CN112751921A - Industrial design system for cloud platform - Google Patents
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- 230000007246 mechanism Effects 0.000 claims description 9
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- H—ELECTRICITY
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- H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
- H04L67/00—Network arrangements or protocols for supporting network services or applications
- H04L67/01—Protocols
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
- H04L67/00—Network arrangements or protocols for supporting network services or applications
- H04L67/01—Protocols
- H04L67/10—Protocols in which an application is distributed across nodes in the network
- H04L67/1097—Protocols in which an application is distributed across nodes in the network for distributed storage of data in networks, e.g. transport arrangements for network file system [NFS], storage area networks [SAN] or network attached storage [NAS]
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
- H04L67/00—Network arrangements or protocols for supporting network services or applications
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Abstract
The invention belongs to the technical field of industrial design platforms, and particularly relates to an industrial design system facing a cloud platform. Has the advantages that: the invention decouples the single software into smaller functional segments by adopting a micro-service mode, the container further expands the decoupling performance, and decouples the micro-service and the dependency relationship thereof from the operating system, thereby saving a large amount of system resources and ensuring that the downloading, updating, deploying and iterating of the container are faster.
Description
Technical Field
The invention relates to the technical field of industrial design platforms, in particular to an industrial design system facing a cloud platform.
Background
Industrial design is a non-negligible step in industrial production, and with the development of the economic society, people have performance requirements and appearance requirements on products, and industrial design has higher and higher value proportion on industrial products.
The industrial design cloud service platform provides technology and information support service for product design research and development. The construction technology of the industrial design-oriented cloud service platform is relatively mature at home and abroad, and a plurality of mature application platforms appear. However, the existing industrial design platform needs to consume a large amount of computer system resources in the process of storing data, so that the downloading, updating, deploying and iterating of the system are relatively reduced.
To this end, we propose an industrial design system oriented to a cloud platform to solve the above problems.
Disclosure of Invention
The invention aims to solve the defects in the prior art, and provides an industrial design system facing a cloud platform.
In order to achieve the purpose, the invention adopts the following technical scheme:
the industrial design system facing the cloud platform comprises a core processor, a man-machine operation module, an industrial design module, an optimization management module, a database, a storage module and a network service module, wherein the core processor is in one-way connection with the man-machine operation module, the industrial design module, the optimization management module, the database, the storage module and the network service module;
the man-machine operation module is used for user registration and login, inputting user basic information and identifying and confirming identity;
the industrial design module comprises an industrial design material, an industrial design template, a design product structure, design product performance detection data and design product data detection;
the database is used for storing the existing industrial design material data and the industrial design template data and storing the data in the storage module;
the optimization management module is used for optimizing, diagnosing and managing data information and fault information and correspondingly updating and perfecting the data information and the fault information;
the network service module realizes information interconnection between a user and the cloud platform, and can remotely monitor and control the human-machine operation module.
In the above industrial design system for the cloud platform, the man-machine operation module may be based on a mobile phone app and a program end of a computer, and the mobile phone end and the computer end are in network communication, and both the mobile phone end and the computer end need to be registered for use, and the registration process of the mobile phone end and the computer end is as follows:
a) inputting name, telephone, mailbox, and inputting the pre-provided verification code for registration;
b) if the verification code is successfully matched, the registration and the login are completed;
c) and automatically matching the area of the user and completing verification.
In the above industrial design system facing the cloud platform, the network service module is based on TCP/IP protocol network data communication, and the control implementation process of the network service module specifically operates as follows:
1) the server program needs to set a LocalPort attribute as a listening port, and the value of the LocalPort attribute is an integer unused by any other TCP/IP application program;
2) entering a monitoring state by using a Listen method, and waiting for a connection request of a remote client program;
3) when the client program sends out a connection request, the program will generate a ConnectionRequest event and obtain a parameter request ID;
4) the server program receives a client program request ID request through an Accept method, and then sends data through a SendData method, and in the step, the request ID obtained in the previous step needs to be selected as a parameter;
5) after the server program successfully receives the program, a DtatArrival event is generated, the byte number of all data received by the program is contained in the BytesTotal, and if a Close event is received, the TCP/IP connection is closed by selecting to apply a Close method.
In the industrial design system facing the cloud platform, the core processor is attached to the industrial paaS platform, the micro-service is arranged in the industrial paaS platform, the micro-service is used for decoupling the monomer software into smaller functional segments, the container further expands the decoupling property, the micro-service and the dependency relationship thereof are decoupled from the operating system, the operating system does not need to be installed like a virtual machine, a large amount of system resources can be saved, and the downloading, updating, deploying and iterating of the container are faster.
In the industrial design system facing the cloud platform, the database further comprises a simulation algorithm and a method database, the database is stored in the cloud storage, namely data in the database can be distributed to all devices using the cloud network, the data storage types comprise three types, namely an independent data table, an independent database and an independent database server, and a plurality of separated micro-services A and micro-services B.
In the above industrial design system for the cloud platform, the optimization management module includes an optimization module, and the process of the optimization module is as follows:
s1, acquiring industrial data, and realizing interconnection and intercommunication of heterogeneous equipment and multivariate numerical control;
s2, analyzing the massive data, and respectively storing, managing, modeling and analyzing the massive data to ensure continuous optimization of the data;
s3, precipitating an industry mechanism model, continuously optimizing the industry mechanism model by utilizing a big data technology, and releasing the industry mechanism model in a micro-service mode;
and S4, transmitting the data to industrial equipment and programs, and being capable of being respectively used for describing, diagnosing, predicting, deciding and the like in specific industries and specific scenes.
In the industrial design system facing the cloud platform, the optimization management module further includes a management module, a fault diagnosis program is arranged in the management module, the fault diagnosis program is connected with an API gateway in the network service module, and the type of the API gateway fault includes identity authentication, flow metering and current limiting, routing, log, black and white list and protocol adaptation.
In the industrial design system facing the cloud platform, the output end of the API gateway is connected with a micro service pool, and a micro service 1, a micro service 2, and a micro service 3, which are independently connected with a plurality of API gateways, are arranged in the micro service pool, the output end of the fault diagnosis type is connected with a service management center, and the service management center is based on fault data in a database.
Compared with the prior art, the industrial design system for the cloud platform has the advantages that: the invention decouples the single software into smaller functional segments by adopting a micro-service mode, and the container further expands the decoupling property, decouples the micro-service and the dependency relationship thereof from the operating system, does not need to install the operating system like a virtual machine, can save a large amount of system resources, and has faster downloading, updating, deploying and iterating of the container.
Drawings
Fig. 1 is a schematic system structure diagram of an industrial design system facing a cloud platform according to the present invention;
FIG. 2 is a structural diagram of an optimization module of the industrial design system facing the cloud platform according to the present invention;
fig. 3 is a structure diagram of a management module of the industrial design system facing the cloud platform according to the present invention;
fig. 4 is a data storage type structure diagram of the cloud platform-oriented industrial design system provided by the invention.
Detailed Description
The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the drawings in the embodiments of the present invention, and it is obvious that the described embodiments are only a part of the embodiments of the present invention, and not all of the embodiments.
Examples
Referring to fig. 1-4, the cloud platform-oriented industrial design system comprises a core processor, a man-machine operation module, an industrial design module, an optimization management module, a database, a storage module and a network service module, wherein the core processor, the man-machine operation module, the industrial design module, the optimization management module, the database, the storage module and the network service module are all in one-way connection;
the man-machine operation module is used for user registration and login, inputting user basic information and identifying and confirming identity;
the industrial design module comprises industrial design materials, an industrial design template, a design product structure, design product performance detection data and design product data detection;
the database is used for storing the existing industrial design material data and the industrial design template data and storing the data in the storage module;
the optimization management module is used for optimizing, diagnosing and managing the data information and the fault information, and correspondingly updating and perfecting;
the network service module realizes information interconnection between the user and the cloud platform, and can remotely monitor and control the human-machine operation module.
Wherein, man-machine operation module can be based on the program end of cell-phone end app and computer to network intercommunication between cell-phone end and the computer end, cell-phone end and computer end all need register the use, and the registration process of cell-phone end and computer end is:
a) inputting name, telephone, mailbox, and inputting the pre-provided verification code for registration;
b) if the verification code is successfully matched, the registration and the login are completed;
c) and automatically matching the area of the user and completing verification.
The network service module is based on TCP/IP protocol network data communication, and specifically, the TCP protocol becomes a main standard of the network protocol in the current application stage, and has certain safety and stability. But the occupied resources are excessive, the efficiency is low, and the main characteristics include three types: first, the connection-oriented TCP protocol must ensure the establishment of a connection process between two computers to achieve data exchange. Secondly, the reliability of transmission is ensured by using the return notification and the sequence number, since the data segment of the TCP is usually transmitted in the form of a plurality of data packets, the use of the sequence number enables the receiving end to restore the plurality of data packets to the original data segment, and the data is confirmed to be received by using the return notification. Third, the use of byte stream communication, which indicates that data is to be replaced by a byte sequence without any information. The IP protocol is used to connect a plurality of packet-switched networks. The data packets are transmitted from the source address to the destination address, and a function of reassembling the data size is provided in order to make the data packet size meet the requirements of different networks. In terms of providing services, the IP protocol includes four key technologies: first, a service type, is understood to be a set of parameters that are typical representatives of the services that a network can provide, such service type being used primarily by gateways for a particular network or networks that will be traversed. Second, survival time: the sender typically configures and processes the datagram and discards the datagram if its lifetime has reached the upper limit without reaching the destination. And thirdly, selecting options. The options mainly include security, time stamping and special routing, which play an important role in controlling functions. And fourthly, header check codes. Its function is to ensure that data can be transmitted correctly and if the check is faulty, the entire datagram is discarded.
Further, the control implementation process of the network service module is specifically operated as follows:
1) the server program needs to set a LocalPort attribute as a listening port, and the value of the LocalPort attribute is an integer unused by any other TCP/IP application program;
2) entering a monitoring state by using a Listen method, and waiting for a connection request of a remote client program;
3) when the client program sends out a connection request, the program will generate a ConnectionRequest event and obtain a parameter request ID;
4) the server program receives a client program request ID request through an Accept method, and then sends data through a SendData method, and in the step, the request ID obtained in the previous step needs to be selected as a parameter;
5) after the server program successfully receives the program, a DtatArrival event is generated, the byte number of all data received by the program is contained in the BytesTotal, and if a Close event is received, the TCP/IP connection is closed by selecting to apply a Close method.
The core processor is attached to an industrial paaS platform, the micro-service is arranged in the industrial paaS platform, the micro-service is used for decoupling single software into smaller functional fragments, the decoupling performance is further expanded by the container, the micro-service and the dependence relationship of the micro-service are decoupled from the operating system, the operating system does not need to be installed like a virtual machine, a large amount of system resources can be saved, and the downloading, updating, deploying and iterating of the container are faster.
The data storage type comprises three types, namely an independent data table, an independent database and an independent database server, and a plurality of separated micro-services A and micro-services B.
Further, the optimization management module comprises an optimization module, and the process of the optimization module is as follows:
s1, acquiring industrial data, and realizing interconnection and intercommunication of heterogeneous equipment and multivariate numerical control;
s2, analyzing the massive data, and respectively storing, managing, modeling and analyzing the massive data to ensure continuous optimization of the data;
s3, precipitating an industry mechanism model, continuously optimizing the industry mechanism model by utilizing a big data technology, and releasing the industry mechanism model in a micro-service mode;
and S4, transmitting the data to industrial equipment and programs, and being capable of being respectively used for describing, diagnosing, predicting, deciding and the like in specific industries and specific scenes.
Furthermore, the optimization management module also comprises a management module, a fault diagnosis program is arranged in the management module, the fault diagnosis program is connected with an API gateway in the network service module, the type of the API gateway fault comprises identity authentication, flow metering and current limiting, routing, logs, a black and white list and protocol adaptation, specifically, the output end of the API gateway is connected with a micro service pool, a micro service 1, a micro service 2 and a micro service 3 which are independently connected with a plurality of API gateways are arranged in the micro service pool, the output end of the fault diagnosis type is connected with a service management center, and the service management center is based on fault data in the database.
The above description is only for the preferred embodiment of the present invention, but the scope of the present invention is not limited thereto, and any person skilled in the art should be considered to be within the technical scope of the present invention, and the technical solutions and the inventive concepts thereof according to the present invention should be equivalent or changed within the scope of the present invention.
Claims (8)
1. The industrial design system facing the cloud platform comprises a core processor, a man-machine operation module, an industrial design module, an optimization management module, a database, a storage module and a network service module, and is characterized in that the core processor, the man-machine operation module, the industrial design module, the optimization management module, the database, the storage module and the network service module are all in one-way connection, the network service module and the man-machine operation module are in one-way connection, the output end of the man-machine operation module is connected with an identity recognition module, the identity recognition module and the industrial design module are in one-way connection, the optimization management module and the industrial design module are in one-way connection with the database, and the database and the storage module are in one-way connection;
the man-machine operation module is used for user registration and login, inputting user basic information and identifying and confirming identity;
the industrial design module comprises an industrial design material, an industrial design template, a design product structure, design product performance detection data and design product data detection;
the database is used for storing the existing industrial design material data and the industrial design template data and storing the data in the storage module;
the optimization management module is used for optimizing, diagnosing and managing data information and fault information and correspondingly updating and perfecting the data information and the fault information;
the network service module realizes information interconnection between a user and the cloud platform, and can remotely monitor and control the human-machine operation module.
2. The cloud platform-oriented industrial design system of claim 1, wherein the human-machine operation module is based on a mobile phone app and a program end of a computer, and the mobile phone app and the computer end are in network communication, and both the mobile phone app and the computer end need to be registered for use, and the registration process of the mobile phone app and the computer end is as follows:
a) inputting name, telephone, mailbox, and inputting the pre-provided verification code for registration;
b) if the verification code is successfully matched, the registration and the login are completed;
c) and automatically matching the area of the user and completing verification.
3. The cloud platform-oriented industrial design system of claim 2, wherein the network service module is based on TCP/IP protocol network data communication, and wherein the control implementation process of the network service module is specifically operative to:
1) the server program needs to set a LocalPort attribute as a listening port, and the value of the LocalPort attribute is an integer unused by any other TCP/IP application program;
2) entering a monitoring state by using a Listen method, and waiting for a connection request of a remote client program;
3) when the client program sends out a connection request, the program will generate a ConnectionRequest event and obtain a parameter request ID;
4) the server program receives a client program request ID request through an Accept method, and then sends data through a SendData method, and in the step, the request ID obtained in the previous step needs to be selected as a parameter;
5) after the server program successfully receives the program, a DtatArrival event is generated, the byte number of all data received by the program is contained in the BytesTotal, and if a Close event is received, the TCP/IP connection is closed by selecting to apply a Close method.
4. The cloud platform-oriented industrial design system of claim 3, wherein the core processor is attached to an industrial paaS platform, and a micro-service is provided in the industrial paaS platform, the micro-service is to decouple individual software into smaller functional segments, the container further extends the decoupling, decouple the micro-service and its dependency from the operating system, and does not need to install the operating system like a virtual machine, which can save a lot of system resources, and the downloading, updating, deploying and iterating of the container are faster.
5. The cloud platform-oriented industrial design system of claim 4, wherein the database further comprises a simulation algorithm and a method database, the database is stored in a cloud storage, that is, data in the database can be distributed to all devices using a cloud network, the types of data storage include three types, namely an independent data table, an independent database and an independent database server, and a plurality of separate micro services A and micro services B.
6. The cloud platform-oriented industrial design system of claim 5, wherein the optimization management module comprises an optimization module, and the process of the optimization module is as follows:
s1, acquiring industrial data, and realizing interconnection and intercommunication of heterogeneous equipment and multivariate numerical control;
s2, analyzing the massive data, and respectively storing, managing, modeling and analyzing the massive data to ensure continuous optimization of the data;
s3, precipitating an industry mechanism model, continuously optimizing the industry mechanism model by utilizing a big data technology, and releasing the industry mechanism model in a micro-service mode;
and S4, transmitting the data to industrial equipment and programs, and being capable of being respectively used for describing, diagnosing, predicting, deciding and the like in specific industries and specific scenes.
7. The cloud platform-oriented industrial design system of claim 6, wherein the optimization management module further comprises a management module, a fault diagnosis program is disposed in the management module, and the fault diagnosis program is connected to an API gateway in the network service module, and the types of the API gateway fault include identity authentication, flow metering and flow limiting, routing, logging, black and white list, and protocol adaptation.
8. The cloud platform-oriented industrial design system according to claim 6, wherein the output end of the API gateway is connected with a micro service pool, and a micro service 1, a micro service 2 and a micro service 3 are arranged in the micro service pool and are independently connected with a plurality of API gateways, the output end of the fault diagnosis type is connected with a service management center, and the service management center is based on fault data in a database.
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| CN113504902A (en) * | 2021-07-01 | 2021-10-15 | 中国汽车技术研究中心有限公司 | Industrial APP integrated development system and related equipment |
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