Order full-process system based on customized industrial products and meta universe engine

Abstract

The invention relates to the technical field of intelligent order management, in particular to an order full-process system based on customized industrial products and a meta-universe engine. According to the method, cross-software operation is reduced, errors occurring in cross-platform data connection are reduced through construction of the unique platform and the special local area network, the software switching frequency is reduced, the process efficiency is improved, and the cost is reduced; all data and operation are managed in a centralized mode, all parties of a project can complete all tasks on the same platform, and therefore the cooperation speed is increased, and the management and operation cost is reduced; according to the invention, multi-role real-time collaboration is realized; clients, designers and factories can interact in real time on a unified platform, so that the collaboration efficiency is improved; through the visualization and exception handling module, the system can display the progress and state of an order in real time, including a design progress, a production scheduling progress, a material purchasing progress and a logistics distribution progress, and helps project management personnel and related personnel to clearly understand the completion condition of each link.

Description

Technical Field

[0001] The present invention relates to the technical field of intelligent order management, and specifically to an order full-process system based on customized industrial products and a metaverse engine. Background Art

[0002] In the traditional order management process, manual intervention is often required in links such as order creation, contract upload, measurement and design, review and confirmation, and production and delivery, resulting in low efficiency and easy errors. The lack of a unified automated management system to coordinate each step makes the entire order processing process complex and time-consuming.

[0003] In terms of order management, traditional methods use basic form tools (such as Excel, paper contracts) or simple CRM systems to enter customer requirements. Contract upload mostly relies on manual scanning or email transmission, lacking electronic signature and automatic archiving functions.

[0004] Moreover, in terms of product design, existing automated product designs mainly focus on standardized products. When it comes to customized industrial products, they can only enter the production link with manual intervention through offline communication or in the form of very cumbersome CAD design drawings. Based on the metaverse engine technology of the present application, our consumers can design industrial products by themselves through our metaverse engine technology. After designing the model, it is also possible to re-measure the model through real-world scenario data. Moreover, the model designed through the metaverse engine can achieve dynamic real-time rendering and real 1:1 simulation effects, which can better help users make decisions. At the same time, the order realizes the industrial implementation of product design through the data flow of the entire order from the design end to the production end. This technical solution can well develop the production of online customized products and promote the multi-dimensional development of industrial products.

[0005] Secondly, in terms of design and customer communication, the order management process in the traditional home improvement market usually relies on offline or single-module online tools. Designers complete the drawing design through independent software such as CAD, and the plan needs to be repeatedly confirmed through offline communication or email. The design files and order data do not achieve system-level linkage.

[0006] Finally, in terms of logistics and construction. Logistics information is transmitted through phone calls or instant messaging tools, the delivery progress cannot be tracked in real time, and the collaborative efficiency between the construction party and the supplier is low.

[0007] In view of the above problems, it is necessary to propose an order full-process system based on customized industrial products and a metaverse engine. Summary of the Invention

[0008] The purpose of the present invention is to solve the problems existing in the background art and propose an order full-process system based on customized industrial products and a metaverse engine.

[0009] The object of the present invention can be achieved by the following technical solutions:

[0010] The present invention provides an order full-process system based on customized industrial products and a metaverse engine, including an automated process module, an intelligent planning module, a visualization and exception handling module, and an order database.

[0011] The automated process module includes a customer unit, a designer unit, a supplier unit, a logistics unit, and a construction unit, which is responsible for coordinating and managing each step of the order from creation to shipment, ensuring that each link can proceed smoothly, and providing a personalized real-time collaboration platform for different roles including customers, designers, suppliers, logistics personnel, and construction personnel, ensuring the efficient circulation of information and data.

[0012] The customer unit receives the conditional information package submitted by the client side and creates an order. The conditional data includes functional planning information, material intention information, original structure drawings, quotation intention information, process standard intention information, and approval document information.

[0013] The designer unit receives the preliminary design plan and the final design plan submitted by the designer side, including design drawings, renderings, and bills of materials.

[0014] The said supplier unit receives the status information submitted by all supplier sides; the logistics unit receives the status information submitted by all logistics sides; the construction unit receives the status information submitted by all construction sides.

[0015] As a preferred mode of the present invention, the specific process of coordinating and managing each step of the order from creation to shipment is as follows:

[0016] After receiving the conditional information package sent by the customer, the customer unit immediately creates an order and sends the order to the designer unit;

[0017] When the designer unit receives the order, it assigns the order to the designer. When the designer unit receives the preliminary design plan sent by the designer, it sends the said preliminary design plan and the quotation to the customer unit, and then receives the correction instruction or confirmation instruction feedback from the customer unit.

[0018] If the designer unit receives a correction instruction, it sends the correction instruction and the additional correction requirements to the said designer, requests the designer to perform design corrections according to the said additional correction requirements, and feeds back the corrected design plan and quotation to the customer unit.

[0019] If the planning unit receives a confirmation instruction, it converts the preliminary design plan into a final design plan, sends the final design plan to the intelligent planning module, and waits for the intelligent planning module to send the logistics party planning plan, the supplier planning plan, and the construction party planning plan.

[0020] Subsequently, the logistics party planning plan, the supplier planning plan, and the construction party planning plan are sent to the customer unit, waiting for the customer's final confirmation instruction. According to the customer's final confirmation instruction, the unique client, the unique designer side, multiple supplier sides, multiple logistics party sides, and the unique construction party side corresponding to each created order are confirmed. The logistics party planning plan, the supplier planning plan, and the construction party planning plan are obtained through the operation and analysis of the intelligent planning module.

[0021] As a preferred embodiment of the present invention, a data sharing local area network is established among the customer, the designer, the production factory, the logistics management personnel, and the construction party, specifically as follows:

[0022] For each created order; obtain the unique client of the order in the customer unit; obtain the unique designer side of the order in the designer unit; obtain multiple supplier sides in the supplier unit; obtain multiple logistics party sides in the logistics party unit; obtain the unique construction party side in the construction party unit.

[0023] A dedicated local area network is established among the unique client, the unique designer side, the multiple supplier sides, the multiple logistics party sides, and the unique construction party side, and data connections are respectively established with the dedicated local area network through wired or wireless networks. The unique client, the unique designer side, the multiple supplier sides, the multiple logistics party sides, and the unique construction party side share data through the dedicated local area network.

[0024] As a preferred embodiment of the present invention, a first dedicated line is established between the unique client and the unique designer side; a second dedicated line is established between the unique client and the unique construction party side.

[0025] The first dedicated line and the second dedicated line use encrypted TLS protocol and data compression algorithm to realize the transmission of design files, images, and videos.

[0026] The intelligent planning module conducts intelligent scheduling and planning for the production, design, logistics, and construction links of the order through intelligent algorithms and data analysis, specifically including the intelligent planning of the logistics party planning plan, the supplier planning plan, and the construction party planning plan, as well as the intelligent planning of time allocation.

[0027] The intelligent planning of the logistics party planning plan, the supplier planning plan, and the construction party planning plan is specifically as follows:

[0028] Obtain the total construction area quantity P1 and the total material quantity P2 involved in the final design plan, and obtain the material type numbers k = 1, 2,..., K involved in the final design plan; where K is the total number of material types involved in the final design plan.

[0029] The supplier unit obtains all the status information submitted by the supplier side, including the supplier number i1, the distance d(i1, k) from the supplier to the construction site, the expected first delivery time t1(i1, k), the average delivery speed v(i1, k) and the current inventory m(i1, k) for material k. Where k is the material number.

[0030] The logistics party unit obtains all the status information submitted by the logistics party side, including the logistics party number i2 and the provided expected logistics speed q(i2).

[0031] The construction party unit obtains all the status information submitted by the construction party side, including the construction party number i3, the allocable number of people n(i3), the expected arrival time t(i3) and the construction capacity index f(i3), where the construction capacity index is obtained by matching the historical construction data of each construction party i3, representing the quantity of materials that each worker in the construction party i3 can handle on average per day.

[0032] Set the optimization objective function where MinimizeT total is the expected completion time of the entire project, and the optimization objective is to minimize it; where α1, α2 and α3 are preset weight factors, representing the optimization weights of the three sub-items of the supplier delivery time, the logistics time and the construction time, representing the optimization importance of each of the three sub-items; where C1(i1, k) is the procurement simulation eigenvalue to be solved, representing whether to purchase material k through supplier i1, with a value of 0 or 1; when the value of C1(i1, k) is 1, it represents purchasing material k through supplier i1; when the value of C1(i1, k) is 0, it represents not purchasing material k through supplier i1; where C2(i2, k) is the logistics simulation eigenvalue to be solved, representing whether to transport material k through logistics party i2; when the value of C2(i2, k) is 1, it represents transporting material k through logistics party i2; when the value of C2(i2, k) is 0, it represents not transporting material k through logistics party i2; where C3(i3) is the construction simulation eigenvalue to be solved, representing whether to complete all construction tasks through construction party i3; when the value of C3(i3) is 1, it represents completing all construction tasks through construction party i3; when the value of C3(i3) is 0, it represents not completing all construction tasks through construction party i3;

[0033] Among them, C1(i1, k), C2(i2, k), and C3(i3) are the unknowns to be solved in the optimization objective function, and together they form the logistics party planning scheme, the supplier planning scheme, and the construction party planning scheme.

[0034] As a preferred embodiment of the present invention, the constraint conditions of the optimization objective function are set, including:

[0035] Material procurement constraint: Each material k must be provided by a certain supplier, and each material can only select one supplier for procurement, ensuring that each material has a unique supplier and there will be no situation of repeated selection of suppliers. Specifically:

[0036] Inventory capacity constraint: The inventory of each supplier cannot be lower than the quantity of materials required by the order. If the order demand exceeds the inventory, the supplier cannot provide the material. Specifically: Where Demand(k) is the minimum start-up demand for material k; where m(i1, k) is the current inventory of supplier i1 regarding material k.

[0037] Logistics restriction constraint: Each material k must be transported by a certain logistics party, and each material can only select one logistics party. Specifically:

[0038] Personnel restriction constraint: The selected construction party must allocate workers greater than the lower limit of construction personnel during the construction process. Specifically: n(i3) ≥ nMin Where nMin is the preset lower limit of construction personnel.

[0039] As a preferred embodiment of the present invention, the particle swarm optimization algorithm is used to optimize and calculate the optimization objective function and its constraint conditions, and solve for the combination of C1(i1, k), C2(i2, k), and C3(i3) that satisfies the condition: minimizing the estimated completion time of the entire project under the premise of the constraint conditions.

[0040] Solve the estimated completion time of the entire project under various combinations of C1(i1, k), C2(i2, k), and C3(i3), and sort the combinations of C1(i1, k), C2(i2, k), and C3(i3) obtained by solving in descending order according to the estimated completion time from small to large.

[0041] Record all the combinations of C1(i1, k), C2(i2, k), and C3(i3) sorted in descending order as the recommended schemes for the logistics party planning scheme, the supplier planning scheme, and the construction party planning scheme, and send them to the customer unit.

[0042] After the customer unit completes the selection from the recommended solutions of the logistics party planning solution, the supplier planning solution, and the construction party planning solution, send the logistics party planning solution among them to the corresponding logistics party end in the logistics party unit; send the supplier planning solution among them to the corresponding supplier end in the logistics party unit; and send the construction party planning solution among them to the corresponding construction party end in the construction party planning solution.

[0043] The visualization and exception handling module provides a comprehensive visualization interface to help all parties monitor the order status in real time and provides a virtual reality window for supervising the design process and various abnormal situations at the construction site.

[0044] When the sole design party end modifies the design document, it shares the latest version of the design document with the sole client in real time through the first dedicated line; when the sole construction party end takes photos and videos of the construction site, it shares the photos and videos with the sole client in real time through the second dedicated line.

[0045] As a preferred embodiment of the present invention, a first virtual model environment is constructed based on the design document through virtual reality technology; the first virtual environment contains all the design details in the design document; a second virtual simulation environment is constructed based on the photos and videos through virtual reality technology, and the second virtual simulation environment contains the construction progress information, construction details at the construction site, and the difference comparison between the first virtual model environment and the second virtual simulation environment. The second virtual simulation environment is updated in real time according to the photos and videos taken by the sole construction party end, and the first virtual model environment and the second virtual simulation environment are overlapped and compared for differences, and the different parts are highlighted.

[0046] As a preferred embodiment of the present invention, each link of the order is displayed in real time, including the design progress, production scheduling progress, material procurement progress, and logistics distribution progress. A browsing interface is provided to the user through a display output device, and the browsing interface displays the task assignment, current progress, and responsible person for each link.

[0047] As a preferred embodiment of the present invention, a virtual reality platform is established in the first virtual environment and the second virtual environment based on the metaverse engine for the design and customization of industrial products. In the virtual reality platform, an industrial product design model editor is provided from prototype design to the final model. The industrial product design model editor supports parametric design and modular construction, and supports users to select custom design components, design materials, and design structures, and build the entire product model by dragging and dropping. After the user completes the product design through the industrial product design model editor and obtains a virtual model, the virtual model is directly scaled and rendered in real time in the first virtual environment and the second virtual environment. The design, material, and environmental data of the real world are loaded, including the maximum in-and-out dimensions of materials at the construction site, equipment position limitations and size limitations, environmental temperature, humidity, and mechanical properties of materials, to automatically adjust the virtual model, and highlight the parts that cannot be realized to ensure that the design in the virtual model can adapt to the actual production conditions. The virtual model, its original version, modification suggestions, and historical modification versions are shared in the first virtual environment and the second virtual environment.

[0048] As a preferred embodiment of the present invention, through real-time data monitoring, each link is continuously tracked, and potential abnormal situations are automatically detected, specifically:

[0049] When the design party modifies the design document or the customer proposes new modification requirements, the design document is automatically updated and marked as the changed status, and then a reminder is triggered.

[0050] If the logistics party fails to deliver the goods on time or the estimated transportation time is delayed, an alarm is triggered in a timely manner according to the transportation status of the materials.

[0051] Based on the comparison of the construction progress in the first virtual environment and the second virtual environment, when it is identified that the construction party fails to complete the work of a certain stage according to the planned progress, the construction progress is compared with the original plan, and a reminder is triggered after the deviation is found.

[0052] The order database is the core of data storage for the entire system, and all order data, contract documents, design plans, production schedules, logistics information, etc. are stored in the order database.

[0053] Compared with the prior art, the beneficial effects of the present invention are:

[0054] 1. The present invention reduces cross-software operations, reduces errors in cross-platform data docking by constructing a unique platform and a dedicated local area network, reduces the number of software switches, improves process efficiency and reduces costs. By centrally managing all data and operations, all parties involved in the project can complete all tasks on the same platform, thereby improving the collaboration speed and reducing management and operation costs;

[0055] 2. The present invention realizes multi - role real - time collaboration: customers, designers, and factories can interact in real - time on a unified platform, improving collaboration efficiency. Through the visualization and exception handling module, the system can display the progress and status of orders in real - time, including design progress, production scheduling progress, material procurement progress, and logistics distribution progress, helping project managers and relevant personnel clearly understand the completion of each link;

[0056] 3. The present invention realizes full - process visualization, enabling customers to view the order status in real - time through the mobile terminal. By integrating virtual reality technology, the design and construction progress can be intuitively presented through virtual models. Customers can view the order status at any time through the mobile terminal or other devices, understand the progress of each link, and ensure the transparency and traceability of the project. BRIEF DESCRIPTION OF THE DRAWINGS

[0057] For the convenience of those skilled in the art to understand, the present invention will be further described below with reference to the accompanying drawings:

[0058] Figure 1 is the system block diagram of the present invention;

[0059] Figure 2 is the flowchart of the order management method for the customer unit, designer unit, supplier unit, logistics unit, construction unit, and intelligent planning module proposed in the embodiment of the present invention;

[0060] Figure 3 is the schematic diagram of the dedicated local area network proposed in the embodiment of the present invention. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0061] The technical solutions of the present invention will be clearly and completely described below in conjunction with the embodiments. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all of them. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts belong to the scope of protection of the present invention.

[0062] Please refer to Figure 1 As shown, the order full - process system based on customized industrial products and the meta - universe engine includes an automated process module, an intelligent planning module, a visualization and exception handling module, and an order database.

[0063] The automated process module includes a customer unit, a designer unit, a supplier unit, a logistics unit, and a construction unit, which is responsible for coordinating and managing each step of the order from creation to shipment, ensuring that each link can proceed smoothly, providing a personalized real - time collaboration platform for different roles including customers, designers, suppliers, logistics personnel, and construction personnel, and ensuring the efficient circulation of information and data.

[0064] The customer unit receives the conditional information package submitted by the client and creates an order. The conditional data includes functional planning information, material intention information, original structure drawings, quotation intention information, process standard intention information, and approval document information.

[0065] The designer unit receives the preliminary design plan and the final design plan submitted by the designer side, including design drawings, renderings, and bills of materials.

[0066] The supplier unit receives the status information submitted by all supplier sides; the logistics unit receives the status information submitted by all logistics sides; the construction unit receives the status information submitted by all construction sides.

[0067] Please refer to Figure 2 As shown, coordinate and manage each step of the order from creation to shipment. The specific process is as follows:

[0068] After receiving the conditional information package from the customer, the customer unit immediately creates an order and sends the order to the designer unit.

[0069] When the designer unit receives the order, it assigns the order to the designer. When the designer unit receives the preliminary design plan sent by the designer, it sends the preliminary design plan and the quotation to the customer unit, and then receives the correction instruction or confirmation instruction feedback from the customer unit.

[0070] If the designer unit receives a correction instruction, it sends the correction instruction and additional correction requirements to the designer, requiring the designer to make design corrections according to the additional correction requirements, and feedback the corrected design plan and quotation to the customer unit.

[0071] If the designer unit receives a confirmation instruction, it converts the preliminary design plan into a final design plan, sends the final design plan to the intelligent planning module, and waits for the intelligent planning module to send the logistics planning plan, supplier planning plan, and construction planning plan.

[0072] Subsequently, send the logistics planning plan, supplier planning plan, and construction planning plan to the customer unit, wait for the final confirmation instruction from the customer, and confirm the unique client, unique designer side, multiple supplier sides, multiple logistics sides, and unique construction side corresponding to each created order according to the final confirmation instruction from the customer. The logistics planning plan, supplier planning plan, and construction planning plan are obtained through the operation and analysis of the intelligent planning module.

[0073] Furthermore, establish a data sharing local area network among customers, designers, production factories, logistics managers, and construction parties, specifically:

[0074] Please refer to Figure 3As shown, for each order created, obtain the unique client of the order in the client unit; obtain the unique designer end of the order in the designer unit; obtain multiple supplier ends in the supplier unit; obtain multiple logistics ends in the logistics unit; obtain the unique constructor end in the constructor unit.

[0075] Establish a dedicated local area network among the unique client, the unique designer end, the multiple supplier ends, the multiple logistics ends, and the unique constructor end, and respectively establish a data connection with the dedicated local area network through a wired or wireless network. The unique client, the unique designer end, the multiple supplier ends, the multiple logistics ends, and the unique constructor end share data through the dedicated local area network.

[0076] Furthermore, establish a first dedicated line between the unique client and the unique designer end; establish a second dedicated line between the unique client and the unique constructor end.

[0077] The first dedicated line and the second dedicated line use an encrypted TLS protocol and a data compression algorithm to implement the transmission of design files, images, and videos.

[0078] The intelligent planning module performs intelligent scheduling and planning on the production, design, logistics, and construction links of the order through intelligent algorithms and data analysis, specifically including the intelligent planning of the logistics party planning scheme, the supplier planning scheme, and the constructor planning scheme, as well as the intelligent planning of time allocation.

[0079] The intelligent planning of the logistics party planning scheme, the supplier planning scheme, and the constructor planning scheme is specifically as follows:

[0080] Obtain the total final construction area P1 and the total material usage P2 involved in the final design scheme, and obtain the material type numbers k = 1, 2,..., K involved in the final design scheme; where K is the total number of material types involved in the final design scheme.

[0081] Obtain the status information submitted by all supplier ends received by the supplier unit, including the supplier number i1, the distance d(i1, k) from the supplier to the construction site, the estimated first delivery time t1(i1, k) for material k, the average delivery speed v(i1, k), and the current inventory m(i1, k). Where k is the material number.

[0082] The logistics unit receives the status information submitted by all logistics ends, including the logistics number i2 and the provided estimated logistics speed q(i2).

[0083] The construction party unit receives all the status information submitted by the construction party side, including the construction party number i3, the allocable number of people n(i3), the estimated arrival time t(i3), and the construction capacity index f(i3). The construction capacity index is obtained by matching the historical construction data of each construction party i3 and represents the amount of materials that each worker in the construction party i3 can handle on average per day.

[0084] Set the optimization objective function Among them, MinimizeT total Is the estimated completion time of the entire project, and the optimization goal is to minimize it; among them, α1, α2, and α3 are preset weight factors, indicating the optimization weights of the three sub-items of the supplier delivery time, logistics time, and construction time, representing the optimization importance of each of the three sub-items; among them, C1(i1, k) is the procurement simulation eigenvalue to be solved, representing whether to purchase material k through supplier i1, with a value of 0 or 1; when the value of C1(i1, k) is 1, it means purchasing material k through supplier i1; when the value of C1(i1, k) is 0, it means not purchasing material k through supplier i1; among them, C2(i2, k) is the logistics simulation eigenvalue to be solved, representing whether to transport material k through logistics party i2; when the value of C2(i2, k) is 1, it means transporting material k through logistics party i2; when the value of C2(i2, k) is 0, it means not transporting material k through logistics party i2; among them, C3(i3) is the construction simulation eigenvalue to be solved, representing whether to complete all construction tasks through construction party i3; when the value of C3(i3) is 1, it means completing all construction tasks through construction party i3; when the value of C3(i3) is 0, it means not completing all construction tasks through construction party i3;

[0085] Among them, C1(i1, k), C2(i2, k), and C3(i3) are the unknowns to be solved in the optimization objective function, and together they form the logistics party planning plan, the supplier planning plan, and the construction party planning plan.

[0086] Furthermore, set the constraint conditions of the optimization objective function, including:

[0087] Material procurement constraint: Each material k must be provided by a certain supplier, and each material can only select one supplier for procurement to ensure that each material has a unique supplier and there will be no situation of repeatedly selecting suppliers. Specifically:

[0088] Inventory capacity constraint: The inventory of each supplier cannot be lower than the quantity of materials required by the order. If the order demand exceeds the inventory, the supplier cannot provide the material. Specifically: Among them, Demand(k) is the minimum starting demand for material k; among them, m(i1, k) is the current inventory of supplier i1 regarding material k.

[0089] Logistics restriction constraint: Each material k must be transported by a certain logistics party, and each material can only select one logistics party. Specifically:

[0090] Personnel restriction constraint: The selected construction party must allocate workers greater than the lower limit of construction personnel during the construction process. Specifically: n(i3) ≥ nMin where nMin is the preset lower limit of construction personnel.

[0091] Furthermore, the particle swarm optimization algorithm is used to optimize and calculate the optimization objective function and its constraint conditions, and solve for the combination of C1(i1, k), C2(i2, k), and C3(i3) that satisfies the condition: minimizing the estimated completion time of the entire project under the premise of the constraint conditions.

[0092] Solve for the estimated completion time of the entire project under various combinations of C1(i1, k), C2(i2, k), and C3(i3), and sort the combinations of C1(i1, k), C2(i2, k), and C3(i3) obtained in descending order according to the estimated completion time from small to large.

[0093] Record all the combinations of C1(i1, k), C2(i2, k), and C3(i3) sorted in descending order as the recommended solutions for the logistics party planning solution, the supplier planning solution, and the construction party planning solution, and send them to the customer unit.

[0094] After the customer unit completes the selection among the recommended solutions of the logistics party planning solution, the supplier planning solution, and the construction party planning solution, send the logistics party planning solution among them to the corresponding logistics party end in the logistics party unit; send the supplier planning solution among them to the corresponding supplier end in the logistics party unit; send the construction party planning solution among them to the corresponding construction party end in the construction party planning solution.

[0095] The visualization and exception handling module provides a comprehensive visualization interface to help all parties monitor the order status in real time, and provides a virtual reality window for monitoring various abnormal situations in the regulatory design process and the construction site.

[0096] Please refer to Figure 3 As shown, when the sole design party end modifies the design file, it shares the latest version of the design file with the sole client in real time through the first dedicated line; when the sole construction party end takes photos and videos of the construction site, it shares the photos and videos with the sole client in real time through the second dedicated line.

[0097] Furthermore, a first virtual model environment is constructed based on the design document through virtual reality technology; the first virtual environment contains all design details in the design document; a second virtual simulation environment is constructed based on the photos and videos through virtual reality technology, and the second virtual simulation environment contains construction progress information, construction details at the construction site, and a comparison of the differences between the first virtual model environment and the second virtual simulation environment. The second virtual simulation environment is updated in real time according to the photos and videos taken by the sole construction party at the construction site, and the first virtual model environment and the second virtual simulation environment are overlapped and compared for differences, and the different parts are highlighted.

[0098] Furthermore, each link of the order is displayed in real time, including design progress, production scheduling progress, material procurement progress, and logistics distribution progress. A browsing interface is provided to the user through a display output device, and the browsing interface displays the task assignment, current progress, and responsible person for each link.

[0099] Furthermore, a virtual reality platform is established in the first virtual environment and the second virtual environment based on the metaverse engine for the design and customization of industrial products. In the virtual reality platform, an industrial product design model editor from prototype design to the final model is provided. The industrial product design model editor supports parametric design and modular construction, and supports users to select custom design components, design materials, and design structures, and build the entire product model by dragging. After the user completes the product design through the industrial product design model editor and obtains a virtual model, the virtual model is directly re-measured and rendered in real time in the first virtual environment and the second virtual environment. The design, material, and environmental data of the real world are loaded, including the maximum in-and-out dimensions of materials at the construction site, equipment position limitations and size limitations, environmental temperature, humidity, and mechanical properties of materials, to automatically adjust the virtual model, and the parts that cannot be realized are highlighted to ensure that the design in the virtual model can adapt to the actual production conditions. The virtual model, its original version, modification suggestions, and historical modification versions are shared in the first virtual environment and the second virtual environment.

[0100] Furthermore, through real-time data monitoring, each link is continuously tracked, and potential abnormal situations are automatically detected, specifically:

[0101] When the design party modifies the design document or the customer proposes new modification requirements, the design document is automatically updated and marked as a changed status, thereby triggering a reminder.

[0102] If the logistics party fails to deliver the goods on time or the expected transportation time is delayed, an alarm is triggered in a timely manner according to the transportation status of the materials.

[0103] Compare the construction progress based on the first virtual environment and the second virtual environment. When it is recognized that the construction party fails to complete the work of a certain stage according to the planned progress, compare the construction progress with the original plan, and trigger a reminder after discovering the deviation.

[0104] The order database is the core of data storage for the entire system. All order data, contract documents, design plans, production schedules, logistics information, etc. are stored in the order database.

[0105] It should be understood that the terms "comprising" and "including" as used in the specification and claims of this disclosure indicate the presence of the described features, wholes, steps, operations, elements, and / or components, but do not exclude the presence or addition of one or more other features, wholes, steps, operations, elements, components, and / or their combinations.

[0106] It should also be understood that the terms used in this disclosure specification are merely for the purpose of describing specific embodiments and are not intended to limit this disclosure. As used in this disclosure specification and claims, unless the context clearly indicates otherwise, the singular forms "a", "an", and "the" are intended to include the plural forms. It should be further understood that the term "and / or" as used in this disclosure specification and claims refers to any combination and all possible combinations of one or more of the associated listed items, and includes these combinations;

[0107] The preferred embodiments of the present invention disclosed above are only used to help illustrate the present invention. The preferred embodiments do not elaborate on all details and do not limit the present invention to only the specific implementation manners. Obviously, many modifications and variations can be made according to the content of this specification. This specification selects and specifically describes these embodiments to better explain the principles and practical applications of the present invention, so that those skilled in the art can well understand and utilize the present invention. The present invention is only limited by the claims and their full scope and equivalents.

Claims

1. An order full - process system based on customized industrial products and the meta - universe engine, including an order database, an automated process module, an intelligent planning module, and a visualization and exception - handling module, is characterized in that: The order database is used to store all order - related data; The automated process module is responsible for coordinating and managing all steps of the order from creation to shipment. The intelligent planning module, through intelligent algorithms and data analysis, conducts intelligent scheduling and planning for the production, design, logistics, and construction links of the order, specifically including intelligent planning of the logistics - party planning scheme, the supplier - party planning scheme, and the construction - party planning scheme, as well as intelligent planning of time allocation; The visualization and exception - handling module provides a comprehensive visualization interface to help all parties monitor the order status in real - time and provides a virtual - reality window for supervising various abnormal situations in the design process and the construction site; Through real - time data monitoring, each link is continuously tracked, and potential abnormal situations are automatically detected.

2. The order full-process system based on customized industrial products and the metaverse engine according to claim 1, characterized in that: The automated process module includes a customer unit, a designer unit, a supplier unit, a logistics unit, and a construction unit, which are responsible for coordinating and managing all steps of the order from creation to shipment, providing a personalized real - time collaboration platform for different roles including customers, designers, suppliers, logistics personnel, and construction personnel, and enabling the efficient circulation of information and data.

3. The order full-process system based on customized industrial products and a metaverse engine according to claim 2, wherein: The customer unit receives the conditional information package submitted by the client and creates an order; the conditional data includes functional planning information, material intention information, original structure drawings, quotation intention information, process standard intention information, and approval document information; The designer unit receives the preliminary design scheme and the final design scheme submitted by the designer side, including design drawings, renderings, and bills of materials; The supplier unit receives the status information submitted by all supplier sides; The logistics unit receives the status information submitted by all logistics sides; The construction unit receives the status information submitted by all construction sides.

4. The order full-process system based on customized industrial products and a metaverse engine according to claim 3, wherein Based on the above - mentioned customer unit, designer unit, supplier unit, logistics unit, and construction unit, all steps of the order from creation to shipment are coordinated and managed. The specific process is as follows: After receiving the conditional information package sent by the customer, the customer unit immediately creates an order and sends the order to the designer unit; When the designer unit receives the order, it assigns the order to the designer; When the designer unit receives the preliminary design scheme sent by the designer, it sends the preliminary design scheme and the quotation to the customer unit, and then receives the correction instruction or confirmation instruction feedback from the customer unit; If the designer unit receives a correction instruction, it sends the correction instruction and the additional correction requirements to the designer, requiring the designer to make design corrections according to the additional correction requirements, and feedback the corrected design scheme and quotation to the customer unit; If the designer unit receives a confirmation instruction, it converts the preliminary design scheme into a final design scheme, sends the final design scheme to the intelligent planning module, and waits for the intelligent planning module to send the logistics - party planning scheme, the supplier - party planning scheme, and the construction - party planning scheme; Subsequently, the logistics party planning plan, the supplier planning plan, and the construction party planning plan are sent to the customer unit, waiting for the customer's final confirmation instruction. According to the customer's final confirmation instruction, the unique client side, the unique designer side, multiple supplier sides, multiple logistics party sides, and the unique construction party side corresponding to each created order are confirmed. The logistics party planning plan, the supplier planning plan, and the construction party planning plan are obtained through the operation and analysis of the intelligent planning module.

5. The order full-process system based on customized industrial products and the metaverse engine according to claim 4, characterized in that, A data sharing local area network is established among the customer, the designer, the production factory, the logistics management personnel, and the construction party. The specific process is as follows: For each created order; obtain the unique client side of the order in the customer unit; obtain the unique designer side of the order in the designer unit; obtain multiple supplier sides in the supplier unit; Obtain multiple logistics party sides in the logistics party unit; Obtain the unique construction party side in the construction party unit; Establish a dedicated local area network among the unique client side, the unique designer side, the multiple supplier sides, the multiple logistics party sides, and the unique construction party side, and respectively establish data connections with the dedicated local area network through wired or wireless networks, and perform data sharing; Establish a first dedicated line between the unique client side and the unique designer side; Establish a second dedicated line between the unique client side and the unique construction party side; The first dedicated line and the second dedicated line use the encrypted TLS protocol and data compression algorithm to achieve the transmission of design files, images, and videos.

6. The order full-process system based on customized industrial products and the metaverse engine according to claim 1, wherein, The intelligent planning of the logistics party planning plan, the supplier planning plan, and the construction party planning plan is specifically as follows: Obtain the total construction area quantity P1 and the total material usage quantity P2 involved in the final design plan, and obtain the material type numbers k = 1, 2,..., K involved in the final design plan; where K is the total number of material types involved in the final design plan; Obtain the status information submitted by all supplier sides received by the supplier unit, including the supplier number i1, the distance d(i1, k) from the supplier to the construction site, the expected first delivery time t1(i1, k) for material k, the average delivery speed v(i1, k), and the current inventory m(i1, k); where k is the material number; The logistics party unit receives the status information submitted by all logistics party sides, including the logistics party number i2 and the provided expected logistics speed q(i2); The construction party unit receives the status information submitted by all construction party sides, including the construction party number i3, the allocable number of people n(i3), the expected arrival time t(i3), and the construction capacity index f(i3), where the construction capacity index is obtained by matching the historical construction data of each construction party i3 and represents the quantity of materials that each worker in the construction party i3 can handle on average per day; Set the optimization objective function where MinimizeT total is the estimated completion time of the entire project, and the optimization objective is to minimize it; where α1, α2, and α3 are preset weight factors, representing the optimization weights of the three sub-items of the supplier delivery time, logistics time, and construction time, representing the optimization importance of each of the three sub-items; Among them, C1(i1, k) is the procurement simulation eigenvalue to be solved, representing whether to purchase material k through supplier i1, with a value of 0 or 1; when the value of C1(i1, k) is 1, it means purchasing material k through supplier i1; when the value of C1(i1, k) is 0, it means not purchasing material k through supplier i1. Among them, C2(i2, k) is the logistics simulation eigenvalue to be solved, representing whether to transport material k through logistics party i2; when the value of C2(i2, k) is 1, it means transporting material k through logistics party i2; when the value of C2(i2, k) is 0, it means not transporting material k through logistics party i2. Among them, C3(i3) is the construction simulation eigenvalue to be solved, representing whether to complete all construction tasks through construction party i3; when the value of C3(i3) is 1, it means completing all construction tasks through construction party i3; when the value of C3(i3) is 0, it means not completing all construction tasks through construction party i3. Among them, C1(i1, k), C2(i2, k), and C3(i3) are the unknowns to be solved in the optimization objective function, and together they form the logistics party planning scheme, supplier planning scheme, and construction party planning scheme.

7. The order full-process system based on customized industrial products and the metaverse engine according to claim 6, wherein Set constraints based on the optimization objective function and solve the optimization result. The specific process is as follows: Set the constraints of the optimization objective function, including: Material procurement constraint: Each material k must be provided by a certain supplier, and each material can only select one supplier for procurement to ensure that each material has a unique supplier without the situation of repeatedly selecting suppliers; specifically: Inventory capacity constraint: The inventory level of each supplier cannot be lower than the quantity of materials required by the order; if the order demand exceeds the inventory level, the supplier cannot provide the material; specifically: where Demand(k) is the minimum starting demand for material k; where m(i1, k) is the current inventory level of supplier i1 for material k; Logistics restriction constraint: Each material k must be transported by a certain logistics party, and each material can only select one logistics party; specifically: Personnel limit constraint: The selected construction party must allocate workers greater than the lower limit of construction personnel during the construction process; specifically: where nMin is the preset lower limit of construction personnel; Use the particle swarm algorithm to optimize and calculate the optimization objective function and its constraints, and solve for the combination of C1(i1, k), C2(i2, k), and C3(i3) that satisfies the condition: minimizing the estimated completion time of the entire project under the premise of the constraints. Solve the estimated completion time of the entire project under various combinations of C1(i1, k), C2(i2, k), and C3(i3), and sort the combinations of C1(i1, k), C2(i2, k), and C3(i3) obtained in descending order according to the estimated completion time from small to large. Record all the combinations of C1(i1, k), C2(i2, k), and C3(i3) sorted in descending order as the recommended schemes of the logistics party planning scheme, supplier planning scheme, and construction party planning scheme, and send them to the client unit. After the client unit completes the selection among the recommended schemes of the logistics party planning scheme, supplier planning scheme, and construction party planning scheme, send the logistics party planning scheme among them to the corresponding logistics party end in the logistics party unit; send the supplier planning scheme among them to the corresponding supplier end in the logistics party unit; send the construction party planning scheme among them to the corresponding construction party end in the construction party planning scheme.

8. The order full-process system based on customized industrial products and a metaverse engine according to claim 1 or 5, characterized in that, The specific process for the visualization and exception handling module to provide a comprehensive visualization interface is as follows: When the only design party end modifies the design file, it shares the latest version of the design file with the only client in real time through the first dedicated line; when the only construction party end takes photos and videos of the construction site, it shares the photos and videos with the only client in real time through the second dedicated line. Construct a first virtual model environment based on the said design document through virtual reality technology; the first virtual environment contains all design details in the design document; construct a second virtual simulation environment based on the said photos and videos through virtual reality technology, and the second virtual simulation environment contains construction progress information, construction details at the construction site, and the difference comparison between the first virtual model environment and the second virtual simulation environment; update the second virtual simulation environment in real time according to the photos and videos taken by the only construction party at the construction site, and perform overlapping and difference comparison between the first virtual model environment and the second virtual simulation environment, and highlight the different parts. Establish a virtual reality platform in the first virtual environment and the second virtual environment based on the metaverse engine for the design and customization of industrial products. In the said virtual reality platform, provide an industrial product design model editor from prototype design to the final model. The industrial product design model editor supports parametric design and modular construction, supports users to select custom design parts, design materials and design structures, and constructs the entire product model by dragging. After the user completes the product design through the industrial product design model editor and obtains a virtual model, directly perform virtual model re-measurement and real-time rendering in the first virtual environment and the second virtual environment; load design, material and environmental data in the real world, including the maximum in-and-out dimensions of materials at the construction site, equipment location limitations and size limitations, environmental temperature, humidity and mechanical properties of materials to automatically adjust the virtual model, and highlight the parts that cannot be realized to ensure that the design in the virtual model can adapt to the actual production conditions. Share the virtual model, its original version, modification suggestions and historical modification versions in the first virtual environment and the second virtual environment. Display each link of the order in real time, including design progress, production scheduling progress, material procurement progress and logistics distribution progress; provide a browsing interface for users through a display output device, and the browsing interface displays the task assignment, current progress and responsible person of each link.

9. The order full-process system based on customized industrial products and a metaverse engine according to claim 1, characterized in that The specific process of automatically detecting potential abnormal situations is as follows: When the design party modifies the design document or the customer proposes new modification requirements, automatically update the design document and mark it as the changed status, and then trigger a reminder. If the logistics party fails to deliver the goods on time or the estimated transportation time is delayed, trigger an alarm in time according to the transportation status of the materials. Based on the construction progress comparison between the first virtual environment and the second virtual environment, when it is identified that the construction party fails to complete the work of a certain stage according to the planned progress, compare the construction progress with the original plan, and trigger a reminder after discovering the deviation.

Images