Integrated joint test environment system based on hierarchical structure and construction method

Abstract

The invention discloses an integrated joint test environment system based on a hierarchical structure and a construction method. The system comprises an LVC resource layer, a basic platform service layer, an integrated joint test application layer, a standard specification and a protection specification, wherein the LVC resource layer provides basic equipment, test data and simulation resources for the test system by integrating live, virtualizing and constructing resources; the basic platform service layer provides management and control services for the test system through designed and developed tool software; the integrated joint test application layer is connected with the basic platform service layer through a service interface and middleware, and supports an integrated joint test task scene; the standard specification formulates a unified interface protocol, a data format and a test flow in each layer and between layers according to a live equipment communication flow; a protection specification runs through the LVC resource layer, the basic platform service layer and the integrated joint test application layer to formulate a protection strategy. According to the scheme, from system framework design to equipment test application, efficient, safe and standard construction of an integrated joint test environment is achieved.

Description

TECHNICAL FIELD

[0001] The present application belongs to the technical field of integrated joint test environment construction, and particularly relates to an integrated joint test environment system based on a hierarchical structure and a construction method thereof. BACKGROUND

[0002] The part provided in this part is only background information related to the present disclosure, which is not necessarily prior art.

[0003] The traditional joint test environment construction method relies on single device resources, such as live devices, computing devices, network devices or real environments, etc., which leads to obvious defects such as high cost, long cycle, low test efficiency and insufficient flexibility in the face of large-scale integrated joint test environment construction. With the development of computer technology, virtualization and simulation technology have gradually been introduced into the test field, and integrated joint test environment construction has begun to enter a new stage of exploration. Among them, the virtualization technology can convert physical resources into virtual resources, realize flexible configuration and sharing of resources, and the simulation technology can simulate the running environment of complex systems through simulation tools to form construction resources to make up for the shortage of live resources.

[0004] At present, the test scale is getting larger and larger, and the scale of virtual resources and construction resources is also getting larger and larger. How to solve the main problems such as non-uniform interface between different resources and non-communication messages between different platforms in the same test system to support cross-platform multi-system joint test in complex scenarios has gradually become the main problem faced by integrated joint test environment construction. In equipment system test, higher requirements will be put forward for integrated joint test environment construction, which will usually cover realistic or approximate, scalable, configurable, replicable, recoverable, fast response and security features of real environment system. Therefore, the unified standard specification and specific protection specification also need to be considered in the integrated joint test environment construction method. SUMMARY

[0005] The present application provides an integrated joint test environment system based on a hierarchical structure and a construction method thereof, which realizes efficient, safe and standardized construction of integrated joint test environment from system framework design to equipment test application.

[0006] Technical solution: An integrated joint test environment system based on hierarchical structure, including LVC resource layer, basic platform service layer, integrated joint test application layer, and standard specification and protection specification: the LVC resource layer provides basic equipment, test data and simulation resources for the test system by integrating live, virtual and constructed resources; the basic platform service layer provides management and control services for the test system through the designed and developed tool software, including integration, deployment, operation, monitoring, management and other services; the integrated joint test application layer is connected with the basic platform service layer through service interface and middleware, supporting information interaction, process demonstration, function verification and other integrated joint test task scenarios; the standard specification formulates unified interface protocol, data format and test process in each layer and between layers according to the communication process of live equipment, ensuring compatibility and consistency, and improving the authenticity and scalability of environment construction scale; the protection specification runs through the LVC resource layer, the basic platform service layer and the integrated joint test application layer, formulates encryption, authentication, audit, control and other strategies, and guarantees the security and reliability of the integrated joint test environment.

[0007] In some embodiments, the LVC resource layer includes live resource module, virtual resource module, constructed resource module and other basic resource module; the live resource module adopts live construction mode and is used for deploying storage equipment, special equipment, basic equipment resources; the virtual resource module adopts virtual construction mode and is used for deploying communication network, computing capacity, system software resources; the constructed resource module adopts constructed construction mode and is used for deploying basic equipment, drill scene, evaluation tool resources.

[0008] In some embodiments, the basic platform service layer includes tool software module and platform service module; the tool software module integrates development environment and deployment tool functions; the platform service module integrates management and control services, the management and control services including integration service, deployment service, operation service, monitoring service and management service; the integration service supports integration of multiple systems and multiple platforms; the deployment service provides automatic deployment tools to support rapid deployment and configuration of resources; the operation service provides running environment to support real-time operation and dynamic adjustment of the test system; the monitoring service monitors system running state in real time and provides performance analysis and fault diagnosis functions; the management service supports resource life cycle management.

[0009] In some embodiments, the integrated test application layer includes a service interface and middleware module, an information interaction module, a process demonstration module, and a function verification module. The service interface and middleware module defines the interface protocol between the application layer and the basic platform service layer, and connects messages, data, and process middleware to support service call interaction, system communication, and data processing. The information interaction module supports information transmission and sharing between multiple systems. The process demonstration module provides a visual display and dynamic adjustment function for the test process. The function verification module supports functional testing and performance evaluation of the test system.

[0010] In some embodiments, the standard specifications specifically include interface protocol standard specifications, data format standard specifications, and test procedure standard specifications. The interface protocol standard specifications define a unified interface protocol standard based on the actual equipment communication process to ensure efficient interconnection of test resources within each layer and efficient interoperability of service interfaces between layers. The data format standard specifications define a unified data encoding, storage, and transmission format based on the actual equipment communication process. The test procedure standard specifications formulate unified test preparation, test execution, and test summary procedure standards based on the actual equipment communication process.

[0011] In some embodiments, the protection specification specifically includes an encryption protection module, an authentication protection module, an audit protection module, and a control protection module; the encryption protection module encrypts and stores sensitive data; the authentication protection module authenticates users, systems, and resources; the audit protection module records system operation logs and security events; and the control protection module controls system access permissions, resource usage, and operational behaviors.

[0012] A method for constructing an integrated testing system based on a hierarchical structure includes the following steps:

[0013] Step 1: Construct the LVC resource layer, which integrates live, virtual, and constructed resources to provide basic equipment, experimental data, and simulation resources for the experimental system.

[0014] Step 2: Build a basic platform service layer using designed and developed software tools to provide control and management services for the test system.

[0015] Step 3: Build an integrated testing application layer through service interfaces and middleware to support integrated testing task scenarios such as information interaction, process demonstration, and function verification.

[0016] Step 4: Based on the actual equipment communication process, formulate unified interface protocols, data formats, and test procedures within each layer and between layers to form standard specifications, ensure compatibility and consistency, and improve the realism and scalability of the environment construction scale.

[0017] Step 5: Establish comprehensive protection standards for encryption, authentication, auditing, and control across all layers to form a unified protection framework. This ensures the security and reliability of the integrated testing environment.

[0018] Furthermore, the resource layer selects its construction method based on the different properties of the experimental resources, specifically as follows:

[0019] For experimental resources that are highly realistic, small in scale, and have low flexibility, such as storage devices, dedicated equipment, and basic equipment, which cannot be replicated or reconfigured, the Live Simulation method is selected. For experimental resources that are highly realistic, large in scale, and have high flexibility, such as communication networks, computing power, and system software, which can be replicated and reconfigured, the Virtual Simulation method is selected. For experimental resources that are low in realism, large in scale, and have high flexibility, and are not suitable for the above construction methods, the Constructive Simulation method is selected.

[0020] Beneficial effects:

[0021] By integrating live, virtual, and constructed resources through the LVC resource layer, unified management and flexible configuration of physical, virtualized, and simulation resources are achieved. This overcomes the over-reliance on single, expensive live equipment, enables dynamic allocation of resources according to experimental needs, significantly reduces hardware procurement and maintenance costs, shortens environment setup and preparation time, and thus improves overall experimental efficiency.

[0022] By providing unified integration, deployment, operation, monitoring and management tools through the basic platform service layer, and by establishing unified interface protocols and data formats based on the standard specification system, the core problems of inconsistent interfaces between different resources and lack of communication between different platforms are solved. This enables heterogeneous resources such as live, virtual and constructed resources to work together seamlessly in a unified experimental system, and strongly supports cross-platform multi-system joint experiments in complex scenarios.

[0023] The integrated testing application layer, through standard service interfaces and middleware, can flexibly support various test task scenarios such as information interaction, process demonstration, and functional verification. It provides high scalability, configurability, and replicability, and can quickly build test scenarios that are realistic or close to real environments. This meets the requirements of equipment system testing for high fidelity and rapid response, and greatly expands the depth and breadth of testing.

[0024] The security protection standard system is integrated into all levels of the system (LVC resource layer, basic platform service layer, and integrated testing application layer). A comprehensive protection strategy covering encryption, authentication, auditing, and control has been formulated to ensure the security, confidentiality, and reliable operation of the entire integrated testing environment at the data, communication, and system operation levels, meeting the stringent security requirements of equipment testing.

[0025] Through a consistent set of standards and specifications, the interfaces, data, and processes within and between layers are uniformly defined, ensuring the standardization and normalization of environment construction. This not only improves the consistency and comparability of test results across different projects and stages, but also enhances the realism of the overall system construction scale and its future scalability. Attached Figure Description

[0026] The present invention will be further described in detail below with reference to the accompanying drawings and specific embodiments, and the advantages of the present invention in the above and / or other aspects will become clearer.

[0027] Figure 1 This is a hierarchical structure diagram of the present invention.

[0028] Figure 2 This is the organizational structure diagram for the LVC resource layer.

[0029] Figure 3 This is the organizational structure diagram of the basic platform service layer.

[0030] Figure 4 Organizational structure diagram for the integrated testing application layer.

[0031] Figure 5 This is a standard organizational chart.

[0032] Figure 6 Organizational structure diagram for protection standards. Detailed Implementation

[0033] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0034] like Figure 1 As shown, an integrated testing system based on a hierarchical structure includes an LVC (Live Virtual Construction) resource layer, a basic platform service layer, and an integrated testing application layer. The LVC resource layer provides basic equipment, test data, and simulation resources for the testing system by integrating real-time, virtual, and constructed resources. The basic platform service layer is connected to the LVC resource layer and provides management and control services for the testing system. The integrated testing application layer is connected to the basic platform service layer through service interfaces and middleware to support integrated testing task scenarios such as information interaction, process demonstration, and functional verification.

[0035] The system also includes standards and protection systems; the standards are formulated based on the actual equipment communication process, and are uniform standards applicable to each layer and between layers; the protection system connects the LVC resource layer, the basic platform service layer and the integrated testing application layer, and formulates and implements protection specifications.

[0036] like Figure 2 As shown, the LVC resource layer includes a live resource module, a virtual resource module, a construction resource module, and other basic resource modules. The live resource module adopts a live construction method and is used to deploy storage devices, dedicated devices, and basic equipment resources. The virtual resource module adopts a virtual construction method and is used to deploy communication networks, computing power, and system software resources. The construction resource module adopts a construction method and is used to deploy basic equipment, exercise scenarios, and evaluation tool resources.

[0037] like Figure 3 As shown, the basic platform service layer includes a tool software module and a platform service module; the tool software module integrates development environment and deployment tool functions; the platform service module integrates management and control services, which include integration services, deployment services, operation services, monitoring services, and management services; the integration services support the integration of multiple systems and platforms; the deployment services provide automated deployment tools to support rapid deployment and configuration of resources; the operation services provide an operating environment to support the real-time operation and dynamic adjustment of the experimental system; the monitoring services monitor the system's operating status in real time and provide performance analysis and fault diagnosis functions; and the management services support resource lifecycle management.

[0038] like Figure 4 As shown, the integrated test application layer includes a service interface and middleware module, an information interaction module, a process demonstration module, and a function verification module. The service interface and middleware module defines the interface protocol between the application layer and the basic platform service layer, and connects messages, data, and process middleware to support service call interaction, system communication, and data processing. The information interaction module supports information transmission and sharing between multiple systems. The process demonstration module provides a visual display and dynamic adjustment function for the test process. The function verification module supports functional testing and performance evaluation of the test system.

[0039] like Figure 5As shown, the standard specifications specifically include interface protocol standard specifications, data format standard specifications, and test procedure standard specifications. The interface protocol standard specifications define a unified interface protocol standard based on the actual equipment communication process to ensure efficient interconnection of test resources within each layer and efficient interoperability of service interfaces between layers. The data format standard specifications define a unified data encoding, storage, and transmission format based on the actual equipment communication process. The test procedure standard specifications formulate a unified test preparation, test execution, and test summary procedure standard based on the actual equipment communication process.

[0040] like Figure 6 As shown, the protection specification specifically includes an encryption protection module, an authentication protection module, an audit protection module, and a control protection module; the encryption protection module encrypts and stores sensitive data; the authentication protection module authenticates users, systems, and resources; the audit protection module records system operation logs and security events; and the control protection module controls system access permissions, resource usage, and operational behaviors.

[0041] A method for constructing an integrated testing system based on a hierarchical structure includes the following steps:

[0042] Step 1: Construct the LVC resource layer, which integrates live, virtual, and constructed resources to provide basic equipment, experimental data, and simulation resources for the experimental system.

[0043] Step 2: Build a basic platform service layer using designed and developed software tools to provide control and management services for the test system.

[0044] Step 3: Build an integrated testing application layer through service interfaces and middleware to support integrated testing task scenarios such as information interaction, process demonstration, and function verification.

[0045] Step 4: Based on the actual equipment communication process, establish unified interface protocols, data formats, and test procedures within each layer and between layers to form a standard specification system, ensuring compatibility and consistency, while improving the realism and scalability of the environment construction scale.

[0046] Step 5: Establish comprehensive protection standards for encryption, authentication, auditing, and control across all layers to form a security protection system. This ensures the security and reliability of the integrated testing environment.

[0047] The resource layer selects its construction method based on the different properties of the experimental resources, specifically as follows:

[0048] For experimental resources that are highly realistic, small in scale, and have low flexibility, such as storage devices, dedicated equipment, and basic equipment, which cannot be replicated or reconfigured, the Live Simulation method is selected. For experimental resources that are highly realistic, large in scale, and have high flexibility, such as communication networks, computing power, and system software, which can be replicated and reconfigured, the Virtual Simulation method is selected. For experimental resources that are low in realism, large in scale, and have high flexibility, and are not suitable for the above construction methods, the Constructive Simulation method is selected.

[0049] This invention provides an integrated testing environment system and its construction method based on a hierarchical structure. Many methods and approaches exist for implementing this technical solution; the above description is merely a preferred embodiment of the invention. It should be noted that those skilled in the art can make various improvements and modifications without departing from the principles of this invention, and these improvements and modifications should also be considered within the scope of protection of this invention. All components not explicitly stated in this embodiment can be implemented using existing technologies.

Claims

1. An integrated co-test system based on a hierarchical structure, characterized in that, The system comprises an LVC resource layer, a basic platform service layer, and an integrated test application layer; The LVC resource layer provides basic equipment, test data, and simulation resources for the test system by integrating live, virtual, and constructed resources; The basic platform service layer is connected with the LVC resource layer and provides control services for the test system, including integration, deployment, operation, monitoring, and management; The integrated test application layer is connected with the basic platform service layer through service interfaces and middleware, and supports information interaction, process demonstration, and function verification in the integrated test task scenario; The system further comprises standard specifications and protection specifications; The standard specifications are formulated according to the communication process of live equipment, and are applicable to the internal and inter-layer unified standard specifications of each layer; The protection specifications are formulated and implemented for the LVC resource layer, the basic platform service layer, and the integrated test application layer, and the strategy includes encryption, authentication, audit, and control.

2. The integrated coupled system based on hierarchical structure according to claim 1, characterized in that, The LVC resource layer comprises a live resource module, a virtual resource module, a constructed resource module, and other basic resource modules; The live resource module adopts a live construction method and is used for deploying storage devices, special devices, and basic equipment resources; The virtual resource module adopts a virtual construction method and is used for deploying communication networks, computing capabilities, and system software resources; The constructed resource module adopts a constructed construction method and is used for deploying basic equipment, exercise scenarios, and evaluation tool resources.

3. The integrated multi-assay system based on hierarchical structure according to claim 1, wherein, The basic platform service layer comprises a tool software module and a platform service module; The tool software module integrates a development environment and deployment tool functions; The platform service module integrates control services, including integration services, deployment services, operation services, monitoring services, and management services; The integration service supports the integration of multiple systems and multiple platforms; the deployment service provides an automatic deployment tool to support the rapid deployment and configuration of resources; the operation service provides an operation environment to support the real-time operation and dynamic adjustment of the test system; the monitoring service monitors the system operation state in real time and provides performance analysis and fault diagnosis functions; and the management service supports resource lifecycle management. The integrated test application layer comprises a service interface and middleware module, an information interaction module, a process demonstration module, and a function verification module; 4. The integrated multi-assay system based on hierarchical structure according to claim 3, wherein, The service interface and middleware module defines the interface protocol between the application layer and the basic platform service layer, and connects the message, data, and process middleware to support service call interaction, system communication, and data processing; The information interaction module supports information transmission and sharing between multiple systems; The process demonstration module provides visual display and dynamic adjustment functions for the test process; The function verification module supports function testing and performance evaluation of the test system. The standard specification system specifically comprises interface protocol standard specifications, data format standard specifications, and test process standard specifications; 5. The integrated multi-assay system based on hierarchical structure of claim 1, wherein, The interface protocol standard specifications define a unified interface protocol standard according to the communication process of live equipment, to ensure efficient interconnection of internal test resources of each layer and efficient interconnection of service interfaces between layers. ​ The data format standard specification defines unified data encoding, storage and transmission formats according to the live equipment communication process; The test process standard specification formulates unified test preparation, test execution and test summary process standards according to the live equipment communication process.

6. The integrated multi-assay system based on hierarchical structure of claim 1, wherein, The protection specification specifically includes an encryption protection module, an authentication protection module, an audit protection module and a control protection module; The encryption protection module performs encrypted storage and transmission of sensitive data; The authentication protection module performs identity authentication of users, systems and resources; The audit protection module records operation logs and security events of the system; The control protection module controls access permissions, resource usage and operation behavior of the system.

7. A construction method of an integrated combined test system based on a hierarchical structure, characterized by, The method is applied to the system of any one of claims 1-6, and the method comprises: Step 1: constructing an LVC resource layer, providing basic equipment, test data and simulation resources for the test system by integrating live, virtual and constructed resources; Step 2: constructing a basic platform service layer to provide control services for the test system; Step 3: constructing an integrated joint test application layer through a service interface and middleware to support information interaction, process demonstration and function verification of integrated joint test task scenarios; Step 4: formulating unified standard specifications within and between layers according to the live equipment communication process to form standard specifications; Step 5: formulating encryption, authentication, audit and control protection specifications through all layers to form a security protection system.

8. The method according to claim 7, wherein the integrated multi-assay system based on hierarchical structure is constructed by the following steps: The resource layer selects a construction method according to different properties of test resources, specifically: Live construction is selected for test resources that cannot be copied or reconfigured and deployed; Virtual construction is selected for test resources that can be copied and reconfigured and deployed; Constructed construction is selected for test resources that are not suitable for the above construction methods.

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