(A) Time × protocol interaction effects on 30 m sprint speed over time in different training intensities. (B) Time × training intensity interaction effects on 30 m sprint speed over time with different training methods. (C) Comparison of 30 m sprint speeds of the same crowd under different training methods in the two stages.</p
A variety of resistance training interventions are used to improve field sport acceleration (e.g., f...
Improvements in running speed have been attributed to both primary and secondary speed training tech...
Biomechanical quantities during the sprint start have been correlated with race time. “Typical” trai...
(A) Time × protocol interaction effects on jump height over time in different training intensities. ...
(A) Time × protocol interaction effects on PPO over time in different training intensities. (B) Time...
The objective of this study is to determine the effect of varied intensity interval sprint training ...
The purpose of this study was to examine the effects of speed training on sprint step kinematics and...
Sprint performance is a critical factor in a vast majority of athletic events. Sprint performance is...
Sprint performance is a critical factor in a vast majority of athletic events. Sprint performance is...
The effects of different speed training protocols on sprint acceleration kinematics and muscle stren...
Fifteen well-trained males, mid-thigh pull peak force (IPF 4403.61 ± 664.69N) and isometric peak for...
Performance in the 100 m sprint is influenced by a multitude of factors including starting strategy,...
This study examined the effects of sprint running training on sloping surfaces (3°) in experienced s...
The purpose of this study was to investigate the effect progressive resistance training has on the a...
The purpose of this study was to identify the effect of a structured training programme on sprint pe...
A variety of resistance training interventions are used to improve field sport acceleration (e.g., f...
Improvements in running speed have been attributed to both primary and secondary speed training tech...
Biomechanical quantities during the sprint start have been correlated with race time. “Typical” trai...
(A) Time × protocol interaction effects on jump height over time in different training intensities. ...
(A) Time × protocol interaction effects on PPO over time in different training intensities. (B) Time...
The objective of this study is to determine the effect of varied intensity interval sprint training ...
The purpose of this study was to examine the effects of speed training on sprint step kinematics and...
Sprint performance is a critical factor in a vast majority of athletic events. Sprint performance is...
Sprint performance is a critical factor in a vast majority of athletic events. Sprint performance is...
The effects of different speed training protocols on sprint acceleration kinematics and muscle stren...
Fifteen well-trained males, mid-thigh pull peak force (IPF 4403.61 ± 664.69N) and isometric peak for...
Performance in the 100 m sprint is influenced by a multitude of factors including starting strategy,...
This study examined the effects of sprint running training on sloping surfaces (3°) in experienced s...
The purpose of this study was to investigate the effect progressive resistance training has on the a...
The purpose of this study was to identify the effect of a structured training programme on sprint pe...
A variety of resistance training interventions are used to improve field sport acceleration (e.g., f...
Improvements in running speed have been attributed to both primary and secondary speed training tech...
Biomechanical quantities during the sprint start have been correlated with race time. “Typical” trai...