{"id":113853,"date":"2024-02-25T16:02:43","date_gmt":"2024-02-25T14:02:43","guid":{"rendered":"https:\/\/prohoster.info\/blog\/novosti-interneta\/intel-opublikoval-programmu-3d-vizualizaczii-ospray-studio-1-0-i-dvizhok-3d-renderinga-ospray-3-1"},"modified":"2024-02-25T16:02:43","modified_gmt":"2024-02-25T14:02:43","slug":"intel-opublikoval-programmu-3d-vizualizaczii-ospray-studio-1-0-i-dvizhok-3d-renderinga-ospray-3-1","status":"publish","type":"post","link":"https:\/\/prohoster.info\/en\/blog\/news\/intel-opublikoval-programmu-3d-vizualizaczii-ospray-studio-1-0-i-dvizhok-3d-renderinga-ospray-3-1","title":{"rendered":"Intel has released the 3D visualization program OSPRay Studio 1.0 and the 3D rendering engine OSPRay 3.1","gt_translate_keys":[{"key":"rendered","format":"text"}]},"content":{"rendered":"
Intel has released the OSPRay Studio 1.0 project, which develops an application for interactive 3D visualization using the distributed ray tracing engine OSPRay. Among other things, the program can be used for high-precision rendering of complex scenes and handling very large scenes that require distributed computing across a cluster of multiple computers. The application code is written in C++ and is distributed under the Apache 2.0 license. Rendering to the screen is done using OpenGL and the GLFW library. <\/p>\n
The scene to be rendered can be loaded in common formats or created using scene graph nodes. It supports the import of MTL format models with materials for photorealistic rendering, 3D animations in glTF format, UDIM texture formats, volumetric sparse particles (e.g. clouds) in VDB format, point clouds in PCD (Point Cloud Data) format, and lighting profiles in EULUMDAT (.ldt) format. The state of the scene graph can be saved or loaded in JSON format. <\/p>\n
Extended functionality, user interface widgets, and data import handlers can be connected in the form of plugins. For example, plugins are available for visualizing medical data in DICOM format, generating landscapes from height maps, processing large groups of standard objects (grass, trees), simulating astronomical events, visualizing scientific data in VTK format, and more. <\/p>\n
To simulate light behavior, the path tracing method is supported. Visualization can occur in volume or on a plane. Photorealistic global illumination is supported, taking into account the physical properties of materials, along with advanced shading effects (shadows, transparency, and Ambient Occlusion). It is possible to create scripts for performing operations in batch mode, such as rendering images on a headless system, selecting areas for rendering, and adjusting camera, rendering, and scene parameters.