6 results about "Generic interface" patented technology

The invention provides an enterprise application component building method and system based on a large language model, and the method comprises the steps: S1, obtaining a user component demand, carrying out the analysis, generating a structured demand document, and determining whether to enter a step S2 or not according to a user demand confirmation result; s2, generating a core function module of a component through a component generation engine based on the structured demand document confirmed by the user; s3, matching a corresponding interface template from a preset universal interface library according to an adaptive system list in the structured demand document, and generating an interface adaptive code; and S4, deploying the core function module and the interface adaptation code to a preview environment for a user to preview, and selecting to automatically package and generate a component installation package or re-executing the steps S1, S2 or S3 according to a user preview confirmation result. According to the method, a full-link automation mechanism of'natural language demand-component generation-interface adaptation 'is constructed, so that the component building threshold is reduced, and rapid adaptation of the component and the existing system is realized.

The invention discloses an SDK interface calling method and device, a storage medium and electronic equipment, and the method comprises the steps that a data request sent by a client through an abstract interface is received, the abstract interface is a universal interface which is researched and developed in a unified mode when multiple clients are researched and developed, and the data request comprises a target client identifier; an interface mapping table is inquired according to the target client identifier, a target SDK interface is obtained, the interface mapping table comprises the mapping relation between different client identifiers and the SDK interface, and the target SDK interface is the SDK interface corresponding to the target client identifier; and processing the data request by calling the target SDK interface. Therefore, no matter whether the original actual interface of the SDK is changed or not or whether a new SDK interface is added, the client side is not influenced, the interface of the client side is not changed along with the change of the actual interface of the SDK, convenience is brought to research and development of the client side, and expandability and maintainability of the system are improved.

This invention discloses a service-oriented orchestration and scheduling method and system based on a large language model, comprising: encapsulating the model and its working model into an MSU and generating a general interface specification file based on the MCP protocol; generating a unique Context ID for each inference task and registering the context information in external shared storage; automatically generating a model service orchestration graph by an LLM based on the UIS file of each MSU; according to the topology and context dependencies of the orchestration graph, a custom scheduler comprehensively scores candidate nodes in a Kubernetes cluster based on context affinity and resource score and selects the optimal node to deploy the MSU; and adaptively optimizing scheduling weights and resource allocation through a fast / slow feedback loop of the runtime monitoring module. This invention significantly reduces cross-node communication latency and improves task throughput while ensuring system scalability.

The application discloses a preplan means replication method and device, and relates to the technical field of computers. The method comprises the following steps: determining a means type in response to a means replication instruction, wherein each preplan comprises a plurality of means; determining a means implementation method corresponding to the means type in a means implementation set according to the means type, wherein the means implementation set comprises at least one means implementation method, and each means implementation method corresponds to one means type; the means implementation method is configuration information required for implementing the means; acquiring the means implementation method through a preset universal interface, and performing a means replication operation based on the means implementation method.

A BIM component automatic test system based on polymorphic interface adaptation, the system comprises: a general interface module and a test program module; the general interface module is used for receiving a component instantiation request sent by the test program module, binding a corresponding component implementation class instance, adding processing logic, encapsulating into a proxy class instance, and being called subsequently; the test program module is used for realizing dynamic loading of a test unit through macro definition; before execution, the test unit sends a component instantiation request to the general interface module and obtains a proxy class instance; when executing, the test unit uses a test scenario provided by a use case loader, calls a general interface method of the proxy class instance, and outputs an execution result. The disclosure improves the stability, efficiency and scalability of the test by constructing a set of BIM component automatic test system which can adapt to platform differences and version evolution.

Embodiments of the present application provide an interface calling method, a chip and a computing device. A specific implementation of the method includes: receiving an access request of a first application based on a general interface, the access request being used to access a Joint Test Action Group (JTAG) register; calling an intermediate interface based on the access request, the intermediate interface being used to call a first operation instruction registered in a JTAG structure; and performing an access operation on the JTAG register through a JTAG controller based on the first operation instruction to respond to the access request. Thus, when the JTAG controller or the JTAG register changes, only the first operation instruction needs to be reconstructed to maintain the original general interface and the intermediate interface to respond to the access request, thereby improving the development efficiency of the system and reducing the maintenance cost of the system.