Transitions…

Moving out...

Moving in? I don't think so...
So, should this mean I should just focus on power? No, it’s the exact opposite. To make the triathlon analogy: I’m still in the “freshman boat” and everyone else are the bigger and stronger crews. But instead of raw power and being blown of the line, I have added resistance (body fat) and get blown off the line (i.e. the swim start). Thinking about it now, it must have been all that endurance work we did. But did it matter? You can have all the endurance in the world, but if you aren’t “in it” at the beginning…then who cares? These are my thoughts as I head into fall/winter. The main point I want to bring up here is that my power to weight ratio MUST improve. I’ve written many times about passing people on the bike on flats but getting caught on the hills. This thread explains it better than I can:
Question:Why is it that time-trialers seem to lose it in the mountains, and a good climber often gets beaten in a time trial on the flats?
Answer: The answer involves the interplay of body weight, power output and wind resistance. On the flats, resistance (which slows you down) is primarily related to the resistance created by a rider’s bike and body as they move through the air. Big riders, in a low racing position, have a frontal surface area that is quite similar to that of smaller riders. But big riders tend to generate more power thanks to their larger muscle mass. That’s why time trials and sprints on flat or rolling terrain favor the bigger, muscular riders.
Here’s an example. A big rider (let’s say 85 kg or 187 lbs.) and can produce 425 Watts for 20 minutes (a standard test interval) and thus has a power-to-weight ratio of 5.0 Watts per kg. (Top climbers have a ratio of 6-7 Watts-per-kilo.) For comparison, a lighter rider, let’s say 60-kg climber (or 132 lbs.) need only produce 360 Watts to achieve 6 Watts per kilo. In this scenario, the lighter rider will overcome the effects of gravity more easily (remember that it is the power per kg that is important in overcoming the resistance of gravity), but the bigger rider will do better on the flats where the wind resistance is relatively weight independent and thus equal for the light and heavier rider – thus the lighter rider is 65 Watts behind and will lose the sprint.
So how much weight should I lose? And how does this come into play with running?
I’ve seen a lot of talk about the Stillman height/weight ratio table for distance runners. It works like this:
The average man is allocated 110 lbs (50kg) for the first 5 feet (1.524m) in height. Thereafter, he is allocated 5½ lbs (2.495 kg) for every additional inch (O.025m) in height. Thus, a man 6 feet tall (1.829m) would be allocated 110lbs (50kg) plus 12 x 5½lbs (2.495kg), which comes to 176 lbs or 12 st 8lbs (80kg). The exceptions to the rule are Japanese wrestlers, heavyweight boxers and certain rugby players, who aim to exceed this weight. Females are allocated 100 lbs (45kg) for the first 5 feet (1.524m) and 5lbs (2.268kg) for every inch thereafter. Therefore a woman who is 5 ft 6ins (1.676m) tall would be given 100 lbs plus 6 x 5lbs, which totals 130 lbs or 9st.4lbs (59kg).
These allocations are considered healthy guidelines for non-active people. However, a distance runner needs to weigh less, about 5 to 10 per cent less. This makes our 6 foot tall male requiring to be 8 to 17 lbs less than his 1761bs, around 168lbs to 159 lbs. And our female of 5ft 6ins should be around 6 lbs to 13lbs less, around 124 lbs to 117 lbs.
The key factor in successful distance running is your height:weight ratio.
Great, another ratio. The article goes to give examples of famous top performance athletes who fall exactly into this height:weight ratio scheme. That being the case, it is something that can’t be ignored. Chris Lear, author of “Running with the Buffaloes”; University of Colorado Cross-Country Coach Mark Wetmore made sure his runners stayed lean and emphasized the importance of not gaining weight when you’re injured. In the book he is quoted as saying that the ideal running physique is “Like a Skeleton with a Condom pulled over it’s skull”. Well damn!
I asked Coach Dean Herbert, a very well respected running coach on the internet about body weight and running and this is what he told me:
“….Though there is slightly more fat burned on very long run late-miles there has not been a connection made to BODY fat content. That is the key missing link. You should be concerned with total calories burned (80-120 or so per mile of running) which lead to a deficit between your intake and output. That is how weight is lost. By the way, when it comes to determining ideal weights every method has been derived from data/statistics on groups of people… not individuals. Body morphology greatly impacts weight. What that means is that all formulas apply to large groups of people not individuals. So be VERY careful in applying some formula and coming up with a “fact” that you should weigh 10% less.”
Got it.
So now what?
I’m buying a power meter hopefully by the winter holiday so I can train with it in earnest during the winter. I can then begin to establish a power/weight ratio on the bike. The thing I’m excited about getting this is that it creates the “carrot” and something I can push towards and judge my training besides heart rate.
Nutrition wise: My goal is to be at a 500 calorie deficit per day. I’m not going to starve myself. I do love to eat. However, the key to success here is not to do this alone. So I hope you’ll help me. Additionally, I’m going to join a local triathlon club.