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Groups | Devices | Researchers | DOFs | Driving modes | Control strategies | Training mode | Experimental subject | Functional testing | Clinical scale |
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End-effector rehabilitation robot | hand-object - hand | Lum et al. [18] | 1 | The contralateral hand drive | Force control | Active mode | \ | \ | \ |
End-effector rehabilitation robot | Bimanual lifting rehabilitator | Lum et al. [19] | 2 | Motor drive | Force control | Passive mode | Three hemiplegic patients | Lift handles | ADLS improved |
End-effector rehabilitation robot | MIT MANUS | Krebs et al. [20] | 3 | Motor drive | Impedance control | Active mode Passive mode | Twenty hemiparetic patients | Traction movement | Fugl-Meyer () Motor power scores () Motor status score () improved |
End-effector rehabilitation robot | MIME | Stanford university [21] | 6 | Motor drive | EMG signal control Force control | Active mode Passive mode | Two subacute stroke patients | Finger and hand motion | Fugl-Meyer, Box and Block test, Jebsen-Taylor test improved |
End-effector rehabilitation robot | ARM Guide | Chicago institute of rehabilitation [22] | 3 | Motor drive | Impedance control | Active mode Passive mode | Nineteen hemiparetic patients | Free reaching | Univariate ANOVA statistics; ADLS |
End-effector rehabilitation robot | GENTLE/S | University of Reading [23] | 3 | Motor drive | Position control | Passive mode | Thirty-one patients | \ | Multivariate analysis of the Fugl-Meyer improved |
End-effector rehabilitation robot | Haptic-robotic exercise platform | Lam et al. [24] | 2 | Motor drive | Impedance control Position control | Active mode Passive mode | Eight healthy subjects | Traction movement | Quantitative data improved Administered questionnaire improved |
End-effector rehabilitation robot | EMUL | Osaka university [103] | 6 | Hydraulic drive Motor drive | Impedance control | Active mode Passive mode | Five hemiparetic patients | Virtual tasks | Ueda Fugl-Meyer Motoricity Index improved |
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