2018
DOI: 10.1007/978-3-319-79111-1_39
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Kinematically Redundant Octahedral Motion Platform for Virtual Reality Simulations

Abstract: We propose a novel design of a parallel manipulator of Stewart Gough type for virtual reality application of single individuals; i.e. an omni-directional treadmill is mounted on the motion platform in order to improve VR immersion by giving feedback to the human body. For this purpose we modify the well-known octahedral manipulator in a way that it has one degree of kinematical redundancy; namely an equiform reconfigurability of the base. The instantaneous kinematics and singularities of this mechanism are stu… Show more

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Cited by 3 publications
(2 citation statements)
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“…Lebesgue lectured about Bricard's construction in 1938/39 [20], and Bennett discussed flexible octahedra in his work [6]. In recent years, there has been renewed interest in the topic: from early analysis of Bricard's octahedra [3,13,28] to their relations with a broader class of flexible surfaces [30], to applications in robotics [4,5,24], generalizations of Bricard's construction [25,26] and the analysis of flexible octahedra in different ambient spaces [23], to the study of flexibility of polyhedra via algebraic and topological techniques [1,2,10,14,22]. Flexible octahedra are self-intersecting: the first example of an embedded (i.e., with faces intersecting only at their common edges) flexible polyhedron is due to Connelly [12].…”
Section: Introductionmentioning
confidence: 99%
“…Lebesgue lectured about Bricard's construction in 1938/39 [20], and Bennett discussed flexible octahedra in his work [6]. In recent years, there has been renewed interest in the topic: from early analysis of Bricard's octahedra [3,13,28] to their relations with a broader class of flexible surfaces [30], to applications in robotics [4,5,24], generalizations of Bricard's construction [25,26] and the analysis of flexible octahedra in different ambient spaces [23], to the study of flexibility of polyhedra via algebraic and topological techniques [1,2,10,14,22]. Flexible octahedra are self-intersecting: the first example of an embedded (i.e., with faces intersecting only at their common edges) flexible polyhedron is due to Connelly [12].…”
Section: Introductionmentioning
confidence: 99%
“…Lebesgue lectured about Bricard's construction in 1938/39 [Leb67], and Bennett discussed flexible octahedra in his work [Ben12]. In recent years, there has been renewed interest in the topic; see the works of Baker [Bak80,Bak95,Bak09], Stachel [Sta87,Sta14,Sta15], Nawratil [Naw10,NR18], and others [Con78, BS90, Mik02, Ale10, AC11, Nel10, Nel12, CY12]. The goal of this paper is to re-prove Bricard's result by employing modern techniques in algebraic geometry that hopefully may be applied to more general situations.…”
Section: Introductionmentioning
confidence: 99%