“Attention, Walmart Shoppers: You Already Have a Prize-Winning Physique For 1900”

Part II of “Before Buff.” (Please find Part I here.)

Bare-knuckle champ John L. Sullivan, gushed over by sports writers as a “beautiful specimen of manhood” on account of his plump good health and energy. (However, he often “took ill” with a pathogen transmitted in oak barrels that disparately afflicted the Irish community.)

You travel back to 1900 and ask Americans, “Show me your most splendid specimen of manhood!” Beaming, they present John L. Sullivan, the world’s heavyweight boxing champion. “Behold!” they exclaim, beaming. “The newspapers proclaim him ‘the physical superior of all men!’”

Stripped to the waist, you reckon, the Gilded Age’s greatest GigaChad and physique star would tie for fourth place in a beauty contest for Walmart shoppers at the superstore in Fort Wayne.

What excites men’s admiration, you see, is his energy–he exudes vigor and hardihood like a scentless musk. It’s contagious. He makes you feel sanguine and strong! Again you consider taking up wet shaving, with a strop and a horsehair brush.

*          *          *          *

Around 1900, America’s muscle men were boxers and wrestlers. Americans didn’t yet lift barbells and dumbbells, which were bleeding-edge imports from Germany, the ground zero and mecca for “heavy gymnastics.”  

Outside of German enclaves, few Americans even had access to gymnastic apparatus or coaching, which was in German anyway. (Sorry, kein Englisch!)

For rough-and-tumble fun, Americans took after the British cousins, who enjoyed wrestling and led the world in pugilism. So when they talked of “fine athletic physiques,” they thought of wrestlers and boxers.

And what kind of physical development did wrestling and boxing create? Well first we have to distinguish look from feel from ability.

“Um, I’m more of, like, a tactile learner?”

It’s a funny thing about men: In my experience, when you hug a dude, you have no idea what’s coming. He might feel like he’s carved out of wood, made of ground beef, or big as two gorillas. Sometimes you put your arm around a lanky guy and he feels like a washer-drier combo wearing a t-shirt. (Straight women, gay men, massage therapists: am I right about this?)

For some reason, it’s hard to know what any given man is “made of” until you clap hands on him. Trainer Rory Miller writes somewhere about his first tussle as a young corrections officer with an intimidating inmate. The guy looked tough as a bowl of razors, but when Miller grabbed him, “the guy felt like he was made out of cheese.” Beneath appearances, the man was crumbling from a lifetime of drugs and hard living and he’d been all hollowed out.

As a lousy high school wrestler, I wrestled a kid from the neighboring industrial town whose arms looked no different from mine, but they felt like steel cables. He pushed me so hard that I tumbled into the wall. If we’d been cartoon characters, I would have flown right through it and left a boy-shaped hole.

Competition kettlebells are color-coded by weight. Since I’m habituated, I feel their different weights in my body with a casual look. In fact, I’m straining in my midsection because the left side of the image “weighs” three times too much for the right side. Apparently my body thinks the picture will collapse if I don’t brace and hold it up with my eyes!

In English the word physique skews visual. We borrowed it from French, the language of Descartes, where it just meant “the body, as opposed to the soul.” But in English it connotes “how fit a body looks.

But I’ll bet that, before modern people got our brains rewired as image-sophisticates, when people did more physical labor, they felt a physique as much as saw it. If not by actually touching it, I bet they “felt” with their eyes. (Think of the way you can look at sandpaper or ice cubes and feel their texture in your fingers.)

I think we need a word for what a thing visually feels like. Heck, I’m inventing that word right now: I’m calling it “look-feel.”

So after just a little first-hand trauma experience, you too may “look-feel” what I look-feel in this wrestler’s photo: me getting double-legged and dumped on the ground. Because as an under-athletic 14-year old, this sight was often followed by the rapid acceleration of my butt toward the mat, hard enough to crater it.

“At sparring tonight, I ate so many jabs, I’m not hungry for dinner! Ba-dum-bum, tss!”

I’ve only sparred in boxing gloves a tiny bit, but I cover myself worse than a blind man addicted to codeine. That’s enough operant conditioning that I see this other picture and feel my left eye stinging. Seriously, I can feel the disinfectant from his glove in my cornea right now, because I backstop a lot of light jabs with my face.

Some guys my same size and age can clinch me casually and I’ll feel like I’m being rag-dolled by a chimpanzee. But when I clinch my teacher back, he feels absurdly wide, like an inverted pyramid that you can’t get your arms round.

Fistic philosopher and inverted pyramid Jason Korol at the Greenville Academy of Martial Arts.

So around 1900, I’m guessing, men rough-housed more than enough to look at these boxers and wrestlers and light up with kinesthetic memories right down in their brain stems.

As for “physique,” i.e. buffness, they ran the gamut from fatback to beef jerky, though not too much prime rib. That is, there were more plump guys and wiry guys than buff ones. There are lots of reasons, and they’re all highly instructive.

Buffness: The Anatomy of a Rare Bird

What ingredients make for a buff physique? It’s a very specific formula of just two ingredients:

buffness = muscular hypertrophy + low bodyfat

It’s tricky to combine the two. For muscular size (hypertrophy), your body must build tissue up, but for leanness, it must pare tissue down. Your body can’t do either one without some effort, and doing both together is much harder.

When does buffness help a lot athletically? Only in those few events that reward high endurance right around the anaerobic threshold and high “relative strength” in the whole body. In short, you benefit from a jacked physique in sports where you must (1) outmuscle somebody, (2) at a fast pace, (3) using all the big muscle groups, (4) for about 2-5 minutes, (5) at a low bodyweight.

In other words, certain gymnastic events (e.g. rings and pommel horse) and some combat sports, especially modern wrestling and (to a lesser extent) modern boxing.

Tyson’s strategy called for short, sharp fights. His movement style–quick lateral shifts, turning blows that started down in his toes–capitalized on “relative strength” (i.e. the most force for the least bodyweight). His tactics–essentially “massed artillery from a broad front”–required huge anaerobic endurance. And often his high tempo could end a contest within a couple rounds. To top it off, Tyson was shorter than other heavyweights, so he looked extra broad-shouldered. Raytheon couldn’t engineer a boxer better designed to make use of the traits that create the jacked and shredded look.

Even then, there are still plenty of variables. As fighters say, “styles make fights,” and some athletes’ styles and game plans benefit more than others from the jacked athlete’s capacity to a unleash few short minutes of Tasmanian devil. Muscly Mike Tyson excelled at terrifying power output that KO’d people in the first round or two. That’s our formula, right there. But Muhammad Ali frequently fought for an hour and his physique matched his style: light for his weight class and height, with no use for excess muscle, because it’s exhausting to dance on your toes in tropical heat for an hour. The worst thing would be to add on the equivalent of a weighted vest. So it’s not even all boxers who gain by being jacked. Tyson was like “the perfect storm” that way.

Weightier still are your sport’s rules. Brazilian jiu-jitsu’s rule set doesn’t reward power and strength as much as wrestling’s rules, so BJJ players sensibly devote less training to them and are less jacked. Sumo rules reward huge bodyweight and absolute strength, and they don’t incentivize even short-term endurance, so sumo physiques reflect that.

And as it happened, around 1900, wrestling and boxing followed pre-modern rules that selected less for the peculiar combo of attributes that make men look jacked.

Wrestling grows more muscle than boxing, as a rule. It generates more power (i.e. foot-pounds per unit of time) and more time under tension, and therefore more hypertrophy. In other words, boxers throw hands, but wrestlers throw bodies, and that makes bigger muscles.

Wrestling champion George Hackenschmidt adopted dumbbells and barbells early. Nowadays he’s remembered less as a wrestling star than as a pioneering ironhead.
For building big muscles, wrestling is missing one huge factor: squatting. Despite tons of posterior chain work (think “deadlift”), the activity of wrestling doesn’t much mimic the king of whole-body hypertrophy, the heavy back squat. In 1900, no one trained heavy barbell squats much, neither wrestlers nor even weightlifters, and that helped limit athletes’ muscle size. (The limiting factor was just squat stands, like the ones above. To squat a heavy barbell, you must get under the bar somehow. After some handy ironhead invented special furniture for that purpose, people started back-squatting and thighs, hips, waists, and chests swelled like sausages!

However, a century ago, wrestling matches lasted far longer than under modern rules. In the 1896 Olympics, the final bout lasted 40 minutes, was suspended at nightfall, and continued the following day. At the 1912 Olympics, two middleweights set an unusual record when their match dragged on nearly 12 hours! And the light heavyweight finalists lasted nine hours with no winner and both got sent home with silver medals.

If you train for events lasting even 15 minutes, you’re already well past the sweet spot for the fickle, elusive combination of mass and leanness. Don’t fret, you can still rock a great mankini, but face it: you’re an aerobic athlete.

Never mind the bodice. This is more intrinsically hypertrophic than punching.

As an activity, boxing stimulates less muscle growth than wrestling. Once again, think of it as “throwing hands vs. throwing bodies.” I’ll skip the meathead physics and physiology, but it’s the same reason you can’t grow huge biceps throwing javelins or baseballs, things of scant heft that fly away too fast to load all your strength into them. To throw them fast, you depend WAY less on muscle than on speed and coordination. In boxing, you’re slinging just 16oz. of leather (450g). Add the weight of your hands themselves and that’s still 50 times less than an ice dancer doing one of those overhead crotch lifts. Don’t get me wrong, boxing blowtorches the lungs and tires the muscles! But in terms of hypertrophy, you’re basically in Jazzercise class.

Hands low to attack and protect the solar plexus. Posture upright to guard against headlocks and rabbit punches. (And eye gouges. They weren’t allowed, but they still happened.)

Furthermore, old-time boxers fought under older rules that slowed down the action and didn’t favor the tornado-like attributes of a buff physique.

To begin with, prize fighters fought without time limits. They also fought without gloves, which meant they actually had to slow way down. They couldn’t throw many hard head shots, lest they break their unprotected hands on somebody’s dome.

So instead of head-hunting, they went for the body. The old-time prize fighter wore you down slowly, in a long stalking match. He might beat on your arms, head-lock or hip toss you (legally!), and whale on soft targets until you tired and ached enough to expose your solar plexus carelessly. And then THUMP!

Against a competent opponent, such a bout was a long, tiring grind. In his 1889 title defense, John L. Sullivan savaged his rival handily in 100-degree heat, but it still took over two hours. That was only a little longer than average.

We’ll speak again of Sullivan, the “beautiful specimen of manhood” who looks to our Instagram brains like an East German factory manager enjoying the beach in exotic Poland. Because believe it or not, his training methods will make you wish you were a bare-knuckle prize-fighter!

Double Your Work Capacity By Being Lazy

This little $4 Esbit stove has been a huge winner for me. Dating back to the 1940s, it uses technology and design so simple and un-screw-up-able that I consider it honorarily Russian. And though it’s as just a survival stove, if you add a coffee can to screen it from the wind and contain the heat, it gets wicked hot.
I’m paranoid about camp fires getting out of control in the summer, but luckily I could just stand in the stream cook on top of this boulder.

I’ve long preached that you should do workouts that you enjoy. It’s actually pretty easy to make progress, and if you’re consistent about doing those easy things, you’ll soon be achieving milestones that put you far, far, far ahead of the general population.

And how do you know if you’re continuing to make progress with your easy, enjoyable training? You just keep track of some key benchmarks over time, including some standard workouts. If you keep improving in those numbers, you’re doing something right!

For example, easy running guru Maffetone has his athletes run a standard test workout periodically. They run three miles at a pre-determined, low heart rate: if their time improves, they know their aerobic base is improving.

One of my benchmarking workouts is the hike to my favorite camping spot in the Marijuana Highlands. It’s 15 miles of bad, steep terrain. On my first romp out there in 21 months ago, I took a pack weighing 45# (wet) and needed 7 hours to arrive in camp. When I got there I was delirious and sore all over, my feet looked like raw chicken breasts, and it took a long, painful time just to strip off my clothes and boots. On future trips I cut the hike down to 5.5 hours and didn’t wreck myself getting to camp, but it was still a substantial hike.

Full disclosure: at 39 lbs., my pack was 6 lbs. (2+ kg) lighter than my first trip. The weather was also cooler. On the other hand, I did this trip with no food but about 200g of nuts.

So I was blown away by my last trip. Despite taking it very easy, I arrived in camp an hour faster than ever before and fresh as a bowl of strawberries. This being my first big romp of the year, I assumed I would be tired and slow, but on the contrary it was barely lunch time and I was sitting in camp with hours of daylight left, tons of pep, and nothing to do.

So I packed up and did the whole thing in reverse! I spent 95 minutes eating nuts, swimming in the stream, and having coffee, and then I rucked up and marched all the way back. It was a joy! I didn’t push myself on the return march (and in fact had to slow down several times to keep my heart rate under control), but without trying I ended up equaling my best-ever time of 5.5 hours.

This was a huge surprise. I figured it would be possible to hike straight back, to save someone’s life or as a stupid stunt, but I supposed you’d have to do it on pure gumption and willpower.

But now I know better because I just did it, out of boredom and with a smile on my face!

Selouyanov on Endurance (Pt. 2): More Russian Sports Science from Dr. Smet

Guest author “Dr. Smet” finishes his insider’s tour of the Russian sports science underlying Pavel Tsatsouline’s long-awaited endurance training manifesto, The Quick and the Dead. I follow Dr. Smet’s blog Girevoy Sport After 40 to read about top-dog Russian coaching and research from a medical scientist who also practices what he reports on.

Before we start I have to make a disclaimer of sorts. Soviet sport scientists then and Russian scientists now often have fragmented interest and education in the field. Throughout his lectures Selouyanov makes statements that are debatable, to say the least, even though he doesn’t seem to have experience in the subject. For example, his view is tht the only way to increase the strength of the glycolytic muscle fibers is to lift maximal weights to failure. Therefore, if some powerlifters don’t follow that rule and still get strong – that must be steroids, no other explanation is possible. I am not qualified to argue the subject and am only conveying Selouyanov’s work, so take it or leave it. 

So let’s get to the most relevant parts of Selouyanov’s teachings. 

Muscle fibers 
Muscle fibers are loosely divided into three types, depending on the activity of the enzymes, in poarticular ATP-ase. Oxydative muscle fibers (type I) have slow ATP-ase, their speed of contraction is slow and they are resistant to fatigue. Glycolytic muscle fibers (type II) have fast ATP-ase, contract quickly and can be either resistant to fatigue (Type IIA) or not (Type IIB). 
For the purpoose of training muscle fibers can be looked at in the following way:
Oxidative fibers – have mitochindrial mass that cannot be developed further. Each myofibril is surrounded by a layer of mitochondria. These fibers use fatty acids in the active state. 
Intermediate fibers – have lower number of mitochondria. As the result two processes occur during activity: aerobic glycolysis and anaerobic glycolysis. During activity lactate and hydrogen ions are accumulated, so these fibers develiop fatigue, but not as fast as purely glycolytic type. 
Glycolytic fibers – have no or little motochondria, so that anaerobic glycolysis predominates, with the resulting accumulation of hydrogen ions and lactate. 

Factors that determine endurance

According to Selouyanov the difference in endurance can be fully explained by several factors. 
1) First, the development of the oxidative muscle fibers. Among well trained endurance athletes oxydative muscle fibers comprise 90 – 100% of the total muscle mass, therefore they don’t produce lactic acid in excessive quantities that cause significant acidosis and the resulting decline oin performance. To the contrary, among untrained individuals 50% of muscle consists of intermediate muscle fibers which, during their progressive recruitment during exercise, accumulate lactate. 
2) The second reason for better endurance among trained individuals is that their aerobic system switches on earlier, mostly because they have more oxidative fibers, so that the initial production of lactate is lower. 
3) Trained individuals utilize lactate more efficiently. Mitochondria are capable of utilising piruvate, and in the oxidative fibers piruvate is produced from lactate. 
 Fourth reason for better endurance – increased volume of the circulating blood. This, in turn, results in the reduced concentration of produced lactate.
The role of the heart. 
Endurance training leads to the dilatation of cardiac ventricles. This, in turn, makes cardiovascular system more efficient, in the way that the same cardiac output – the amount of blood the heart is capable of pushing though per minute – is achieved by fewer contractions. Training of the heart is a separate topic and will not be discussed here. 

Three types of exercises
All types of exercises utilised for the training of grapplers can be divided into three types. 

Effective exercises. 

  • Dynamic, maximal anaerobic power, to failure – facilitate the development of myofibrills in glycolytic and intermediate muscle fibers
  • Stato-dynamic, of maximal anaerobic power (100%), to failure (pain) – develop myofibrills in the oxidative and intermediate muscle fibers
  • Dynamic and stato-dynamic, of maximal alactic power, done to less than ½ of the limit, performed the light local muscular fatigue, repeated after normalisation of acidosis – facilitate some increase of the myofibrills and mitochondria in the glycolytic and intermediate muscle fibers
  • Dynamic exercises of near maximal power (90%), done to less than ½ of the limit, performed till light local muscular fatigue, repeated after the elimination of acidosis – facilitate some increase of the myofibrills and mitochondria in the glycolytic and intermediate muscle fibers
  • Dynamic exercises of submaximal (60 – 80%) power, done to less than ½ of the limit, performed till light local muscular fatigue and repeated after the elimination of excessive acidosis – facilitate some increase of the myofibrills and mitochondria in the glycolytic and intermediate muscle fibers

Harmful exercises.

  • All exercises of near or sub-maximal anaerobic power, as well as those of maximal aerobic power performed to the limit and causing excessive acidosis (pH < 7.1, lactate > 15 nMoll/L).

All other types of exercises have little useful effect for the development of endurance among grapplers. 
According to Selouyanov there are two ways to increase endurance and strength in skeletal muscle: increase the number of myofibrills and increase the number of mitochondria. Both are achieved differently in glycolytic (and intermediate) and oxidative muscle fibers, therefore we are left with four training modalities. 
In order to increase myofibrillar mass four factors must be present. 

  • Reserve of amino acids in the muscle cell (provided by consuming protein)
  • Increased concentration of anabolic hormones as the result of mental strain
  • Increased concentration of free creatine in muscle fibers
  • Increased concentration of hydrogen ions

Increasing the number of myofibrills in the glycolytic muscle fibers.
I suspect this part will make quite a few of us cringe. However, the goal of this post is to convey Selouyanov’s opinion on optimal training, so bear with me here. [Editor’s note: In effect, Selouyanov is about to ignore a core doctrine of Pavel Tsatsouline’s, namely the taboo against training to failure.] Glycolytic muscle fibers are activated when maximal muscular effort is required and no earlier. Therefore (according to the good professor), the growth of glycolytic muscle fibers can be achieved only by utilising weights of of maximal or near maximal intensity. The following conditions have to be present:

  • Intensity of maximal or near maximal intensity – more than 70% of 1RM
  • Exercise is performed to failure, i.e. to full exhaustion of CPn and achievement of high concentration of free creatine
  • Number of repetitions – 8 – 12. Last couple of reps have to be forced (with the help of a partner)
  • Rest – 5 minutes. Should be active, aerobic activity at HR of 100 – 120/min, this helps to utilise lactic acid
  • Number of sets: 7 – 9 if the goal is growth, 1 – 4 for tonic effect
  • Number of training sessions per day – one or two, depending on the intensity and athlete’s condition
  • Number of sessions per week – synthesis of myofibrills takes about 7 days, this is how long the athlete should rest after a training session done to the limit.

Myofibrillar hyperplasia in the oxidative muscle fibers
The method for developing myofibrills in oxidative fibers is similar to that for glycolytic muscle cells. With the exception that exercises are performed without relaxation. In that case the capillaries in the muscle are compressed, limiting circulation and leading to the hypoxia of the muscle fibers and the accumulation of lactate and hydrogen ions. 
I suspect this works similar to the occlusion (Kaatsu) training that became somewhat popular in the recent years. Selouyanov believes that mostly slow/oxidative muscle fibers grow under these conditions – Smet. 
To get the idea of this method imagine a barbell squat. Except that it is performed in the way that doesn’t allow for the pause at the top, with incomplete range. This way the muscles are continuously contracted to one degree or another, and after 20 – 30 seconds you get the burn, which is the desired effect. 
The conditions for the efficiency of this method are as follows: 

  • Intensity – medium: 20 – 40% of 1RM
  • No relaxation pohase during exercise, the muscles are continupusly contracted
  • Tempo and duration – slect the weight so that the athlete can perform 25 repetitions in 30 seconds. Last few repetitions should cause significant pain.
  • Rest – 30 seconds (active)
  • This exercise is performed in series of 3 – 5 sets. 25 reps in 30 seconds equals one set.
  • Number of series in one session: 1 – 2 for the tonic effect, 3 and more for growth.
  • Number of sessions per week – exercise is repeated in 3 – 5 days.

There is no mention of rest between series. I suppose it is several minutes, until the muscles feel relatively fresh.
Selouyanov recommends doing exercises aimed at growing muscle fibers at the end of the training session and better in the evening. If other types of training is done after this the reduction of glycogen can negatively interfere with the protein synthesis and impair growth. 
Development of mitochondria in skeletal muscle
Formation of mitochondria is controlled according to the principle of the functional criteria. According to this criterion, mitochondria that cannot properly function are eliminated. 
One of the natural factors leading to the destructurisation of mitochondria is hypoxia (e.g. being at altitude) and accompanying anaerobic metabolism. Similar processes occur during anaerobic training. 
Several generalisations can be made in regards to mitochondria: 

  • Mitochondria are energy stations of the cell and supply ATP by aerobic metabolism
  • Mitochondrial synthesis exceeds the destruction during conditions of their intensive functioning (oxidative phosphorilation)
  • Mitochondria tend to appear in the areas of the cells where the delivery of ATP is required
  • Intensive destructurisation of mitochondria occurs when the cell is functioning at high intensity in the presence of anaerobic metabolism which leads to the excessive and prolonged accumulation of ydrogen ions in the cell

Based on the above it is possible to develop methods of aerobic development of the cell. Every skeletal cell contains three types of muscle fibers. 

  • Those that are activated regularly during every day activity (oxidative)
  • Those activated only during training requiring moderate muscular activity (intermediate fibers)
  • Those that are seldom activated – only during maximal or near maximal effort, such as jumps, sprints etc. (glycolytic fibers)

In well trained individuals oxidative muscle fibers are maximally adapted. In other words, the number of mitochiondria in these muscles cannot be developed any more. It has been demonstrated that aerobic training at the level below anaerobic threshold in well trained athletes has zero value. 


Therefore, in order to increase aerobic potential of the muscle fiber it is necessary to build structural basis – new myofibrills. New mitochondria will then develop around these myofibrills. There is a special methodology which has been tested: interval training using two exercises. For example, pushups and pullups from low bar (unloaded, so that the feet are resting on the ground). 


General principles of such training are as follows: 

  • Exercises are performed at low intensity, i.e. 10 – 20% 1RM
  • Exercise is performed at medium or fast tempo
  • Full ROM is utilised
  • Duration – until early signs of local muscular fatigue
  • The template – 5 – 8 repetition of one exercise is followed by 5 – 8 repetitions of another without rest – that is 1 set
  • No pauses between sets
  • Number of sets – 5 – 10 (determined by the degree of fatigue) – that’s 1 circle
  • Number of circles in a session – 1 – 5 (fatigue and is determined by the glycogen stores in muscle tissue)
  • Session done at maximal volume can be repeated after 2 – 3 days, after glycogen stores are restored

Selouyanov on Endurance (Pt. 1): A Guest Post by Dr. Smet

Russian training methods and Russian sports science. Raise your hand if you (a) love these things but (b) don’t read Russian. Then you probably owe almost everything you know to Pavel Tsatsouline, THE great interpreter of that subject and almost the most influential voice in American exercise. Pavel created an appetite for English-language popularizations of Russian training research much greater than any one man can satisfy, even a pedagogical genius like Pavel. Today guest author “Dr. Smet,” a Russian-educated physician practicing abroad, takes us behind the curtain of Pavel’s latest book for a direct look at some of its source material. Dr. Smet’s blog Girevoy Sport After 40 is required reading for lean solid dogs, lazy badasses, and grapplers and kettlebell competitors. He has graciously allowed me to cross-post his original piece. -Dog in Chief

Pavel Tsatsouline has finally published his long-awaited book on endurance training, the Quick and the Dead. Despite the hype, in the end I was underwhelmed. Don’t get me wrong: the book has useful information but, as it makes clear on the last page, it is a long infomercial for the StrongFirst Strong Endurance seminar.

Victor Nikolaevich Selouyanov (1946-2017)

The material in the book is based on the research of a few Russian sport scientists and coaches, most notably Victor Selouyanov, previously mentioned in my blog [Girevoy Sport After 40 -ed.] in the post “The Heart is not a Machine.” Selouyanov was a bit of a renegade, and because of disagreements with the science establishment he never completed his doctorate. Nevertheless, his contribution to the understanding of training endurance was invaluable, and Russian sports science is still bitterly divided between his followers and opponents.

Selouyanov wrote several books, among them two that are of interest to me: Physical Preparation of Grapplers and The Development of Local Muscular Endurance in Cyclical Sports. Both deal with endurance, and Selouyanov’s concepts allow a systematic approach to training endurance in pretty much any sport. I will briefly and loosely summarize the most relevant parts of the book for grapplers (my current love).

Muscle fibers

From practical point of view Selouyanov was talking about two distinct groups of muscle fibers: glycolytic and oxidative. Glycolitic muscles are capable of producing great force, but because they are not very good users of oxygen they get tired quickly – in a few seconds – and are not very useful for activity that requires endurance. Oxidative fibers, on the other hand, do not produce as much force, but are virtually impossible to fatigue in aerobic conditions. Their power production drops from maximal to about 80% and stays there for a long time.

What gets oxidative muscle fibers at the end is the accumulation of lactic acid and, more precisely, hydrogen ions and the resulting acidosis. It happens if the production of lactate exceeds its elimination, which happens when you demand too much work from your muscles.

Oxidative muscles are good users of oxygen because of large number of mitochondria in them. Mitochondria are “power stations” of the cell where oxidation – the reaction between various substrates and oxygen – occurs, which results in the regeneration of ATP, the fuel that feeds the muscle fiber and allows it to contract.

Therefore, in order to develop endurance you have to do two things: build myofibrills (units of which muscle fibers are composed) and build mitochondria around them.

Classification of training loads based on long term adaptation

Methods of training are aimed at changing the structure of muscle fibers in the skeletal and myocardial muscle, as well as other systems (endocrine, for example). Every method is determined by several parameters that reflect the external features of a given activity: intensity of contraction, intensity of exercise, duration (repetition, series of the actual duration of exercise), rest interval and the number of sets or series (explained later). Each method activates internal processes which reflect immediate biochemical and physiological effects of a given training method. The final result is long term adaptation, which is the actual goal of using a particular training method.

For the sake of brevity I won’t spend much time on the internal processes elicited by each training method. I assume everyone reading this is a practitioner and is more interested in the description of the method and the long term adaptation it causes.

And so the methods are classified as follows.

1. EXERCISES OF MAXIMAL POWER

External features:

  • Intensity of contraction – 90 – 100%
  • Intensity of exercise – 10 – 100%. 

Barbell squats and bench press, for example, are activities with low intensity of exercise, but high intensity of muscle contraction. Throws performed with the wrestling dummy in high tempo and low rest intervals is the example of high intensity of both muscular contraction and exercise. 

  • Duration – usually short
    • Strength exercises are usually done for 1 – 4 repetitions
    • Speed-strength activity – up to 10 reps
    • Speed exercises – 4 – 10 seconds
  • Rest intervals – depends:
    • For strength exercises – 3 – 5 minutes
    • Speed-strength exercises – 2 – 3 minutes
    • Speed exercises – 45 – 60 seconds
  • Number of series/sets depends on the goals. 
    • So called “developing” sessions use 10 – 40 sets
  • Weekly frequency depends on the goals. 
    • If the goal is to develop myofibrills in the muscle fiber the series is performed to failure
    • If the goal is to develop mitochondria the series are performed to light fatigue

You just witnessed a fairly common phenomenon seen in Russian literature: the discordance of content and the title. This is exactly how it is in the text: weekly frequency – to failure or not, depending etc. It doesn’t make sense, I know, but we will have to forgive the good professor. – Smet.

Long term adaptation. 

  • If performed to failure, this method leads to the increase of myofibrills in glycolytic and intermediate muscle fibers
  • If done to mild fatigue – leads to the increased phosphorylation in glycolytic and intermediate fibers, eventually leading to the increase in mitochondria

2. EXERCISES OF NEAR MAXIMAL POWER


External features:

  • intensity of muscular contraction – 70 – 90%
  • intensity of exercise – 10 – 90%
  • Example – barbell squat or bench press done for more than 12 repetitions
  • If you increase the tempo of exercise and reduce the periods of contraction and relaxation of muscles, you turn these exercises into speed-strength type. Examples include jumping and throwing wrestling dummies

Duration:

  • generally 20 – 50 seconds
  • strength exercise are performed for more than 12 reps
  • speed strength exercises – 10 – 20 reps
  • speed exercises – 10 – 50 seconds

Rest intervals:

  • for strength exercises – more than 5 minutes
  • speed-strength activities – 2 – 3 minutes
  • speed activities – 2 – 9 minutes

Weekly frequency:

  • This method is aimed at increasing the power of anaerobic glycolysis
  • Currently there are no publications that demonstrate positive effect of near maximal exercises performed to failure.
  • However, numerous studies show deleterious effects from this type of exercise.

Long term adaptation:

  • most effective for increasing myofibrilles in glycolytic muscle fibers
  • no increase in mitochondria
  • If terminated well before failure or performed with pauses, this method leads to the development of mitochondria in glycolitic and intermediate fibers: there is no excessive acidosis in the muscle cell, and lactic acid is eliminated during rest. 

There is a method used by Russian athletes, called 10×10. An example in the video below:

Grigor Chilingaryan, one of the specialists from the laboratory of sports adaptology that was founded by Prof. Selouyanov. Start at 3:00

The session consists of three exercises: pushups, jumps and pullups, all done for 10 reps in a circuit, for ten rounds, the intensity –  about 80%. As you can see, the athlete never comes close to failure, and each rep is follower by a short rest – which gives the muscles a chance to get rid of lactic acid and avoid acidosis. This is the example of near maximal training without destroying the body. The coach recommends starting with lower rounds and building up gradually. 

To be continued

Burgerfeet

Human foot or cheap stew meat in butcher paper pulled from a dumpster?

“At GORUCK events, people’s foot care is surprisingly poor,” said the former ultra runner somewhere around Mile 20. I smarted at the comment, but I couldn’t deny it: the inside of my own boot was slowly grating my little toe like parmesan.

You meet a wide rainbow of fellow weirdos at GORUCK challenges with different athletic backgrounds, ranging from Crossfitters (the most numerous) all the way to equestrian gymnast(!). This was the first time I’d encountered a serious distance runner, though, and it became clear that that community was privy to an advanced science of foot health as foreign to the rest of us as architecture was to Visigoths and Huns.

At the moment, neither he nor I had breath for a long tutorial on the subject, but I resolved to study more after our team lost our second member of the night to foot injury and my own foot was being ground up into burger meat.

Here’s part of what I learned, most of it from Jon Vonhof’s Fixing Your Feet and friends like Scott H., Nick F., and Sgt. Šileika:

  • Your shoes are probably too small. As I’ve related before, I was wearing a 9½ when I should have worn a 10½ Wide. Ideally, get your feet measured by someone at a specialized store, like REI or a running store. And when you take the insoles out of your shoes and stand on them, if any part of your foot overhangs (or even reaches) the edges of the insole, you need bigger shoes.
  • Your feet get bigger with age, not least of all as they become more muscular with training! That seems strange–I always thought of my shoe size as an immutable given, like my height–but on reflection it’s perfectly intuitive. Feet are made mostly of muscle, and they respond to training like other muscles. If you start doing pull-ups for hours at a time, your back and arms will outgrow your shirts. Likewise, if you backpack for hours at a time, your foot muscles might well outgrow your old shoes.
  • Keep your feet dry. I hate this rule because I like charging through streams and doing water PT and I hate halting afterward to change socks, but it’s helped me stop getting Burgerfeet™.
  • Speaking of dry and happy feet, cotton socks are the devil. Wear wool or one of the new space-age moisture-wicking products. And it seems that most runners wear more than one sock layer.
  • Socks are like holsters: You have to try a bunch to find the right setup. You’ll end up with a drawer full of rejects–live with it.
  • And a sock setup that works with one pair of shoes does not necessarily work with another. (See “socks-are-like-holsters” above.)
  • Moisturize your feet every day. Most of the pros also lubricate their feet before they put on their socks.
  • Athletic tape from the corner drug store has been superseded by things like Leukotape and ENGO pads.

Everyone Should Do LSD

Part 4 of our series “The Tao of the Lazy Badass”

Long, Slow Distance

I hate to say this, but your single biggest priority is to create some modest aerobic base. If you were cursed by an evil genie to be allowed only one kind of exercise, it would need to be something aerobic.

Come on, Eighties, you’re better than this.

Why do I hate saying that? Because it sounds so 1980s, when America fetishized cardio to the neglect of all else and said we should avoid dietary fat and live on bagels and pasta. 

But you get the most happiness, health, leanness, and energy from a modest dose of easy aerobic exercise.

And I really do mean easy. I’m talking a maximum heart rate of 180 minus your age. That’s nothing. Unless you have a good aerobic base already, that’s probably just a fast walk while swinging your arms. 

And the great part is, you benefit MUCH more from that easy pace than by pushing yourself. If you care about why, read the writings of endurance super-coach Phil Maffetone. Maffetone trains elite athletes mostly or entirely in that 180 Minus Age zone, which is also where the endorphins and the bliss are. But whether or not you concern yourself with the “why?” the important point is this: by keeping your heart rate low, you IMPROVE the training effect. You are not compromising your training by going easy. You will outperform the people who train at too high a heart rate (which is almost everyone).

How do I figure out my heart rate?

The Polar FT1. It’s old, basic, debugged, and the least expensive of the reliable, useful ones. If Stalin had a heart rate monitor, it would be this one.

Buy a heart rate monitor. You’ll need to spend about $60 for an adequate, reliable basic model. Frugal to a fault, I seldom recommend throwing away money on wiz-bang fitness devices. But a heart rate monitor is one of the few exceptions. It really does help SO much that it’s a must-buy even for a tight-fisted Buddhist stoic who thinks that if the Red Army considered something an unnecessary frippery, you can too.

No, you don’t need to start running

Leonard’s Schwartz’s forgotten classic, Heavy Hands. Run, do not walk, to this book. Or at least power walk there.

So do I mean that you should start walking or running? Nope. Do anything that elevates your heart rate to that magic number and holds it there steadily. You can ride a bike, roller blade, paddle or row, ski or snowshoe, and you might also really like another obscure activity from the 80s called HeavyHands. Trust me on this one: HeavyHands is awesome and makes you feel incredible.