Gallery

Show images of current Projects | Years: 2016 - 2017 - 2018.

X-Mas Cards

Every year a christmas card showing aspects of our research projects is produced and sent out.

VRVis Competence Center

The VRVis K1 Research Center is the leading application oriented research center in the area of virtual reality (VR) and visualization (Vis) in Austria and is internationally recognized. You can find extensive Information about the VRVis-Center here

Visual Computing: Illustrative Visualization

The central focus of our research is to understand visual abstraction. Understanding means 1. to identify meaningful visual abstractions, 2. to assess their effectiveness for human perception and cognition and 3. to formalize them to be executable on a computational machinery. The outcome of the investigation is useful for designing visualizations for a given scenario or need, whose effectiveness can be quantified and thus the most understandable visualization design can be effortlessly determined. The science of visualization has already gained some understanding of structural visual abstraction. When for example illustrators, artists, and visualization designers convey certain structure, or visually express how things look, we can often provide a scientifically-founded argument whether and why is their expression effective for human cognitive processing. What has not been given sufficient scientific attention to, is advancing the understanding of procedural visual abstraction, in other words investigating visual means that convey what things do or how things work. This missing piece of knowledge would be very useful for visual depiction of processes and dynamics that are omnipresent in science, technology, but also in our everyday lives. The upcoming project will therefore investigate theoretical foundations for visualization of processes. Physiological processes that describe the complex machinery of biological life will be picked as a target scenario. The reason for this choice is two-fold. Firstly, these processes are immensely complex, are carried-out on various spatial and temporal levels simultaneously, and can be sufficiently understood only if all scales are considered. Secondly, physiological processes have been modeled as a result of intensive research in biology, systems biology, and biochemistry and are available in a form of digital data. The goal will be to visually communicate how physiological processes participate on life by considering the limitations of human perceptual and cognitive capabilities. By solving individual visualization problems of this challenging target scenario, the research will provide first pieces of understanding of procedural visual abstractions that are generally applicable, beyond the chosen target domain. Prototype implementation of the developed technology is available at the GitHub repository: https://github.com/illvisation/

Prototype implementation of the developed technology is available at the GitHub repository:

https://github.com/illvisation/

cellVIEW

cellVIEW is a new tool that provides fast rendering of very large biological macromolecular scenes and is inspired by state-of-the-art computer graphics techniques. Click here for additional information.

Invited Talks

18.11.2016: Arthur J. Olson, Envisioning the Visible Molecular Cell

17.10.2016: Kwan-Liu Ma, Emerging Topics for Visualization Research: Part1, Part2

07.10.2016: Marc Streit, From Visual Exploration to Storytelling and Back Again

04.12.2015: Jan Palacek, Visual Analysis of Protein Complexes: From Protein Interaction to Cellular Processes

19.04.2013: Jan Koenderink, Shape in Visual Awareness

Real-Time Shape Acquisition with Sensor-Specific Precision

Acquiring shapes of physical objects in real time and with guaranteed precision to the noise model of the sensor devices.

Path-Space Manifolds for Noise-Free Light Transport

The project aims to develop new statistical and algorithmic methods to improve light-transport simulation for offline rendering.

MAKE-IT-FAB: Modeling of Shapes for Personal Fabrication

The aim of this project is to investigate and to contribute to shape modeling and geometry processing for personal fabrication---a trend that currently receives intensified attention in the science and industry. Our goal is to contribute novel algorithmic solutions for fabrication-aware shape processing and interactive modeling.

Data-Driven Procedural Modeling of Interiors

The project develops new procedural modeling methods for interior scenes.

AngioVis: Visualization Tools for Peripheral CT-Angiography

post-processing and visualization of large CTA datasets of the peripheral extremities