• Biomechanics of locomotion and muscle work: a unified pattern emerges around quantifying forces, work, and energy during walking and running, linking muscle action with tendon and joint mechanics to explain gait efficiency and injury risk [5], [9], [13], [14], [20].

• Posture and circulatory regulation in movement: these studies reveal how body position modulates blood composition and circulation, and how posture interacts with muscle power to enable stable, efficient movement [7], [12], [16].

• Neural control and motor pattern organization: early electrophysiology links motor unit activity, action potentials, reflexes, and limb innervation to voluntary movement, shaping our understanding of motor control [1], [6], [15], [18], [19].

• Structural/mechanical properties of tissues and joints: investigations into tendon strength, skeletal alignments, and general locomotor mechanics show how tissue properties constrain and enable movement [3], [4], [8], [14].

• Clinical neuromuscular disorders and rehabilitation: dystrophy-focused research, motor disorders, and rehabilitation considerations connect pathology with movement capacity and recovery potential [10], [17], [18].