensuring the accuracy and efficiency of material placement, while reducing the cost and error risk of manual intervention. The method is applicable to degradation placement pools of various specifications and has wide applicability and practicality.

[0054] In addition, when dividing the corresponding circle-level groups, since it is necessary to divide the standard delivery slots radially arranged around the center point of the board body with the center point of the board body as the center, it is necessary to first determine the circle-level grouping with a corresponding circle-level layer number of one, so as to facilitate the corresponding slot division of the remaining other standard delivery slots in the subsequent process, that is, in this embodiment, the following steps can be further included: In response to the center point of the plate being located at the center point of the slot corresponding to any standard delivery slot, the standard delivery slot is determined as a circle-level group with a circle-level number of one; In response to the fact that the center point of the board body is not located at the slot center point corresponding to any standard delivery slot, the slot contours corresponding to each standard delivery slot are determined in the target delivery board, and in response to the fact that the center point of the board body is located at any slot contour, the standard delivery slots corresponding to the slot contour are aggregated into a circle-level grouping with a corresponding circle-level number of one.

[0055] For example, in this embodiment, it can be understood that when the center point of the board body coincides with the center point of the slot body corresponding to any standard delivery slot, it means that the corresponding target delivery board has a standard delivery slot at the center position. At this time, when performing slot division of the corresponding circle-level grouping, the standard delivery slot at the center position can be first determined as an independent circle-level grouping with a circle-level layer number of one, and then the slot division of all other remaining standard delivery slots can be performed; and when the center point of the board body does not coincide with the center point of the slot body corresponding to each standard delivery slot, it means that the corresponding target delivery board does not have a standard delivery slot at the center position. At this time, it is necessary to select a suitable standard delivery slot body as a circle-level grouping with a circle-level layer number of one based on the distance between each standard delivery slot body and the center point of the board body, that is, by respectively determining the slot contours corresponding to each standard delivery slot in the target delivery board, and in response to the corresponding board body center point being located at any slot contour, the standard delivery slot corresponding to the slot contour can be aggregated into the corresponding circle-level grouping with a circle-level layer number of one.

[0056] In step S105, the following contents are included: A one-to-one association relationship is established between each degradable delivery material and each customized delivery slot in the customized delivery group, and each material identification code is generated to identify each degradable delivery material.

[0057] For example, in this embodiment, after the corresponding quantity of degradable delivery materials is placed and the degradation planning of the corresponding delivery pool model is completed, a one-to-one association relationship can be further established between each degradable delivery material and each customized delivery slot in the customized delivery group, and each material identification code is generated to identify each degradable delivery material. Here, each material identification code is mainly used for material identification of each degradable delivery material, which can exist in the form of a barcode or a QR code, and after the production of the degradable delivery material is completed, the corresponding material identification code can be fixed on the surface of the corresponding degradable delivery material by spraying or attaching.

[0058] In step S106, the following contents are included: In response to the demand client scanning any material identification code, the customized delivery slot with an associated relationship is marked in the delivery pool model.

[0059] For example, in this embodiment, after the production of the corresponding degradable delivery materials is completed, the corresponding degradable delivery materials can be delivered to the demand client, and the delivery pool body model can be sent to the demand client simultaneously. After receiving the corresponding delivered degradable delivery materials, the demand client can perform the degradation operation of the corresponding degradation delivery pool. The specific operation method includes: first, the customer of the corresponding demand client can place the selected target delivery board in the corresponding degradation delivery pool; then, after the demand client scans the material identification code of any corresponding degradable delivery material, the corresponding received delivery pool body model will mark the customized delivery slot associated with the degradable delivery material. Since the degradation delivery pool and the delivery pool body model have a corresponding virtual-real mapping relationship, the demand client can determine in which standard delivery slot of the degradation delivery pool the degradation delivery material should be placed based on the slot identification in the delivery pool body model, thereby playing an indicative role in the corresponding degradation operation, facilitating the customer to complete the corresponding degradation operation, and improving the corresponding degradation efficiency.

[0060] Furthermore, in this embodiment, the above-mentioned “in response to the demand client scanning any material identification code, slot marking the customized delivery slot with an associated relationship in the delivery pool body model” may also include the following steps: The delivery pool model is sent to the demand client, and different preset associated colors are assigned to each circle level group based on the retrieved preset color group; In response to the delivery pool model being displayed in the demand client, each customized delivery slot located in the delivery pool model is displayed with a preset first slot size; In response to the demand client scanning the material identification code corresponding to any degradable delivery material, the customized delivery slot corresponding to the material identification code in the delivery pool body model is enlarged from the preset first slot size to the preset second slot size, and the customized delivery slot is filled with the preset associated color corresponding to the circle-level grouping including the customized delivery slot.

[0061] For example, in this embodiment, when the customer places the corresponding prodegradant based on the displayed placement pool model, the corresponding slot indication can be performed based on the following method steps: First, after sending the generated placement pool model to the demand client, the server can assign colors to each circle-level group based on the retrieved preset color group, including the server assigning a unique preset associated color to each circle-level group to ensure that different circle-level groups can be easily distinguished visually in subsequent slot identification; Next, when the delivery pool model is displayed in the demand client, the server may display each customized delivery slot in the delivery pool model with a preset first slot size, wherein the preset first slot size is a default display size, to ensure that each corresponding customized delivery slot is clearly visible in the model and is reasonably laid out; Next, when the demand client scans the material identification code of any degradable delivery material, the server can determine the customized delivery slot corresponding to the material according to the scanned material identification code, and enlarge the located customized delivery slot from the preset first slot size to the preset second slot size, wherein the preset second slot size is larger than the preset first slot size, and is used to highlight the currently operated slot; Finally, the server can also fill the enlarged customized delivery slot with color. The filling color is the preset associated color of the circle-level group to which the slot belongs. Through color filling, the position of the slot and the group to which it belongs are further clarified.

[0062] That is, in this embodiment, the server can update the display status of the delivery pool model in real time, and feed back the dynamic adjustment results to the demand client. The customer can intuitively view the currently operated customized delivery slots and their circle-level groups through the demand client, thereby ensuring the accuracy and traceability of material delivery, as well as the intuitiveness and operability of the material delivery process, while reducing the cost of manual intervention and the risk of errors.

[0063] In summary, this embodiment realizes customized production and precise delivery of degradation agents by combining cell body specifications, standard template groups and intelligent calculations, and has the following significant beneficial effects: First, this embodiment receives the cell body specifications sent by the demand client, and calculates the amount of delivered materials based on the ratio of the cell body specifications to the standard delivered monomer quantity, so as to accurately determine the delivery amount of the degradation agent and avoid the problem of material waste or insufficient delivery. At the same time, by traversing the standard template group and matching the target delivery board, it is ensured that the number of delivery slots corresponding to the target delivery board has a corresponding matching relationship with the material demand, so as to further improve the accuracy of delivery; secondly, this embodiment can create a delivery pool body model based on the pool body specifications, and divide the corresponding delivery pool body model into regions according to the target delivery board to generate customized delivery slots corresponding to the number of standard slots. This customized design can adapt to the needs of different pool body specifications and ensure the uniform distribution of degradation aids in the pool body, thereby improving the degradation efficiency; then, this embodiment realizes the automation and intelligence of the production process by sending the number of delivered materials to the demand production end for the production of degradation aids. At the same time, by establishing the association between the degradable delivery materials and the customized delivery slots and generating material identification codes, the material management and resource utilization efficiency are further optimized; the delivery pool body model is sent to the demand client for display, and dynamically identified by scanning the material identification code The corresponding customized delivery slots enable operators to intuitively understand the location and status of material delivery. This visual design not only improves the convenience of operation, but also reduces the occurrence of human errors. Then, this embodiment establishes a one-to-one association between the degradation delivery material and the customized delivery slot, and generates a material identification code, so as to realize the full process traceability of the material delivery process. These data can be used for subsequent production optimization and efficiency improvement, and provide a scientific basis for the design and operation of the degradation delivery pool. Finally, this embodiment can flexibly adjust the delivery strategy and slot design according to the requirements of different pool body specifications and standard template groups, and is suitable for degradation delivery pools of various sizes and diversified application scenarios. It has wide applicability and practicality, and through intelligent calculation, customized design and visual operation, it realizes efficient and accurate delivery of degradation aids, significantly improves production efficiency, resource utilization and operation convenience, and provides reliable technical support for environmental protection projects and industrial production.

[0064] According to another aspect of the present invention, a digital-based prodegradant preparation device is provided. Figure 4 The structural block diagram of the preparation device is shown as follows: Figure 4 As shown, the preparation device comprises: The material determination module is configured to determine the quantity of the material to be put in based on the ratio between the tank body specification of the corresponding degradation tank body and the standard amount of the put-in monomer; The template traversal module is configured to traverse each standard delivery board and determine the standard delivery board with a quantity matching relationship with the delivered material quantity as the target delivery board; A region division module is configured to establish a placement pool model based on the pool specifications, and to divide the placement pool model into regions based on a target placement board to obtain customized placement slots corresponding to the number of standard slots on the target placement board; The product production module is configured to select each customized delivery slot corresponding to the quantity of delivered materials to determine as a customized delivery group, and produce products corresponding to the quantity of delivered materials to obtain each degradable delivery material; An identification association module is configured to establish a one-to-one association relationship between each degradable delivery material and each customized delivery slot located in the customized delivery group, and generate each material identification code for identifying each degradable delivery material; The delivery identification module is configured to respond to the demand client scanning any material identification code and identify the customized delivery slots with associated relationships in the delivery pool model.

[0065] In addition, another embodiment of the present invention further provides a degradation aid, which is prepared based on the above-mentioned digital-based degradation aid preparation method, wherein the degradation aid comprises the following substances: 10%-20% starch, 5%-10% plant fiber, 40%-50% PLA, 10%-20% PCL, 0.5%-1% lubricant, 0.5%-1% dispersant, 0.2%-0.5% light stabilizer, 0.2%-0.5% heat stabilizer, 5%-10% plasticizer and 0.1%-0.5% nucleating agent.

[0066] It should be noted that in the present embodiment, starch, as a natural polymer compound, has good biodegradability and can increase the degradability of the material; plant fiber provides additional strength and structural support, and also helps biodegradation; polylactic acid (PLA) is a commonly used biodegradable plastic with good mechanical properties and processing properties; polycaprolactone (PCL) is another biodegradable plastic with good flexibility and ductility; lubricants such as oleamide, erucamide, etc., are used to improve the processing properties of the material and reduce friction and adhesion; dispersants can help other additives to be evenly distributed in the material; light stabilizers can be specifically such as ultraviolet absorbers, which are used to protect the material from ultraviolet damage and extend the service life; heat stabilizers can improve the thermal stability of the material and prevent decomposition at high temperatures; plasticizers such as phthalates or bio-based plasticizers are used to increase the flexibility and plasticity of the material; nucleating agents can promote crystallization of the material and improve the mechanical properties and transparency of the material.

[0067] In the description provided herein, algorithms and displays are not inherently related to any particular computer, virtual system or other device. Various general purpose systems can also be used together with the examples of the present invention. According to the above description, it is obvious that the structure required for constructing such systems. In addition, the present invention is not directed to any specific programming language either. It should be understood that various programming languages ​​can be utilized to implement the content of the present invention described herein, and the above description of specific languages ​​is for the purpose of disclosing the preferred embodiment of the present invention.

[0068] In the description provided herein, a large number of specific details are described. However, it is understood that embodiments of the present invention can be practiced without these specific details. In some instances, well-known methods, structures and techniques are not shown in detail so as not to obscure the understanding of this description.

[0069] Similarly, it should be understood that in order to streamline the present disclosure and aid in understanding one or more of the various inventive aspects, in the above description of exemplary embodiments of the present invention, various features of the present invention are sometimes grouped together into a single embodiment, figure, or description thereof.

[0070] Those skilled in the art will appreciate that the modules or units or components of the devices in the examples disclosed herein may be arranged in the devices described in the embodiment, or alternatively may be located in one or more devices different from the devices in the examples. The modules in the foregoing examples may be combined into one module or may be divided into multiple submodules.

[0071] Those skilled in the art will appreciate that the modules in the devices in the embodiments may be adaptively changed and arranged in one or more devices different from the embodiments. The modules or units or components in the embodiments may be combined into one module or unit or component, and furthermore may be divided into a plurality of submodules or subunits or subcomponents.

[0072] Furthermore, those skilled in the art will appreciate that although some embodiments described herein include certain features included in other embodiments but not other features, the combination of features from different embodiments is meant to be within the scope of the present invention and to form different embodiments.

[0073] In addition, some of the embodiments are described herein as methods or combinations of method elements that can be implemented by a processor of a computer system or by other devices that perform the functions. Therefore, a processor with necessary instructions for implementing the method or method elements forms a device for implementing the method or method elements. In addition, the elements described herein of the device embodiments are examples of devices for implementing the functions performed by the elements for the purpose of implementing the invention.

[0074] As used herein, unless otherwise specified, the use of ordinal numbers "first," "second," "third," etc. to describe common objects merely indicates that different instances of similar objects are involved, and is not intended to imply that the objects so described must have a given order in time, space, order, or in any other manner.

[0075] Although the present invention has been described according to a limited number of embodiments, it will be apparent to those skilled in the art, with the benefit of the above description, that other embodiments may be envisioned within the scope of the invention thus described. In addition, it should be noted that the language used in this specification is primarily selected for readability and instructional purposes, rather than for explaining or limiting the subject matter of the present invention.

Claims

1. A method for preparing a degradation agent based on digitalization, characterized in that: The following steps are involved: Determine the quantity of materials to be put in based on the ratio between the specifications of the corresponding degradation pool and the standard amount of monomers to be put in; Traverse each standard delivery board and determine the standard delivery board that has a quantity matching relationship with the delivered material quantity as the target delivery board; A delivery pool model is established based on the pool specifications, and the delivery pool model is divided into regions based on the target delivery board to obtain customized delivery slots corresponding to the number of standard slots on the target delivery board; Select each customized delivery slot corresponding to the quantity of delivered materials to determine as a customized delivery group, and produce products corresponding to the quantity of delivered materials to obtain each degradable delivery material; Establishing a one-to-one association between each degradable delivery material and each customized delivery slot in the customized delivery group, and generating each material identification code for identifying each degradable delivery material; In response to the demand client scanning any material identification code, the customized delivery slot with an associated relationship is marked in the delivery pool model.

2. The method for preparing a degradation agent based on digitization according to claim 1, characterized in that: The amount of materials to be put in is determined based on the ratio between the specifications of the corresponding degradation pool and the amount of standard monomers to be put in, including: In response to receiving a production request sent by a demand client and carrying the pool body specifications and the standard template group corresponding to the degradation disposal pool, a horizontal comparison chart is established based on the width specifications and the length specifications corresponding to the pool body specifications, and a vertical comparison chart is established based on the depth specifications and the length specifications corresponding to the pool body specifications; Sending a picture comparison request to the demand client to receive a top view and a front view of the pool body corresponding to the degradation placement pool sent by the demand client; Comparing the horizontal comparison image and the vertical comparison image with the top view of the pool body and the front view of the pool body, respectively, and determining the horizontal difference and the vertical difference based on the comparison results; The horizontal difference and the vertical difference are respectively multiplied by the retrieved horizontal weight value and the vertical weight value, and the updated horizontal difference and the vertical difference are summed to obtain the specification difference; In response to the specification difference being less than or equal to the preset difference, a ratio calculation is performed between the cell body specification and the retrieved standard single quantity of release, and integer processing is performed based on the obtained ratio value to obtain the quantity of release materials.

3. The method for preparing a degradation agent based on digitization according to claim 2, characterized in that: The horizontal comparison image and the vertical comparison image are respectively compared with the top view of the pool body and the front view of the pool body, and the horizontal difference and the vertical difference are determined based on the comparison results, including: Create a transparent first contrast layer and a second contrast layer, and obtain a first image center point, a second image center point, a third image center point, and a fourth image center point corresponding to the horizontal contrast image, the top view of the pool body, the vertical contrast image, and the front view of the pool body, respectively; The horizontal comparison image and the top view of the pool body are sequentially superimposed on the first comparison layer in a manner that the center point of the first image coincides with the center point of the second image, and the vertical comparison image and the front view of the pool body are sequentially superimposed on the second comparison layer in a manner that the center point of the third image coincides with the center point of the fourth image; Taking the center point of the second image as a scaling reference point, scaling the top view of the pool body until at least a portion of the image contour corresponding to the top view of the pool body overlaps with the image contour corresponding to the horizontal comparison graph, and determining the horizontal difference between the horizontal comparison graph and the updated top view of the pool body based on the first comparison layer; Taking the center point of the fourth image as the scaling reference point, the front view of the pool body is scaled until at least a portion of the image contour corresponding to the front view of the pool body overlaps with the image contour corresponding to the vertical comparison image, and the vertical difference between the vertical comparison image and the updated front view of the pool body is determined based on the second comparison layer.

4. The method for preparing a degradation agent based on digitization according to claim 2, characterized in that: The method further comprises: Obtain the actual difference degree uploaded by the management end based on the degradation placement pool and the pool body specifications, and compare the specification difference degree with the actual difference degree; When the actual difference is greater than the specification difference, increasing training is performed on the horizontal weight value and the vertical weight value respectively; When the actual difference is less than the specification difference, the horizontal weight value and the vertical weight value are respectively trained to decrease; The horizontal weight value and vertical weight value after training are obtained through the following formula: in, is the horizontal weight value Increase the number of training sessions. is the horizontal weight value The training constant value of is the horizontal weight value Reduce the number of training sessions. is the horizontal weight value after training, is the vertical weight value Increase the number of training sessions. is the vertical weight value The training constant value of is the vertical weight value Reduce the number of training sessions. is the vertical weight value after training.

5. The method for preparing a degradation agent based on digitalization according to claim 1, characterized in that: The standard delivery board with a quantity matching relationship with the delivery material quantity is determined as the target delivery board, including: In response to the fact that the number of standard slots corresponding to the standard delivery slots included in any standard delivery board located in the standard template group is the same as the number of delivered materials, the standard delivery board is determined as the target delivery board; In response to the fact that the number of standard slots corresponding to the standard delivery slots included in each standard delivery board in the standard template group is different from the number of delivered materials, all standard delivery boards corresponding to the number of standard slots greater than the number of delivered materials are determined as a delivery group to be matched; The standard delivery board corresponding to the smallest quantity of delivered materials in the delivery group to be matched is determined as the target delivery board.

6. The method for preparing a degradation agent based on digitalization according to claim 5, characterized in that: Select each customized delivery slot corresponding to the quantity of delivered materials to determine the customized delivery group, including: In response to the number of standard slots corresponding to the target delivery plate being the same as the number of delivered materials, all customized delivery slots located in the delivery pool body model are determined as a customized delivery group; In response to the number of standard slots corresponding to the target delivery plate being greater than the number of delivered materials, the center point of the plate body corresponding to the target delivery plate is obtained, and the standard delivery slots radially arranged around the center point of the plate body are divided into slots with the center point of the plate body as the center, so as to obtain circle-level groups corresponding to different numbers of circle-level layers; Based on the preset slot symmetry strategy, slots corresponding to the number of materials to be put into each circle group are selected in turn, and each selected standard put-in slot is determined as the put-in reference group; It is determined that each standard delivery slot in the delivery reference group corresponds to each slot position of the target delivery plate, and each customized delivery slot corresponding to each slot position is determined as a customized delivery group in the delivery pool body model.

7. The method for preparing a degradation agent based on digitization according to claim 6, characterized in that: Based on the preset slot symmetry strategy, the slots corresponding to the number of materials to be put into each circle level group are selected in turn, and the selected standard put-in slots are determined as the put-in reference group, including: In response to the quantity of delivered materials being one, a circle-level group corresponding to one circle-level layer in each circle-level group is determined as a target group, and any customized delivery slot located in the target group is determined as a delivery reference group; In response to the number of the delivered materials being greater than one, taking the center point of the plate as a starting point and determining the reflective arrangement as a division direction, the circle-level groups are divided into groups corresponding to different numbers of circle-level layers, to obtain each circle-level set; Obtain the total number of each slot set corresponding to each standard delivery slot included in each circle level set, and compare the total number of each slot set with the quantity of delivered materials; In response to the total number of any slot set being greater than or equal to the quantity of delivered materials, the circle-level set corresponding to the total number of slot sets is determined as a set determination class, and the circle-level set with the smallest number of slot sets in the set determination class is determined as a target set; Taking the center point of the plate as the starting point and the reflective arrangement as the selection direction, the slots corresponding to the quantity of materials to be placed in each circle group in the target set are selected, and the selected standard placement slots are determined as the placement reference group.

8. The method for preparing a degradation agent based on digitization according to claim 6, characterized in that: The method further comprises: In response to the center point of the plate being located at the center point of the slot corresponding to any standard delivery slot, the standard delivery slot is determined as a circle-level group with a circle-level number of one; In response to the fact that the center point of the board body is not located at the slot center point corresponding to any standard delivery slot, the slot contours corresponding to each standard delivery slot are determined in the target delivery board, and in response to the fact that the center point of the board body is located at any slot contour, the standard delivery slots corresponding to the slot contour are aggregated into a circle-level grouping with a corresponding circle-level number of one.

9. The method for preparing a degradation agent based on digitization according to claim 6, characterized in that: In response to the demand client scanning any material identification code, the customized delivery slot with associated relationship is marked in the delivery pool body model, including: The delivery pool model is sent to the demand client, and different preset associated colors are assigned to each circle level group based on the retrieved preset color group; In response to the delivery pool model being displayed in the demand client, each customized delivery slot located in the delivery pool model is displayed with a preset first slot size; In response to the demand client scanning the material identification code corresponding to any degradable delivery material, the customized delivery slot corresponding to the material identification code in the delivery pool body model is enlarged from the preset first slot size to the preset second slot size, and the customized delivery slot is filled with the preset associated color corresponding to the circle-level grouping including the customized delivery slot.

10. A digital-based prodegradant preparation device, characterized in that: include: The material determination module is configured to determine the quantity of the material to be put in based on the ratio between the tank body specification of the corresponding degradation tank body and the standard amount of the put-in monomer; The template traversal module is configured to traverse each standard delivery board and determine the standard delivery board with a quantity matching relationship with the delivered material quantity as the target delivery board; A region division module is configured to establish a placement pool model based on the pool specifications, and to divide the placement pool model into regions based on a target placement board to obtain customized placement slots corresponding to the number of standard slots on the target placement board; The product production module is configured to select each customized delivery slot corresponding to the quantity of delivered materials to determine as a customized delivery group, and produce products corresponding to the quantity of delivered materials to obtain each degradable delivery material; An identification association module is configured to establish a one-to-one association relationship between each degradable delivery material and each customized delivery slot located in the customized delivery group, and generate each material identification code for identifying each degradable delivery material; The delivery identification module is configured to respond to the demand client scanning any material identification code and identify the customized delivery slots with associated relationships in the delivery pool model.

11. A prodegradant prepared by the digital prodegradant preparation method according to any one of claims 1 to 9, characterized in that: It includes the following substances: 10%-20% starch, 5%-10% plant fiber, 40%-50% PLA, 10%-20% PCL, 0.5%-1% lubricant, 0.5%-1% dispersant, 0.2%-0.5% light stabilizer, 0.2%-0.5% heat stabilizer, 5%-10% plasticizer and 0.1%-0.5% nucleating agent.

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