NZ Pair (Bond/Murray) Training Data Published
Posted: October 10th, 2017, 1:35 pm
Training Intensity Distribution Over a Four-Year Cycle in Olympic Champion Rowers: Different Roads Lead to Rio
Daniel J. Plews, Paul B. Laursen
The purpose of this study was to compare the training intensity distribution (TID) of the undefeated world champion male rowing New Zealand (kiwi) pair over a four-year Olympic cycle, across training phases, training years, and between individuals. Training data, including heart rate and boat speed, were recorded in the athletes rowing in the same boat between March 2013 and August 2016, ending with the Rio Olympics final. Progressive exercise tests assessed first (LT1) and second (LT2) lactate thresholds and associated heart rates, to determine the percentage of training performed below, between and above these demarcation points. Training an average of only 12-15 h/wk throughout the Olympic cycle, the mean percent distribution of time (±SD) at each training intensity was 80.4 ± 5.5% <LT1, 17.9 ± 5.3% LT1-LT2 and 1.8 ± 0.8% >LT2 for Rower A and 67.3 ± 9.0% <LT1, 30.2 ± 9.4% LT1 - LT2, and 2.4 ± 1.4% >LT2 for Rower B. Across the years 2014-2016, Rower A performed most likely more training <LT1, while Rower B performed mostly likely more training between LT1-LT2. Training appeared to become more polarised, with greater amounts of time spent <LT1, with increased training duration (R=0.38-0.43). Two of the world’s best rowers, rowing together in the same boat with an undefeated record across an Olympic cycle, travelled markedly different “roads to Rio” within the context of their TID, with one rower displaying a polarised model of TID, and the other pyramidal. However, TID trended towards becoming more polarised in both rowers with increased training duration.
" For practitioners who monitor training in elite athletes and pay attention to TID, these
data are of interest. Perhaps for the first time, we have shown two differing TID profiles
(polarised vs. pyramidal), in two very high level athletes achieving optimal results across a
similar training program. However, although this is apparent in these data, over longer time
periods the TID model can change (i.e. from pyramidal to polarised models and vice versa).
It is also worth noting that, in the case of both rowers, the majority of time spent training was
still at an intensity <LT1.
From a practical application standpoint, these data beg the question: “which TID
method is superior and which should be strived for in training?” Based on these results, it would
appear as if either can be effective, and the success of each model may be due more to years of
training, individual physiological responses, as well time available for training.
When considering the three TID models presented herein, the threshold as to where one
model ends and the other begins is also influential on the resulting interpretation. As such,
accurate TID identification can be difficult when using the heart rate time in zone method. For
more accurate demarcations, practitioners should also consider other methods of assessment
such as the “session goal” method.
http://journals.humankinetics.com/doi/1 ... .2017-0343
Spotted in the wild. Of course they have the data for all the sessions going back a whole Olympic cycle. The paper itself is filled with many tidbits.
- Confirms they did not do any weight sessions (although they did in the past - and a pair is pretty much it's own weight training)
- Bond likes to bike and Murray likes to erg for supplemental training
- 15 hrs a week average (although had been higher in the previous Olympic cycle)
- Bond aerobic dominant, Murray anerobic dominant
7x4min step protocol data (Australian test)
Weight Height VO2 max Peak HR Average 4 min LT1 power LT1 LT2 power LT2
(L/min ) max (w) (w) HR HR
89.5 188 6.4 182 531 320 144 408 165
99.4 195 6.7 195 552 330 160 410 175
Daniel J. Plews, Paul B. Laursen
The purpose of this study was to compare the training intensity distribution (TID) of the undefeated world champion male rowing New Zealand (kiwi) pair over a four-year Olympic cycle, across training phases, training years, and between individuals. Training data, including heart rate and boat speed, were recorded in the athletes rowing in the same boat between March 2013 and August 2016, ending with the Rio Olympics final. Progressive exercise tests assessed first (LT1) and second (LT2) lactate thresholds and associated heart rates, to determine the percentage of training performed below, between and above these demarcation points. Training an average of only 12-15 h/wk throughout the Olympic cycle, the mean percent distribution of time (±SD) at each training intensity was 80.4 ± 5.5% <LT1, 17.9 ± 5.3% LT1-LT2 and 1.8 ± 0.8% >LT2 for Rower A and 67.3 ± 9.0% <LT1, 30.2 ± 9.4% LT1 - LT2, and 2.4 ± 1.4% >LT2 for Rower B. Across the years 2014-2016, Rower A performed most likely more training <LT1, while Rower B performed mostly likely more training between LT1-LT2. Training appeared to become more polarised, with greater amounts of time spent <LT1, with increased training duration (R=0.38-0.43). Two of the world’s best rowers, rowing together in the same boat with an undefeated record across an Olympic cycle, travelled markedly different “roads to Rio” within the context of their TID, with one rower displaying a polarised model of TID, and the other pyramidal. However, TID trended towards becoming more polarised in both rowers with increased training duration.
" For practitioners who monitor training in elite athletes and pay attention to TID, these
data are of interest. Perhaps for the first time, we have shown two differing TID profiles
(polarised vs. pyramidal), in two very high level athletes achieving optimal results across a
similar training program. However, although this is apparent in these data, over longer time
periods the TID model can change (i.e. from pyramidal to polarised models and vice versa).
It is also worth noting that, in the case of both rowers, the majority of time spent training was
still at an intensity <LT1.
From a practical application standpoint, these data beg the question: “which TID
method is superior and which should be strived for in training?” Based on these results, it would
appear as if either can be effective, and the success of each model may be due more to years of
training, individual physiological responses, as well time available for training.
When considering the three TID models presented herein, the threshold as to where one
model ends and the other begins is also influential on the resulting interpretation. As such,
accurate TID identification can be difficult when using the heart rate time in zone method. For
more accurate demarcations, practitioners should also consider other methods of assessment
such as the “session goal” method.
http://journals.humankinetics.com/doi/1 ... .2017-0343
Spotted in the wild. Of course they have the data for all the sessions going back a whole Olympic cycle. The paper itself is filled with many tidbits.
- Confirms they did not do any weight sessions (although they did in the past - and a pair is pretty much it's own weight training)
- Bond likes to bike and Murray likes to erg for supplemental training
- 15 hrs a week average (although had been higher in the previous Olympic cycle)
- Bond aerobic dominant, Murray anerobic dominant
7x4min step protocol data (Australian test)
Weight Height VO2 max Peak HR Average 4 min LT1 power LT1 LT2 power LT2
(L/min ) max (w) (w) HR HR
89.5 188 6.4 182 531 320 144 408 165
99.4 195 6.7 195 552 330 160 410 175