7 results about "Component object" patented technology

The application provides an interactive component assembly module design method, a simulation software construction method and device, and the interactive component assembly module design method comprises the following steps: constructing a data structure class diagram describing the correlation relationship between a geometric component object and a component instance object; determining the method interface required to be provided by the object in the interactive diagram when the component instance object realizes the component assembly function based on the data structure class diagram, and designing an interactive component assembly module based on the interactive diagram and the method interface. The data structure class diagram and the interactive diagram provided by the application meet the cross-module data correlation requirements of the geometric modeling, component assembly and meshing and other modules in the finite element modeling process, realize the assembly function development based on the geometric component object, and effectively improve the expansibility and maintainability of the designed interactive component assembly module.

A method for producing a multi-component object (100) comprising a first component (101) and a second component (102) assembled thereto, the method comprising: supplying the first component (101) to a loading station (S2) and supplying the second component (102) to the loading station (S2), and then assembling them to produce the multi-component object (100).

The embodiment of the application provides a component instance generation method and device, electronic equipment and computer storage medium, the method comprises the following steps: in response to starting a component in a host application, according to whether the operating system running the host application provides a component creation interface, two ways are used to generate a component object, a component instance is generated according to the component object, and the component instance is run in the host application. The first way is to set a custom implementation mode for the started component through the component creation interface, and the component object corresponding to the started component is created through the custom implementation mode. The second way is to obtain the loading process of the class of the started component, load the component class through the plug-in class loader to generate a component class instance, and create the component object corresponding to the started component according to the component class instance. The above two ways do not need to modify the underlying code of the operating system, and the compatibility and flexibility of dynamically loading the component are improved.

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 invention discloses an embedded user interface system, a design method and intelligent equipment, and the system comprises an application layer which is used for integrating an SFC source file at a source code level through a single file UI component, and is also used for compiling and packaging the SFC source file to obtain a JS byte code; a QuickJS engine is embedded in the runtime framework layer, and the runtime framework layer is used for analyzing and executing JS byte codes; the virtual data layer is used for converting the JS byte code into a virtual node tree through a specified programming language and generating a minimum UI updating instruction set through a differentiation algorithm; the graphics library rendering layer is used for generating a corresponding graphics library component object tree based on the minimum UI updating instruction set, completing drawing of an interface and controlling updating of a graphical user interface; and the operating system layer is used for providing an access mechanism for bottom-layer external equipment through the embedded system kernel, and is also used for receiving a user instruction to perform task scheduling and memory management.

This invention discloses an automatic tool space detection method and apparatus developed using NX secondary development. The automatic tool space detection method includes: inputting a BOP (Browser Object Structure) structure tree and extracting BOP structure information as input; automatically filtering tool and component objects and excluding irrelevant information, and recreating the BOP based on the filtering results; loading data; calculating the distance between components and completed assemblies; loading standard parts as assembly objects, reading entity and / or sheet data within the assembly, and determining the model of the standard parts; loading assemblies and peripheral parts for the process according to the model; and outputting the detection results. The beneficial effects of this invention are: utilizing automated software to achieve rapid initial tool space inspection, and allowing manual confirmation of NG (Not From Good) items under software guidance, greatly reducing missed inspections and repetitive operations. In practical applications, this can achieve an efficiency improvement of over 80%, while also providing a high degree of automation, reducing the CAD skill requirements for users.