Phalanx Design |
Finger_Index |
Exoskeleton |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Finger Structure |
Finger_Index |
rigid-sequential |
Design of the NASA Robonaut Hand |
Robonaut Hand
|
Lovchik, C. V.
|
Finger Structure |
Finger_Index |
rigid-sequential |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Finger Structure |
Finger_Index |
rigid-sequential |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Finger Structure |
Finger_Index |
flexible |
The SDM Hand as a Prosthetic Terminal Device: A Feasibility Study |
SDM Hand
|
Dollar, Aaron M.
|
Finger Structure |
Finger_Index |
flexible |
Development of the UB Hand IV: Overview of Design Solutions and Enabling Technologies |
UB Hand IV
|
Melchiorri, Claudio
|
Finger Structure |
Finger_Index |
flexible |
The UB Hand II control system: design features and experimental results |
UB Hand II
|
Eusebi, A.
|
Phalanx Length |
Finger_Index |
human-like relations |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Finger Size |
Finger_Index |
human-like relations |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Finger Size |
Finger_Index |
human-like relations |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Reseting |
Finger_Index |
torsional spring |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
IP Joint Structual Design (1 DOF) |
Finger_Index |
1 axis |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
IP Joint Structual Design (1 DOF) |
Finger_Index |
1 axis |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
IP Joint Structual Design (1 DOF) |
Finger_Index |
1 axis |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
DIP Mechanical Joint Design |
Finger_Index |
Passive Hyperextension |
CATCH-919 Hand: Design of a 9-actuator 19-DOF Anthropomorphic Robotic Hand |
Catch-919 Hand
|
Zhang, Z.
|
Passive Joint Extension |
Finger_Index |
Interphalangeal Spring System |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
MCP Joint Strucutal Design (1 DOF) |
Finger_Index |
1 axis |
CATCH-919 Hand: Design of a 9-actuator 19-DOF Anthropomorphic Robotic Hand |
Catch-919 Hand
|
Zhang, Z.
|
MCP Joint Strucutal Design (1 DOF) |
Finger_Index |
1 axis |
The SDM Hand as a Prosthetic Terminal Device: A Feasibility Study |
SDM Hand
|
Dollar, Aaron M.
|
MCP Joint Structual Design (2 DOF) |
Finger_Index |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
MCP Joint Structual Design (2 DOF) |
Finger_Index |
2 axis orthogonal and intersecting - Abduction/Adduction at top |
DLR's multisensory articulated hand. I. Hard- and software architecture |
DLR Hand I
|
Butterfass, J.
|
MCP Joint Structual Design (2 DOF) |
Finger_Index |
2 axis not orthogonal and non-intersecting - Adduction/Abduction below |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Index |
linkage coupling of two joints |
Anthropomorphic Robot Hand: Gifu Hand III (narod.ru) |
Gifu Hand III
|
Mouri, T.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Index |
linkage coupling of two joints |
The Robonaut 2 hand - designed to do work with tools |
Robonaut Hand 2
|
Bridgwater, L. B.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Index |
tendon coupling of two joints |
DLR's multisensory articulated hand. I. Hard- and software architecture |
DLR Hand I
|
Butterfass, J.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Index |
tendon coupling of two joints |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
Eliminating 1 DoA MCP-PIP Joints |
Finger_Index |
linkage underactuation of two joints |
An Anthropomorphic Robot Hand Developed Based on Underactuated Mechanism and Controlled by EMG Signals |
|
Yang, D.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Index |
tendon coupling of three joints |
The MANUS-HAND Dextrous Robotics Upper Limb Prosthesis: Mechanical and Manipulation Aspects |
MANUS-HAND
|
Pons, J. L.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Index |
linkage coupling of three joints |
ptimal design of driving mechanism in a 1-DOF anthropomorphic finger |
|
Rodriguez, N. E. N.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Index |
linkage underactuation of three joints |
Anthropomorphic finger with optimized geometric parameters for pinching and grasping tasks |
|
Azlan, N. Z.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Index |
linkage underactuation of three joints |
Underactuation in Space Robotic Hands |
|
Laliberte, T.
|
Eliminating 3 DoA MCP-PIP-DIP Joints |
Finger_Index |
linkage underactuation of three joints |
Design of Spatial Adaptive Fingered Gripper Using Spherical Five-Bar Mechanis |
|
Tae-Uk, Kim
|
Finger Structure |
Finger_Middle |
rigid-sequential |
Design of the NASA Robonaut Hand |
Robonaut Hand
|
Lovchik, C. V.
|
Finger Structure |
Finger_Middle |
rigid-sequential |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Finger Structure |
Finger_Middle |
rigid-sequential |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Finger Structure |
Finger_Middle |
flexible |
The SDM Hand as a Prosthetic Terminal Device: A Feasibility Study |
SDM Hand
|
Dollar, Aaron M.
|
Finger Structure |
Finger_Middle |
flexible |
Development of the UB Hand IV: Overview of Design Solutions and Enabling Technologies |
UB Hand IV
|
Melchiorri, Claudio
|
Finger Structure |
Finger_Middle |
flexible |
The UB Hand II control system: design features and experimental results |
UB Hand II
|
Eusebi, A.
|
Phalanx Length |
Finger_Middle |
human-like relations |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Finger Size |
Finger_Middle |
human-like relations |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Finger Size |
Finger_Middle |
human-like relations |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Phalanx Design |
Finger_Middle |
Exoskeleton |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Reseting |
Finger_Middle |
torsional spring |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
IP Joint Structual Design (1 DOF) |
Finger_Middle |
1 axis |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
IP Joint Structual Design (1 DOF) |
Finger_Middle |
1 axis |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
IP Joint Structual Design (1 DOF) |
Finger_Middle |
1 axis |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
Passive Joint Extension |
Finger_Middle |
Interphalangeal Spring System |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
MCP Joint Strucutal Design (1 DOF) |
Finger_Middle |
1 axis |
CATCH-919 Hand: Design of a 9-actuator 19-DOF Anthropomorphic Robotic Hand |
Catch-919 Hand
|
Zhang, Z.
|
MCP Joint Strucutal Design (1 DOF) |
Finger_Middle |
1 axis |
The SDM Hand as a Prosthetic Terminal Device: A Feasibility Study |
SDM Hand
|
Dollar, Aaron M.
|
MCP Joint Structual Design (2 DOF) |
Finger_Middle |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
MCP Joint Structual Design (2 DOF) |
Finger_Middle |
2 axis orthogonal and intersecting - Abduction/Adduction at top |
DLR's multisensory articulated hand. I. Hard- and software architecture |
DLR Hand I
|
Butterfass, J.
|
MCP Joint Structual Design (2 DOF) |
Finger_Middle |
2 axis not orthogonal and non-intersecting - Adduction/Abduction below |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Middle |
linkage coupling of two joints |
Anthropomorphic Robot Hand: Gifu Hand III (narod.ru) |
Gifu Hand III
|
Mouri, T.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Middle |
linkage coupling of two joints |
The Robonaut 2 hand - designed to do work with tools |
Robonaut Hand 2
|
Bridgwater, L. B.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Middle |
tendon coupling of two joints |
DLR's multisensory articulated hand. I. Hard- and software architecture |
DLR Hand I
|
Butterfass, J.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Middle |
tendon coupling of two joints |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
Eliminating 1 DoA MCP-PIP Joints |
Finger_Middle |
linkage underactuation of two joints |
An Anthropomorphic Robot Hand Developed Based on Underactuated Mechanism and Controlled by EMG Signals |
|
Yang, D.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Middle |
tendon coupling of three joints |
The MANUS-HAND Dextrous Robotics Upper Limb Prosthesis: Mechanical and Manipulation Aspects |
MANUS-HAND
|
Pons, J. L.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Middle |
linkage coupling of three joints |
ptimal design of driving mechanism in a 1-DOF anthropomorphic finger |
|
Rodriguez, N. E. N.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Middle |
linkage underactuation of three joints |
Anthropomorphic finger with optimized geometric parameters for pinching and grasping tasks |
|
Azlan, N. Z.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Middle |
linkage underactuation of three joints |
Underactuation in Space Robotic Hands |
|
Laliberte, T.
|
Eliminating 3 DoA MCP-PIP-DIP Joints |
Finger_Middle |
linkage underactuation of three joints |
Design of Spatial Adaptive Fingered Gripper Using Spherical Five-Bar Mechanis |
|
Tae-Uk, Kim
|
Finger Structure |
Finger_Ring-Little |
rigid-sequential |
Design of the NASA Robonaut Hand |
Robonaut Hand
|
Lovchik, C. V.
|
Finger Structure |
Finger_Ring-Little |
rigid-sequential |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Finger Structure |
Finger_Ring-Little |
rigid-sequential |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Finger Structure |
Finger_Ring-Little |
flexible |
The SDM Hand as a Prosthetic Terminal Device: A Feasibility Study |
SDM Hand
|
Dollar, Aaron M.
|
Finger Structure |
Finger_Ring-Little |
flexible |
Development of the UB Hand IV: Overview of Design Solutions and Enabling Technologies |
UB Hand IV
|
Melchiorri, Claudio
|
Finger Structure |
Finger_Ring-Little |
flexible |
The UB Hand II control system: design features and experimental results |
UB Hand II
|
Eusebi, A.
|
Phalanx Length |
Finger_Ring-Little |
human-like relations |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Finger Size |
Finger_Ring-Little |
human-like relations |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Finger Size |
Finger_Ring-Little |
human-like relations |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Phalanx Design |
Finger_Ring-Little |
Exoskeleton |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Reseting |
Finger_Ring-Little |
torsional spring |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
IP Joint Structual Design (1 DOF) |
Finger_Ring-Little |
1 axis |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
IP Joint Structual Design (1 DOF) |
Finger_Ring-Little |
1 axis |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
IP Joint Structual Design (1 DOF) |
Finger_Ring-Little |
1 axis |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
Passive Joint Extension |
Finger_Ring-Little |
Interphalangeal Spring System |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
MCP Joint Strucutal Design (1 DOF) |
Finger_Ring-Little |
1 axis |
CATCH-919 Hand: Design of a 9-actuator 19-DOF Anthropomorphic Robotic Hand |
Catch-919 Hand
|
Zhang, Z.
|
MCP Joint Strucutal Design (1 DOF) |
Finger_Ring-Little |
1 axis |
The SDM Hand as a Prosthetic Terminal Device: A Feasibility Study |
SDM Hand
|
Dollar, Aaron M.
|
MCP Joint Structual Design (2 DOF) |
Finger_Ring-Little |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
MCP Joint Structual Design (2 DOF) |
Finger_Ring-Little |
2 axis orthogonal and intersecting - Abduction/Adduction at top |
DLR's multisensory articulated hand. I. Hard- and software architecture |
DLR Hand I
|
Butterfass, J.
|
MCP Joint Structual Design (2 DOF) |
Finger_Ring-Little |
2 axis not orthogonal and non-intersecting - Adduction/Abduction below |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Ring-Little |
linkage coupling of two joints |
Anthropomorphic Robot Hand: Gifu Hand III (narod.ru) |
Gifu Hand III
|
Mouri, T.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Ring-Little |
linkage coupling of two joints |
The Robonaut 2 hand - designed to do work with tools |
Robonaut Hand 2
|
Bridgwater, L. B.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Ring-Little |
tendon coupling of two joints |
DLR's multisensory articulated hand. I. Hard- and software architecture |
DLR Hand I
|
Butterfass, J.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Ring-Little |
tendon coupling of two joints |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
Eliminating 1 DoA MCP-PIP Joints |
Finger_Ring-Little |
linkage underactuation of two joints |
An Anthropomorphic Robot Hand Developed Based on Underactuated Mechanism and Controlled by EMG Signals |
|
Yang, D.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Ring-Little |
tendon coupling of three joints |
The MANUS-HAND Dextrous Robotics Upper Limb Prosthesis: Mechanical and Manipulation Aspects |
MANUS-HAND
|
Pons, J. L.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Ring-Little |
linkage coupling of three joints |
ptimal design of driving mechanism in a 1-DOF anthropomorphic finger |
|
Rodriguez, N. E. N.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Ring-Little |
linkage underactuation of three joints |
Anthropomorphic finger with optimized geometric parameters for pinching and grasping tasks |
|
Azlan, N. Z.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Ring-Little |
linkage underactuation of three joints |
Underactuation in Space Robotic Hands |
|
Laliberte, T.
|
Eliminating 3 DoA MCP-PIP-DIP Joints |
Finger_Ring-Little |
linkage underactuation of three joints |
Design of Spatial Adaptive Fingered Gripper Using Spherical Five-Bar Mechanis |
|
Tae-Uk, Kim
|
Improving Opposition |
Finger_Ring-Little |
Inclination of IP Joint |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Finger Structure |
Thumb |
rigid-sequential |
Design of the NASA Robonaut Hand |
Robonaut Hand
|
Lovchik, C. V.
|
Finger Structure |
Thumb |
rigid-sequential |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Finger Structure |
Thumb |
rigid-sequential |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Finger Structure |
Thumb |
flexible |
The SDM Hand as a Prosthetic Terminal Device: A Feasibility Study |
SDM Hand
|
Dollar, Aaron M.
|
Finger Structure |
Thumb |
flexible |
Development of UB Hand 3: Early Results |
UB Hand III
|
Lotti, F.
|
Finger Structure |
Thumb |
flexible |
The UB Hand II control system: design features and experimental results |
UB Hand II
|
Eusebi, A.
|
Phalanx Length |
Thumb |
human-like relations |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Phalanx Design |
Thumb |
Exoskeleton |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Reseting |
Thumb |
torsional spring |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
IP Joint Structual Design (1 DOF) |
Thumb |
1 axis |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
IP Joint Structual Design (1 DOF) |
Thumb |
1 axis |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
IP Joint Structual Design (1 DOF) |
Thumb |
1 axis |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
Passive Joint Extension |
Thumb |
Interphalangeal Spring System |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
MCP Joint Structual Design (2 DOF) |
Thumb |
2 axis orthogonal and non-intersecting - other configuration |
CATCH-919 Hand: Design of a 9-actuator 19-DOF Anthropomorphic Robotic Hand |
Catch-919 Hand
|
Zhang, Z.
|
MCP Joint Strucutal Design (1 DOF) |
Thumb |
1 axis |
The SDM Hand as a Prosthetic Terminal Device: A Feasibility Study |
SDM Hand
|
Dollar, Aaron M.
|
MCP Joint Structual Design (2 DOF) |
Thumb |
2 axis not orthogonal and non-intersecting - Adduction/Abduction below |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
Eliminating 1 DoA MCP-PIP Joints |
Thumb |
tendon coupling of two joints |
DLR's multisensory articulated hand. I. Hard- and software architecture |
DLR Hand I
|
Butterfass, J.
|
Eliminating 1 DoA MCP-PIP Joints |
Thumb |
linkage underactuation of two joints |
An Anthropomorphic Robot Hand Developed Based on Underactuated Mechanism and Controlled by EMG Signals |
|
Yang, D.
|
Eliminating 2 DoA TMC-MCP-IP Joints |
Thumb |
linkage coupling of three joints |
ptimal design of driving mechanism in a 1-DOF anthropomorphic finger |
|
Rodriguez, N. E. N.
|
Eliminating 2 DoA TMC-MCP-IP Joints |
Thumb |
linkage underactuation of three joints |
Anthropomorphic finger with optimized geometric parameters for pinching and grasping tasks |
|
Azlan, N. Z.
|
Eliminating 2 DoA TMC-MCP-IP Joints |
Thumb |
linkage underactuation of three joints |
Underactuation in Space Robotic Hands |
|
Laliberte, T.
|
Eliminating 3 DoA TMC-MCP-IP Joints |
Thumb |
Special coupling of three joints |
The MANUS-HAND Dextrous Robotics Upper Limb Prosthesis: Mechanical and Manipulation Aspects |
MANUS-HAND
|
Pons, J. L.
|
Finger Size |
Thumb |
human-like relations |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Finger Size |
Thumb |
human-like relations |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis orthogonal and intersecting - Abduction/Adduction at top |
DLR's multisensory articulated hand. I. Hard- and software architecture |
DLR Hand I
|
Butterfass, J.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis not orthogonal and non-intersecting - Adduction/Abduction below |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
TMC Joint Structual Design (3 DOF) |
Thumb |
3 axis intersecting |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Improving Opposition |
Thumb |
Inclination of IP Joint |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Mechanical Palm Design |
Kinetic-Base-Chain |
flat rigid surface |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Mechanical Palm Design |
Kinetic-Base-Chain |
bent rigid surface |
Multisensory five-finger dexterous hand: The DLR/HIT Hand II |
DLR/HIT Hand II
|
Liu, H.
|
Mechanical HMC(CMC) Joint Design |
Kinetic-Base-Chain |
closed hinge joint |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Mechanical HMC(CMC) Joint Design |
Kinetic-Base-Chain |
open hinge joint |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Mechanical HMC(CMC) Joint Design |
Kinetic-Base-Chain |
closed hinge joint |
CATCH-919 Hand: Design of a 9-actuator 19-DOF Anthropomorphic Robotic Hand |
Catch-919 Hand
|
Zhang, Z.
|
Eliminating 1 DoA HMC Joint |
Kinetic-Base-Chain |
linkage underactuation HMC-MCP Joints |
Design of the NASA Robonaut Hand |
Robonaut Hand
|
Lovchik, C. V.
|
Eliminating 1 DoA HMC Joint |
Kinetic-Base-Chain |
linkage underactuation HMC-MCP Joints |
CATCH-919 Hand: Design of a 9-actuator 19-DOF Anthropomorphic Robotic Hand |
Catch-919 Hand
|
Zhang, Z.
|
Eliminating 1 DoA HMC Joint |
Kinetic-Base-Chain |
linkage coupling HMC-MCP Joints |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
TMC Joint Position |
Kinetic-Base-Chain |
Grebenstein et al. |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
TMC Joint Position |
Kinetic-Base-Chain |
opposing to fingers |
The multifingered NAIST hand system for robot in-hand manipulation |
NAIST Hand
|
Ueda, J.
|
Eliminating 1 DOA Flexion-Extension LF-RF |
Transmission |
Coupling flexion/extension LF-RF |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
Eliminating 3 DOA Adduction/Abduction LF-RF-MF-IF |
Transmission |
Coupling adduction/abduction LF-RF-MF-IF |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
Proportion of covered area |
Housing |
gloves (Finger and Palm Cover) |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Proportion of covered area |
Housing |
full Fingercover |
Development of UB Hand 3: Early Results |
UB Hand III
|
Lotti, F.
|
Proportion of covered area |
Housing |
partial cover |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Proportion of covered area |
Housing |
partial cover |
DLR-Hand II: next generation of a dextrous robot hand |
DLR Hand II
|
Butterfass, J.
|
Proportion of covered area |
Housing |
Fingertips |
DLR-Hand II: next generation of a dextrous robot hand |
DLR Hand II
|
Butterfass, J.
|
Proportion of covered area |
Housing |
Fingertips |
Reliable object handover through tactile force sensing and effort control in the Shadow Robot hand |
Shadow Hand
|
Gomez Eguiluz, A.
|
Contact material (Skin) |
Housing |
PU |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Contact material (Skin) |
Housing |
PU |
Development of UB Hand 3: Early Results |
UB Hand III
|
Lotti, F.
|
Contact material (Skin) |
Housing |
Silicon |
Design of anthropomorphic dexterous hand with passive joints and sensitive soft skins |
|
Iwata, H.
|
Contact material (Skin) |
Housing |
Silicon |
Covering a Robot Fingertip With uSkin: A Soft Electronic Skin With Distributed 3-Axis Force Sensitive Elements for Robot Hands |
|
Tomo, T.P.
|
Contact material (Skin) |
Housing |
none |
- |
Gifu Hand II
|
Kawasaki, H.
|
Adaptation |
Housing |
Soft Tissue/ Pads (one material) |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Adaptation |
Housing |
Soft Tissue/ Pads (one material) |
Development of UB Hand 3: Early Results |
UB Hand III
|
Lotti, F.
|
Adaptation |
Housing |
Filled Pads (different material than skin) |
Developing an artificial fingertip with human friction properties |
|
Shao, F.
|
Adaptation |
Housing |
none |
CATCH-919 Hand: Design of a 9-actuator 19-DOF Anthropomorphic Robotic Hand |
Catch-919 Hand
|
Zhang, Z.
|
Surface Texture |
Housing |
Fingerprints/ Structure |
Skin materials for robotic fingers |
|
Cutkosky, M.
|
Surface Texture |
Housing |
hexagonal pillars |
Distal Hyperextension Is Handy: High Range of Motion in Cluttered Environments |
|
Ruotolo, W.
|
Surface Texture |
Housing |
none |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Eliminating 1 DoA MCP-PIP Joints |
Thumb |
tendon coupling of two joints |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
Eliminating 1 IP Joint DoF |
Finger_Index |
Eliminating PIP/DIP Joint |
CORA hand: a 3D printed robotic hand designed for robustness and compliance |
CORA Hand
|
Leonardis, D.
|
Eliminating 1 IP Joint DoF |
Finger_Middle |
Eliminating PIP/DIP Joint |
CORA hand: a 3D printed robotic hand designed for robustness and compliance |
CORA Hand
|
Leonardis, D.
|
Eliminating 1 IP Joint DoF |
Finger_Ring-Little |
Eliminating PIP/DIP Joint |
CORA hand: a 3D printed robotic hand designed for robustness and compliance |
CORA Hand
|
Leonardis, D.
|
Eliminating 1 MCP Joint DoF |
Finger_Middle |
Eliminating MCP Adduction/Abduction DOF |
CATCH-919 Hand: Design of a 9-actuator 19-DOF Anthropomorphic Robotic Hand |
Catch-919 Hand
|
Zhang, Z.
|
Eliminating 1 MCP Joint DoF |
Finger_Ring-Little |
Eliminating MCP Adduction/Abduction DOF |
CATCH-919 Hand: Design of a 9-actuator 19-DOF Anthropomorphic Robotic Hand |
Catch-919 Hand
|
Zhang, Z.
|
Eliminating 1 MCP Joint DoF |
Thumb |
Eliminating MCP Adduction/Abduction DOF |
CATCH-919 Hand: Design of a 9-actuator 19-DOF Anthropomorphic Robotic Hand |
Catch-919 Hand
|
Zhang, Z.
|
Eliminating 1 TMC Joint DoF |
Thumb |
Eliminating TMC Pronation/Supination DOF |
The Robonaut 2 hand - designed to do work with tools |
Robonaut Hand 2
|
Bridgwater, L. B.
|
Eliminating 1 HMC Joint DoF |
Kinetic-Base-Chain |
Eliminating HMC Ring Finger |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Eliminating 1 HMC Joint DoF |
Kinetic-Base-Chain |
Implementing joined HMC for Little-Ring Finger |
CATCH-919 Hand: Design of a 9-actuator 19-DOF Anthropomorphic Robotic Hand |
Catch-919 Hand
|
Zhang, Z.
|
Eliminating 2 HMC Joint DoF |
Kinetic-Base-Chain |
Eliminating HMC Little and Ring finger |
Anthropomorphic Robot Hand: Gifu Hand III (narod.ru) |
Gifu Hand III
|
Mouri, T.
|
Type of Underactuation Interfinger |
Transmission |
The movable pulley |
Underactuated robotic hands |
Underactuated robotic Hand
|
L, Birglen
|
Type of Underactuation Interfinger |
Transmission |
seesaw bar |
Underactuated robotic hands |
Underactuated robotic Hand
|
L, Birglen
|
Type of Underactuation Interfinger |
Transmission |
geared differential |
Underactuated robotic hands |
Underactuated robotic Hand
|
L, Birglen
|
Type of Underactuation Interfinger |
Transmission |
moveable pulley and seesaw bar |
The KIT Prosthetic Hand: Design and Control |
KIT Prosthetic Hand
|
Weiner, P.
|
Type of Underactuation Interfinger |
Transmission |
seesaw bar |
Design of a Lightweight Single-Actuator Multi-Grasp Prosthetic Hand With Force Magnification |
MGM Hand
|
Liu, H.
|
Type of Underactuation Interfinger |
Transmission |
seesaw bar |
A modular, open-source 3D printed underactuated hand |
Yale OpenHand
|
Ma, Raymond R.
|
Type of Underactuation Interfinger |
Transmission |
seesaw bar |
Open-source, anthropomorphic, underactuated robot hands with a selectively lockable differential mechanism: Towards affordable prostheses |
Kontoudis Hand
|
Kontoudis, GP.
|
Type of Underactuation Interfinger |
Transmission |
moveable pulley and seesaw bar |
Novel differential mechanism enabling two DOF from a single actuator: Application to a prosthetic hand |
Belter Hand
|
Belter, JT.
|
Type of Underactuation Interfinger |
Transmission |
The movable pulley |
The SDM Hand as a Prosthetic Terminal Device: A Feasibility Study |
SDM Hand
|
Dollar, Aaron M.
|
Type of Underactuation Interfinger |
Transmission |
The movable pulley |
Adaptive synergies for the design and control of the Pisa/IIT SoftHand |
PISA/IIT Softhand
|
Catalano, M.G
|
Type of Underactuation Interfinger |
Transmission |
The movable pulley |
Design of a Multifunctional Anthropomorphic Prosthetic Hand With Extrinsic Actuation |
Vanderbilt Hand
|
Dalley, SA.
|
Type of Underactuation Interfinger |
Transmission |
The movable pulley |
The SPRING Hand: Development of a Self-Adaptive Prosthesis for Restoring Natural Grasping |
SPRING Hand
|
Carrozza, M. C.
|
Type of Underactuation Interfinger |
Transmission |
The movable pulley |
An anthropomorphic underactuated robotic hand with 15 dofs and a single actuator |
Goesslin Hand
|
Gosselin, C.
|
Eliminating 2 DOA Adduction/Abduction LF-RF-IF |
Transmission |
Tendon Underactuation adduction/abduction LF-RF-IF |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
Eliminating 4 DOA Abduction-Adduction LF-RF-MF-IF-Tb |
Transmission |
Tendon Underactuation abduction/adduction LF-RF-MF-IF-Tb |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
Eliminating 1 DoA HMC Joint |
Kinetic-Base-Chain |
Linkage Coupling Grebenstein. |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Eliminating 4 DOA Flexion-Extension LF-RF-MF-IF-Tb |
Transmission |
Tendon Underactuation flexion/extension LF-RF-MF-IF-Tb |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
TMC Joint Structual Design (1 DoF) |
Thumb |
1 axis |
UT hand I: A lock-based underactuated hand prosthesis |
UT Hand I
|
Peerdeman, B.
|
TMC Joint Structual Design (1 DoF) |
Thumb |
1 axis |
Experimental analysis of an innovative prosthetic hand with proprioceptive sensors |
RTR Hand II
|
Carrozza, M. C.
|
Type of Underactuation Interfinger |
Transmission |
compliant differential coupling |
Experimental analysis of an innovative prosthetic hand with proprioceptive sensors |
RTR Hand II
|
Carrozza, M. C.
|
Type of Underactuation Interfinger |
Transmission |
compliant differential coupling |
The SmartHand transradial prosthesis |
SmartHand
|
Cipriani, C.
|
Eliminating 2 MCP Joint DoF |
Thumb |
Eliminating MCP Joint |
Simplified robotic thumb inspired by surgical intervention |
TU Hand
|
Pulleyking, S.
|
Eliminating 1 MCP Joint DoF |
Thumb |
Eliminating MCP Adduction/Abduction DOF |
Anthropomorphic Robot Hand: Gifu Hand III (narod.ru) |
Gifu Hand III
|
Mouri, T.
|
Eliminating 1 MCP Joint DoF |
Thumb |
Eliminating MCP Adduction/Abduction DOF |
- |
Gifu Hand II
|
Kawasaki, H.
|
Eliminating 1 MCP Joint DoF |
Thumb |
Eliminating MCP Adduction/Abduction DOF |
Multisensory five-finger dexterous hand: The DLR/HIT Hand II |
DLR/HIT Hand II
|
Liu, H.
|
Eliminating 1 MCP Joint DoF |
Thumb |
Eliminating MCP Adduction/Abduction DOF |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Eliminating 1 MCP Joint DoF |
Thumb |
Eliminating MCP Adduction/Abduction DOF |
Design of an Underactuated Adptive Robotic Hand with Force Sensing |
FTN Hand
|
Savic, S.
|
Eliminating 1 MCP Joint DoF |
Thumb |
Eliminating MCP Adduction/Abduction DOF |
Mechanism Design of Anthropomorphic Robot Hand: Gifu Hand I |
Gifu Hand I
|
Kawasaki, H.
|
Eliminating 1 MCP Joint DoF |
Thumb |
Eliminating MCP Adduction/Abduction DOF |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
Eliminating 1 MCP Joint DoF |
Thumb |
Eliminating MCP Adduction/Abduction DOF |
An Affordable Linkage-and-Tendon Hybrid-Driven Anthropomorphic Robotic Hand—MCR-Hand II |
MCR Hand II
|
Yang, H.
|
Eliminating 1 MCP Joint DoF |
Thumb |
Eliminating MCP Adduction/Abduction DOF |
The DEXMART hand: Mechatronic design and experimental evaluation of synergy-based control for human-like grasping |
Dexmart Hand
|
Palli, G.
|
Eliminating 1 MCP Joint DoF |
Thumb |
Eliminating MCP Adduction/Abduction DOF |
Development of UB Hand 3: Early Results |
UB Hand III
|
Lotti, F.
|
Eliminating 2 TMC Joint DoF |
Thumb |
Eliminating TMC Flexion-Extension Pronation-Supination DoF |
Experimental analysis of an innovative prosthetic hand with proprioceptive sensors |
RTR Hand II
|
Carrozza, M. C.
|
Eliminating 2 TMC Joint DoF |
Thumb |
Eliminating TMC Flexion-Extension Pronation-Supination DoF |
UT hand I: A lock-based underactuated hand prosthesis |
UT Hand I
|
Peerdeman, B.
|
Eliminating 1 TMC Joint DoF |
Thumb |
Eliminating TMC Pronation/Supination DOF |
Simplified robotic thumb inspired by surgical intervention |
TU Hand
|
Pulleyking, S.
|
Eliminating 1 TMC Joint DoF |
Thumb |
Eliminating TMC Pronation/Supination DOF |
Mechanism Design of Anthropomorphic Robot Hand: Gifu Hand I |
Gifu Hand I
|
Kawasaki, H.
|
Eliminating 1 TMC Joint DoF |
Thumb |
Eliminating TMC Pronation/Supination DOF |
- |
Gifu Hand II
|
Kawasaki, H.
|
Eliminating 1 TMC Joint DoF |
Thumb |
Eliminating TMC Pronation/Supination DOF |
Anthropomorphic Robot Hand: Gifu Hand III (narod.ru) |
Gifu Hand III
|
Mouri, T.
|
Eliminating 1 TMC Joint DoF |
Thumb |
Eliminating TMC Pronation/Supination DOF |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
Eliminating 1 TMC Joint DoF |
Thumb |
Eliminating TMC Pronation/Supination DOF |
Design of an Underactuated Adptive Robotic Hand with Force Sensing |
FTN Hand
|
Savic, S.
|
Eliminating 1 TMC Joint DoF |
Thumb |
Eliminating TMC Pronation/Supination DOF |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
Eliminating 1 TMC Joint DoF |
Thumb |
Eliminating TMC Pronation/Supination DOF |
An Affordable Linkage-and-Tendon Hybrid-Driven Anthropomorphic Robotic Hand—MCR-Hand II |
MCR Hand II
|
Yang, H.
|
Eliminating 1 TMC Joint DoF |
Thumb |
Eliminating TMC Pronation/Supination DOF |
The DEXMART hand: Mechatronic design and experimental evaluation of synergy-based control for human-like grasping |
Dexmart Hand
|
Palli, G.
|
Eliminating 1 TMC Joint DoF |
Thumb |
Eliminating TMC Pronation/Supination DOF |
Development of UB Hand 3: Early Results |
UB Hand III
|
Lotti, F.
|
Eliminating 1 MCP Joint DoF |
Thumb |
Eliminating MCP Adduction/Abduction DOF |
The modular multisensory DLR-HIT-Hand |
DLR/HIT Hand I
|
Liu, H.
|
Eliminating 1 MCP Joint DoF |
Thumb |
Eliminating MCP Adduction/Abduction DOF |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Eliminating 1 TMC Joint DoF |
Thumb |
Eliminating TMC Pronation/Supination DOF |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
Eliminating 1 TMC Joint DoF |
Thumb |
Eliminating TMC Pronation/Supination DOF |
Reliable object handover through tactile force sensing and effort control in the Shadow Robot hand |
Shadow Hand
|
Gomez Eguiluz, A.
|
Phalanx Length |
Thumb |
human-like relations |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
Phalanx Length |
Thumb |
human-like relations |
Design of a Highly Biomimetic Anthropomorphic Robotic Hand towards Artificial Limb Regeneration |
Xu biomimetic robotic hand
|
Xu, Z.
|
Phalanx Length |
Thumb |
human-like relations |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
Phalanx Length |
Thumb |
human-like relations |
A Novel Monolithic Soft Robotic Thumb for an Anthropomorphic Prosthetic Hand |
Uow/ACES Hand
|
Zhou, H.
|
TMC Joint Position |
Kinetic-Base-Chain |
Isobe |
TOWARD NEXT STAGE OF KINETIC HUMANOID HAND |
Kinetic Humanoid Hand
|
Kawasaki, H.
|
TMC Joint Position |
Kinetic-Base-Chain |
Euler-Angle |
An anthropomorphic design guideline for the thumb of the dexterous hand |
revised DLR/HIT Hand II
|
Wang, H.
|
TMC Joint Position |
Kinetic-Base-Chain |
Angled towards palm and fingers |
UT hand I: A lock-based underactuated hand prosthesis |
UT Hand I
|
Peerdeman, B.
|
TMC Joint Position |
Kinetic-Base-Chain |
Angled towards palm and fingers |
Design of an Underactuated Adptive Robotic Hand with Force Sensing |
FTN Hand
|
Savic, S.
|
Phalanx Design |
Thumb |
Exoskeleton |
Anthropomorphic Robot Hand: Gifu Hand III (narod.ru) |
Gifu Hand III
|
Mouri, T.
|
Phalanx Design |
Thumb |
Exoskeleton |
UT hand I: A lock-based underactuated hand prosthesis |
UT Hand I
|
Peerdeman, B.
|
Phalanx Design |
Thumb |
Exoskeleton |
Experimental analysis of an innovative prosthetic hand with proprioceptive sensors |
RTR Hand II
|
Carrozza, M. C.
|
Phalanx Design |
Thumb |
Exoskeleton |
- |
Gifu Hand II
|
Kawasaki, H.
|
Phalanx Design |
Thumb |
Exoskeleton |
Multisensory five-finger dexterous hand: The DLR/HIT Hand II |
DLR/HIT Hand II
|
Liu, H.
|
Phalanx Design |
Thumb |
Endoskeleton |
- |
Awiwi Hand
|
Grebenstein, M.
|
Phalanx Design |
Thumb |
Exoskeleton |
The UB Hand II control system: design features and experimental results |
UB Hand II
|
Eusebi, A.
|
Phalanx Design |
Thumb |
Exoskeleton |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
Phalanx Design |
Thumb |
Exoskeleton |
An Affordable Linkage-and-Tendon Hybrid-Driven Anthropomorphic Robotic Hand—MCR-Hand II |
MCR Hand II
|
Yang, H.
|
Phalanx Design |
Thumb |
Exoskeleton |
Simplified robotic thumb inspired by surgical intervention |
TU Hand
|
Pulleyking, S.
|
Phalanx Design |
Thumb |
Exoskeleton |
A Novel Monolithic Soft Robotic Thumb for an Anthropomorphic Prosthetic Hand |
Uow/ACES Hand
|
Zhou, H.
|
Phalanx Design |
Thumb |
Exoskeleton |
The modular multisensory DLR-HIT-Hand |
DLR/HIT Hand I
|
Liu, H.
|
Phalanx Design |
Thumb |
Exoskeleton |
Mechanism Design of Anthropomorphic Robot Hand: Gifu Hand I |
Gifu Hand I
|
Kawasaki, H.
|
Phalanx Design |
Thumb |
Endoskeleton |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
Phalanx Design |
Thumb |
Endoskeleton |
Development of UB Hand 3: Early Results |
UB Hand III
|
Lotti, F.
|
Phalanx Design |
Thumb |
Endoskeleton |
The DEXMART hand: Mechatronic design and experimental evaluation of synergy-based control for human-like grasping |
Dexmart Hand
|
Palli, G.
|
Phalanx Design |
Thumb |
Endoskeleton |
Design of a highly biomimetic anthropomorphic robotic hand towards artificial limb regeneration |
HBA Hand
|
Xu, Z.
|
Eliminating 1 DoA MCP-PIP Joints |
Thumb |
linkage coupling of two joints |
An Affordable Linkage-and-Tendon Hybrid-Driven Anthropomorphic Robotic Hand—MCR-Hand II |
MCR Hand II
|
Yang, H.
|
Eliminating 1 DoA MCP-PIP Joints |
Thumb |
linkage coupling of two joints |
Multisensory five-finger dexterous hand: The DLR/HIT Hand II |
DLR/HIT Hand II
|
Liu, H.
|
Eliminating 1 DoA MCP-PIP Joints |
Thumb |
tendon coupling of two joints |
UT hand I: A lock-based underactuated hand prosthesis |
UT Hand I
|
Peerdeman, B.
|
Eliminating 2 DoA TMC-MCP-IP Joints |
Thumb |
linkage underactuation of three joints |
Design of an Underactuated Adptive Robotic Hand with Force Sensing |
FTN Hand
|
Savic, S.
|
Eliminating 2 DoA TMC-MCP-IP Joints |
Thumb |
linkage underactuation of three joints |
A Novel Monolithic Soft Robotic Thumb for an Anthropomorphic Prosthetic Hand |
Uow/ACES Hand
|
Zhou, H.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
Design of an Underactuated Adptive Robotic Hand with Force Sensing |
FTN Hand
|
Savic, S.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
compliant joint |
A Novel Monolithic Soft Robotic Thumb for an Anthropomorphic Prosthetic Hand |
Uow/ACES Hand
|
Zhou, H.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
compliant joint |
Development of UB Hand 3: Early Results |
UB Hand III
|
Lotti, F.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
rolling-contact joint |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
MCP Mechanical Joint Design (1 DoF) |
Thumb |
compliant joint |
Development of UB Hand 3: Early Results |
UB Hand III
|
Lotti, F.
|
MCP Mechanical Joint Design (1 DoF) |
Thumb |
closed hinge joint |
The DEXMART hand: Mechatronic design and experimental evaluation of synergy-based control for human-like grasping |
Dexmart Hand
|
Palli, G.
|
MCP Mechanical Joint Design (1 DoF) |
Thumb |
closed hinge joint |
Design of an Underactuated Adptive Robotic Hand with Force Sensing |
FTN Hand
|
Savic, S.
|
MCP Mechanical Joint Design (1 DoF) |
Thumb |
rolling-contact joint |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
MCP Joint Mechanical Design (2 DoF) |
Thumb |
closed hinge joint |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
TMC Joint Mechanical Design (2 DoF) |
Thumb |
closed hinge joint |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
TMC Joint Mechanical Design (2 DoF) |
Thumb |
closed hinge joint |
Reliable object handover through tactile force sensing and effort control in the Shadow Robot hand |
Shadow Hand
|
Gomez Eguiluz, A.
|
TMC Joint Mechanical Design (2 DoF) |
Thumb |
closed hinge joint |
Simplified robotic thumb inspired by surgical intervention |
TU Hand
|
Pulleyking, S.
|
TMC Joint Mechanical Design (2 DoF) |
Thumb |
closed hinge joint |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
TMC Joint Mechanical Design (2 DoF) |
Thumb |
closed hinge joint |
Design of an Underactuated Adptive Robotic Hand with Force Sensing |
FTN Hand
|
Savic, S.
|
TMC Joint Mechanical Design (2 DoF) |
Thumb |
closed hinge joint |
The DEXMART hand: Mechatronic design and experimental evaluation of synergy-based control for human-like grasping |
Dexmart Hand
|
Palli, G.
|
TMC Joint Mechanical Design (2 DoF) |
Thumb |
open hinge joint |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
TMC Joint Mechanical Design (2 DoF) |
Thumb |
compliant joint |
Development of UB Hand 3: Early Results |
UB Hand III
|
Lotti, F.
|
TMC Joint Mechanical Design (2 DoF) |
Thumb |
compliant joint |
A Novel Monolithic Soft Robotic Thumb for an Anthropomorphic Prosthetic Hand |
Uow/ACES Hand
|
Zhou, H.
|
TMC Joint Mechanical Design (2 DoF) |
Thumb |
rolling-contact joint |
Simplified robotic thumb inspired by surgical intervention |
TU Hand
|
Pulleyking, S.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Index |
linkage coupling of two joints |
The Mechanical Design and Experiments of HIT/DLR Prosthetic Hand |
DLR/HIT Prosthetic Hand
|
Liu, H.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Middle |
linkage coupling of two joints |
The Mechanical Design and Experiments of HIT/DLR Prosthetic Hand |
DLR/HIT Prosthetic Hand
|
Liu, H.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Ring-Little |
linkage coupling of two joints |
The Mechanical Design and Experiments of HIT/DLR Prosthetic Hand |
DLR/HIT Prosthetic Hand
|
Liu, H.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
The MANUS-HAND Dextrous Robotics Upper Limb Prosthesis: Mechanical and Manipulation Aspects |
MANUS-HAND
|
Pons, J. L.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
The MANUS-HAND Dextrous Robotics Upper Limb Prosthesis: Mechanical and Manipulation Aspects |
MANUS-HAND
|
Pons, J. L.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
The MANUS-HAND Dextrous Robotics Upper Limb Prosthesis: Mechanical and Manipulation Aspects |
MANUS-HAND
|
Pons, J. L.
|
MCP Mechanical Joint Design (1 DoF) |
Thumb |
closed hinge joint |
The MANUS-HAND Dextrous Robotics Upper Limb Prosthesis: Mechanical and Manipulation Aspects |
MANUS-HAND
|
Pons, J. L.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Index |
linkage coupling of three joints |
Development of a lightweight and adaptable multiple-axis hand prosthesis |
Southhampton REMIDI Hand
|
Light, C. M.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Middle |
linkage coupling of three joints |
Development of a lightweight and adaptable multiple-axis hand prosthesis |
Southhampton REMIDI Hand
|
Light, C. M.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Ring-Little |
linkage coupling of three joints |
Development of a lightweight and adaptable multiple-axis hand prosthesis |
Southhampton REMIDI Hand
|
Light, C. M.
|
Eliminating 1 DoA MCP-PIP Joints |
Finger_Index |
linkage coupling of two joints |
The mechanical design of a biologically inspired prosthetic hand, the touch hand 3 |
Touch Hand 3
|
Fourie, R.
|
Eliminating 1 DoA MCP-PIP Joints |
Finger_Middle |
linkage coupling of two joints |
The mechanical design of a biologically inspired prosthetic hand, the touch hand 3 |
Touch Hand 3
|
Fourie, R.
|
Eliminating 1 DoA MCP-PIP Joints |
Finger_Ring-Little |
linkage coupling of two joints |
The mechanical design of a biologically inspired prosthetic hand, the touch hand 3 |
Touch Hand 3
|
Fourie, R.
|
Eliminating 1 DoA MCP-PIP Joints |
Finger_Index |
linkage coupling of two joints |
Design of Multi-Grip Patterns Prosthetic Hand With Single Actuator |
Wattanasiri Hand
|
Wattanasiri, P.
|
Eliminating 1 DoA MCP-PIP Joints |
Finger_Middle |
linkage coupling of two joints |
Design of Multi-Grip Patterns Prosthetic Hand With Single Actuator |
Wattanasiri Hand
|
Wattanasiri, P.
|
Eliminating 1 DoA MCP-PIP Joints |
Finger_Ring-Little |
linkage coupling of two joints |
Design of Multi-Grip Patterns Prosthetic Hand With Single Actuator |
Wattanasiri Hand
|
Wattanasiri, P.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Index |
linkage coupling of two joints |
Development of Bio-mimetic Robot Hand Using Parallel Mechanisms |
Lee Bio-mimetic Robot Hand
|
Lee, S.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Middle |
linkage coupling of two joints |
Development of Bio-mimetic Robot Hand Using Parallel Mechanisms |
Lee Bio-mimetic Robot Hand
|
Lee, S.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Ring-Little |
linkage coupling of two joints |
Development of Bio-mimetic Robot Hand Using Parallel Mechanisms |
Lee Bio-mimetic Robot Hand
|
Lee, S.
|
Eliminating 1 DoA MCP-PIP Joints |
Finger_Ring-Little |
linkage coupling of two joints |
Development of Bio-mimetic Robot Hand Using Parallel Mechanisms |
Lee Bio-mimetic Robot Hand
|
Lee, S.
|
Eliminating 1 DoA MCP-PIP Joints |
Finger_Index |
linkage coupling of two joints |
Development of Bio-mimetic Robot Hand Using Parallel Mechanisms |
Lee Bio-mimetic Robot Hand
|
Lee, S.
|
Eliminating 1 DoA MCP-PIP Joints |
Finger_Middle |
linkage coupling of two joints |
Development of Bio-mimetic Robot Hand Using Parallel Mechanisms |
Lee Bio-mimetic Robot Hand
|
Lee, S.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
The SPRING Hand: Development of a Self-Adaptive Prosthesis for Restoring Natural Grasping |
SPRING Hand
|
Carrozza, M. C.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
The SPRING Hand: Development of a Self-Adaptive Prosthesis for Restoring Natural Grasping |
SPRING Hand
|
Carrozza, M. C.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
The SPRING Hand: Development of a Self-Adaptive Prosthesis for Restoring Natural Grasping |
SPRING Hand
|
Carrozza, M. C.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
The SPRING Hand: Development of a Self-Adaptive Prosthesis for Restoring Natural Grasping |
SPRING Hand
|
Carrozza, M. C.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Index |
closed hinge joint |
The SPRING Hand: Development of a Self-Adaptive Prosthesis for Restoring Natural Grasping |
SPRING Hand
|
Carrozza, M. C.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Middle |
closed hinge joint |
The SPRING Hand: Development of a Self-Adaptive Prosthesis for Restoring Natural Grasping |
SPRING Hand
|
Carrozza, M. C.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
The SPRING Hand: Development of a Self-Adaptive Prosthesis for Restoring Natural Grasping |
SPRING Hand
|
Carrozza, M. C.
|
MCP Mechanical Joint Design (1 DoF) |
Thumb |
closed hinge joint |
The SPRING Hand: Development of a Self-Adaptive Prosthesis for Restoring Natural Grasping |
SPRING Hand
|
Carrozza, M. C.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
Innovative Human-Like Dual Robotic Hand Mechatronic Design and its Chess-Playing Experiment |
NTU Hand
|
Huang, MB.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
Innovative Human-Like Dual Robotic Hand Mechatronic Design and its Chess-Playing Experiment |
NTU Hand
|
Huang, MB.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
Innovative Human-Like Dual Robotic Hand Mechatronic Design and its Chess-Playing Experiment |
NTU Hand
|
Huang, MB.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
Innovative Human-Like Dual Robotic Hand Mechatronic Design and its Chess-Playing Experiment |
NTU Hand
|
Huang, MB.
|
MCP Mechanical Joint Design (1 DoF) |
Thumb |
closed hinge joint |
Innovative Human-Like Dual Robotic Hand Mechatronic Design and its Chess-Playing Experiment |
NTU Hand
|
Huang, MB.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Middle |
closed hinge joint |
Innovative Human-Like Dual Robotic Hand Mechatronic Design and its Chess-Playing Experiment |
NTU Hand
|
Huang, MB.
|
MCP Mechanical Joint Design (1 DoF) |
Thumb |
open hinge joint |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
The Robonaut 2 hand - designed to do work with tools |
Robonaut Hand 2
|
Bridgwater, L. B.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
The Robonaut 2 hand - designed to do work with tools |
Robonaut Hand 2
|
Bridgwater, L. B.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
The Robonaut 2 hand - designed to do work with tools |
Robonaut Hand 2
|
Bridgwater, L. B.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
The Robonaut 2 hand - designed to do work with tools |
Robonaut Hand 2
|
Bridgwater, L. B.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
Design of the Utah/M.I.T. Dextrous Hand |
Utah/MIT Hand
|
Jacobsen, S.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
Design of the Utah/M.I.T. Dextrous Hand |
Utah/MIT Hand
|
Jacobsen, S.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
Design of the Utah/M.I.T. Dextrous Hand |
Utah/MIT Hand
|
Jacobsen, S.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
Design of the Utah/M.I.T. Dextrous Hand |
Utah/MIT Hand
|
Jacobsen, S.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
Design and control of a three-fingered tendon-driven robotic hand with active and passive tendons |
Auton Robot Hand
|
Ozawa, R.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
Design and control of a three-fingered tendon-driven robotic hand with active and passive tendons |
Auton Robot Hand
|
Ozawa, R.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
Design and control of a three-fingered tendon-driven robotic hand with active and passive tendons |
Auton Robot Hand
|
Ozawa, R.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
The DEXMART hand: Mechatronic design and experimental evaluation of synergy-based control for human-like grasping |
Dexmart Hand
|
Palli, G.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
The DEXMART hand: Mechatronic design and experimental evaluation of synergy-based control for human-like grasping |
Dexmart Hand
|
Palli, G.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
The DEXMART hand: Mechatronic design and experimental evaluation of synergy-based control for human-like grasping |
Dexmart Hand
|
Palli, G.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
The DEXMART hand: Mechatronic design and experimental evaluation of synergy-based control for human-like grasping |
Dexmart Hand
|
Palli, G.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Index |
pin joint and open hinge joint |
The DEXMART hand: Mechatronic design and experimental evaluation of synergy-based control for human-like grasping |
Dexmart Hand
|
Palli, G.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Middle |
pin joint and open hinge joint |
The DEXMART hand: Mechatronic design and experimental evaluation of synergy-based control for human-like grasping |
Dexmart Hand
|
Palli, G.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Ring-Little |
pin joint and open hinge joint |
The DEXMART hand: Mechatronic design and experimental evaluation of synergy-based control for human-like grasping |
Dexmart Hand
|
Palli, G.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
The KIT Prosthetic Hand: Design and Control |
KIT Prosthetic Hand
|
Weiner, P.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
The KIT Prosthetic Hand: Design and Control |
KIT Prosthetic Hand
|
Weiner, P.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
The KIT Prosthetic Hand: Design and Control |
KIT Prosthetic Hand
|
Weiner, P.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
The KIT Prosthetic Hand: Design and Control |
KIT Prosthetic Hand
|
Weiner, P.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Index |
closed hinge joint |
The KIT Prosthetic Hand: Design and Control |
KIT Prosthetic Hand
|
Weiner, P.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Middle |
closed hinge joint |
The KIT Prosthetic Hand: Design and Control |
KIT Prosthetic Hand
|
Weiner, P.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
The KIT Prosthetic Hand: Design and Control |
KIT Prosthetic Hand
|
Weiner, P.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
Design of a cybernetic hand for perception and action |
CyberHand
|
Carrozza, M. C.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
Design of a cybernetic hand for perception and action |
CyberHand
|
Carrozza, M. C.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
Design of a cybernetic hand for perception and action |
CyberHand
|
Carrozza, M. C.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
Design of a cybernetic hand for perception and action |
CyberHand
|
Carrozza, M. C.
|
MCP Mechanical Joint Design (1 DoF) |
Thumb |
closed hinge joint |
Design of a cybernetic hand for perception and action |
CyberHand
|
Carrozza, M. C.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
The SmartHand transradial prosthesis |
SmartHand
|
Cipriani, C.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
The SmartHand transradial prosthesis |
SmartHand
|
Cipriani, C.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
The SmartHand transradial prosthesis |
SmartHand
|
Cipriani, C.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
The SmartHand transradial prosthesis |
SmartHand
|
Cipriani, C.
|
MCP Mechanical Joint Design (1 DoF) |
Thumb |
closed hinge joint |
The SmartHand transradial prosthesis |
SmartHand
|
Cipriani, C.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Index |
closed hinge joint |
The SmartHand transradial prosthesis |
SmartHand
|
Cipriani, C.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Middle |
closed hinge joint |
The SmartHand transradial prosthesis |
SmartHand
|
Cipriani, C.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
The SmartHand transradial prosthesis |
SmartHand
|
Cipriani, C.
|
Eliminating 1 HMC Joint DoF |
Kinetic-Base-Chain |
Implementing joined HMC for Little-Ring Finger |
An Affordable Linkage-and-Tendon Hybrid-Driven Anthropomorphic Robotic Hand—MCR-Hand II |
MCR Hand II
|
Yang, H.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
rolling-contact joint |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
rolling-contact joint |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
rolling-contact joint |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Index |
rolling-contact joint |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Middle |
rolling-contact joint |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Ring-Little |
rolling-contact joint |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
TMC Joint Mechanical Design (2 DoF) |
Thumb |
rolling-contact joint |
Toward Dexterous Manipulation With Augmented Adaptive Synergies: The Pisa/IIT SoftHand 2 |
PISA/IIT Softhand 2
|
Santina, C.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
open hinge joint |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
open hinge joint |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
open hinge joint |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
open hinge joint |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Index |
closed hinge joint |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Middle |
closed hinge joint |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Ring-Little |
closed hinge joint |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
Development of multi-fingered universal robot hand with torque limiter mechanism |
Universal Robot Hand II
|
Fukui, F.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
Development of multi-fingered universal robot hand with torque limiter mechanism |
Universal Robot Hand II
|
Fukui, F.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
Development of multi-fingered universal robot hand with torque limiter mechanism |
Universal Robot Hand II
|
Fukui, F.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
Development of multi-fingered universal robot hand with torque limiter mechanism |
Universal Robot Hand II
|
Fukui, F.
|
MCP Mechanical Joint Design (1 DoF) |
Thumb |
closed hinge joint |
Development of multi-fingered universal robot hand with torque limiter mechanism |
Universal Robot Hand II
|
Fukui, F.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
compliant joint |
The SDM Hand as a Prosthetic Terminal Device: A Feasibility Study |
SDM Hand
|
Dollar, Aaron M.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
compliant joint |
The SDM Hand as a Prosthetic Terminal Device: A Feasibility Study |
SDM Hand
|
Dollar, Aaron M.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
compliant joint |
The SDM Hand as a Prosthetic Terminal Device: A Feasibility Study |
SDM Hand
|
Dollar, Aaron M.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
compliant joint |
The SDM Hand as a Prosthetic Terminal Device: A Feasibility Study |
SDM Hand
|
Dollar, Aaron M.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Index |
compliant joint |
The SDM Hand as a Prosthetic Terminal Device: A Feasibility Study |
SDM Hand
|
Dollar, Aaron M.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Middle |
compliant joint |
The SDM Hand as a Prosthetic Terminal Device: A Feasibility Study |
SDM Hand
|
Dollar, Aaron M.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Ring-Little |
compliant joint |
The SDM Hand as a Prosthetic Terminal Device: A Feasibility Study |
SDM Hand
|
Dollar, Aaron M.
|
MCP Mechanical Joint Design (1 DoF) |
Thumb |
compliant joint |
The SDM Hand as a Prosthetic Terminal Device: A Feasibility Study |
SDM Hand
|
Dollar, Aaron M.
|
Eliminating 1 DOA Flexion-Extension LF-RF |
Transmission |
Tendon Underactuation flexion/extension LF-RF |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
Eliminating 4 DOA Flexion-Extension LF-RF-MF-IF-Tb |
Transmission |
Tendon Underactuation flexion/extension LF-RF-MF-IF-Tb |
An anthropomorphic underactuated robotic hand with 15 dofs and a single actuator |
Goesslin Hand
|
Gosselin, C.
|
Eliminating 4 DOA Flexion-Extension LF-RF-MF-IF-Tb |
Transmission |
Tendon Underactuation flexion/extension LF-RF-MF-IF-Tb |
Novel differential mechanism enabling two DOF from a single actuator: Application to a prosthetic hand |
Belter Hand
|
Belter, JT.
|
Eliminating 3 DOA Flexion-Extension LF-RF-MF-IF |
Transmission |
Tendon Underactuation flexion/extension LF-RF-MF-IF |
Open-source, anthropomorphic, underactuated robot hands with a selectively lockable differential mechanism: Towards affordable prostheses |
Kontoudis Hand
|
Kontoudis, GP.
|
Eliminating 1 DOA Flexion-Extension MF-IF |
Transmission |
Tendon Underactuation flexion/extension MF-IF |
The SPRING Hand: Development of a Self-Adaptive Prosthesis for Restoring Natural Grasping |
SPRING Hand
|
Carrozza, M. C.
|
Eliminating 1 DOA Flexion-Extension LF-RF |
Transmission |
Tendon Underactuation flexion/extension LF-RF |
Design of a Multifunctional Anthropomorphic Prosthetic Hand With Extrinsic Actuation |
Vanderbilt Hand
|
Dalley, SA.
|
Eliminating 4 DOA Flexion-Extension LF-RF-MF-IF-Tb |
Transmission |
Tendon Underactuation flexion/extension LF-RF-MF-IF-Tb |
Underactuated five-finger prosthetic hand inspired by grasping force distribution of humans |
Kamikawa prosthetic hand
|
Kamikawa, Yasushika
|
Type of Underactuation Interfinger |
Transmission |
seesaw bar |
Underactuated five-finger prosthetic hand inspired by grasping force distribution of humans |
Kamikawa prosthetic hand
|
Kamikawa, Yasushika
|
Eliminating 1 DOA Flexion-Extension MF-IF |
Transmission |
Tendon Underactuation flexion/extension MF-IF |
Experimental analysis of an innovative prosthetic hand with proprioceptive sensors |
RTR Hand II
|
Carrozza, M. C.
|
Eliminating 3 DOA Flexion-Extension LF-RF-MF-IF |
Transmission |
Tendon Underactuation flexion/extension LF-RF-MF-IF |
The SDM Hand as a Prosthetic Terminal Device: A Feasibility Study |
SDM Hand
|
Dollar, Aaron M.
|
Eliminating 4 DOA Flexion-Extension LF-RF-MF-IF-Tb |
Transmission |
Tendon Underactuation flexion/extension LF-RF-MF-IF-Tb |
An underactuated mechanical hand: A first prototype
|
Niola Hand
|
Niola, V.
|
Type of Underactuation Interfinger |
Transmission |
The movable pulley |
An underactuated mechanical hand: A first prototype
|
Niola Hand
|
Niola, V.
|
Eliminating 3 DOA Flexion-Extension LF-RF-MF-IF |
Transmission |
Tendon Underactuation flexion/extension LF-RF-MF-IF |
On the Design of a Mechanically Programmable Underactuated Anthropomorphic Prosthetic Gripper |
Baril Hand
|
Baril, M.
|
Type of Underactuation Interfinger |
Transmission |
seesaw bar |
On the Design of a Mechanically Programmable Underactuated Anthropomorphic Prosthetic Gripper |
Baril Hand
|
Baril, M.
|
Type of Underactuation Interfinger |
Transmission |
seesaw bar |
Design of the TUAT/Karlsruhe humanoid hand |
TUAT/Karlsruhe Hand
|
Fukaya, N.
|
Eliminating 4 DOA Flexion-Extension LF-RF-MF-IF-Tb |
Transmission |
Tendon Underactuation flexion/extension LF-RF-MF-IF-Tb |
Design of the TUAT/Karlsruhe humanoid hand |
TUAT/Karlsruhe Hand
|
Fukaya, N.
|
Type of Underactuation Interfinger |
Transmission |
seesaw bar |
The design of anthropomorphic prosthetic hands: A study of the Southampton Hand |
Southampton hand
|
Kyberd, P. J.
|
Eliminating 2 DOA Flexion-Extension RF-MF-IF |
Transmission |
Tendon Underactuation flexion/extension RF-MF-IF |
The design of anthropomorphic prosthetic hands: A study of the Southampton Hand |
Southampton hand
|
Kyberd, P. J.
|
Eliminating 3 DOA Flexion-Extension LF-RF-MF-IF |
Transmission |
Tendon Underactuation flexion/extension LF-RF-MF-IF |
Design of a Lightweight Single-Actuator Multi-Grasp Prosthetic Hand With Force Magnification |
MGM Hand
|
Liu, H.
|
Type of Underactuation Interfinger |
Transmission |
moveable pulley and seesaw bar |
Underactuated tendon-driven robotic/prosthetic hands: design issues |
Mottard Hand
|
Mottard, A.
|
Eliminating 3 DOA Flexion-Extension LF-RF-MF-IF |
Transmission |
Tendon Underactuation flexion/extension LF-RF-MF-IF |
Underactuated tendon-driven robotic/prosthetic hands: design issues |
Mottard Hand
|
Mottard, A.
|
Type of Underactuation Interfinger |
Transmission |
seesaw bar |
Force-directed design of a voluntary closing hand prosthesis |
Visser Hand
|
Visser, H.
|
Eliminating 2 DOA Flexion-Extension RF-MF-IF |
Transmission |
Tendon Underactuation flexion/extension RF-MF-IF |
Force-directed design of a voluntary closing hand prosthesis |
Visser Hand
|
Visser, H.
|
Type of Underactuation Interfinger |
Transmission |
seesaw bar |
Design Principle of a Dual-Actuated Robotic Hand With Anthropomorphic Self-Adaptive Grasping and Dexterous Manipulation Abilities |
mini X-hand
|
Sun, B-Y
|
Eliminating 3 DOA Flexion-Extension LF-RF-MF-IF |
Transmission |
Tendon Underactuation flexion/extension LF-RF-MF-IF |
Design Principle of a Dual-Actuated Robotic Hand With Anthropomorphic Self-Adaptive Grasping and Dexterous Manipulation Abilities |
mini X-hand
|
Sun, B-Y
|
Eliminating 3 DOA Flexion-Extension LF-RF-MF-IF |
Transmission |
Tendon Underactuation flexion/extension LF-RF-MF-IF |
The KIT Prosthetic Hand: Design and Control |
KIT Prosthetic Hand
|
Weiner, P.
|
Type of Underactuation Interfinger |
Transmission |
compliant differential coupling |
Design of a simplified compliant anthropomorphic robot hand |
SCCA Hand
|
Wiste, T.
|
Eliminating 1 DOA Flexion-Extension LF-RF |
Transmission |
Tendon Underactuation flexion/extension LF-RF |
Design of a simplified compliant anthropomorphic robot hand |
SCCA Hand
|
Wiste, T.
|
TMC Joint Position |
Kinetic-Base-Chain |
Anthropomorphic Position |
In Vivo Validation of a Realistic Kinematic Model for the Trapezio-Metacarpal Joint Using an Optoelectronic System |
|
Cerveri, P.
|
Improving Opposition |
Finger_Index |
Inclination of MCP Joint |
In Vivo Validation of a Realistic Kinematic Model for the Trapezio-Metacarpal Joint Using an Optoelectronic System |
|
Cerveri, P.
|
Improving Opposition |
Finger_Middle |
Inclination of MCP Joint |
In Vivo Validation of a Realistic Kinematic Model for the Trapezio-Metacarpal Joint Using an Optoelectronic System |
|
Cerveri, P.
|
Improving Opposition |
Finger_Ring-Little |
Inclination of MCP Joint |
In Vivo Validation of a Realistic Kinematic Model for the Trapezio-Metacarpal Joint Using an Optoelectronic System |
|
Cerveri, P.
|
HMC Joint Position |
Kinetic-Base-Chain |
Anthropomorphic Position |
In Vivo Validation of a Realistic Kinematic Model for the Trapezio-Metacarpal Joint Using an Optoelectronic System |
|
Cerveri, P.
|
MCP Joint Position |
Kinetic-Base-Chain |
Anthropomorphic Position |
In Vivo Validation of a Realistic Kinematic Model for the Trapezio-Metacarpal Joint Using an Optoelectronic System |
|
Cerveri, P.
|
Eliminating 3 DoA TMC-MCP-IP Joints |
Thumb |
linkage underactuation of three joints |
Design of Spatial Adaptive Fingered Gripper Using Spherical Five-Bar Mechanis |
|
Tae-Uk, Kim
|
Proportion of covered area |
Housing |
full Fingercover |
Design of anthropomorphic dexterous hand with passive joints and sensitive soft skins |
|
Iwata, H.
|
Adaptation |
Housing |
Soft Tissue/ Pads (one material) |
Design of anthropomorphic dexterous hand with passive joints and sensitive soft skins |
|
Iwata, H.
|
Proportion of covered area |
Housing |
partial cover |
CATCH-919 Hand: Design of a 9-actuator 19-DOF Anthropomorphic Robotic Hand |
Catch-919 Hand
|
Zhang, Z.
|
Proportion of covered area |
Housing |
partial cover |
Covering a Robot Fingertip With uSkin: A Soft Electronic Skin With Distributed 3-Axis Force Sensitive Elements for Robot Hands |
|
Tomo, T.P.
|
Contact material (Skin) |
Housing |
PU |
Distal Hyperextension Is Handy: High Range of Motion in Cluttered Environments |
|
Ruotolo, W.
|
Contact material (Skin) |
Housing |
Silicon |
Developing an artificial fingertip with human friction properties |
|
Shao, F.
|
Contact material (Skin) |
Housing |
Silicon |
Reliable object handover through tactile force sensing and effort control in the Shadow Robot hand |
Shadow Hand
|
Gomez Eguiluz, A.
|
Adaptation |
Housing |
Filled Pads (different material than skin) |
Soft Robotic Fingertips |
|
Shimoga, K. B.
Godenberg, A. A.
|
Finger Size |
Finger_Index |
human-like relations |
Dorsal and palmar aspect dimensions of hand anthropometry for designing hand tools and protections |
|
Vergara, M.
|
Finger Size |
Finger_Middle |
human-like relations |
Dorsal and palmar aspect dimensions of hand anthropometry for designing hand tools and protections |
|
Vergara, M.
|
Finger Size |
Finger_Ring-Little |
human-like relations |
Dorsal and palmar aspect dimensions of hand anthropometry for designing hand tools and protections |
|
Vergara, M.
|
Finger Size |
Thumb |
human-like relations |
Dorsal and palmar aspect dimensions of hand anthropometry for designing hand tools and protections |
|
Vergara, M.
|
Phalanx Length |
Finger_Index |
human-like relations |
Anthropometric data for describing the kinematics of the human hand |
|
Buchholz, B.
|
Phalanx Length |
Finger_Middle |
human-like relations |
Anthropometric data for describing the kinematics of the human hand |
|
Buchholz, B.
|
Phalanx Length |
Finger_Ring-Little |
human-like relations |
Anthropometric data for describing the kinematics of the human hand |
|
Buchholz, B.
|
Phalanx Length |
Thumb |
human-like relations |
Anthropometric data for describing the kinematics of the human hand |
|
Buchholz, B.
|
Phalanx Length |
Finger_Index |
human-like relations |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
Phalanx Length |
Finger_Middle |
human-like relations |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
Phalanx Length |
Finger_Ring-Little |
human-like relations |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
Phalanx Length |
Finger_Index |
human-like relations |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
Phalanx Length |
Finger_Middle |
human-like relations |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
Phalanx Length |
Finger_Ring-Little |
human-like relations |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
Phalanx Length |
Finger_Index |
human-like relations |
A Novel Monolithic Soft Robotic Thumb for an Anthropomorphic Prosthetic Hand |
Uow/ACES Hand
|
Zhou, H.
|
Phalanx Length |
Finger_Middle |
human-like relations |
A Novel Monolithic Soft Robotic Thumb for an Anthropomorphic Prosthetic Hand |
Uow/ACES Hand
|
Zhou, H.
|
Phalanx Length |
Finger_Ring-Little |
human-like relations |
A Novel Monolithic Soft Robotic Thumb for an Anthropomorphic Prosthetic Hand |
Uow/ACES Hand
|
Zhou, H.
|
Phalanx Length |
Finger_Index |
human-like relations |
Design of a Highly Biomimetic Anthropomorphic Robotic Hand towards Artificial Limb Regeneration |
Xu biomimetic robotic hand
|
Xu, Z.
|
Phalanx Length |
Finger_Middle |
human-like relations |
Design of a Highly Biomimetic Anthropomorphic Robotic Hand towards Artificial Limb Regeneration |
Xu biomimetic robotic hand
|
Xu, Z.
|
Phalanx Length |
Finger_Ring-Little |
human-like relations |
Design of a Highly Biomimetic Anthropomorphic Robotic Hand towards Artificial Limb Regeneration |
Xu biomimetic robotic hand
|
Xu, Z.
|
Phalanx Design |
Finger_Index |
Artificial Bone |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
Phalanx Design |
Finger_Middle |
Artificial Bone |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
Phalanx Design |
Finger_Ring-Little |
Artificial Bone |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
Phalanx Design |
Thumb |
Artificial Bone |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
Phalanx Design |
Finger_Index |
Artificial Bone |
Design of a Highly Biomimetic Anthropomorphic Robotic Hand towards Artificial Limb Regeneration |
Xu biomimetic robotic hand
|
Xu, Z.
|
Phalanx Design |
Finger_Middle |
Artificial Bone |
Design of a Highly Biomimetic Anthropomorphic Robotic Hand towards Artificial Limb Regeneration |
Xu biomimetic robotic hand
|
Xu, Z.
|
Phalanx Design |
Finger_Ring-Little |
Artificial Bone |
Design of a Highly Biomimetic Anthropomorphic Robotic Hand towards Artificial Limb Regeneration |
Xu biomimetic robotic hand
|
Xu, Z.
|
Phalanx Design |
Thumb |
Artificial Bone |
Design of a Highly Biomimetic Anthropomorphic Robotic Hand towards Artificial Limb Regeneration |
Xu biomimetic robotic hand
|
Xu, Z.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Index |
tendon underactuation of three joints |
An anthropomorphic underactuated robotic hand with 15 dofs and a single actuator |
Goesslin Hand
|
Gosselin, C.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Middle |
tendon underactuation of three joints |
An anthropomorphic underactuated robotic hand with 15 dofs and a single actuator |
Goesslin Hand
|
Gosselin, C.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Ring-Little |
tendon underactuation of three joints |
An anthropomorphic underactuated robotic hand with 15 dofs and a single actuator |
Goesslin Hand
|
Gosselin, C.
|
Eliminating 2 DoA TMC-MCP-IP Joints |
Thumb |
tendon underactuation of three joints |
An anthropomorphic underactuated robotic hand with 15 dofs and a single actuator |
Goesslin Hand
|
Gosselin, C.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
Design and simulation of an underactuated finger mechanism for LARM Hand
|
LARM Hand
|
Ceccarelli, M.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
Design and simulation of an underactuated finger mechanism for LARM Hand
|
LARM Hand
|
Ceccarelli, M.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
Design and simulation of an underactuated finger mechanism for LARM Hand
|
LARM Hand
|
Ceccarelli, M.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
Design and simulation of an underactuated finger mechanism for LARM Hand
|
LARM Hand
|
Ceccarelli, M.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Index |
tendon underactuation of three joints |
Design and simulation of an underactuated finger mechanism for LARM Hand
|
LARM Hand
|
Ceccarelli, M.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Middle |
tendon underactuation of three joints |
Design and simulation of an underactuated finger mechanism for LARM Hand
|
LARM Hand
|
Ceccarelli, M.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Ring-Little |
tendon underactuation of three joints |
Design and simulation of an underactuated finger mechanism for LARM Hand
|
LARM Hand
|
Ceccarelli, M.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Thumb |
tendon underactuation of three joints |
Design and simulation of an underactuated finger mechanism for LARM Hand
|
LARM Hand
|
Ceccarelli, M.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
Development of a tendon-driven robotic finger for an anthropomorphic robotic hand |
|
Shirafuji, S.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
Development of a tendon-driven robotic finger for an anthropomorphic robotic hand |
|
Shirafuji, S.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
Development of a tendon-driven robotic finger for an anthropomorphic robotic hand |
|
Shirafuji, S.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
Development of a tendon-driven robotic finger for an anthropomorphic robotic hand |
|
Shirafuji, S.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
Intelligent Multi-fingered Dexterous Hand Using Virtual Reality (VR) and Robot Operating System (ROS) |
Inmoov Hand
|
Suresh, A.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
Intelligent Multi-fingered Dexterous Hand Using Virtual Reality (VR) and Robot Operating System (ROS) |
Inmoov Hand
|
Suresh, A.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
Intelligent Multi-fingered Dexterous Hand Using Virtual Reality (VR) and Robot Operating System (ROS) |
Inmoov Hand
|
Suresh, A.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
Intelligent Multi-fingered Dexterous Hand Using Virtual Reality (VR) and Robot Operating System (ROS) |
Inmoov Hand
|
Suresh, A.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
The “Federica” Hand |
Federica Hand
|
Esposito, D.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
The “Federica” Hand |
Federica Hand
|
Esposito, D.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
The “Federica” Hand |
Federica Hand
|
Esposito, D.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
The “Federica” Hand |
Federica Hand
|
Esposito, D.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
Nadine: A Social Robot that Can Localize Objects and Grasp Them in a Human Way |
Nadine Hand
|
Thalmann, N.M.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
Nadine: A Social Robot that Can Localize Objects and Grasp Them in a Human Way |
Nadine Hand
|
Thalmann, N.M.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
Nadine: A Social Robot that Can Localize Objects and Grasp Them in a Human Way |
Nadine Hand
|
Thalmann, N.M.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
Nadine: A Social Robot that Can Localize Objects and Grasp Them in a Human Way |
Nadine Hand
|
Thalmann, N.M.
|
IP Joint Structual Design (1 DOF) |
Finger_Index |
closed hinge joint |
The Making of a 3D-Printed, Cable-Driven, Single-Model, Lightweight Humanoid Robotic Hand |
Nadine Hand (Li modified)
|
Tian, L.
|
IP Joint Structual Design (1 DOF) |
Finger_Middle |
closed hinge joint |
The Making of a 3D-Printed, Cable-Driven, Single-Model, Lightweight Humanoid Robotic Hand |
Nadine Hand (Li modified)
|
Tian, L.
|
IP Joint Structual Design (1 DOF) |
Finger_Ring-Little |
closed hinge joint |
The Making of a 3D-Printed, Cable-Driven, Single-Model, Lightweight Humanoid Robotic Hand |
Nadine Hand (Li modified)
|
Tian, L.
|
IP Joint Structual Design (1 DOF) |
Thumb |
closed hinge joint |
The Making of a 3D-Printed, Cable-Driven, Single-Model, Lightweight Humanoid Robotic Hand |
Nadine Hand (Li modified)
|
Tian, L.
|
Eliminating 4 DOA Flexion-Extension LF-RF-MF-IF-Tb |
Transmission |
Tendon Underactuation flexion/extension LF-RF-MF-IF-Tb |
The “Federica” Hand |
Federica Hand
|
Esposito, D.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Index |
tendon underactuation of three joints |
The “Federica” Hand |
Federica Hand
|
Esposito, D.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Middle |
tendon underactuation of three joints |
The “Federica” Hand |
Federica Hand
|
Esposito, D.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Ring-Little |
tendon underactuation of three joints |
The “Federica” Hand |
Federica Hand
|
Esposito, D.
|
Eliminating 2 DoA TMC-MCP-IP Joints |
Thumb |
tendon underactuation of three joints |
The “Federica” Hand |
Federica Hand
|
Esposito, D.
|
Type of Underactuation Interfinger |
Transmission |
The movable pulley |
The “Federica” Hand |
Federica Hand
|
Esposito, D.
|
Type of Underactuation Interfinger |
Transmission |
seesaw bar |
The “Federica” Hand |
Federica Hand
|
Esposito, D.
|
Type of Underactuation Interfinger |
Transmission |
seesaw bar |
A highly-underactuated robotic hand with force and joint angle sensors |
Columbia Hand
|
Wang, L.
|
Eliminating 2 DoA Flexion/Extension MF-IF-Tb |
Transmission |
Tendon Underactuation flexion/extension MF-IF-Tb |
A highly-underactuated robotic hand with force and joint angle sensors |
Columbia Hand
|
Wang, L.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Index |
tendon underactuation of three joints |
A highly-underactuated robotic hand with force and joint angle sensors |
Columbia Hand
|
Wang, L.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Middle |
tendon underactuation of three joints |
A highly-underactuated robotic hand with force and joint angle sensors |
Columbia Hand
|
Wang, L.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Thumb |
tendon underactuation of three joints |
A highly-underactuated robotic hand with force and joint angle sensors |
Columbia Hand
|
Wang, L.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Index |
linkage underactuation of two joints |
Development of Cable-driven Anthropomorphic Robot Hand |
Min Robot Hand
|
Min, S.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Middle |
linkage underactuation of two joints |
Development of Cable-driven Anthropomorphic Robot Hand |
Min Robot Hand
|
Min, S.
|
Eliminating 1 DoA PIP-DIP Joints |
Finger_Ring-Little |
linkage underactuation of two joints |
Development of Cable-driven Anthropomorphic Robot Hand |
Min Robot Hand
|
Min, S.
|
Eliminating 1 DoA MCP-PIP Joints |
Thumb |
linkage underactuation of two joints |
Development of Cable-driven Anthropomorphic Robot Hand |
Min Robot Hand
|
Min, S.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Index |
closed hinge joint |
DLR's multisensory articulated hand. I. Hard- and software architecture |
DLR Hand I
|
Butterfass, J.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Middle |
closed hinge joint |
DLR's multisensory articulated hand. I. Hard- and software architecture |
DLR Hand I
|
Butterfass, J.
|
MCP Joint Structual Design (2 DOF) |
Finger_Index |
2 axis orthogonal and intersecting - Abduction/Aduction below |
Design of the Utah/M.I.T. Dextrous Hand |
Utah/MIT Hand
|
Jacobsen, S.
|
MCP Joint Structual Design (2 DOF) |
Finger_Middle |
2 axis orthogonal and intersecting - Abduction/Aduction below |
Design of the Utah/M.I.T. Dextrous Hand |
Utah/MIT Hand
|
Jacobsen, S.
|
MCP Joint Structual Design (2 DOF) |
Finger_Ring-Little |
2 axis orthogonal and intersecting - Abduction/Aduction below |
Design of the Utah/M.I.T. Dextrous Hand |
Utah/MIT Hand
|
Jacobsen, S.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
Design of the Utah/M.I.T. Dextrous Hand |
Utah/MIT Hand
|
Jacobsen, S.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Index |
closed hinge joint |
Design of the Utah/M.I.T. Dextrous Hand |
Utah/MIT Hand
|
Jacobsen, S.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Middle |
closed hinge joint |
Design of the Utah/M.I.T. Dextrous Hand |
Utah/MIT Hand
|
Jacobsen, S.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Ring-Little |
closed hinge joint |
Design of the Utah/M.I.T. Dextrous Hand |
Utah/MIT Hand
|
Jacobsen, S.
|
TMC Joint Mechanical Design (2 DoF) |
Thumb |
closed hinge joint |
Design of the Utah/M.I.T. Dextrous Hand |
Utah/MIT Hand
|
Jacobsen, S.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Index |
closed hinge joint |
Anthropomorphic Joint Mechanism with Two Degrees of Freedom |
|
Choi, H.R.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Middle |
closed hinge joint |
Anthropomorphic Joint Mechanism with Two Degrees of Freedom |
|
Choi, H.R.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Ring-Little |
closed hinge joint |
Anthropomorphic Joint Mechanism with Two Degrees of Freedom |
|
Choi, H.R.
|
TMC Joint Mechanical Design (2 DoF) |
Thumb |
closed hinge joint |
Anthropomorphic Joint Mechanism with Two Degrees of Freedom |
|
Choi, H.R.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Index |
ball joint |
Design and analysis of an active 2-DOF lockable joint |
|
Riabtsev, M.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Middle |
ball joint |
Design and analysis of an active 2-DOF lockable joint |
|
Riabtsev, M.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Ring-Little |
ball joint |
Design and analysis of an active 2-DOF lockable joint |
|
Riabtsev, M.
|
TMC Joint Mechanical Design (2 DoF) |
Thumb |
ball joint |
Design and analysis of an active 2-DOF lockable joint |
|
Riabtsev, M.
|
TMC Joint Mechanical Design (2 DoF) |
Thumb |
ball joint |
A Low-cost and Modular, 20-DOF Anthropomorphic Robotic Hand: Design, Actuation and Modeling |
|
Xu, Z.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Index |
ball joint |
A Low-cost and Modular, 20-DOF Anthropomorphic Robotic Hand: Design, Actuation and Modeling |
|
Xu, Z.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Middle |
ball joint |
A Low-cost and Modular, 20-DOF Anthropomorphic Robotic Hand: Design, Actuation and Modeling |
|
Xu, Z.
|
MCP Joint Mechanical Design (2 DoF) |
Finger_Ring-Little |
ball joint |
A Low-cost and Modular, 20-DOF Anthropomorphic Robotic Hand: Design, Actuation and Modeling |
|
Xu, Z.
|
TMC Joint Mechanical Design (3 DoF) |
Thumb |
ball joint |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Eliminating 1 MCP Joint DoF |
Finger_Index |
Eliminating MCP Adduction/Abduction DOF |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Eliminating 1 MCP Joint DoF |
Finger_Middle |
Eliminating MCP Adduction/Abduction DOF |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Eliminating 1 MCP Joint DoF |
Finger_Ring-Little |
Eliminating MCP Adduction/Abduction DOF |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Index |
tendon coupling of three joints |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Middle |
tendon coupling of three joints |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Ring-Little |
tendon coupling of three joints |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
MCP Joint Structual Design (2 DOF) |
Finger_Index |
2 axis orthogonal and intersecting - Abduction/Aduction below |
DLR-Hand II: next generation of a dextrous robot hand |
DLR Hand II
|
Butterfass, J.
|
MCP Joint Structual Design (2 DOF) |
Finger_Middle |
2 axis orthogonal and intersecting - Abduction/Aduction below |
DLR-Hand II: next generation of a dextrous robot hand |
DLR Hand II
|
Butterfass, J.
|
MCP Joint Structual Design (2 DOF) |
Finger_Ring-Little |
2 axis orthogonal and intersecting - Abduction/Aduction below |
DLR-Hand II: next generation of a dextrous robot hand |
DLR Hand II
|
Butterfass, J.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis orthogonal and intersecting - Abduction/Aduction below |
DLR-Hand II: next generation of a dextrous robot hand |
DLR Hand II
|
Butterfass, J.
|
MCP Joint Structual Design (2 DOF) |
Finger_Index |
2 axis orthogonal and intersecting - Abduction/Aduction below |
Anthropomorphic Robot Hand: Gifu Hand III (narod.ru) |
Gifu Hand III
|
Mouri, T.
|
MCP Joint Structual Design (2 DOF) |
Finger_Middle |
2 axis orthogonal and intersecting - Abduction/Aduction below |
Anthropomorphic Robot Hand: Gifu Hand III (narod.ru) |
Gifu Hand III
|
Mouri, T.
|
MCP Joint Structual Design (2 DOF) |
Finger_Ring-Little |
2 axis orthogonal and intersecting - Abduction/Aduction below |
Anthropomorphic Robot Hand: Gifu Hand III (narod.ru) |
Gifu Hand III
|
Mouri, T.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis orthogonal and intersecting - Abduction/Aduction below |
Anthropomorphic Robot Hand: Gifu Hand III (narod.ru) |
Gifu Hand III
|
Mouri, T.
|
MCP Joint Structual Design (2 DOF) |
Finger_Index |
2 axis orthogonal and intersecting - Abduction/Aduction below |
- |
Gifu Hand II
|
Kawasaki, H.
|
MCP Joint Structual Design (2 DOF) |
Finger_Middle |
2 axis orthogonal and intersecting - Abduction/Aduction below |
- |
Gifu Hand II
|
Kawasaki, H.
|
MCP Joint Structual Design (2 DOF) |
Finger_Ring-Little |
2 axis orthogonal and intersecting - Abduction/Aduction below |
- |
Gifu Hand II
|
Kawasaki, H.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis orthogonal and intersecting - Abduction/Aduction below |
- |
Gifu Hand II
|
Kawasaki, H.
|
MCP Joint Structual Design (2 DOF) |
Finger_Index |
2 axis orthogonal and intersecting - Abduction/Aduction below |
The multifingered NAIST hand system for robot in-hand manipulation |
NAIST Hand
|
Ueda, J.
|
MCP Joint Structual Design (2 DOF) |
Finger_Middle |
2 axis orthogonal and intersecting - Abduction/Aduction below |
The multifingered NAIST hand system for robot in-hand manipulation |
NAIST Hand
|
Ueda, J.
|
MCP Joint Structual Design (2 DOF) |
Finger_Ring-Little |
2 axis orthogonal and intersecting - Abduction/Aduction below |
The multifingered NAIST hand system for robot in-hand manipulation |
NAIST Hand
|
Ueda, J.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis orthogonal and intersecting - Abduction/Aduction below |
The multifingered NAIST hand system for robot in-hand manipulation |
NAIST Hand
|
Ueda, J.
|
MCP Joint Structual Design (2 DOF) |
Finger_Index |
2 axis orthogonal and intersecting - Abduction/Adduction at top |
Multisensory five-finger dexterous hand: The DLR/HIT Hand II |
DLR/HIT Hand II
|
Liu, H.
|
MCP Joint Structual Design (2 DOF) |
Finger_Middle |
2 axis orthogonal and intersecting - Abduction/Adduction at top |
Multisensory five-finger dexterous hand: The DLR/HIT Hand II |
DLR/HIT Hand II
|
Liu, H.
|
MCP Joint Structual Design (2 DOF) |
Finger_Ring-Little |
2 axis orthogonal and intersecting - Abduction/Adduction at top |
Multisensory five-finger dexterous hand: The DLR/HIT Hand II |
DLR/HIT Hand II
|
Liu, H.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis orthogonal and intersecting - Abduction/Adduction at top |
Multisensory five-finger dexterous hand: The DLR/HIT Hand II |
DLR/HIT Hand II
|
Liu, H.
|
MCP Joint Structual Design (2 DOF) |
Finger_Index |
2 axis orthogonal and intersecting - Abduction/Adduction at top |
Design of the TUAT/Karlsruhe humanoid hand |
TUAT/Karlsruhe Hand
|
Fukaya, N.
|
MCP Joint Structual Design (2 DOF) |
Finger_Middle |
2 axis orthogonal and intersecting - Abduction/Adduction at top |
Design of the TUAT/Karlsruhe humanoid hand |
TUAT/Karlsruhe Hand
|
Fukaya, N.
|
MCP Joint Structual Design (2 DOF) |
Finger_Ring-Little |
2 axis orthogonal and intersecting - Abduction/Adduction at top |
Design of the TUAT/Karlsruhe humanoid hand |
TUAT/Karlsruhe Hand
|
Fukaya, N.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis orthogonal and intersecting - Abduction/Adduction at top |
Design of the TUAT/Karlsruhe humanoid hand |
TUAT/Karlsruhe Hand
|
Fukaya, N.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis orthogonal and non-intersecting - other configuration |
Design of anthropomorphic dexterous hand with passive joints and sensitive soft skins |
Twendy-One Hand
|
Iwata, H.
|
MCP Joint Structual Design (2 DOF) |
Finger_Index |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
MCP Joint Structual Design (2 DOF) |
Finger_Middle |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
MCP Joint Structual Design (2 DOF) |
Finger_Ring-Little |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
Design, realization and sensorization of the dexterous iCub hand |
iCub Hand
|
Schmitz, A.
|
MCP Joint Structual Design (2 DOF) |
Finger_Index |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
The DEXMART hand: Mechatronic design and experimental evaluation of synergy-based control for human-like grasping |
Dexmart Hand
|
Palli, G.
|
MCP Joint Structual Design (2 DOF) |
Finger_Middle |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
The DEXMART hand: Mechatronic design and experimental evaluation of synergy-based control for human-like grasping |
Dexmart Hand
|
Palli, G.
|
MCP Joint Structual Design (2 DOF) |
Finger_Ring-Little |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
The DEXMART hand: Mechatronic design and experimental evaluation of synergy-based control for human-like grasping |
Dexmart Hand
|
Palli, G.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
The DEXMART hand: Mechatronic design and experimental evaluation of synergy-based control for human-like grasping |
Dexmart Hand
|
Palli, G.
|
MCP Joint Structual Design (2 DOF) |
Finger_Index |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
NAIST hand 2: Human-sized anthropomorphic robot hand with detachable mechanism at the wrist |
NAIST Hand 2
|
Kurita, Y.
|
MCP Joint Structual Design (2 DOF) |
Finger_Middle |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
NAIST hand 2: Human-sized anthropomorphic robot hand with detachable mechanism at the wrist |
NAIST Hand 2
|
Kurita, Y.
|
MCP Joint Structual Design (2 DOF) |
Finger_Ring-Little |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
NAIST hand 2: Human-sized anthropomorphic robot hand with detachable mechanism at the wrist |
NAIST Hand 2
|
Kurita, Y.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
NAIST hand 2: Human-sized anthropomorphic robot hand with detachable mechanism at the wrist |
NAIST Hand 2
|
Kurita, Y.
|
MCP Joint Structual Design (2 DOF) |
Finger_Index |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
The Robonaut 2 hand - designed to do work with tools |
Robonaut Hand 2
|
Bridgwater, L. B.
|
MCP Joint Structual Design (2 DOF) |
Finger_Middle |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
The Robonaut 2 hand - designed to do work with tools |
Robonaut Hand 2
|
Bridgwater, L. B.
|
MCP Joint Strucutal Design (1 DOF) |
Finger_Ring-Little |
1 axis |
The Robonaut 2 hand - designed to do work with tools |
Robonaut Hand 2
|
Bridgwater, L. B.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
The Robonaut 2 hand - designed to do work with tools |
Robonaut Hand 2
|
Bridgwater, L. B.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis orthogonal and non-intersecting - Adduction/Abduction at top
|
Development and Control of a Multifunctional Prosthetic Hand with Shape Memory Alloy Actuators |
DARPA Extrinsic Hand
|
Andrianesis, K.
|
MCP Joint Strucutal Design (1 DOF) |
Finger_Index |
1 axis |
Development and Control of a Multifunctional Prosthetic Hand with Shape Memory Alloy Actuators |
DARPA Extrinsic Hand
|
Andrianesis, K.
|
MCP Joint Strucutal Design (1 DOF) |
Finger_Middle |
1 axis |
Development and Control of a Multifunctional Prosthetic Hand with Shape Memory Alloy Actuators |
DARPA Extrinsic Hand
|
Andrianesis, K.
|
MCP Joint Strucutal Design (1 DOF) |
Finger_Ring-Little |
1 axis |
Development and Control of a Multifunctional Prosthetic Hand with Shape Memory Alloy Actuators |
DARPA Extrinsic Hand
|
Andrianesis, K.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis orthogonal and non-intersecting - other configuration |
Bio-inspired mechanical design of a tendon-driven dexterous prosthetic hand |
ARTS Hand
|
Controzzi, M.
|
MCP Joint Strucutal Design (1 DOF) |
Thumb |
1 axis |
Bio-inspired mechanical design of a tendon-driven dexterous prosthetic hand |
ARTS Hand
|
Controzzi, M.
|
MCP Joint Strucutal Design (1 DOF) |
Thumb |
1 axis |
Anthropomorphic Robot Hand: Gifu Hand III (narod.ru) |
Gifu Hand III
|
Mouri, T.
|
MCP Joint Strucutal Design (1 DOF) |
Thumb |
1 axis |
DLR's multisensory articulated hand. I. Hard- and software architecture |
DLR Hand I
|
Butterfass, J.
|
MCP Joint Strucutal Design (1 DOF) |
Thumb |
1 axis |
Design of the NASA Robonaut Hand |
Robonaut Hand
|
Lovchik, C. V.
|
MCP Joint Strucutal Design (1 DOF) |
Thumb |
1 axis |
Approaching Human Performance |
Awiwi Hand
|
Grebenstein, M.
|
MCP Joint Strucutal Design (1 DOF) |
Thumb |
1 axis |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
TMC Joint Structual Design (3 DOF) |
Thumb |
3 axis - other configuration |
The modular multisensory DLR-HIT-Hand |
DLR/HIT Hand I
|
Liu, H.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Index |
tendon underactuation of three joints |
On the Design of Underactuated Finger Mechanisms for Robotic Hands |
|
Rea, P.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Middle |
tendon underactuation of three joints |
On the Design of Underactuated Finger Mechanisms for Robotic Hands |
|
Rea, P.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Ring-Little |
tendon underactuation of three joints |
On the Design of Underactuated Finger Mechanisms for Robotic Hands |
|
Rea, P.
|
Eliminating 2 DoA TMC-MCP-IP Joints |
Thumb |
tendon underactuation of three joints |
On the Design of Underactuated Finger Mechanisms for Robotic Hands |
|
Rea, P.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Index |
linkage underactuation of three joints |
On the Design of Underactuated Finger Mechanisms for Robotic Hands |
|
Rea, P.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Middle |
linkage underactuation of three joints |
On the Design of Underactuated Finger Mechanisms for Robotic Hands |
|
Rea, P.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Ring-Little |
linkage underactuation of three joints |
On the Design of Underactuated Finger Mechanisms for Robotic Hands |
|
Rea, P.
|
Eliminating 2 DoA TMC-MCP-IP Joints |
Thumb |
linkage underactuation of three joints |
On the Design of Underactuated Finger Mechanisms for Robotic Hands |
|
Rea, P.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Index |
linkage underactuation of three joints |
A fully rotational joint underactuated finger mechanism and its kinematics analysis |
|
Wu, L.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Middle |
linkage underactuation of three joints |
A fully rotational joint underactuated finger mechanism and its kinematics analysis |
|
Wu, L.
|
Eliminating 2 DoA MCP-PIP-DIP Joints |
Finger_Ring-Little |
linkage underactuation of three joints |
A fully rotational joint underactuated finger mechanism and its kinematics analysis |
|
Wu, L.
|
Eliminating 2 DoA TMC-MCP-IP Joints |
Thumb |
linkage underactuation of three joints |
A fully rotational joint underactuated finger mechanism and its kinematics analysis |
|
Wu, L.
|
TMC Joint Position |
Kinetic-Base-Chain |
Anthropomorphic Position |
EthoHand: A dexterous robotic hand with ball-joint thumb enables complex in-hand object manipulation |
Etho Hand
|
Konnaris, C.
|
TMC Joint Position |
Kinetic-Base-Chain |
Anthropomorphic Position |
Mechanisms of the Anatomically Correct Testbed Hand |
ACT Hand
|
Deshpande, A. D.
|
TMC Joint Position |
Kinetic-Base-Chain |
Anthropomorphic Position |
Design of a highly biomimetic anthropomorphic robotic hand towards artificial limb regeneration |
HBA Hand
|
Xu, Z.
|
TMC Joint Position |
Kinetic-Base-Chain |
Anthropomorphic Position |
A Novel Monolithic Soft Robotic Thumb for an Anthropomorphic Prosthetic Hand |
Uow/ACES Hand
|
Zhou, H.
|
TMC Joint Position |
Kinetic-Base-Chain |
variable positioning |
BEBIONIC PROSTHETIC DESIGN |
BEBIONIC Hand
|
Medynski, Courtney
|
TMC Joint Position |
Kinetic-Base-Chain |
variable positioning |
Prothetic hands from touch bionics |
I Limb Hand
|
Connolly, C.
|
TMC Joint Position |
Kinetic-Base-Chain |
variable positioning |
The New Dexterity Adaptive Humanlike Robot Hand: Employing a Reconfigurable Palm for Robust Grasping and Dexterous Manipulation |
New Dexterity Adaptive Humanlike Robot Hand
|
Gao, G.
|
MCP Joint Strucutal Design (1 DOF) |
Finger_Index |
1 axis |
The New Dexterity Adaptive Humanlike Robot Hand: Employing a Reconfigurable Palm for Robust Grasping and Dexterous Manipulation |
New Dexterity Adaptive Humanlike Robot Hand
|
Gao, G.
|
MCP Joint Strucutal Design (1 DOF) |
Finger_Middle |
1 axis |
The New Dexterity Adaptive Humanlike Robot Hand: Employing a Reconfigurable Palm for Robust Grasping and Dexterous Manipulation |
New Dexterity Adaptive Humanlike Robot Hand
|
Gao, G.
|
MCP Joint Strucutal Design (1 DOF) |
Finger_Ring-Little |
1 axis |
The New Dexterity Adaptive Humanlike Robot Hand: Employing a Reconfigurable Palm for Robust Grasping and Dexterous Manipulation |
New Dexterity Adaptive Humanlike Robot Hand
|
Gao, G.
|
MCP Joint Strucutal Design (1 DOF) |
Thumb |
1 axis |
The New Dexterity Adaptive Humanlike Robot Hand: Employing a Reconfigurable Palm for Robust Grasping and Dexterous Manipulation |
New Dexterity Adaptive Humanlike Robot Hand
|
Gao, G.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
The New Dexterity Adaptive Humanlike Robot Hand: Employing a Reconfigurable Palm for Robust Grasping and Dexterous Manipulation |
New Dexterity Adaptive Humanlike Robot Hand
|
Gao, G.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
The New Dexterity Adaptive Humanlike Robot Hand: Employing a Reconfigurable Palm for Robust Grasping and Dexterous Manipulation |
New Dexterity Adaptive Humanlike Robot Hand
|
Gao, G.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
The New Dexterity Adaptive Humanlike Robot Hand: Employing a Reconfigurable Palm for Robust Grasping and Dexterous Manipulation |
New Dexterity Adaptive Humanlike Robot Hand
|
Gao, G.
|
IP Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
The New Dexterity Adaptive Humanlike Robot Hand: Employing a Reconfigurable Palm for Robust Grasping and Dexterous Manipulation |
New Dexterity Adaptive Humanlike Robot Hand
|
Gao, G.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Index |
closed hinge joint |
The New Dexterity Adaptive Humanlike Robot Hand: Employing a Reconfigurable Palm for Robust Grasping and Dexterous Manipulation |
New Dexterity Adaptive Humanlike Robot Hand
|
Gao, G.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Middle |
closed hinge joint |
The New Dexterity Adaptive Humanlike Robot Hand: Employing a Reconfigurable Palm for Robust Grasping and Dexterous Manipulation |
New Dexterity Adaptive Humanlike Robot Hand
|
Gao, G.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
The New Dexterity Adaptive Humanlike Robot Hand: Employing a Reconfigurable Palm for Robust Grasping and Dexterous Manipulation |
New Dexterity Adaptive Humanlike Robot Hand
|
Gao, G.
|
MCP Mechanical Joint Design (1 DoF) |
Thumb |
closed hinge joint |
The New Dexterity Adaptive Humanlike Robot Hand: Employing a Reconfigurable Palm for Robust Grasping and Dexterous Manipulation |
New Dexterity Adaptive Humanlike Robot Hand
|
Gao, G.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis not orthogonal and non-intersecting - other configuration |
The New Dexterity Adaptive Humanlike Robot Hand: Employing a Reconfigurable Palm for Robust Grasping and Dexterous Manipulation |
New Dexterity Adaptive Humanlike Robot Hand
|
Gao, G.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis not orthogonal and non-intersecting - other configuration |
Design of an Underactuated Adptive Robotic Hand with Force Sensing |
FTN Hand
|
Savic, S.
|
MCP Joint Strucutal Design (1 DOF) |
Finger_Index |
1 axis |
Design of an Underactuated Adptive Robotic Hand with Force Sensing |
FTN Hand
|
Savic, S.
|
MCP Joint Strucutal Design (1 DOF) |
Finger_Middle |
1 axis |
Design of an Underactuated Adptive Robotic Hand with Force Sensing |
FTN Hand
|
Savic, S.
|
MCP Joint Strucutal Design (1 DOF) |
Finger_Ring-Little |
1 axis |
Design of an Underactuated Adptive Robotic Hand with Force Sensing |
FTN Hand
|
Savic, S.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Index |
closed hinge joint |
Design of an Underactuated Adptive Robotic Hand with Force Sensing |
FTN Hand
|
Savic, S.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Middle |
closed hinge joint |
Design of an Underactuated Adptive Robotic Hand with Force Sensing |
FTN Hand
|
Savic, S.
|
IP Joint Mechanical Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
Design of an Underactuated Adptive Robotic Hand with Force Sensing |
FTN Hand
|
Savic, S.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Index |
closed hinge joint |
Design of an Underactuated Adptive Robotic Hand with Force Sensing |
FTN Hand
|
Savic, S.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Middle |
closed hinge joint |
Design of an Underactuated Adptive Robotic Hand with Force Sensing |
FTN Hand
|
Savic, S.
|
MCP Mechanical Joint Design (1 DoF) |
Finger_Ring-Little |
closed hinge joint |
Design of an Underactuated Adptive Robotic Hand with Force Sensing |
FTN Hand
|
Savic, S.
|
TMC Joint Structual Design (2 DOF) |
Thumb |
2 axis orthogonal and non-intersecting - Adduction/Abduction below |
An Optical Joint Position Sensor for Anthropomorphic Robot Hands |
UBH-IV Hand
|
Palli, G.
|
Transmission concept |
Transmission |
Agonistic Tendon with Elastic Band |
Einfluss der Gelenkkonfiguration auf die Greifperformance einer anthropomorphen Roboterhand |
IGMR Hand
|
Polzin, S.
|
Phalanx Design |
Finger_Index |
filled cuboid |
Einfluss der Gelenkkonfiguration auf die Greifperformance einer anthropomorphen Roboterhand |
IGMR Hand
|
Polzin, S.
|
Phalanx Design |
Finger_Middle |
filled cuboid |
Einfluss der Gelenkkonfiguration auf die Greifperformance einer anthropomorphen Roboterhand |
IGMR Hand
|
Polzin, S.
|
Phalanx Design |
Finger_Ring-Little |
filled cuboid |
Einfluss der Gelenkkonfiguration auf die Greifperformance einer anthropomorphen Roboterhand |
IGMR Hand
|
Polzin, S.
|
Phalanx Design |
Thumb |
filled cuboid |
Einfluss der Gelenkkonfiguration auf die Greifperformance einer anthropomorphen Roboterhand |
IGMR Hand
|
Polzin, S.
|
TMC Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
UT hand I: A lock-based underactuated hand prosthesis |
UT Hand I
|
Peerdeman, B.
|
TMC Joint Mechanical Design (1 DoF) |
Thumb |
closed hinge joint |
Experimental analysis of an innovative prosthetic hand with proprioceptive sensors |
RTR Hand II
|
Carrozza, M. C.
|
Contact material (Skin) |
Housing |
foam rubber |
Einfluss der Gelenkkonfiguration auf die Greifperformance einer anthropomorphen Roboterhand |
IGMR Hand
|
Polzin, S.
|