• Proprioception-driven anticipatory timing forms a core theme in motor performance, with proprioceptive traces, variable cues, and proprioceptive feedback shaping the timing of responses and anticipation across tasks [1][4][2][18][16][8].

• Short-term memory and retention in motor tasks show systematic memory effects, including retention over seconds, forgetting patterns, and proactive interference from similar positions [3][5][6][13].

• Fatigue effects alter speed and accuracy and can constrain learning trajectories in motor tasks, indicating fatigue as a fundamental variable in motor performance and skill acquisition [17][20].

• Theoretical frameworks of motor learning emphasize closed-loop control, feedback utilization, and timing dynamics as core organizing principles of skill acquisition and performance [11][12][8][16].

• Neurophysiological underpinnings of motor control map muscle, sensory pathways, and dorsal-column signals, linking physiological mechanisms to both normal and abnormal motor behavior [10][19][15][14].