Large mammals, including humans, save much of the energy needed for running by means of elastic structures in their legs and feet. Kinetic and potential energy removed from the body in the first half of the stance phase is stored briefly as elastic strain energy and then returned in the second half by elastic recoil. Thus the animal runs in an analogous fashion to a rubber ball bouncing along. Among the elastic structures involved, the tendons of distal leg muscles have been shown to be important. Here we show that the elastic properties of the arch of the human foot are also important
Humans utilise elastic tendons of lower limb muscles to store and return energy during walking, runn...
The present study was designed to explore how the interaction between the fascicles and tendinous ti...
Humans utilise elastic tendons of lower limb muscles to store and return energy during walking, runn...
The energy-sparing spring theory of the foot's arch has become central to interpretations of the foo...
The human foot is uniquely stiff to enable forward propulsion, yet also possesses sufficient elastic...
The human foot contains passive elastic tissues that have spring-like qualities, storing and returni...
The human foot is characterized by a pronounced longitudinal arch (LA) that compresses and recoils i...
The foot has been considered both as an elastic mechanism that increases the efficiency of locomotio...
This is the author accepted manuscript. The final version is available from The Royal Society via th...
Developing the ability to habitually walk and run upright on two feet is one of the most significant...
The human iliotibial band (ITB) is a poorly understood fascial structure that may contribute to ener...
The capacity to store and return energy in legs and feet that behave like springs is crucial to huma...
The central nervous system utilizes tendon compliance of the intrinsic foot muscles to aid the foot’...
Human feet have evolved to facilitate bipedal locomotion, losing an opposable digit that grasped bra...
The human foot is known to aid propulsion by storing and returning elastic energy during steady-stat...
Humans utilise elastic tendons of lower limb muscles to store and return energy during walking, runn...
The present study was designed to explore how the interaction between the fascicles and tendinous ti...
Humans utilise elastic tendons of lower limb muscles to store and return energy during walking, runn...
The energy-sparing spring theory of the foot's arch has become central to interpretations of the foo...
The human foot is uniquely stiff to enable forward propulsion, yet also possesses sufficient elastic...
The human foot contains passive elastic tissues that have spring-like qualities, storing and returni...
The human foot is characterized by a pronounced longitudinal arch (LA) that compresses and recoils i...
The foot has been considered both as an elastic mechanism that increases the efficiency of locomotio...
This is the author accepted manuscript. The final version is available from The Royal Society via th...
Developing the ability to habitually walk and run upright on two feet is one of the most significant...
The human iliotibial band (ITB) is a poorly understood fascial structure that may contribute to ener...
The capacity to store and return energy in legs and feet that behave like springs is crucial to huma...
The central nervous system utilizes tendon compliance of the intrinsic foot muscles to aid the foot’...
Human feet have evolved to facilitate bipedal locomotion, losing an opposable digit that grasped bra...
The human foot is known to aid propulsion by storing and returning elastic energy during steady-stat...
Humans utilise elastic tendons of lower limb muscles to store and return energy during walking, runn...
The present study was designed to explore how the interaction between the fascicles and tendinous ti...
Humans utilise elastic tendons of lower limb muscles to store and return energy during walking, runn...