16 results about "Graph Layout" patented technology

The application provides a hierarchical automatic layout method and device for internal module graphs, comprising the following steps: constructing a preliminary shape of a model graph layout; scanning each node, if there is a nested relationship, taking the nested information as a subgraph of the current node; scanning each node of the nested information, if there is a nested relationship, taking the nested information as a subgraph of the current node, and constructing a preliminary shape of a nested graph layout; determining virtual connections between different node nested relationships; and correcting the preliminary shape of the model graph layout to obtain a final shape of the model layout. In the layout process, the ports and graph element nesting involved in the internal module graph are considered, and a hierarchical automatic layout method completely covering the internal module graph elements is realized.

The application discloses a node positioning method and device, and relates to the technical field of computers. A specific embodiment of the method comprises the following steps: acquiring a relationship node identifier set of each node according to edge data in graph data, and determining an initial root node in a preset mode; for the nodes in the relationship node identifier set of the initial root node, if the nodes are leaf nodes, the leaf nodes are separately grouped, and if the nodes are non-leaf nodes, the nodes are grouped according to connection characteristics; the order of the leaf node groups and the non-leaf node groups is determined to determine a new relationship node sequence; and the position information of each leaf node and each non-leaf node is calculated according to the new relationship node sequence and taking the position of the initial root node as a starting point. The embodiment takes the relationship node identifier set of the node as a calculation basis, and can quickly obtain a simple, ordered and efficient mesh graph layout calculation result without setting an initial configuration and without multiple tests, compared with an existing force-directed algorithm.

The disclosure provides a string-based graphical analysis method, which defines the hierarchy, layout direction, size ratio and state color of a graph by designing a nested string DSL, converts the string expression into standard structured data using an analysis engine, and finally dynamically generates a visual graph through a rendering engine; this method abstracts complex graph layout into dataable semantic templates, allowing users to quickly build and modify complex nested graphs in a minimalist text form, while relying on a color and state binding mechanism and standardized data output to achieve flexible definition, efficient parsing, dynamic rendering and real-time state updating of graph layout in server cluster monitoring, distributed system state display and other scenarios, effectively solving the problems of low development efficiency, high maintenance cost and lack of dynamics in traditional hard coding methods.

Disclosed herein are systems, methods, and computer-readable media for an exchange management platform that obtains, using artificial intelligence (AI) orchestrators, a set of available exchanges based on a set of exchange protocols. In some implementations, a first command set directs one or more AI orchestrators to generate, as output, a set of resources satisfying a first protocol from the set of exchange protocols. A second command set and a second protocol from the set of exchange protocols can then be provided, as input, to the one or more AI orchestrators, causing the one or more AI orchestrators to determine a set of available exchanges for transferring a resource between two entities. The set of available exchanges can be obtained from the one or more AI orchestrators and display of a graphical layout based on the set of available exchanges can be caused.

Embodiments of the present disclosure provide for efficient global qubit placement within a quantum computing environment for a quantum program. Some embodiments utilize a graph-based approach to represent positions in a quantum computing environment, and optimize the graph layout using a graph processing algorithm to rearrange layers of a graph and reduce edge crossings. A layered graph associated with minimum cost is selected and utilized as an efficient layered graph for purposes of global qubit placement at various time steps of execution. Embodiments provide satisfactory approximations that avoid the NP-hard nature of this task to significantly reduce compilation time to a solution for global qubit placement as opposed to optimal global qubit placement while additionally identifying solutions that significantly reduce overall execution time and computing resource usage.

The application discloses a storage topology graph creation method and device, equipment and medium, comprising: acquiring an initial bipartite topology graph of a target storage system; determining a combination of second part storage nodes connected with each first part storage node, and determining a combination of first part storage nodes connected with each second part storage node; taking the average position of the second initial positions of all second part storage nodes in the combination of second part storage nodes as the first target position of the corresponding connected first part storage node; taking the average position of the first initial positions of all first part storage nodes in the combination of first part storage nodes as the second target position of the corresponding connected second part storage node; and reordering the first part storage nodes based on the first target position and reordering the second part storage nodes based on the second target position according to the same position front and back ordering sequence, to obtain a target bipartite topology graph. The topology graph layout can be simply and conveniently completed, and the topology graph layout is clear.

The invention discloses a page testing method and system for an application program, a medium and a product, and the method comprises the steps: determining whether a first GUI test case meets a repair condition or not, and if the first GUI test case meets the repair condition, determining second control information of a second control of a second target page of a second target application program according to the first GUI test case, according to the second control information, updating the first control information in the first GUI test case into the second control information, and generating a second GUI test case; and performing page function testing on a second target page of the second target application program by utilizing the second GUI test case. According to the method and the device, active error correction is realized when the graphic layout is changed and the pattern is changed, the graphic control is captured in a larger range, so that the change information of the control is automatically repaired by accurately positioning the graphic control, the automatic test efficiency is improved, and the maintenance overhead of a GUI test case is reduced.

System, methods, and machine-readable media to facilitate adaptive content composite interaction with respect to digitally distributed content are disclosed. Discovery may be performed, and events specified for digital distribution may be detected. A particular endpoint identifier mapped to media devices may be detected. Events may be determined as a function of access specifications. Content objects corresponding to the events may be received from a remote system via a network. Content composites corresponding to mapping specifications may be created for each content object with selecting and configuring an adaptable content object with the content object to form a content composite to facilitate presentation of the content composite. The content composites may be used to facilitate an augmentation interface with a graphical layout of the content composites, each causing display of an interface element allowing selective communications to a process-performing system to configure an executable function in accordance with parameters.

The application provides a graph layout optimization method and system based on force model parameter automatic search, acquires graph data, generates an initial graph layout result for the graph data, calculates the shortest path length between any pair of nodes in the graph, acquires the specified graph readability index of the user for the given graph data, generates a graph layout result satisfying the specified graph readability index according to the graph layout optimization method based on parameter automatic search, reuses the solved force model to new graph data to generate a layout result, and acquires the selection result of the user for the subgraph of interest in the layout result to perform local optimization on the subgraph corresponding to the selection result. The application can simultaneously satisfy the generation of corresponding visualization results according to the specified graph readability index and aesthetic criteria, so as to better show the structural characteristics of data, and simultaneously allows the user to perform interactive data exploration centered on analysis tasks according to requirements.

The application discloses a three-dimensional visualization system and construction method based on Ethereum big data, which classifies Ethereum blockchain big data according to entities, and constructs an Ethereum head ecological network model by using a Spark computing framework. The whole Ethereum network model is laid out by using a three-dimensional force guiding model, and the Barnes-Hut optimization algorithm extended to three dimensions is introduced in the graph layout process. The local part is laid out on the surface by using a spherical layout method. Finally, the WebGL, ThreeJS and other WEB three-dimensional graphics rendering technologies are used to realize the visualization display of the Ethereum head ecological network on the WEB side. The user can view the three-dimensional visualization model of the Ethereum transaction network in different ways, so that the user interaction process becomes more smooth, the details of the three-dimensional visualization model are controlled more deeply, and the search function in the model is provided, so that the user can quickly locate the node to be concerned.

The application relates to a self-organizing network topology graph layout method, device and computer equipment. The method first obtains a node grouping position distribution graph through standardized position information of nodes, so that each interval obtained by subsequent position distribution graph division can be regarded as a unit quantity, and then interval distribution quantity can represent interval width / height; then, by sequentially comparing position relations of each node grouping and a previous adjacent node grouping, blank interval width / height between the two is determined, and a node interval end point of the current node grouping can be obtained according to the node interval end point of the previous adjacent node grouping, the blank interval width / height and the current node interval width / height; then, according to the node interval end point and the interval width / height of the current node grouping, the position distribution of the optimized node region in the position distribution graph can be determined, and corresponding scaling can complete layout optimization of the current node grouping. The method can realize adaptive scaling of node regions and blank regions.

The utility model discloses a machine vision calibration board with concentric circle arrays and sine characteristic lines, which comprises a rectangular substrate, the surface of the rectangular substrate is provided with concentric circle pattern arrays arranged regularly, and at least one sine curve characteristic line is arranged above the concentric circle pattern arrays. The concentric circle pattern array is regularly arranged in the whole calibration plate area, stable circle center feature points are provided, the sine curve feature lines cover the concentric circle array, and a high-contrast curve contour can be presented in an image. And the concentric circle positioning marks are used for assisting board surface direction detection and alignment. According to the utility model, the characteristic identification rate is obviously improved; the concentric circle pattern has strong rotation invariance and is easy to identify; multi-feature fusion improves precision: curve and circular geometric features are combined to improve fitting capability; the graph layout is reasonable; robust calibration under a wider visual angle and complex distortion can be realized; the method is more suitable for modern industrial scenes, and supports AI image analysis and rapid deployment of edge vision equipment.

This application provides a hierarchical graph layout method, an electronic device, a storage medium, and a program product. The method includes: obtaining the hierarchical depth of each child node under a parent node; determining the position coordinates of each child node in the parent container based on the initial position of the parent node in a parent container and the hierarchical depth of each child node, the position coordinates including horizontal and vertical coordinates; constructing a subtree structure in the parent container according to the position coordinates; and dynamically adjusting the size of the parent container according to the subtree boundary of the subtree structure in the parent container until the parent container matches the subtree boundary. This method can improve the hierarchical graph layout effect.

The systems and methods disclosed herein receive an output generation request from that includes input for generating an output using a language model. The input includes a set of alphanumeric characters associated with operative standards for a first set of actions. The system divides the set of alphanumeric characters into text subsets. For each text subset, a vector representation is determined. Prompts are created for each vector representation including the set of alphanumeric characters, query contexts, keywords, and / or the text subset. Each vector representation's prompt is input into the language model, which generates a second set of actions of related actions, where subsequently generated actions are based on prior generated actions. The system aggregates the second set of actions into a third set of actions and displays a graphical layout. The graphical layout displays a representation of the set of alphanumeric characters and the corresponding actions.

This application provides an intelligent production management system and method for flexible meal preparation scenarios. The intelligent production management system belongs to a distributed control system and includes a field control layer, an operation monitoring layer, and a production management layer. The method includes: after the physical production station system connects to the network, it automatically registers and reports its own capability model; the production management platform provides a visual editing interface to convert the graphic layout data of materials into a recipe format; the platform breaks down the production plan into tasks and determines the required capabilities; the platform assigns tasks to the stations, obtains the station's capability model, and when it is determined that there is a difference between the required capability of the task and the station's capability, it automatically pushes a capability upgrade package to the station; the platform assigns the task to the upgraded station. This application realizes rapid definition of production tasks, rapid deployment of production resources, and on-demand dynamic adaptation of capabilities through visual recipe definition, plug-and-play functionality for stations, and production change-driven capability upgrades, thereby improving production efficiency and production line flexibility.