Which are the models proposed for fascia to act as force transmitters?

Which are the models proposed for fascia to act as force transmitters?

• A. Leg Carry Trunk Model, Spine Engine Model, Biotensegrity Model, Gel-Sol Model, Intrafascial Circulation Loop
• B. Leg Carry Trunk Model; Spine Engine Model; Gel-Sol Model
• C. Spine Engine Model; Biotensegrity Model; Gel-Sol Model; Intrafascial Circulation Loop
• D. Biotensegrity Model; Gel-Sol Model; Intrafascial Circulation Loop; Muscle Lever Model

Answer: (A)

Fascia can transmit forces through a continuous network that connects different body regions, so the models focus on how this fascial system helps move and stabilize the body beyond muscle–bone lever actions. Leg Carry Trunk Model describes how forces generated in the legs can be carried through fascial connections up to the trunk, influencing posture and load transfer along the kinetic chain. Spine Engine Model treats the fascia around the spine as an elastic engine that stores and releases energy during movement, contributing to spinal stability and coordinated action. Biotensegrity Model frames the body as a tensegrity structure, where tension in the fascial network works together with compressed bones to distribute forces efficiently across multiple segments rather than along single lines of pull. Gel-Sol Model proposes that the extracellular matrix can switch between gel-like and sol-like states, altering tissue stiffness and the way forces are transmitted through fascial layers as mechanical demands change. Intrafascial Circulation Loop envisions an internal circulation within fascia, where fluids and fascial pathways support distributed load sharing and force propagation across fascial planes. The Muscle Lever Model is more about bones and muscles acting as levers within traditional biomechanics, not a fascia-centered mechanism for force transmission, so it’s not included among the fascia-based models.

Fascia can transmit forces through a continuous network that connects different body regions, so the models focus on how this fascial system helps move and stabilize the body beyond muscle–bone lever actions.

Leg Carry Trunk Model describes how forces generated in the legs can be carried through fascial connections up to the trunk, influencing posture and load transfer along the kinetic chain.

Spine Engine Model treats the fascia around the spine as an elastic engine that stores and releases energy during movement, contributing to spinal stability and coordinated action.

Biotensegrity Model frames the body as a tensegrity structure, where tension in the fascial network works together with compressed bones to distribute forces efficiently across multiple segments rather than along single lines of pull.

Gel-Sol Model proposes that the extracellular matrix can switch between gel-like and sol-like states, altering tissue stiffness and the way forces are transmitted through fascial layers as mechanical demands change.

Intrafascial Circulation Loop envisions an internal circulation within fascia, where fluids and fascial pathways support distributed load sharing and force propagation across fascial planes.

The Muscle Lever Model is more about bones and muscles acting as levers within traditional biomechanics, not a fascia-centered mechanism for force transmission, so it’s not included among the fascia-based models.