Safe landing strategies during a fall: Systematic review and meta-analysis

By automatizing protective responses such as neck flexion and arm positioning, children become active agents in mitigating their own injury risk.

“By automatizing protective responses—such as neck flexion (tucking the chin) and arm positioning—children become active agents in mitigating their own injury risk [4].”

A controlled, safe fall was characterised by a gradual deceleration curve, whereas a hazardous fall exhibited a sharp spike in vmax at ground contact.

“A controlled, safe fall was characterised by a gradual deceleration curve, whereas a hazardous fall exhibited a sharp spike in vmax at ground contact [4].”

Trained children do not necessarily move less or slower at peak moments, but they organise their kinetic chain differently to protect vital areas.

“In other words, trained children do not necessarily move “less” or “slower” at peak moments, but they organise their kinetic chain differently to protect vital areas [4].”

The Cluster 3 kinematic signature mirrors the stiffening or freezing strategy often reported in geriatric falls associated with the fear of falling.

“This kinematic signature mirrors the “stiffening” or “freezing” strategy often reported in geriatric falls associated with the fear of falling [4].”

Trained children commit to the protective technique decisively-typically by executing a rapid squat to lower the Center of Mass (CoM) before rolling-rather than hesitating or braking late with stiff limbs.

“This demonstrates that trained children commit to the protective technique decisively—typically by executing a rapid squat to lower the Center of Mass (CoM) before rolling—rather than hesitating or braking late with stiff limbs, a hazardous behaviour observed in the pre-test group associated with wrist fractures (FOOSH) [4].”

Trained children exhibit superior neuromuscular control during the retropulsion phase, regulating their descent rather than succumbing passively to gravity.

“Biomechanically, this suggests that trained children exhibit superior neuromuscular control during the retropulsion phase, regulating their descent rather than succumbing passively to gravity [4].”

High variability in the vertical axis (Y) suggests active modulation of height during the squat-to-roll transition.

“High variability in the vertical axis (Y) suggests active modulation of height during the squat-to-roll transition [4].”

Peak physical bursts were largely governed by the laws of physics (gravity acting on the falling body) and individual anthropometry, which remained constant.

“This suggests that while the intervention improved the average control of the descent (smoother movement), the peak physical bursts were largely governed by the laws of physics (gravity acting on the falling body) and individual anthropometry, which remained constant [4].”