Chapter 7: Balance Training Concepts Flashcards
Neuromuscular efficiency
It is a neuromuscular system to allow the agonists, antagonists, synergists, stabilizers, and neutralizers to work together in all three planes of motion.
Proprioception
Cumulative neural input to the CNS from all mechanoreceptors that sense position and limb movement
Kinesthesia
conscious awareness of joint movement and position resulting from proprioceptive input.
Mechanoreceptors
neural receptors embedded in connective tissue; convert mechanical distortions of the tissue into neural codes.
Ruffini afferents
joint receptors mechanically sensitive to stress; activated during extreme extension and/or rotation.
Paciniform afferents
widely distributed around joint capsule; sensitive to local compression and tensile loading
Golgi afferents
in ligaments and menisci; high-threshold, slow-adapting; mechanically sensitive to tensile loads
Nociceptors
afferents located in articular tissue; sensitive to mechanical deformation and pain
Dynamic joint stabilization
the ability of a kinetic chain to stabilize a joint during movement.
Multi-sensory condition
training environment that provides heightened stimulation to proprioceptors and mechanoreceptors.
Controlled instability
training environment as unstable as can be safely controlled.
Balance-stabilization exercises
little joint motion of the balance leg; used in Stabilization Level of OPT model
Balance-strength exercises
Eccentric and concentric movement of the balance leg; full ROM; used in Strength Level of OPT model.
Balance-power exercises
hopping from one foot to another, hopping on the same foot; requires optimal reactive joint stabilization; used in the Power Level of OPT model.
BALANCE PROGRAM DESIGN PARAMETERS:
Stabilization
OPT Level: Stabilization
Phase(s): 1
Example Exercises: 1–4 Balance-stabilization:
Single-leg balance, Single-leg balance reach, Single-leg lift/chop.
Sets/Reps: 1–3 sets × 12–20 reps (or single-leg 6–10 ea.)
Tempo: Slow (4/2/1)
Rest: 0–90 s