VisAD is a Java component library for interactive and collaborative visualization and analysis of numerical data. The name VisAD is an acronym for ”Visualization for Algorithm Development”. The system combines: The use of pure Java for platform independence and to support data sharing and real-time collaboration among geographically distributed users. Support for distributed computing is integrated at the lowest levels of the system using Java RMI distributed objects. A general mathematical data model that can be adapted to virtually any numerical data, that supports data sharing among different users, different data sources and different scientific disciplines, and that provides transparent access to data independent of storage format and location (i.e., memory, disk or remote). The data model has been adapted to netCDF, HDF-5, FITS, HDF-EOS, McIDAS, Vis5D, GIF, JPEG, TIFF, QuickTime, ASCII and many other file formats. A general display model that supports interactive 3-D, data fusion, multiple data views, direct manipulation, collaboration, and virtual reality. The display model has been adapted to Java3D and Java2D and used in an ImmersaDesk virtual reality display. Data analysis and computation integrated with visualization to support computational steering and other complex interaction modes. Support for two distinct communities: developers who create domain- specific systems based on VisAD, and users of those domain-specific systems. VisAD is designed to support a wide variety of user interfaces, ranging from simple data browser applets to complex applications that allow groups of scientists to collaboratively develop data analysis algorithms. Developer extensibility in as many ways as possible.

Keywords for this software

Anything in here will be replaced on browsers that support the canvas element

References in zbMATH (referenced in 4 articles )

Showing results 1 to 4 of 4.
Sorted by year (citations)

  1. Mu, Mo: PDE.Mart: a network-based problem-solving environment for PDEs. (2005)
  2. Kurtinaitis, A.; Vaicekauskas, R.; Ivanauskas, F.: FDVis: The interactive visualization and steering environment for the computational processes using the finite-difference method (2003)
  3. Hashash, Youssef M. A.; Wotring, Donald C.; Yao, John I-Chiang; Lee, Jung-Suk; Fu, Qingwei: Visual framework for development and use of constitutive models (2002)
  4. Hibbard, William L.; Rueden, Curtis; Emmerson, Steve; Rink, Tom; Glowacki, David; Whittaker, Tom; Murray, Don; Fulker, David; Anderson, John: Java distributed objects for numerical visualization in visad. (2002) ioport