Open type integrated electronic system architecture cloud organization hierarchical construction method

Abstract

The invention provides an open type integrated electronic system architecture cloud organization hierarchical construction method, which comprises the following steps of: constructing a task layer, and implementing task generation, task organization and task execution in the task layer; a function layer is constructed, and the function layer is used for implementing function generation, function organization and function execution according to the requirements of the task layer; a resource layer is constructed, and the resource layer is used for implementing resource generation, resource organization and resource execution according to the requirements of the functional layer; a network layer is constructed, the network layer is oriented to the requirements of the resource layer, network resources are organized flexibly according to the requirements, physical resources in a physical layer are networked, and the calling requirements of the resource layer are met; and constructing a physical layer to bear physical resources and data resources of a physical platform or physical equipment class in a task execution process.

Description

Technical Field

[0001] The present invention belongs to the technical field of open integrated electronic system architecture, and in particular relates to a method for hierarchical construction of an open integrated electronic system architecture cloud organization. Background Art

[0002] Open System Architecture (OSA) was proposed in the early 1980s. The purpose of the concept and development is to meet the development needs of larger-scale computer application promotion and computer networking. With the continuous improvement and enrichment of electronic information system technology, the application of open architecture in space launch vehicles has been studied to a certain extent. For example, the FACE basic framework has good aerospace applicability and can guide the establishment of an open and modular software architecture for space launch vehicle electronic systems.

[0003] The electronic systems of space launch vehicles are highly integrated, standardized, modular, combined and universal, which is the current development trend in the international and domestic aerospace fields. Under the traditional design concept of space launch vehicle electronic systems, the system is artificially divided into several subsystems, which makes the system function division unreasonable and the resources not optimized. The electronic systems of the next generation of launch vehicles represented by heavy-lift launch vehicles are becoming more and more complex, and the need for resource optimization design of the entire electronic system is becoming more and more urgent.

[0004] Integrated systems are an important direction for the development of the electronic systems of the new generation of space launch vehicles. Integrated technology is the core technology of the integration of the electronic systems of space launch vehicles, and is the way and method to describe the system goals, processes and performance optimization. As the scale of the electronic systems of space launch vehicles becomes larger and larger, the system components become more and more, and the system environmental conditions become more and more complex, any single profession, capability and technology cannot cover the application field, operating environment and organizational requirements of the system's capability type, cannot support the system's target form, activity field and performance range, and cannot provide an optimization process for the system's operating effectiveness, process efficiency and result effectiveness. Therefore, the development of the electronic systems of the new generation of space launch vehicles has put forward a strong demand for system integration. Summary of the invention

[0005] In order to overcome the deficiencies in the prior art, the inventors have conducted intensive research and provided a method for hierarchical construction of an open integrated electronic system architecture cloud organization, which modularly designs and separates applications, services, data, and resources layer by layer, and flexibly organizes and configures them for different space launch vehicles and different mission requirements, thereby achieving interconnection, intercommunication, and interoperability between integrated electronic systems of heterogeneous platforms, shortening the R&D cycle and cost of new products.

[0006] The technical solution provided by the present invention is as follows:

[0007] In a first aspect, a method for constructing a hierarchical structure of an open integrated electronic system architecture cloud organization includes:

[0008] Construct the task layer, and implement task generation, task organization and task execution in the task layer;

[0009] Construct the functional layer, which is oriented to the needs of the task layer and implements function generation, function organization and function execution;

[0010] Construct the resource layer. The resource layer is oriented to the needs of the functional layer and implements resource generation, resource organization and resource execution;

[0011] Build the network layer. The network layer is oriented to the needs of the resource layer. The network resources are flexibly organized according to the requirements, and the physical resources in the physical layer are networked to meet the calling requirements of the resource layer.

[0012] Build the physical layer to carry the physical resources and data resources of the physical platform or physical equipment during task execution.

[0013] On the second aspect, an open integrated electronic system is divided into task layer, function layer, resource layer, network layer and physical layer in a logical order from top to bottom;

[0014] Task layer, which implements task generation, task organization and task execution;

[0015] Functional layer: Facing the needs of the task layer, it implements function generation, function organization and function execution;

[0016] The resource layer implements resource generation, resource organization and resource execution in response to the needs of the functional layer;

[0017] The network layer, facing the needs of the resource layer, flexibly organizes network resources according to requirements and networks the physical resources in the physical layer to meet the calling needs of the resource layer;

[0018] The physical layer carries the physical resources and data resources of the physical platform or physical equipment during the task execution.

[0019] The method for constructing a hierarchical cloud organization of an open integrated electronic system architecture provided by the present invention has the following beneficial effects:

[0020] The present invention provides a hierarchical construction method for an open integrated electronic system architecture cloud organization, which divides the system into task layer, function layer, resource layer, network layer and physical layer according to the principle of hierarchical decoupling and the logical order from top to bottom. Through the APP application store, service components, integrated electronic system service bus and resource components based on open interface standards, applications, services, data and resources are modularly designed and separated layer by layer, and flexibly organized and configured for different space launch vehicles and different mission requirements, so as to realize the interconnection, intercommunication and interoperability between heterogeneous platform integrated electronic systems, and shorten the new product development cycle and cost. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 It is an open hierarchical integrated electronic system logical architecture;

[0022] Figure 2 Integrate structure organization for mission;

[0023] Figure 3 Organize a multi-stage decision-making process for the task;

[0024] Figure 4 Organize for functional integrated architecture;

[0025] Figure 5 Structure multi-stage decision-making processes for functional organizations;

[0026] Figure 6 To organize the comprehensive architecture of resources;

[0027] Figure 7 Structure a multi-stage decision-making process for resource organizations. DETAILED DESCRIPTION

[0028] The following detailed description of the present invention will make the features and advantages of the present invention more clear and explicit.

[0029] The word “exemplary” is used exclusively herein to mean “serving as an example, example, or illustration.” Any embodiment described herein as “exemplary” is not necessarily to be construed as preferred or advantageous over other embodiments.

[0030] The present invention provides a method for constructing a hierarchical cloud organization of an open integrated electronic system architecture, comprising the following steps:

[0031] Step 1: Build the task layer.

[0032] The task layer requires the coordination of resources and functions in multiple regions to meet the task requirements of the distributed system. Its essence is the state transition of a complex system.

[0033] The electronic system mission of a space launch vehicle consists of a triplet of mission perception, mission organization and mission operation. The mission organization structure of the system is determined by dynamic programming.

[0034] Mission awareness refers to establishing the business needs of the electronic system of the space launch vehicle, identifying different environments, and establishing an organizational model of the environment. For example, for online trajectory planning environment identification, determine the business needs of ensuring that the rocket flies according to the predetermined trajectory, and establish an organizational model of the environment.

[0035] Mission organization refers to establishing the business capabilities of the electronic systems of space launch vehicles, determining corresponding mission requirements for different environments, and establishing corresponding mission organizations. For example, for the online trajectory planning environment during flight, determine the mission requirement of ensuring that the rocket flies along the optimal trajectory, establish a corresponding mission organization, and establish online trajectory planning capabilities during flight and ground testing.

[0036] Mission operation refers to the application process of establishing the electronic system of space launch vehicles, establishing the response situation for different application environments, determining the control of tasks, and implementing system management. For example, for the online trajectory planning application environment during flight, establishing the response situation, determining the control of trajectory planning tasks, and implementing the electronic system management of space launch vehicles.

[0037] The execution of tasks changes dynamically based on the current environment and situation. From the level of task development, it can be divided into strategic level, tactical level and task level. According to the overall plan, strategic level tasks are constructed, such as a space launch vehicle entering space to complete a predetermined mission. According to the overall situation characteristics, tactical level tasks are constructed, such as predetermined trajectory planning. According to the current environment and situation, task level tasks are constructed, such as fault diagnosis.

[0038] When executing tasks at different levels, it is necessary to dynamically generate different task coordination (synthesis, integration) sequences based on task planning strategies for different environments and modes, thereby improving the efficiency of coordinated use of various subsystems and resources within the system, and also generating demand for overall capability organization. Since the target tasks are dynamically changing, dynamic task generation also requires targeted and flexible changes to meet the target requirements.

[0039] The process of task generation is based on task decomposition and execution rules, and dynamically selects different subtasks that meet the target requirements from the "subtask pool". The "subtask pool" refers to the collection of subtasks decomposed from various tasks. Based on the previous description, tasks are divided into different levels, so the granularity of subtasks in the "subtask pool" corresponding to tasks at different levels is also different. Therefore, in the process of organizing tasks at different levels, the appropriate tasks will be dynamically selected from the "subtask pool" of tasks at different levels with the support of task scheduling to achieve the flexibility of task generation. For example, for task fault diagnosis at the task layer, the task decomposition and execution rules are to perform fault detection, type judgment, fault location and recovery in sequence, and select fault detection, fault isolation, process monitoring, etc. from the task layer subtask pool to generate a subtask collaborative sequence.

[0040] Task organization is similar to task generation. Task organization is oriented to task requirements and environmental changes. Based on task execution rules and the current task layer "subtask pool", it can support task capabilities and dynamically and flexibly generate different subtask sequences. Task organization refers to the process of planning, coordinating and managing tasks. Task generation refers to the process of creating or generating tasks.

[0041] Task execution is a process of real-time execution based on the function and resource capacity status and task organization. However, in the actual execution process, the environment and situation change rapidly, and the function and resource capacity will also fail or be damaged during the task execution. Therefore, during the task execution process, the subtasks in the "subtask pool" will be dynamically adjusted. If the current target task requirements are not met, a request will be sent to the upper node to flexibly increase the subtasks in the task layer "subtask pool" to ensure that the target task is met.

[0042] The system task organization framework is based on the typical application task mode of space launch vehicles. According to the system architecture mode and the system architecture organization requirements, the system task organization is constructed, such as Figure 2 shown.

[0043] Describe the task organization structure in the form of a triple A=<A1,A2,A3> , A is the application task, A1 is task perception, A2 is task organization, and A3 is task operation. The application task is the set of states A = {s1, s2..., s n}, task perception is the set of application environments A1 = {e1, e2..., e n}, the task organization is a feasible organization set A2 = {d1, d2..., d n}, task operation is a set of application processes generated based on the environment and organization A3 = {t1, t2..., t nThe task application process is a dynamic, cyclic and iterative process, which can be described by a multi-stage decision-making process model. Finally, a feasible solution for the task organization structure is formed. The multi-stage decision-making process includes four main elements: environmental variables, decision inputs, decision operation, and operation results, which correspond to task perception, task organization, task operation, and task application in task application.

[0044] Initially, the task organization structure is a set X that includes all tasks. A .exist Figure 3 In the decision-making process shown in the figure, the environment e is obtained by task perception. i , select the corresponding task organization decision d from the task organization set D i , the task organization set D is the initial task organization structure X A In the subset that satisfies the condition set C (such as conditions in task organization, management in task operation, constraints in requirements, etc.). And by the application process t i Run the task organization. After the current application runs, the system status is s i+1 、Environment is e i+1 Among them, the task operation changes the environment i+1 =t i (e i ,d i ), and output the application task status s at that moment i+1 =f i (e i ,d i ). Then the system iterates the above process until all the task objectives in the environment are completed. Finally, the task set X in the whole process is obtained. A Subset of To meet the needs of the task application, as follows:

[0045]

[0046] Step 2: Build the functional layer.

[0047] The functional layer is oriented towards the needs of the task layer, and organizes and configures system resources to form different resource organization modes with different functional capabilities.

[0048] Functional organization refers to the flexible completion of different tasks based on the functional capabilities support required by the tasks.

[0049] Function generation refers to the dynamic selection of different functions (sub-functions) that meet task requirements from the "function pool" required for the execution of different tasks based on function decomposition and execution rules.

[0050] The functional organization framework of the space launch vehicle electronic system is aimed at the system task architecture organization. According to the system architecture mode, the system function organization is constructed. The function of the space launch vehicle electronic system is determined by functional capability, functional processing, and functional input.

[0051] Functional capability refers to the ability type, quality and field of the system to support the application requirements. For example, the system needs to support the online trajectory planning application, which requires autonomous navigation capability, adaptive guidance capability, adaptive attitude control capability and other capabilities.

[0052] Functional input refers to determining the functional input type, input method and input performance according to the professional processing requirements of the system. For example, according to the professional processing requirements of the system online trajectory planning, functional inputs such as environmental data acquisition function, target parameter acquisition function and control system parameter acquisition function are required.

[0053] Functional processing refers to determining the supported professional modes, professional logic and professional processes according to the system capability requirements. For example, in order to meet the system's online trajectory planning capability requirements, professional support such as optimal control problem solving mode and model predictive control mode is required.

[0054] Functional information describes the functions that a system or subsystem needs to perform, and how these functions match the overall goals and requirements of the system. This usually involves the identification and analysis of functional requirements. Functional information fusion can improve decision-making quality, enhance system performance, and cope with information imperfections. Functional information fusion is reflected in four aspects: perception function information fusion, computing function information fusion, communication function information fusion, and execution function information fusion. Among them, perception function information fusion is mainly reflected in sensor data fusion, integrated monitoring and warning, integrated navigation guidance, etc.; computing function information fusion is reflected in the sharing of calculation results and the reuse of processing processes; communication function information fusion is reflected in integrated transmission; and execution function information fusion is mainly reflected in weapon strike control. The mission capabilities (professional, scope, elements, relationships, qualities and cycles) of space launch vehicles are based on the fields and organizations of professional functional capabilities. The action space (capability, type, condition, logic, process and performance) of professional functions constructs the system functional organization. Usually, a task is often achieved by multiple independent professional functions. Therefore, the action space of a task (application, action, environment, procedure, effectiveness and validity) will be achieved by multiple independent and different professional function action spaces (capability, type, condition, logic, process and performance).

[0055] When executing different space launch vehicle missions, there are different requirements for functions, namely function generation; that is, different tasks can be flexibly completed based on the required functional capabilities, namely functional organization. The process of function generation is based on functional decomposition and execution rules, and dynamically selects different functions (sub-functions) that meet the task requirements from the "function pool" of functions required for different task executions. Based on the previous description, tasks are divided into different levels, so the granularity of subtasks in the "subtask pool" corresponding to tasks at different levels is also different. Therefore, tasks / subtasks of different granularity also correspond to functional capability descriptions of different granularity.

[0056] Therefore, in the process of capability organization facing different levels of task requirements, with the support of function scheduling, appropriate functions will be dynamically selected from the "function pool" at different levels for optimal dynamic generation, thereby achieving elasticity in function generation.

[0057] Functional organization is similar to function generation. Functional organization is oriented to task requirements and environmental changes. Based on the function execution rules and the current "function pool" that can support task capabilities, different function sequences can be dynamically and flexibly generated.

[0058] Function execution is the process of executing functional capabilities in real time based on the resource capability status and the operation organization mode. However, in the actual execution process, the environment and situation change rapidly, and resource capabilities may fail or be damaged as the task is executed. Therefore, in the process of function execution, the functions in the "function pool" will be dynamically adjusted to ensure that the task capability requirements are met. If the current task capability requirements are not met, a warning will be issued to the task layer.

[0059] The system function organization framework is aimed at the system task architecture organization. According to the system architecture mode and the system architecture organization requirements, the system function organization is constructed, such as Figure 4 shown.

[0060] According to the capability requirements, capability input and capability processing of the space launch vehicle electronic system, the capability architecture of the system is obtained. Using the model of the multi-stage decision-making process in dynamic programming, the capability architecture organization can be dynamically iterated. The functional organization architecture C is described in the form of a triple<C1,C2,C3> , C is the system capability, C1 is the capability requirement, C2 is the capability input, and C3 is the capability processing. The system capability is the set of functional organizations C = {s1, s2..., s n}, the capability requirement is the set of requirements C1 = {r1, r2..., r n}, the capability input is the input organization set C2 = {i1,i2...,i n}, capability processing is a set of processing processes based on demand and input A3 = {t1, t2..., t n}.

[0061] Initially, the functional organization structure is a set of functions that support the task architecture X. C .exist Figure 5 In the decision-making process represented by the capability requirements, the requirements for the functional types and fields of the supported tasks are obtained. i , with the function input organization i i , select the corresponding functional processing organization t from the functional processing organization set T i , set T is a subset of the function processing organization set C2 that satisfies the condition set C (such as the professional scope of the function organization, the organizational conditions of the function processing, the type of professional input, etc.). The system state after the current function processing is s i+1 , the demand becomes r i+1 Among them, the requirements change after functional processing i+1 =t i (r i ,i i ) and output the current system capability s i+1 =f i (r i ,i i ). Then the system iterates the above process until all requirements are met and obtains the function set X of the whole process. C Subset of to meet all capability requirements as follows:

[0062]

[0063] Step 3: Build the resource layer.

[0064] The resource layer is oriented towards functional capability requirements. It selects appropriate resources from currently registered resources to provide functional capabilities to ensure that functional capability requirements are met.

[0065] Resource generation means that the resource pool can dispatch the required resources from the "resource pool" to support the execution of functional capabilities according to different tasks and their required functional capabilities. The resource pool includes detection resources, perception resources, cognitive resources, decision-making resources and strike resources.

[0066] Resource execution refers to automatically matching the appropriate resources required to meet functional capabilities from the current "resource pool" based on the upper-level functional capability requirements. The purpose of resource generation is to identify, create and obtain the required resources, while the purpose of resource execution is to use these resources to complete specific tasks and project goals. Resource generation usually occurs in the planning and initiation phase of the project, while resource execution mainly occurs in the execution and monitoring phase of the project.

[0067] The system resource organization framework is aimed at the system task architecture organization. According to the system architecture mode, the system resource organization is constructed. The resource organization is obtained by the triple of resource capability, resource operation and resource status.

[0068] Resource capability refers to determining resource requirements, capabilities, and effectiveness based on the professional needs of system functions.

[0069] Resource operation refers to the organization of resource capabilities, determining the type, capability, and operation mode of resources.

[0070] Resource status refers to the results, performance, and capabilities of resource operations as determined by the resource operation organization.

[0071] According to different tasks and their required functional capabilities, the required resources can be dispatched from the resource pool to support the execution of functional capabilities, thus realizing the elasticity of resource generation. If, during the resource generation process, it is found that the resource pool cannot dispatch the resources required to meet the functional capabilities, a warning will be issued to the functional layer, so that the functional layer can flexibly organize other functional capability strategies from the functional pool.

[0072] Resource organization is similar to resource generation. Resource organization is the process of dynamically scheduling the required capability resources from the resource pool in response to task functional capability requirements and environmental changes. Resource execution is the process of executing resource performance in real time based on the resource capability status according to the resource scheduling method. However, in the actual execution process, the environment and situation change rapidly, and resource capabilities may fail or be damaged as the task is executed. Therefore, in the process of real-time resource scheduling and execution, the resources in the resource pool will be dynamically adjusted and resources will be flexibly scheduled to ensure that the functional capability requirements are met. If the current functional capability requirements cannot be met through resource scheduling, a warning will be issued to the functional layer.

[0073] The system physical organization architecture is based on the needs of the functional architecture organization. According to the system architecture model and organizational requirements, the system physical organization is constructed, such as Figure 6 shown.

[0074] Initially, the resource organization structure is a collection of all resources that support the functional organization. C .exist Figure 7 In the decision-making process represented by the resource demand, the resource capacity and efficiency requirements of the supporting functions are obtained from the resource demand. i , select the corresponding resource operation o from the resource operation organization set O i , set O is a subset of resource operation organization R2 under the condition set C (such as operation type, operation mode, operation type and other constraints). And through resource status operation management t i Get the physical organization after resource operation and management i+1 and demand i+1 Among them, the demand changes after operation managementi+1 =t i (r i ,o i ) and output the current system capability s i+1 =f i (r i ,o i ). The system then iterates the above process until all requirements are met and obtains a subset of the function set XR in the whole process. to satisfy all resource requirements as follows:

[0075]

[0076] Step 4: Build the network layer.

[0077] The network layer is oriented towards resource layer requirements, and flexibly organizes network resources as required to ensure that communication efficiency meets index requirements.

[0078] By building a network layer, network organization elasticity and network execution elasticity can be achieved.

[0079] Network organization elasticity refers to the flexible organization of network resources according to requirements based on resource layer scheduling needs, ensuring that communication efficiency meets index requirements.

[0080] Network execution elasticity means that in response to changes in the current environment, the networking mode (architecture evolution and communication medium) can be adjusted based on the "network pool" in the network layer, and the appropriate networking mode that meets the networking needs can be selected in real time to ensure that resource capacity requirements are met.

[0081] In response to the resource pool scheduling requirements, the network layer resources are organized elastically according to the requirements to ensure that the communication efficiency meets the index requirements. Based on the "network pool" of the network layer, the networking mode (architecture evolution and communication medium) can be carried out, and the appropriate mode that meets the networking requirements can be selected in real time to ensure that the resource capacity requirements are met. When the physical resources can be accessed, they must first pass the access permission of the network layer, and then dynamically register with the "resource pool" of the resource layer based on the granularity to indicate the performance capabilities that the resources can complete; based on the "resource pool" management, the function is registered with the "function pool" of the function layer to indicate the functional capabilities that can be completed for the functional capability scheduling; finally, the task is registered with the "task pool" of the task layer to indicate the tasks that can be completed for the task scheduling. Based on the task needs, with the consent of the upper-level command node, the previously unauthorized resources can be dynamically connected to the resource pool after being authorized to assist in completing the task.

[0082] Step 5: Physical layer construction.

[0083] The physical layer refers to the actual physical platform or physical equipment. The physical layer is oriented to mission requirements and carries physical resources such as general computing, storage, detection sensors and related data resources for the detection, perception, decision-making and execution of various aspects of the space launch vehicle.

[0084] The present invention has been described in detail above in conjunction with specific implementations and exemplary examples, but these descriptions cannot be understood as limiting the present invention. Those skilled in the art understand that, without departing from the spirit and scope of the present invention, a variety of equivalent substitutions, modifications or improvements may be made to the technical solution of the present invention and its implementation methods, all of which fall within the scope of the present invention. The scope of protection of the present invention shall be subject to the attached claims.

[0085] The contents not described in detail in the specification of the present invention belong to the common knowledge of those skilled in the art.

Claims

1. A method for constructing a hierarchical cloud organization of an open integrated electronic system architecture, characterized in that: include: Construct the task layer, and implement task generation, task organization and task execution in the task layer; Construct the functional layer, which is oriented to the needs of the task layer and implements function generation, function organization and function execution; Construct the resource layer. The resource layer is oriented to the needs of the functional layer and implements resource generation, resource organization and resource execution; Build the network layer. The network layer is oriented to the needs of the resource layer. The network resources are flexibly organized according to the requirements, and the physical resources in the physical layer are networked to meet the calling requirements of the resource layer. Build the physical layer to carry the physical resources and data resources of the physical platform or physical equipment during task execution.

2. The method for constructing a hierarchical structure of an open integrated electronic system architecture cloud organization according to claim 1, characterized in that: The task generation includes: dynamically selecting different subtasks that meet target requirements from a subtask pool according to task decomposition and execution rules.

3. The method for constructing a hierarchical structure of an open integrated electronic system architecture cloud organization according to claim 1, characterized in that: The task organization includes: facing task requirements and environmental changes, based on task execution rules and task capabilities supported by the current task layer subtask pool, dynamically and flexibly generating different subtask sequences.

4. The method for constructing a hierarchical structure of an open integrated electronic system architecture cloud organization according to claim 1, characterized in that: During the task execution process, the subtasks in the subtask pool can be dynamically adjusted according to changes in functions and resource capabilities. If the current target task requirements are not met, the subtasks in the task layer subtask pool can be flexibly increased.

5. The method for constructing a hierarchical structure of an open integrated electronic system architecture cloud organization according to claim 1, characterized in that: The function generation includes: dynamically selecting appropriate functions from a function pool for optimal dynamic generation according to the function requirements of the task.

6. The method for constructing a hierarchical structure of an open integrated electronic system architecture cloud organization according to claim 1, characterized in that: The functional organization includes: facing task requirements and environmental changes, based on function execution rules and task capabilities supported by the current function pool, dynamically and flexibly generating different function sequences.

7. The method for constructing a hierarchical structure of an open integrated electronic system architecture cloud organization according to claim 1, characterized in that: The resource generation includes: scheduling required resources from a resource pool to support the execution of functional capabilities according to different tasks and their required functional capabilities.

8. The method for constructing a hierarchical structure of an open integrated electronic system architecture cloud organization according to claim 1, characterized in that: The resource organization includes: dynamically scheduling required capability resources from a resource pool in response to task function capability requirements and environmental changes.

9. The method for constructing a hierarchical structure of an open integrated electronic system architecture cloud organization according to claim 1, characterized in that: During the execution of real-time resource scheduling, resources in the resource pool are dynamically adjusted; if the current functional capacity requirements cannot be met through resource scheduling, a warning is issued to the functional layer.

10. An open integrated electronic system, characterized in that: It is divided into task layer, function layer, resource layer, network layer and physical layer in logical order from top to bottom; Task layer, which implements task generation, task organization and task execution; Functional layer: Facing the needs of the task layer, it implements function generation, function organization and function execution; The resource layer implements resource generation, resource organization and resource execution in response to the needs of the functional layer; The network layer, facing the needs of the resource layer, flexibly organizes network resources according to requirements and networks the physical resources in the physical layer to meet the calling needs of the resource layer; The physical layer carries the physical resources and data resources of the physical platform or physical equipment during the task execution.

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