Article

Evaluating the “cost of generating force” hypothesis across frequency in human running and hopping

2022-03-12

Abstract excerpt

The volume of active muscle and duration of extensor muscle force well-explain the associated metabolic energy expenditure across body mass and speed during level-ground running and hopping. However, if these parameters fundamentally drive metabolic energy expenditure, then they should pertain to multiple modes of locomotion and provide a simple framework for relating biomechanics to metabolic energy expenditure i...

Topics

Open a Topic to create a Post that cites this publication.

Identifiers and source

Literature Corpus work: f9954aa4-cc17-5427-a96d-e947199993b6
DOI: 10.1101/2022.03.09.483693

Open publication

Related research

Semantic proximity does not establish scientific evidence.

Click a neighbor to travelStep 1 · 12 closest

Evaluating the “cost of generating force” hypothesis across frequency in human running and hoppingDOI 10.1101/2022.03.09.483693Read

How Connecting the Legs with a Spring Improves Human Running EconomySemantic proximity Read

Muscle-specific economy of force generation and efficiency of work production during human runningSemantic proximity Read

Quantifying Cause-Effect Relations Between Walking Speed, Propulsive Force, and Metabolic CostSemantic proximity Read

Use treadmills with caution: Walking Energy Expenditure and Metabolic Cost are elevated compared to overground across multiple speeds in healthy young adultsSemantic proximity Read

Gait Adaptations in Step Length and Push-off Force during Walking with Functional AsymmetrySemantic proximity Read

Enthalpy efficiency of the soleus muscle explains improvements in running economySemantic proximity Read

Metabolic cost for isometric force scales nonlinearly and predicts how humans distribute forces across limbsSemantic proximity Read

A mechatronic system for studying energy optimization during walking.Semantic proximity Read

The influence of muscle mass on the coordination required for efficient movementSemantic proximity Read

The Energetics of Maintaining the Lateral Balance Are Terrain-Specific; a Normal Lookahead Significantly Reduces Active Balance Maintenance WorkSemantic proximity Read

Objective method reveals minimum time required to quantify net cost of transport across slow to fast walking speedsSemantic proximity Read

The energetic effect of hip flexion and retraction in walking at different speeds: a modeling studySemantic proximity Read