Joint Torque Computation
Joint Torque Computation is a computational method within the Newton-Euler formulation of inverse dynamics that determines the torques and forces required at robotic or biomechanical joints to produce a specified motion by systematically propagating inertial and external forces from distal to proximal links.
115
Publications
7.3K
Citations
366
Authors
150
Institutions
Publications per year
2017–2026
31
115
J. Kenneth Salisbury, John Craig · The International Journal of Robotics Research · 1982 · 1.5K citations
Engineering, Mechatronics Engineering, Robotics Engineering +17
1–5 of 115
366
3
h-index
Advanced Telecommunications Research Institute International, Japan
3 publications · 334 citations
3
h-index
2
h-index
University of Illinois Urbana-Champaign, United States
2 publications · 52 citations
2
h-index
2
h-index
1–5 of 366
150
The University of Tokyo
Tokyo, Japan
10 h-index
25 publications
1.1K citations

Scuola Superiore Sant'Anna
Pisa, Italy
3 h-index
19 publications
600 citations
University of Nottingham Malaysia Campus
Semenyih, Malaysia
3 h-index
9 publications
101 citations
Stanford University
Stanford, United States
3 h-index
7 publications
3.3K citations
Massachusetts Institute of Technology
Cambridge, United States
3 h-index
4 publications
219 citations
Ritsumeikan University
Kyoto, Japan
3 h-index
7 publications
527 citations
Tokyo Institute of Technology
Tokyo, Japan
3 h-index
9 publications
257 citations

Concordia University
Montreal, Canada
2 h-index
4 publications
110 citations
1–8 of 150
3 publications · 71 citations
3
h-index
3 publications · 184 citations
3
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3 publications · 323 citations
3
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JAB · 3 publications · 93 citations
3
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2 publications · 30 citations
2
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1–5