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nhireview.day
✿𝗡𝗛𝗜 𝗢̛𝗜 𝗥𝗘𝗩𝗜𝗘𝗪✿ :
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Kiều Chi Rì Viu✨ :
ngon he
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Nina Unbox ౨ৎ⋆ 。⋆ :
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Ngonn😋
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𝒎𝒆𝒎 𝒖𝒏𝒃𝒐𝒙𝒊𝒏𝒈 ྀི ˚⋆ :
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Thuyzz_review 🌷 :
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𝙑𝙖𝙣𝙖 𝙧𝙞𝙫𝙚𝙪˚🎧 :
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Your sprint mechanics may tell us something about where you’re more likely to get injured. A study following professional male rugby players across seven seasons found that different acceleration strategies were associated with different injury profiles. Athletes with longer steps and longer flight times showed greater calf injury risk. Those with higher step rates and shorter contact times showed greater hip/groin injury risk. And athletes with higher step rates and shorter flight times showed greater hamstring injury risk, but substantially lower calf injury risk. Interestingly, another group also demonstrated longer steps, but with longer contact times, and didn’t show the same elevated calf injury risk. This is why we need to be careful about labeling individual sprint characteristics as inherently good or bad. Different athletes can accomplish the same task using different movement strategies and those strategies may distribute mechanical demands differently. Of course, this is correlational research. It doesn’t establish causation or suggest that changing someone’s technique will automatically prevent injuries. But it does reinforce the importance of understanding sprint mechanics and preparing athletes for the demands of high speed movement. If you want to improve your speed and learn how to properly structure your sprint training, check out Speed Kills, my comprehensive 8 week speed development program accompanied by an 80+ page eBook covering the science and application of sprint training. And if you’re not a competitive athlete but you’re looking for something that combines sprinting, jumping, strength, hypertrophy, and conditioning, check out Strength X Speed, my 12-week hybrid program.  It’s exactly how I’ve been training myself, with 3–4 lifting sessions per week, structured speed and power development, conditioning, and a dedicated nutrition section. #acceleration #speedworkout #sprinting #speedtraining #sprinttraining
Your sprint mechanics may tell us something about where you’re more likely to get injured. A study following professional male rugby players across seven seasons found that different acceleration strategies were associated with different injury profiles. Athletes with longer steps and longer flight times showed greater calf injury risk. Those with higher step rates and shorter contact times showed greater hip/groin injury risk. And athletes with higher step rates and shorter flight times showed greater hamstring injury risk, but substantially lower calf injury risk. Interestingly, another group also demonstrated longer steps, but with longer contact times, and didn’t show the same elevated calf injury risk. This is why we need to be careful about labeling individual sprint characteristics as inherently good or bad. Different athletes can accomplish the same task using different movement strategies and those strategies may distribute mechanical demands differently. Of course, this is correlational research. It doesn’t establish causation or suggest that changing someone’s technique will automatically prevent injuries. But it does reinforce the importance of understanding sprint mechanics and preparing athletes for the demands of high speed movement. If you want to improve your speed and learn how to properly structure your sprint training, check out Speed Kills, my comprehensive 8 week speed development program accompanied by an 80+ page eBook covering the science and application of sprint training. And if you’re not a competitive athlete but you’re looking for something that combines sprinting, jumping, strength, hypertrophy, and conditioning, check out Strength X Speed, my 12-week hybrid program. It’s exactly how I’ve been training myself, with 3–4 lifting sessions per week, structured speed and power development, conditioning, and a dedicated nutrition section. #acceleration #speedworkout #sprinting #speedtraining #sprinttraining
One of the problems with studying elite sprinters is that people often assume the positions they observe are responsible for making those athletes fast. But how do you know whether a particular movement characteristic is driving performance or is simply a byproduct of it? Haugen et al (2018) examined several characteristics of frontside and backside mechanics in competitive sprinters and found that none were significantly associated with maximal sprinting velocity. Horizontal ankle velocity at touchdown, step rate, and ground contact time demonstrated stronger relationships. Does that mean knee lift doesn’t matter? Of course not. But I think we have to be careful about blindly copying what we see. You don’t necessarily know how an athlete arrived at a particular position, what physical qualities allow them to achieve it or whether deliberately reproducing that position would improve another athlete’s performance. Some of the mechanics we’re trying to replicate may be the result of physical and technical abilities that the athlete we’re coaching hasn’t developed yet. The goal should be to understand why certain mechanics emerge, what purpose they serve, and whether changing them is likely to improve performance. There’s a big difference between looking like a fast sprinter and being one. If you want to better understand sprint mechanics and how to develop speed, check out Speed Kills. It’s my comprehensive eight-week speed development program, accompanied by an 80+ page e-book covering acceleration, maximal velocity, coaching cues, common technical issues, and the science behind the training. Available through the link in my bio. #getfaster #speedtraining #sprinting #sprinttraining #sprint
One of the problems with studying elite sprinters is that people often assume the positions they observe are responsible for making those athletes fast. But how do you know whether a particular movement characteristic is driving performance or is simply a byproduct of it? Haugen et al (2018) examined several characteristics of frontside and backside mechanics in competitive sprinters and found that none were significantly associated with maximal sprinting velocity. Horizontal ankle velocity at touchdown, step rate, and ground contact time demonstrated stronger relationships. Does that mean knee lift doesn’t matter? Of course not. But I think we have to be careful about blindly copying what we see. You don’t necessarily know how an athlete arrived at a particular position, what physical qualities allow them to achieve it or whether deliberately reproducing that position would improve another athlete’s performance. Some of the mechanics we’re trying to replicate may be the result of physical and technical abilities that the athlete we’re coaching hasn’t developed yet. The goal should be to understand why certain mechanics emerge, what purpose they serve, and whether changing them is likely to improve performance. There’s a big difference between looking like a fast sprinter and being one. If you want to better understand sprint mechanics and how to develop speed, check out Speed Kills. It’s my comprehensive eight-week speed development program, accompanied by an 80+ page e-book covering acceleration, maximal velocity, coaching cues, common technical issues, and the science behind the training. Available through the link in my bio. #getfaster #speedtraining #sprinting #sprinttraining #sprint

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