AbstractExperience shows that human running gaits have several possible foot collision patterns, depending on which part of the foot touches the ground first, e.g., fore-foot, mid-foot, or heel. In this work, we propose a method to analyze and understand the dynamics and energy transfer which takes place during topology transition for the different possible touchdown patterns. The method proposed is based on concepts from analytical multibody dynamics, which stem from the relaxation of constraints. We also pay attention to the effects of ankle compliance in the system and its influence on the different collision scenarios
Foot-ground impact is a critical event during the running cycle. In this work, three performance ind...
Approximately 75-80% of runners initiate contact with the running surface on their heel and thus hav...
Results of mechanical analyses of running may be helpful in the search for the etiology of running i...
Based on the impulsive-dynamics formulation, this article presents the analysis of different strateg...
The mechanical properties of the interface between the human body and the ground play an important r...
We present several variations on a model and simulation of the foot and ankle during the course of o...
In running, foot contact patterns (rear-, mid- or forefoot contact) influence impact intensity and i...
Energetic efficiency is a fundamental subject of research in bipedal robot locomotion. In such syste...
Biomechanical models of different complexity are used to understand the dynamics of human running. L...
NoThe purpose of this article is determining if and how the kinematic relationship between adjacent ...
During running, a major source of energy loss is the redirection of the center of mass (COM) motion ...
Foot structure and kinematics have long been considered as risk factors for foot and lower-limb runn...
requires heel strike (HS) runners to make a transition in landing strategy to a forefoot (FF) strike...
In this dissertation, I integrated empirical biomechanical analyses with detailed musculoskeletal mo...
Humans have engaged in endurance running for millions of years, but the modern running shoe was not ...
Foot-ground impact is a critical event during the running cycle. In this work, three performance ind...
Approximately 75-80% of runners initiate contact with the running surface on their heel and thus hav...
Results of mechanical analyses of running may be helpful in the search for the etiology of running i...
Based on the impulsive-dynamics formulation, this article presents the analysis of different strateg...
The mechanical properties of the interface between the human body and the ground play an important r...
We present several variations on a model and simulation of the foot and ankle during the course of o...
In running, foot contact patterns (rear-, mid- or forefoot contact) influence impact intensity and i...
Energetic efficiency is a fundamental subject of research in bipedal robot locomotion. In such syste...
Biomechanical models of different complexity are used to understand the dynamics of human running. L...
NoThe purpose of this article is determining if and how the kinematic relationship between adjacent ...
During running, a major source of energy loss is the redirection of the center of mass (COM) motion ...
Foot structure and kinematics have long been considered as risk factors for foot and lower-limb runn...
requires heel strike (HS) runners to make a transition in landing strategy to a forefoot (FF) strike...
In this dissertation, I integrated empirical biomechanical analyses with detailed musculoskeletal mo...
Humans have engaged in endurance running for millions of years, but the modern running shoe was not ...
Foot-ground impact is a critical event during the running cycle. In this work, three performance ind...
Approximately 75-80% of runners initiate contact with the running surface on their heel and thus hav...
Results of mechanical analyses of running may be helpful in the search for the etiology of running i...