Review Article

sEMG Based Human Motion Intention Recognition

Table 2

Results from most recent studies for continuous-motion regression.

StudyRegression motionsRegression methodsAccuracy

Luh et al. [47]Elbow joint angleBPNNSatisfactory accuracy

Chen et al. [48]Elbow joint angleHierarchical projection regression (HPR)Regression error less than 9.8 deg

Raj et al. [49]Human forearm kinematicsRadial basis function neural network (RBFNN)CC more than 0.76 for angle and 0.39 for angular velocity

Wang et al. [50]Elbow joint angleRBFNNRMSE less than 0.043 and CC more than 0.905

Kwon et al. [51]Elbow and shoulder joint anglesFeed forward neural network (FFNN)

Ngeo et al. [52]Finger joint anglesFFNNCC more than 0.92 and
NRMSE less than 8.5 deg

Xia et al. [13]Upper limbs movementRecurrent convolutional neural network (RCNN)CC more than 93%

Zhang et al. [53]Ankle/knee/hip joint anglesBPNNAverage error less than 9 deg

Jiang et al. [5]Knee joint angleFour-layer FFNN modelCC more than 0.963

Anwar et al. [54]Knee joint angleGeneralized regression neural network (GRNN)MSE less than 1.57

Mefoued [18]Knee joint angleRBFNNRMS less than 1.34 deg.

Ziai et al. [55]Wrist joint torqueANNNRMSE less than 2.8%

Yokoyama et al. [8]Handgrip-force.ANNCC more than 0.84

Naeem et al. [11]Arm muscle forceBPNNCC more than 0.99.

Pena et al. [19]Knee joint torque and stiffnessMultilayer perceptron neural network

Chandrapal et al. [56]Knee joint torqueANNError more than 10.46%

Ardestani et al. [57]Lower extremity joint momentMulti-dimensional wavelet neural network (WNN)NRMSE less than 10% and CC more than 0.94

Khoshdel et al. [4]Knee joint forceOptimized ANNError less than 3.45