No need to over-talk this one as the data is pretty straight-forward. Ease of use passed the initial learning curve with the PUSH device is remarkable. Looking forward to digging a little deeper into the PUSH portal later today and will see where that brings me. Will add that in to this post when I get the time.
High-Performance Training and Education Focused on the Development of the Elite Volleyball Player and Athlete.
Wednesday, February 25, 2015
Wednesday, February 18, 2015
Training with PUSH
PUSH vs Tendo Unit Initial Analysis
First day working with the @trainwithpush device at all. Jumping right into it... LOL... Measured counter-movement jump w/ hands on hips on just jump with the PUSH device on and got 25.0" from the Just Jump and 24.6" from PUSH. Two things are 1-the PUSH device acknowledges that using the waistband will be more accurate. I have it and will use it in the future. 2-I have told people for years that teaching the use of more stiffness on landings with the just jump mat will skew the height upward because it is measuring your air-time. So you can land at a deeper knee angle but it looks like you came into the ground normally because you are stopping harder and faster. From there I did eccentric barbell drop jumps which is a movement I cannot currently measure with any device I have except timing the eccentric contraction for its relationship to normal jumping speeds (which I already do). So measured sport back squat next (half squats... lol) and I will just report variation between the PUSH and the Tendo rep by rep from here (for 3x2 @ 140K paired with seated vertical jumps): Push:Tendo .40:.49, .40:.44, .44:.50, .41:.50, .40:.48, .40:.49. So overall the Tendo measured 17% faster rep speeds on average power for an average rep of .48 meters/second versus PUSH at .41 meters/second. More on this to come soon! #SportScience
First day working with the @trainwithpush device at all. Jumping right into it... LOL... Measured counter-movement jump w/ hands on hips on just jump with the PUSH device on and got 25.0" from the Just Jump and 24.6" from PUSH. Two things are 1-the PUSH device acknowledges that using the waistband will be more accurate. I have it and will use it in the future. 2-I have told people for years that teaching the use of more stiffness on landings with the just jump mat will skew the height upward because it is measuring your air-time. So you can land at a deeper knee angle but it looks like you came into the ground normally because you are stopping harder and faster. From there I did eccentric barbell drop jumps which is a movement I cannot currently measure with any device I have except timing the eccentric contraction for its relationship to normal jumping speeds (which I already do). So measured sport back squat next (half squats... lol) and I will just report variation between the PUSH and the Tendo rep by rep from here (for 3x2 @ 140K paired with seated vertical jumps): Push:Tendo .40:.49, .40:.44, .44:.50, .41:.50, .40:.48, .40:.49. So overall the Tendo measured 17% faster rep speeds on average power for an average rep of .48 meters/second versus PUSH at .41 meters/second. More on this to come soon! #SportScience
Monday, February 9, 2015
Velocity-Based Training Applied To "Squatting Every Day"
More to come on this as I summarize my findings as I intend to submit
this as a case study to the Australian Strength & Conditioning
Association. Long story short (n=1): squatting every day will make you
strong fast.
Saturday, February 7, 2015
Peak Power Across Exercises
Peak Power Across Exercises
So much more to the selection of training exercises than whether they are a "power" exercise or not...
Here we see a breakdown of peak power (wattage) and velocity (meters/sec) across 3 different training exercises: power snatch, clean high pull with block @ knee height, clean pulls with block @ knee height. Long story short peak power on the power snatch was 1790 Watts @ 2.03 M/S, on clean high pulls with block @ knee height was 1752 watts @ 1.49 M/S (97.8% of Power Snatch), and clean pulls with block @ knee height was 1903 watts @ 1.33 M/S (106% of Power Snatch). So overall we have from low to high power ranking by exercise of clean high pulls @ knee height last, power snatches second, and clean pulls @ knee height first but with a total range of just 6% difference across exercises! Not a lot of variation there across very different velocity ranges: Power Snatch is 152% of the velocity of the clean pull with block @ knee height and 136% of clean high pulls with block @ knee height.
Clearly there has to be more to exercise selection than this. There absolutely is and some of it is still beyond my current level of understanding but a couple of key points:
- There should be clear considerations of training limitations of your specific population. You are far less likely to use power snatches with a baseball pitcher than you are with a sprinter or jumper in track and field.
- From past analyses I know that peak power on the power snatch would have continued to rise if the movement had continued on to a squat snatch (full snatch). If so it is very likely that peak power would have equated or potentially exceeded that of the clean pull off blocks at knee height. This is a real consideration for athletes who have great training histories where they are able to tolerate more variation and greater ranges of motion in training. This is not common, but high-performance in sport is most certainly anything but common.
- Having the ability to simplify tasks and allow for more mastery to occur, using language of Dan Pfaff, is clearly very possible. So if power was the goal and the athlete had power snatches scheduled but either they pushed speed and power work of other more direct training means pretty hard or you think they are just a little off in technical execution today then you can simplify the movement and still generate a quality training effect. If the purpose is power then you can get that but go with better quality and more training density.
This analysis shows you can train for "power" effectively across three exercises with very different demands. If you were to decide that something like that was important... :)
So much more to the selection of training exercises than whether they are a "power" exercise or not...
Here we see a breakdown of peak power (wattage) and velocity (meters/sec) across 3 different training exercises: power snatch, clean high pull with block @ knee height, clean pulls with block @ knee height. Long story short peak power on the power snatch was 1790 Watts @ 2.03 M/S, on clean high pulls with block @ knee height was 1752 watts @ 1.49 M/S (97.8% of Power Snatch), and clean pulls with block @ knee height was 1903 watts @ 1.33 M/S (106% of Power Snatch). So overall we have from low to high power ranking by exercise of clean high pulls @ knee height last, power snatches second, and clean pulls @ knee height first but with a total range of just 6% difference across exercises! Not a lot of variation there across very different velocity ranges: Power Snatch is 152% of the velocity of the clean pull with block @ knee height and 136% of clean high pulls with block @ knee height.
Clearly there has to be more to exercise selection than this. There absolutely is and some of it is still beyond my current level of understanding but a couple of key points:
- There should be clear considerations of training limitations of your specific population. You are far less likely to use power snatches with a baseball pitcher than you are with a sprinter or jumper in track and field.
- From past analyses I know that peak power on the power snatch would have continued to rise if the movement had continued on to a squat snatch (full snatch). If so it is very likely that peak power would have equated or potentially exceeded that of the clean pull off blocks at knee height. This is a real consideration for athletes who have great training histories where they are able to tolerate more variation and greater ranges of motion in training. This is not common, but high-performance in sport is most certainly anything but common.
- Having the ability to simplify tasks and allow for more mastery to occur, using language of Dan Pfaff, is clearly very possible. So if power was the goal and the athlete had power snatches scheduled but either they pushed speed and power work of other more direct training means pretty hard or you think they are just a little off in technical execution today then you can simplify the movement and still generate a quality training effect. If the purpose is power then you can get that but go with better quality and more training density.
This analysis shows you can train for "power" effectively across three exercises with very different demands. If you were to decide that something like that was important... :)
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