Protect Your Kids...

Tuesday, August 12, 2014

Cressey on being recruited...

Followers of Beyond Athletic Life Lessons know that we're very big on Eric Cressey. He works with some of the top overhand throwing and Olympic athletes in the nation. We're blessed to be able to use his talent to help you train better and, well, be better.  Here's a link to an article that talks about questions to ask during the recruiting process if you are recruited in high school. 

Wednesday, February 26, 2014

What Baseball and Softball Coaches and Players Should Know About "in-season" Conditioning and Recovery...

Eric Cressey is a great friend of BALL and operates the premier training facility specializing in overhead throwing athletes.  His facility is also one of the nation's elite Olympic sport training facility.  From time-to-time, he allows us to piggy back on his extensive knowledge base.

This is one of those times.  Enjoy!

What Baseball and Softball Coaches and Players Should Know About "in-season" Conditioning and Recovery...

Wednesday, January 1, 2014

Thursday, November 21, 2013

Thanksgiving 2013

As we get closer to Thanksgiving, we tend to get more reflective. On behalf of BALL, I would like to would like to take this opportunity to thank all of the volunteers and supporters of BALL. We're looking forward to doing great things in 2014!

Saturday, September 14, 2013

Debunking Myths…Lactic Acid

Wooden said that to be successful, you must master 3 components:  physical, mental, and emotional.  Therefore, BALL has lessons dealing with each.  The following is an example of the physical component...

For years, coaches have been telling their players that lactic acid causes muscle soreness.  Conventional coaching wisdom said that, to get rid of such lactic acid, athletes need to run longer distances in an effort to “flush” the lactic acid from the player’s sore area. We’ve even heard of some trainers force-feeding unfortunate athletes with various bad-tasting concoctions made up of stuff like baking soda to magically “flush” the system of the acid more quickly.
Conventional wisdom is wrong…and has been doing athletes a disservice since the late 1970’s.
This is particularly disconcerting for athletes who need explosive quickness but not necessarily extended endurance.  In a nutshell, unless an athlete needs to sustain a competitive pace for a long time, extended aerobic exercise can do more harm than good.  Examples of these athletes are baseball pitchers, football position players, wrestlers, etc.. While there is always a place in athletic development for aerobic conditioning, running long distances actually decrease a player’s ability to explode by suppressing the central nervous system’s ability to fire fast twitch muscles.  In other words, it can retard athletic development.  Want anecdotal proof?  Look at the physical difference between an Olympic sprinter versus a distance runner.  
Way back in 2006, the following article about the mythology of lactic acid generated heated discussions in several coaching circles…yet for some reason, many coaches missed it.  This highlights the need for coaches to be current in their education and not simply rely on training techniques simply because “that’s the way it’s always been done”.

The New York TimesLactic Acid Is Not Muscles' Foe…It's Fuel
Everyone who has even thought about exercising has heard the warnings about lactic acid. It builds up in your muscles. It is what makes your muscles burn. Its buildup is what makes your muscles tire and give out.
Coaches and personal trainers tell athletes and exercisers that they have to learn to work out at just below their "lactic threshold," that point of diminishing returns when lactic acid starts to accumulate. Some athletes even have blood tests to find their personal lactic thresholds.
But that, it turns out, is all wrong. Lactic acid is actually a fuel, not a caustic waste product. Muscles make it deliberately, producing it from glucose, and they burn it to obtain energy. The reason trained athletes can perform so hard and so long is because their intense training causes their muscles to adapt so they more readily and efficiently absorb lactic acid.
The notion that lactic acid was bad took hold more than a century ago, said George A. Brooks, a professor in the department of integrative biology at the University of California, Berkeley. It stuck because it seemed to make so much sense.
"It's one of the classic mistakes in the history of science," Dr. Brooks said.
Its origins lie in a study by a Nobel laureate, Otto Meyerhof, who in the early years of the 20th century cut a frog in half and put its bottom half in a jar. The frog's muscles had no circulation — no source of oxygen or energy.
Dr. Myerhoff gave the frog's leg electric shocks to make the muscles contract, but after a few twitches, the muscles stopped moving. Then, when Dr. Myerhoff examined the muscles, he discovered that they were bathed in lactic acid.
A theory was born. Lack of oxygen to muscles leads to lactic acid, leads to fatigue.
Athletes were told that they should spend most of their effort exercising aerobically, using glucose as a fuel. If they tried to spend too much time exercising harder, in the anaerobic zone, they were told, they would pay a price, that lactic acid would accumulate in the muscles, forcing them to stop.
Few scientists questioned this view, Dr. Brooks said. But, he said, he became interested in it in the 1960's, when he was running track at Queens College and his coach told him that his performance was limited by a buildup of lactic acid.  When he graduated and began working on a Ph.D. in exercise physiology, he decided to study the lactic acid hypothesis for his dissertation.
"I gave rats radioactive lactic acid, and I found that they burned it faster than anything else I could give them," Dr. Brooks said.
It looked as if lactic acid was there for a reason. It was a source of energy.
Dr. Brooks said he published the finding in the late 70's. Other researchers challenged him at meetings and in print.
"I had huge fights, I had terrible trouble getting my grants funded, I had my papers rejected," Dr. Brooks recalled. But he soldiered on, conducting more elaborate studies with rats and, years later, moving on to humans. Every time, with every study, his results were consistent with his radical idea.
Eventually, other researchers confirmed the work. And gradually, the thinking among exercise physiologists began to change. "The evidence has continued to mount," said L. Bruce Gladden, a professor of health and human performance at Auburn University. "It became clear that it is not so simple as to say, Lactic acid is a bad thing and it causes fatigue."
As for the idea that lactic acid causes muscle soreness, Dr. Gladden said, that never made sense.
"Lactic acid will be gone from your muscles within an hour of exercise," he said. "You get sore one to three days later. The time frame is not consistent, and the mechanisms have not been found."
The understanding now is that muscle cells convert glucose or glycogen to lactic acid. The lactic acid is taken up and used as a fuel by mitochondria, the energy factories in muscle cells.
Mitochondria even have a special transporter protein to move the substance into them, Dr. Brooks found. Intense training makes a difference, he said, because it can make double the mitochondrial mass.
It is clear that the old lactic acid theory cannot explain what is happening to muscles, Dr. Brooks and others said.
Yet, Dr. Brooks said, even though coaches often believed in the myth of the lactic acid threshold, often they ended up training athletes in the best way possible to increase their mitochondria. "Some coaches have understood things the scientists didn't," he said.
Through trial and error, coaches learned that, in endurance-based team ports such as football, basketball, and soccer, athletic performance improved when athletes worked on endurance - running longer and longer distances, for example. That, it turns out, increased the mass of their muscle mitochondria, letting them burn more lactic acid and allowing the muscles to work harder and longer. 
But when a sport calls almost exclusively for explosiveness, this is simply not the case.  Modern coaches in these sports often tell athletes to train very hard in brief spurts.  That extra stress increases the mitochondria mass even more, Dr. Brooks said, and is the key reason for improved performance.
And the scientists?
They took much longer to figure it out.
"They said, 'You're anaerobic, you need more oxygen,' " Dr. Brooks said. "The scientists were stuck in 1920."
Copyright 2006 The New York Times Company