Geometric modeling and computer graphics of kinematic ruled surfaces on the base of complex moving one axoid along another (one-sheet hyperboloid of revolution as fixed and moving axoids)
Date issued
2009
Journal Title
Journal ISSN
Volume Title
Publisher
Václav Skala - UNION Agency
Abstract
In concordance with logical structure “Geometrical Model of Interaction of two contacted surfaces during the
movement of one ruled surface along another – Corresponding Mathematical Transformations of Surfaces –
New Kinematic Ruled Surfaces” [1-3] a new geometrical model of complex moving one axoid along another for
the case of one-sheet hyperboloid of revolution as fixed and moving axoids has been proposed. The main
condition of constructing kinematic ruled surfaces is that moving axoid contact with fixed axoid along one their
common generating line in each of their positions during complex moving one axoid along another. A case when
the axes of fixed and moving axoids are crossed (Fig. 1,2,3), has been considered in this research. Analytical
development and computer graphics of the new kinematic surfaces are realized for three types of complex
moving. (1)The outside surface of the fixed axoid is revolved slipping-free by the outside surface of the
corresponding moving axoid (Fig. 1). (2)The interior surface of the fixed axoid is revolved slipping-free by the
outside surface of the corresponding moving axoid (Fig. 2). (3)The outside surface of the fixed axoid is revolved
slipping-free by the interior surface of the corresponding moving axoid (Fig. 3). Computer graphics of the
constructed surfaces (Fig. 1a,2a,3a) have been performed by the previously developed software application.
Description
Subject(s)
geometrické modelování, počítačová grafika, kinematické povrchy
Citation
WSCG '2009: Poster Proceedings: The 17th International Conference in Central Europe on Computer Graphics, Visualization and Computer Vision in co-operation with EUROGRAPHICS: University of West Bohemia, Plzen, Czech Republic, February 2 - 5, 2009, p. 31-34.