Cambridge University Press / Autonomous Systems / Multiagent Systems / Robotic Self-X Systems / ALGORITHM IMPLEMENTATION A. Software / TOSHIBA / Dassault Systemes SolidWorks Corp. / Stanford Computer Graphics Laboratory / Intel / Artificial Intelligence Laboratory / /
Country
Singapore / /
Currency
USD / / /
Facility
Wyss Institute / Bridge Fig / Massachusetts Institute of Technology / Harvard University / /
IndustryTerm
uniform external energy sources / cross product / design compiling algorithm / alignment manufacturing process / dot product / heat-activated self-folding device / external energy sources / self-reconfigurable robot solution / manufacturing processes / algorithmic solution / internal control systems / self-folding sheet design algorithm / printing / pin alignment manufacturing process / manufacturing / upgraded design algorithm / self-folding devices / chemical bonding / Self-folding systems / uniform energy source / /
Organization
Cambridge University / Harvard University / National Science Foundation / Massachusetts Institute of Technology / Convention and Exhibition Center / U.S. Securities and Exchange Commission / National Academy of Sciences / Wyss Institute for Biologically / School of Engineering and Applied Sciences / Exhibition Center / Stanford / /
Person
C. Lin H. Yen / Martin L. Demaine / Laura Meeker / Wei-Min Shen / Robert J. Wood / Michael T. Tolley / John Romanishin / Daniel M. Aukes / Erik D. Demaine / /
Position
wb / wt wb / /
Product
MeshLab software / MeshLab / /
ProgrammingLanguage
OBJ / /
ProvinceOrState
Massachusetts / /
PublishedMedium
Computer Graphics / Smart Materials and Structures / Soft Matter / Applied Physics Letters / Journal of Physical Chemistry B / Advanced Materials / /
2014 IEEE International Conference on Robotics & Automation (ICRA) Hong Kong Convention and Exhibition Center May 31 - June 7, 2014. Hong Kong, China An End-to-End Approach to Making Self-Folded 3D Surface Shapes by Unif