160 results about "Interactive visualization" patented technology

Exemplary systems and methods are provided by which multiple persons in remote physical locations can collaboratively interactively visualize a 3D data set substantially simultaneously. In exemplary embodiments of the present invention, there can be, for example, a main workstation and one or more remote workstations connected via a data network. A given main workstation can be, for example, an augmented reality surgical navigation system, or a 3D visualization system, and each workstation can have the same 3D data set loaded. Additionally, a given workstation can combine real-time imagining with previously obtained 3D data, such as, for example, real-time or pre-recorded video, or information such as that provided by a managed 3D ultrasound visualization system. A user at a remote workstation can perform a given diagnostic or therapeutic procedure, such as, for example, surgical navigation or fluoroscopy, or can receive instruction from another user at a main workstation where the commonly stored 3D data set is used to illustrate the lecture. A user at a main workstation can, for example, see the virtual tools used by each remote user as well as their motions, and each remote user can, for example, see the virtual tool of the main user and its respective effects on the data set at the remote workstation. For example, the remote workstation can display the main workstation's virtual tool operating on the 3D data set at the remote workstation via a virtual control panel of said local machine in the same manner as if said virtual tool was a probe associated with that remote workstation. In exemplary embodiments of the present invention each user's virtual tools can be represented by their IP address, a distinct color, and / or other differentiating designation. In exemplary embodiments of the present invention the data network can be either low or high bandwidth. In low bandwidth embodiments a 3D data set can be pre-loaded onto each user's workstation and only the motions of a main user's virtual tool and manipulations of the data set sent over the network. In high bandwidth embodiments, for example, real-time images, such as, for example, video, ultrasound or fluoroscopic images, can be also sent over the network as well.

A markup language is provided that facilitates communication between servers and clients of an interactive geographic information system (GIS, which enables a number of GIS features, such as network links (time-based and / or view-dependent dynamic data layers), ground overlays, screen overlays, placemarks, 3D models, and stylized GIS elements, such as geometry, icons, description balloons, polygons, and labels in the viewer by which the user sees the target area. Also, “virtual tours” of user-defined paths in the context of distributed geospatial visualization is enabled. Streaming and interactive visualization of filled polygon data are also enabled thereby allowing buildings and other such features to be provided in 3D. Also, techniques for enabling ambiguous search requests in a GIS are provided.

Interactive geographic information systems (GIS) and techniques provide users with a greater degree of flexibility, utility, and information. A markup language facilitates communication between servers and clients of the interactive GIS, which enables a number of GIS features, such as network links (timebased and / or view-dependent dynamic data layers), ground overlays, screen overlays, placemarks, 3D models, and stylized GIS elements, such as geometry, icons, description balloons, polygons, and labels in the viewer by which the user sees the target area. Also, “virtual tours” of user-defined paths in the context of distributed geospatial visualization is enabled. Streaming and interactive visualization of filled polygon data are also enabled thereby allowing buildings and other such features to be provided in 3d. Also, techniques for enabling ambiguous search requests in a GIS are provided.

A method and system are provided for the visual display of anatomical forces, that system having: a motion capture system; a computer, receiving data from said motion capture system; and a computational pipeline disposed on said computer; that computational pipeline being configured to calculate muscle forces and joint torques in real time and visually display those forces and torques.

An approach is provided that visually distinguishes between entity types in a communication system. A Data store with entities is queried, with entities connected to one another as senders and receivers, resulting in a query result. A node data structure corresponding to each of the entities is created and an edge data structure corresponding to each of the connections between the entities is also created. Nodes corresponding to the node data structures are displayed, along with edges (e.g., connection lines) corresponding to the edge data structures. A user selects one of the nodes that is displayed, and the selected node is visually highlighted. Different types of non-selected nodes are identified based on the selected node. Types of nodes may include sender type nodes, receiver type nodes, and sender / receiver type nodes. The types of identified nodes are highlighted in a manner that visually distinguishes each type from the other types.

Visualization systems for rendering images from a multi-dimensional data set, include an interactive visualization system configured to accept user input to define at least one explicit prioritized feature in an image rendered from a multi-dimensional image data set. The at least one prioritized feature is automatically electronically rendered with high or full quality in different interactively requested rendered images of the image data while other non-prioritized features are rendered at lower quality. The visualization system may optionally include a rendering system configured to render images by electronically assigning a level of detail for different tiles associated with an image, each level of detail having a number of pixel samples to be calculated to thereby accelerate image processing.

Methods and apparatus are provided for interactive visualization of temporal event data and correlated outcomes. The temporal event data comprises a plurality of entities undergoing one or more events. The temporal event data is aggregated and a flow graph is generated to represent the aggregated temporal event data. The flow graph comprises a directed acyclic graph having a plurality of nodes connected by edges, wherein each of the nodes represents a group of entities in a given state. A view of the flow graph is generated and then a visualization of the flow graph view can be rendered to a user. The user can interact with the flow graph view and the visualization and / or the flow graph view can be updated based on the user interactions. The flow graph is sliced into layers, wherein a given layer i contains all nodes with i events.

An interactive visualization of stored data includes a representation of a three-dimensional generally helical path extending between spaced apart ends of the path. Selected parts of the stored data are mapped to corresponding parts of the helical path to facilitate visualization of the stored data. The stored data may include an unbounded dimension (e.g., time) that is mapped along the helical path. One or more user interface elements may be associated with the helical path to effect display of additional information associated with a selected part of the path.