Technical Papers
Surfaces, Shapes, and Maps
Thursday, 14 August 2:00 PM - 3:30 PM | Vancouver Convention Centre, East Building, Exhibit Hall A Session Chair: Michael Wand, Universiteit Utrecht
Thursday, 14 August 2:00 PM - 3:30 PM | Vancouver Convention Centre, East Building, Exhibit Hall A Session Chair: Michael Wand, Universiteit Utrecht
A two-phase approach that estimates a base mesh from input noisy data and recovers the features from the residual by using l_1-analysis compressed-sensing optimization.
Ruimin Wang
University of Science and Technology of China
Zhouwang Yang
University of Science and Technology of China
Ligang Liu
University of Science and Technology of China
Jiansong Deng
University of Science and Technology of China
Falai Chen
University of Science and Technology of China
Introducing an algorithm for generating novel 3D models via topology-varying shape blending. Given two shapes with different topology, the method blends them topologically and geometrically, and produces plausible in-betweens representing new creations.
Ibraheem Alhashim
Simon Fraser University
Honghua Li
Simon Fraser Univeristy
Kai Xu
Shenzhen VisuCA Key Lab, Simon Fraser Univeristy
Junjie Cao
Dalian University of Technology
Rui Ma
Simon Fraser Univeristy
Hao (Richard) Zhang
Simon Fraser Univeristy
This paper proposes a specialized form of the curved-knot B-spline surface. The monotonic blending of the knots allows for constructing smooth transitions between B-spline boundaries with different knot vectors.
Kan-Le Shi
Tsinghua University
Jun-Hai Yong
Tsinghua University
Jia-Guang Sun
Tsinghua University
Jean-Claude Paul
Tsinghua University
This technique automatically creates polycube maps by minimizing the l1 norm of the boundary normals to align the normal field of an input shape to three orthogonal directions. Regularizing this minimization with surface and volumetric distortion energies allows for a controllable and versatile tool for polycube generation.
Jin Huang
Zhejiang University
Tengfei Jiang
Zhejiang University
Zeyun Shi
Zhejiang University
Yiying Tong
Michigan State University
Hujun Bao
Zhejiang University
Mathieu Desbrun
California Institute of Technology
By applying ideas from electrostatics to parameterize the open space around an object, this paper presents an object-centric coordinate system called Electric Coordinates. It has several applications in computer graphics, including: texturing, morphing, meshing, path planning relative to a target object, mesh parameterization, designing deformable objects, and computing coverage.
He Wang
Edinburgh University
Kirill Sidorov
Cardiff University
Peter Sandilands
Edinburgh University
Taku Komura
Edinburgh University