[1] Woodworth R.S., The accuracy of voluntary movement; Psychological Review, 1899; 3: 1-106.
[2] Schmidt R.A., Motor control and learning: a behavioral emphasis; 2nd Edition; Human Kinetics; 1988.
[3] Hogan N., An organizing principle for a class of voluntary movements; J. of Neuroscience, 1984; 4: 2745-2754.
[4] Wann J., Nimmo-Smith J., Wing A.M., Relation between velocity and curvature in movement: Equivalence and divergence between a power law and a minimum-jerk model; J. of Experimental Psychology: Human Perception and Performance, 1988; 14: 622-637.
[5] Richardson M.J. Flash T., Comparing smooth arm movements with the two-thirds power law and the related segmented control hypothesis, J. of Neuroscience, 2002; 22 (18): 8201-8211.
[6] Nelson W.L., Physical principles for economies of skilled movements; Biological Cybernetics, 1983; 46: 135-147.
[7] Flash T., Hogan N., The coordination of arm movements: An experimentally confirmed mathematical model. J. of Neuroscience, 1985; 5: 1688-1703.
[8] Uno Y., Kawato M., Suzuki R., Formation and control of optimal trajectory in human multijoint arm movement; Biological Cybernetics; 1989; 61: 89-101.
[9] Harris C.M., Wolpert D.M., Signal-dependent noise determines motor planning; Nature; 1998; 394: 780- 784.
[10] Lebedev S., Tsui WH., Van Gelder P., Drawing movements as an outcome of the principle of least action; J. Mathematical Psychology, 2001; 45: 43-52.
[11] Soechting J.F. Terzuolo C., An algorithm for the generation of curvilinear wrist motion in an arbitrary plane in three dimensional space; Neuroscience, 1986; 19: 1393-1405.
[12] Lacquaniti F., Terzuolo C.A., Viviani P., The law relating kinematics and figural aspects of drawing movements; Acta Psychologica, 1983; 54: 115-130.
[13] Georgopoulos A.P., Kalaska J.F., Massey J.T., Spacial trajectories and reaction times of aimed movements: effects of practice, uncertainty, and change in target location; J. Neurophysiology, 1981; 46: 725-743.
[14] Soechting J.F., Lacquaniti F., Invariant characteristics of a pointing movement in man; J. Neuroscience, 1981; 1: 710-720.
[15] Morasso P., Spacial control of arm movements; Exp. Brain Research, 1981; 42: 223-227.
[16] Viviani P., Terzuolo C., Trajectory determines movement dynamics; Neuroscience, 1982; 7: 431-437.
[17] Viviani P., Stucchi N., Biological movements look constant: evidence of motor perceptual interactions; J. Exp. Psychology, 1992; 18: 603-623.
[18] Viviani P., Mounoud P., Perceptuo-motor compatibility in pursuit tracking of two-dimensional movements; J. of Motor Behavior, 1990; 22: 407-443.
[19] Gribble P.L., Ostry D.J., Origins of the power law relation between movement velocity and curvature: modeling the effects of muscle mechanics and limb dynamics; J. Neurophysiology, 1996; 76: 2853-2860.
[20] Schaal S., Sternad D., Origins and violations of the 2/3 power law in rhythmic three-dimensional arm movements; Exp. Brain Research, 2001; 136: 60-72.
[21] Dounskaia N., Kinematic invariant during cyclical arm movements; Biological Cybernetics, 2007; 96: 147- 163.
[22] Viviani P., Flash T. Minimum-jerk model, two-thirds power law and isochrony: converging approaches to the study of movement planning; J. Exp. Psychology, 1995; 21: 32-53.
[23] Richardson M.J.E., Flash T., Comparing smooth arm movements with Two-Thirds power law and the related segmented control hypothesis; J. Neuroscience, 2002; 22: 8201-8211.
[24] Teuling H.L., Maarse F.J., Digital recording and processing of handwriting movements; Human Movement Science, 1984; 3: 193-217.
[25] رشیدی سعید، هاشمی گلپایگانی محمدرضا، فلاح علی، توحیدخواه فرزاد؛ رابطه میان خواص هندسی و ویژگی های حرکتی الگوهای ترسیمی مهارتی؛ دوازدهمین کنفرانس مهندسی پزشکی ایران، 1384، 379-386.
[26] Schmidt R.A., Motor learning and Performance; Champaign Illinoise: Human Kinetics Books; 1991.
[27] Plamondon R., Alimi A.M., Yergeau P., Leclerc F., Modeling velocity profiles of rapid movements: a comparative study; Bilogical Cybernetics, 1993; 69: 119-128.
[28] Milner J.T., Controlling velocity in rapid movements; J. Motor Behavior, 1986; 18: 147-161.
[29] Plamondon R., A kinematic theory of rapid human movements: 1. Movement representation and generation; Biological Cybernetics, 1995; 72: 295-307
[30] Nagasaki H., Asymmetric velocity profiles and acceleration profiles of human arm movements; Exp. Brain Research, 1989; 74: 319-326.
[31] Plamondon R., A kinematic theory of rapid human movements: 2. Movement time and control; Biological Cybernetics, 1995; 72: 309-320.
[32] Gielen C.C.A.M., Oosten K., Pull ter Gunne F., Relation between EMG activation patterns and kinematic properties of aimed arm movements; J. Motor ehavior, 1985; 17: 421-442.
[33] Plamondon R., Alimi A.M., Speed/accuracy trade-offs in target-directed movements; Behavioral and Brain Sciences, 1997; 20: 279-349.
[34] Plamondon R., Guerfali W., The 2/3 power law: when and why? Acta Psychologica, 1998; 100: 85-96.
)