12 results about "Component diagram" patented technology

The invention discloses a BIM model-based water conservancy project cost accurate calculation method and system, and relates to the technical field of water conservancy project informatization management, and the method comprises the steps: obtaining BIM model component data, construction scheduling data, construction path data and construction cost data, constructing a scheduling component diagram for conflict recognition, calculating the load value of a path segment, and calculating the load value of the path segment; a construction progress deviation value is determined by combining sensing data of the internet of things, and finally a comprehensive cost estimation value is calculated; the method has the beneficial effects that BIM model component data, construction scheduling data, path data and cost data can be integrated, a three-dimensional scheduling component diagram is constructed for conflict detection, a progress deviation value is dynamically calculated in combination with sensing data of the Internet of Things, quantitative association of construction cost and progress deviation is realized, and the construction efficiency is improved. The method has the advantages of improving the construction cost calculation accuracy, enhancing the dynamic response capability of the construction process and realizing the real-time linkage of the cost and the progress.

The invention relates to the technical field of software architecture design, and discloses a software architecture design method based on intelligent bionic implementation of a large model group. The method comprises the steps of obtaining software design requirement input; performing multi-level semantic analysis on software design requirement input to generate an initial component set and context environment description; based on the context environment description, candidate component knowledge related to the initial component set is retrieved from a distributed knowledge base; performing consistency verification on the candidate component knowledge and the initial component set by utilizing a dynamic inference engine to generate a verified component map; according to the verified component atlas, candidate software architectures are generated through an architecture template matching algorithm; and performing iterative adjustment on the candidate software architecture by adopting an optimization strategy, and outputting a target software architecture design. Through collaborative analysis and intelligent reasoning of the large model group, automation and intelligence of software architecture design are achieved, and the efficiency and quality of software design are improved.

The invention discloses an interactive front-end generation method and system based on API specifications and multiple intelligent experience certificates, and belongs to the field of front-end software development automation. A double-stage intelligent generation framework is adopted, natural language query and back-end API specifications of a user are received, an optimal retrieval stage and an iteration generation stage are executed in sequence, and a code version with the highest comprehensive score is selected from iteration history to serve as a generated interactive front-end prototype code. Wherein in the retrieval stage, related UI components, icons and general layout structures are accurately retrieved to provide a high-quality context; a closed-loop optimization process dominated by an encoder and coordinated by multiple agents is started in iteration generation, the code quality is verified in a multi-dimensional mode, and the encoder agents are driven to conduct multi-round iteration correction on the code according to the verification result. And finally, the prototype code preferentially output can perform real data interaction with a back-end API, and can be used as a Demo or a starting point for rapid development, so that the front-end development efficiency is remarkably improved.

1. Name of the Design Product: Graphical User Interface of Desktop Component for Electronic Devices. 2. Use of the Design Product: An electronic device. 3. Design Key Points of the Design Product: Lies in the graphical user interface. 4. Picture or Photo that Best Illustrates the Design Key Points: The front view of Design 1. 5. This design product is a flat product, and the left view, right view, top view, bottom view, and rear view of Design 1-2 are omitted. 6. Design 1 is designated as the basic design. 7. Human-Computer Interaction Method of the Graphical User Interface: The graphical user interfaces shown in the front views of Design 1-2 and each variant state diagram are the content interfaces of the desktop components displayed in the electronic device. The front view of Design 1 shows the desktop component view in the state where the game has not started. The interface shows the icons and names of two teams, and the game start time is displayed in the middle of the two teams. After the game starts, Design 1 variant state diagram 1 is displayed. The score situation of the two teams is displayed in the middle of the interface. When there is a penalty kick, the reference diagram 1 of Design 1 variant state diagram 1 can be referred to, and the score situation and the number of penalty kicks are displayed in the middle of the interface. When there is no penalty kick, the reference diagram 2 of Design 1 variant state diagram 1 can be referred to, and only the score situation is displayed in the middle of the interface. After the game ends, Design 1 variant state diagram 2 is displayed. When there is a penalty kick, the reference diagram 1 of Design 1 variant state diagram 2 can be referred to, and the score situation and the number of penalty kicks are displayed in the middle of the interface. An advancement label is displayed below the advancing team. When there is no penalty kick, the reference diagram 2 of Design 1 variant state diagram 2 can be referred to, and only the score situation is displayed in the middle of the interface. An advancement label is displayed below the advancing team. The front view of Design 2 shows the desktop component view in the state where the game has not started and has been reserved. The interface shows the icons and names of two teams, and the game start time is displayed in the middle of the two teams. After the game starts, Design 2 variant state diagram 1 is displayed. The score situation of the two teams is displayed in the middle of the interface. When there is a penalty kick, the reference diagram 1 of Design 2 variant state diagram 1 can be referred to, and the score situation and the number of penalty kicks are displayed in the middle of the interface. When there is no penalty kick, the reference diagram 2 of Design 2 variant state diagram 1 can be referred to, and only the score situation is displayed in the middle of the interface. After the game ends, Design 2 variant state diagram 2 is displayed. When there is a penalty kick, the reference diagram 1 of Design 2 variant state diagram 2 can be referred to, and the score situation and the number of penalty kicks are displayed in the middle of the interface. An advancement label is displayed below the advancing team. When there is no penalty kick, the reference diagram 2 of Design 2 variant state diagram 2 can be referred to, and only the score situation is displayed in the middle of the interface. An advancement label is displayed below the advancing team. The gray areas in the front views of Design 1-2 and each variant state diagram are the deleted content pictures, and "XX" represents text or numbers. In the actual use process of the front view of Design 1-2 and the diagrams of various change states, the interface content displayed can be correspondingly referred to the respective reference diagrams.

Systems, methods, and other embodiments described herein relate to controlling a model using data fusion and a multi-modal conditional embedding for generating an object design. In one embodiment, a method includes constructing a completed parameter and an assembled component using completion models from an assembly graph, an incomplete parameter, and a component image about an object design. The method also includes generating input embeddings using encoding models associated with the completed parameter, the assembled component, and a text description. The method also includes computing a multi-modal conditional embedding using multi-modal fusion from the input embeddings. The method also includes controlling a foundational model using the multi-modal conditional embedding with a controlnet and outputting a generated object.

The embodiment of the invention provides a fault detection method and device for a CDC valve assembly and electronic equipment, and relates to the technical field of vehicle fault detection. According to the specific implementation scheme, working parameters of at least two target components of a to-be-detected CDC valve are obtained, a component diagram structure is constructed based on the target components and the working parameters, and the target components are used as nodes in the component diagram structure, and the working parameters of the target components are used as attribute data of the nodes; determining edges between the nodes according to a preset association relationship between the target components, and generating node features of the nodes based on the attribute data of the nodes in the component graph structure; and performing fusion processing on the node feature of each node and the node feature of at least one neighbor node of each node to obtain a node fusion feature of each node, thereby performing fault detection based on the node fusion feature to obtain a fault detection result of each target component. Based on the scheme, the accuracy of CDC valve fault detection can be improved.

One or more embodiments of this specification provide a method, apparatus, device, and storage medium for generating a three-dimensional building model. The method includes: obtaining component diagrams of each component included in a two-dimensional building image; matching the component diagrams with three-dimensional component models in a three-dimensional asset library to determine the three-dimensional component models corresponding to the component diagrams; obtaining a structure diagram corresponding to the two-dimensional building image, where the structure diagram indicates the depth information of each component and the positional relationship between components; and assembling the three-dimensional component models according to the structure diagram to obtain a three-dimensional building model. The embodiments of this specification can automatically generate a corresponding high-precision three-dimensional building model based on a two-dimensional building image, realizing the efficient generation of three-dimensional materials corresponding to two-dimensional materials.

The application discloses a method and device for changing component states by visual data driving engine, wherein the method comprises the following steps: a data driving engine abstracts data objects into a dragable layer object, and presents the data objects in a user component layer tree in groups, and defines component layer tree model attributes for the data objects; when the data objects participate in binding between component objects, a json data object structure is defined; the data driving engine generates a corresponding event tree through a component object binding relationship recorded in the json data object structure, and completes interaction through a method defined in the component object for interacting with external component objects; and the data driving engine combines an event tree with an abstract syntax tree, and dynamically generates business codes. The method and device realize centralized management subscription, avoid single event binding, and can dynamically generate project source codes through engine compilation.

The application discloses a kind of based on visual concept map representation Man-model interaction explanation guide method, electronic equipment and storage medium, the method includes: with model as foundation extraction important image block as category concept, constructs structure concept map, to this as tool representation arbitrary image, again build feature flow transparent inference network simulation existing classification network, observe the contribution of each part of concept map, to realize the explainability of decision;On the other hand, people independently each component as a concept, attribute arrangement is carried out to component, and structure component diagram is constructed in combination with component relationship.Based on this, people can update structure concept map with the structure component diagram of category, retrain inference network, and then guide knowledge to original network by knowledge distillation.Based on this two-way interaction method, the application can provide reasoning logic that people can understand by model, realize the explainability of neural network;Meanwhile, allow people to provide feedback to network using prior knowledge, to improve the performance of network.

1. The name of the design product: input area of smart conversation graphical user interface of electronic device. 2. The use of the design product: an electronic device. 3. The design points of the design product: the partial graphical user interface in the electronic device. 4. The picture or photo that best shows the design points: design 1 change state diagram 5. 5. Design 1 is designated as the basic design. 6. The use of the graphical user interface: the graphical user interface is used for smart conversation. The partial graphical user interface protected is used to input conversation information and set conversation related components. 7. The human-computer interaction mode of the graphical user interface: in response to the user hovering the cursor over the "call tool" button in the main view of design 1, the graphical user interface changes from the main view of design 1 to design 1 change state diagram 1 to show that the call tool cannot be opened; in response to the user hovering the cursor over the "network search" button in design 1 change state diagram 1, the graphical user interface changes from design 1 change state diagram 1 to design 1 change state diagram 2 to show the hovering state of the button; in response to the user touching or clicking the "network search" button in design 1 change state diagram 2, the graphical user interface changes from design 1 change state diagram 2 to design 1 change state diagram 3 to show the opening state of the network search; in response to the user hovering the cursor over the "call tool" button in design 1 change state diagram 3, the graphical user interface changes from design 1 change state diagram 3 to design 1 change state diagram 4 to show the content prompt information of the call tool; in response to the user touching or clicking the "call tool" button in design 1 change state diagram 4, the graphical user interface changes from design 1 change state diagram 4 to design 1 change state diagram 5 to show the opening state of the call tool; in response to the user uploading attachments and inputting information in the input area, the graphical user interface changes from design 1 change state diagram 5 to design 1 change state diagram 6 to show the input result of the attachments and information; in response to the user touching or clicking the "call tool" button in design 1 change state diagram 6, the graphical user interface changes from design 1 change state diagram 6 to design 1 change state diagram 7 to show the confirmation prompt of closing the call tool. In response to the user touching or clicking the "network search" button in the design 2 main view, the graphical user interface changes from the design 2 main view to the design 2 change state view 1 to show the start state of the network search; in response to the user touching or clicking the "call tool" button in the design 2 change state view 1, the graphical user interface changes from the design 2 change state view 1 to the design 2 change state view 2 to show the start state of the call tool; in response to the user uploading the attachment in the input area and inputting the information, the graphical user interface changes from the design 2 change state view 2 to the design 2 change state view 3 to show the input result of the attachment and the information; in response to the user touching or clicking the "call tool" button in the design 2 change state view 3, the graphical user interface changes from the design 2 change state view 3 to the design 2 change state view 4 to show the confirmation prompt of closing the call tool. In response to the user touching or clicking the "network search" button in the design 3 main view, the graphical user interface changes from the design 3 main view to the design 3 change state view 1 to show the start state of the network search; in response to the user touching or clicking the "call tool" button in the design 3 change state view 1, the graphical user interface changes from the design 3 change state view 1 to the design 3 change state view 2 to show the start state of the call tool; in response to the user uploading the attachment in the input area and inputting the information, the graphical user interface changes from the design 3 change state view 2 to the design 3 change state view 3 to show the input result of the attachment and the information. In response to the user uploading the attachment in the input area and inputting the information in the design 4 main view, the graphical user interface changes from the design 4 main view to the design 4 change state view 1 to show the input result of the attachment and the information; in response to the user touching or clicking the "call tool" button in the design 4 change state view 1, the graphical user interface changes from the design 4 change state view 1 to the design 4 change state view 2 to show the confirmation prompt of closing the call tool. In response to the user uploading the attachment in the input area and inputting the information, the graphical user interface changes from the design 5 main view to the design 5 change state view to show the input result of the attachment and the information. In response to the user touching or clicking the "network search" button in the design 6 main view, the graphical user interface changes from the design 6 main view to the design 6 change state view 1 to show the start state of the network search; in response to the user touching or clicking the "call tool" button in the design 6 change state view 1, the graphical user interface changes from the design 6 change state view 1 to the design 6 change state view 2 to show the start state of the call tool; in response to the user touching or clicking the upload attachment button in the design 6 change state view 2, the graphical user interface changes from the design 6 change state view 2 to the design 6 change state view 3 to show the upload function information; in response to the user uploading the attachment in the input area and inputting the information, the graphical user interface changes from the design 6 change state view 3 to the design 6 change state view 4 to show the input result of the attachment and the information; in response to the user touching or clicking the "call tool" button in the design 6 change state view 4, the graphical user interface changes from the design 6 change state view 4 to the design 6 change state view 5 to show the confirmation prompt of closing the call tool. In response to the user touching or clicking the "network search" button and the "call tool" button in the design 7 main view, the graphical user interface changes from the design 7 main view to the design 7 change state view 1 to show the start state of the network search and the call tool; in response to the user uploading the attachment in the input area and inputting the information, the graphical user interface changes from the design 7 change state view 1 to the design 7 change state view 2 to show the input result of the attachment and the information; in response to the user touching or clicking the "call tool" button in the design 7 change state view 2, the graphical user interface changes from the design 7 change state view 2 to the design 7 change state view 3 to show the confirmation prompt of closing the call tool. In response to the user uploading the attachment in the input area and inputting the information, the graphical user interface changes from the design 8 main view to the design 8 change state view 1 to show the input result of the attachment and the information; in response to the user touching or clicking the "call tool" button in the design 8 change state view 1, the graphical user interface changes from the design 8 change state view 1 to the design 8 change state view 2 to show the confirmation prompt of closing the call tool. In response to the user touching or clicking the "network search" button in the main view of design 9, the graphical user interface changes from the main view of design 9 to the changed state view 1 of design 9 to show a prompt message that the calling tool cannot be opened; in response to the user touching or clicking the "network search" button and the "calling tool" button in the changed state view 1 of design 9, the graphical user interface changes from the changed state view 1 of design 9 to the changed state view 2 of design 9 to show the opening state of the network search and the calling tool; in response to the user uploading the attachment in the input area and inputting the information, the graphical user interface changes from the changed state view 2 of design 9 to the changed state view 3 of design 9 to show the input result of the attachment and the information; in response to the user touching or clicking the "calling tool" button in the changed state view 3 of design 9, the graphical user interface changes from the changed state view 3 of design 9 to the changed state view 4 of design 9 to show the confirmation prompt of closing the calling tool. In response to the user touching or clicking the "network search" button in the main view of design 10, the graphical user interface changes from the main view of design 10 to the changed state view 1 of design 10 to show a prompt message that the calling tool cannot be opened; in response to the user uploading the attachment in the input area and inputting the information after opening the network search and the calling tool, the graphical user interface changes from the changed state view 1 of design 10 to the changed state view 2 of design 10 to show the input result of the attachment and the information; in response to the user touching or clicking the "calling tool" button in the changed state view 2 of design 10, the graphical user interface changes from the changed state view 2 of design 10 to the changed state view 3 of design 10 to show the confirmation prompt of closing the calling tool. 8. Other situations needing to be explained Other explanations: the part of the graphical user interface shown by the dashed line in each view of design 1 to design 10 does not constitute the part required to be protected by the appearance design.

1.The name of the present design product: resource map display graphical user interface of electronic device. 2.The use of the present design product: for an electronic device. 3.The design points of the present design product: in the interface content of the graphical user interface. 4.The picture or photo that best indicates the design points: design 1 front view. 5.Specify design 1 as the basic design. 6.The use of the graphical user interface: the present design graphical user interface is used to display resource map. The design 1 front view is a resource map display page, and the interface displays 3D resource map information. When the user clicks the "component 1" icon in the map, the design 1 interface change state diagram is presented, which is used to view the data flow situation. The design 2 front view is a resource map display page, and the interface displays 3D resource map information. When the user clicks the "component 1" icon in the map, the design 2 interface change state diagram is presented, and the green part is used to display the normal data flow situation. The design 3 front view is a resource map display page, and the interface displays 3D resource map information. When there is error information in the resource map, the interface presents the design 3 interface change state diagram 1. In the design 3 interface change state diagram 1, the red part displays the data error situation. When the user clicks the data 10 icon button, the design 3 interface change state diagram 2 is presented, which is used to view the error details. The design 4 front view is a resource map display page, and the interface displays 3D resource map information. When there is error information in the resource map, the interface presents the design 4 interface change state diagram 1. In the design 4 interface change state diagram 1, the red part displays the data error situation and error quantity statistics. When the user clicks the data 10 icon button, the design 4 interface change state diagram 2 is presented, which is used to view the error details. 7.Other circumstances that need to be explained: color is requested to be protected for design 2-design 4.

The present invention discloses a multi-modal based intelligent software architecture design and optimization system, which relates to the field of intelligent design and optimization. It includes performing modal perception and preprocessing on the user's voice input, natural language text input, graphic sketches, and gesture operations, converting them into structured semantic data, and optimizing and enhancing the semantic expressions by introducing reinforcement learning strategies to form a set of structured user intention vectors; through the semantic mapping and reasoning processing unit, constructing a semantic-component alignment graph from the user intention vectors in the set of user intention vectors, mapping the user intention vectors to the target intention nodes in the semantic-component graph, and screening out a candidate component set from the architecture knowledge graph in combination with the semantic association scoring mechanism. The structure diagram generation step in the structure generation module effectively improves the rationality, diversity, and adaptation ability of the automatically generated structure, providing core support for the automatic construction of the architecture structure for target requirements.