Publication detail

The Modelling of Stereoscopic 3D Scene Acquisition

HASMANDA, M. ŘÍHA, K.

Original Title

The Modelling of Stereoscopic 3D Scene Acquisition

Type

journal article - other

Language

English

Original Abstract

The main goal of this work is to find a suitable method for calculating the best setting of a stereo pair of cameras that are viewing the scene to enable spatial imaging. The method is based on a geometric model of a stereo pair cameras currently used for the acquisition of 3D scenes. Based on selectable camera parameters and object positions in the scene, the resultant model allows calculating the parameters of the stereo pair of images that influence the quality of spatial imaging. For the purpose of presenting the properties of the model of a simple 3D scene, an interactive application was created that allows, in addition to setting the cameras and scene parameters and displaying the calculated parameters, also displaying the modelled scene using perspective views and the stereo pair modeled with the aid of anaglyphic images. The resulting modelling method can be used in practice to determine appropriate parameters of the camera configuration based on the known arrangement of the objects in the scene. Analogously, it can, for a given camera configuration, determine appropriate geometrical limits of arranging the objects in the scene being displayed. This method ensures that the resulting stereoscopic recording will be of good quality and observer-friendly.

Keywords

Anaglyph, parallax, stereo base, stereo pair, stereoscopy.

Authors

HASMANDA, M.; ŘÍHA, K.

RIV year

2012

Released

15. 4. 2012

ISBN

1210-2512

Periodical

Radioengineering

Year of study

21

Number

1

State

Czech Republic

Pages from

134

Pages to

142

Pages count

9

BibTex

@article{BUT76170,
  author="Martin {Hasmanda} and Kamil {Říha}",
  title="The Modelling of Stereoscopic 3D Scene Acquisition",
  journal="Radioengineering",
  year="2012",
  volume="21",
  number="1",
  pages="134--142",
  issn="1210-2512"
}