The Burpee: the ultimate conditioning tool

The burpee is a staple in many conditioning routines, and for good reason. This simple exercise can be done almost anywhere, by almost anyone.

To perform a Burpee:

  • Begin in a squat position with hands on the floor in front of you.
  • Kick your feet back, while simultaneously lowering yourself into the bottom portion of a pushup. Your arms will not be extended.
  • Immediately return your feet to the squat position, while simultaneously pushing “up” with your arms. You will perform a pushup as you return your feet to the squat position.
  • Leap up as high as possible from the squat position. Repeat, moving as fast as possible.

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Burpee benefits
Some of the benefits of adding burpees to your workout routine:

  • Strength;
  • Total body conditioning;
  • Improved anaerobic capacity;
  • Improved body composition; and
  • Weight loss.

It’s not a Squat Thrust
At first glance, you may associate the burpee with a traditional squat thrust. Squat Thrusts are typically performed without the vertical jump. With a squat thrust, you simply “stand up” before returning to the squat position. Squat thrusts are much easier than explosive burpees.

Variations
There are many variations to performing burpees. Some will lower the intensity, while others will increase it. They include:

  • Burpees without a push-up;
  • Dumbell Burpees;
  • Weighted Vest Burpees; and
  • Medicine Ball Burpees.

With or without weighted resistance (dumbbells, vests, medicine balls, etc.), a regular dose of burpee conditioning will provide immediate, and drastic improvements in your physical fitness.

Burpee Intervals
Burpee Intervals are one of the best conditioning drills. Here is one of my favorite Burpee conditioning workouts from Infinite Intensity by Ross Enamait.

Begin with 30 seconds of Burpees, and immediately follow with 30 seconds of shadow boxing. Continue this pattern for a full 2 or 3-minute round.

The Round

  • 30 sec x Burpees;
  • 30 sec x shadow boxing.

Beginners

  • 4 x 2-minute rounds with 1 minute of rest between rounds.

Intermediate

  • 6 x 2-minute rounds with 1 minute of rest between rounds; or
  • 4 x 3-minute rounds with 1 minute of rest between rounds.

Advanced

  • 6 x 3-minute rounds with 1 minute of rest between rounds.

Master

  • 6 x 3-minute rounds with 30 seconds of rest between rounds.

Energy systems of the body (simplified)

ATP broken down

The first thing to remember is that ANY muscle contraction or physical effort is due to a molecule called adenosine triphosphate (ATP). When an ATP molecule is combined with water the last of three phosphate groups splits apart and produces energy. This breakdown of ATP for muscle contraction results in adenosine diphosphate (ADP). The limited stores of ATP must be replenished for the physical effort to continue; so chemical reactions take place to add a phosphate group back to ADP to make ATP.

How ATP is produced
Take three different activities and put them on a continuum. On one end would be a quick, explosive burst such as throwing a punch. On the other end would be an extended, lower-level event such as walking five miles. Between the two could be anything. An intense twenty-second activity, one minute of constant force exertion, or a five-minute event with varied intensities of effort.

The three energy systems
Conventionally, there are three energy systems that produce ATP:

  • ATP-PC;
  • Glycolytic or lactic acid;
  • Aerobic or oxidative.

All systems are available and “turn on” at the onset of any activity. What dictates which one (or two) is relied upon the most is the effort required.

ATP-PC system – maximum power / short duration
ATP and phosphocreatine (PC) compose the ATP-PC system, also sometimes called the Phosphogen system. It is immediate and functions without oxygen. It allows for up to approximately 12 seconds (+ or -) of maximum effort. During the first few seconds of any activity, stored ATP supplies the energy. For a few more seconds beyond that, PC cushions the decline of ATP until there is a shift to another energy system.

Examples:

  • 100m sprint;
  • Discus throw;
  • Weight lifting.

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Lactic acid system – moderate power / moderate duration
Now it becomes more complicated as the energy demands shift to this system. The glycolytic or lactic acid system is the “next in line” tool after the ATP-PC system runs its course. Dietary carbohydrates supply glucose that circulates in the blood or is stored as glycogen in the muscles and the liver. Blood glucose and/or stored glycogen is broken down to create ATP through the process of glycolysis. Like the ATP-PC system, oxygen is not required for the actual process of glycolysis (but it does play a role with the by-product of glycolysis: pyruvic acid).

Here is where it gets interesting. After maximum power declines around 12 seconds, further intense activity up to approximately 30 seconds results in lactic acid accumulation, a decrease in power, and consequent muscle fatigue. This high, extended effort is labeled “fast” glycolysis. Exerting further effort up to approximately 60 seconds results in another drop in power due to the shift in dependence on the oxidative system.

Enter “slow” glycolysis into the discussion. Remember that the by-product of glycolysis is pyruvic acid. In fast glycolysis, more power can be generated, but pyruvic acid is converted to lactic acid and fatigue ensues quickly. Slow glycolysis is different. Relatively less power is generated, but pyruvic acid is converted to acetyl coenzyme A (acA), fed through the oxidative Krebs cycle, more ATP is produced, and fatigue is delayed.

Examples:

  • 400m sprint;
  • 800m sprint.

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Aerobic system – low power / long duration
Your maximal effort was fueled initially by the ATP-PC, but your performance declines. Continued effort results in further decline, either via fast glycolysis (quick decline) or slow glycolysis (slower decline). You’re now entering the complex world of the low power but longer duration aerobic or oxidative system.

Examples:

  • 5km run;
  • long distance running or walking.

The effort demand is low, but ATP in this system can be produced three ways:

  • Krebs cycle;
  • Electron transport chain;
  • Beta oxidation..

First, the science. The Krebs cycle is a sequence of chemical reactions that continues to oxidize the glucose that was initiated during glycolysis. Remember the acA? It enters the Krebs cycle, is broken down in to carbon dioxide and hydrogen, and “bang” two more ATP molecules are formed.

The problem is, the hydrogen produced in the Krebs’s cycle and during glycolysis causes the muscle to become too acidic if not tended to. To alleviate this, hydrogen combines with several enzymes and is sent to the electron transport chain. Through more chemical reactions in the electron transport chain, hydrogen combines with oxygen, water is produced, and acidity is prevented. Notice this takes time due to the need of oxygen, which is why the oxidative energy takes a while and intensity of effort declines (i.e., max effort sprints become a slow jog/walk).

The Krebs cycle and the electron transport chain metabolize triglycerides (stored fat) and carbohydrates to produce ATP. The breakdown of triglycerides is called lipolysis. The byproducts of lipolysis are glycerol and free fatty acids. However, before free fatty acids can enter the Krebs cycle they must enter the process of beta oxidation, where a series of chemical reactions downgrades them to acA and hydrogen. The acA now enters the Krebs cycle and fat is metabolized just like carbohydrates.

Simply put…
Due to the time-line, the aerobic system provides energy much more slowly than the other two systems, but has an almost unlimited supply (in your adipose tissue – yeah, that fatty stuff you can pinch). The aerobic system by itself is used primarily during complete rest and low-intensity activity. It can produce ATP through either fats (fatty acids) or carbohydrates (glucose).

Hopefully that was simple enough to understand. It is important to have a basic understanding of these energy systems when developing a training program for everybody ranging from the weekend warrior to the elite level athlete.

Coconut Oil Coffee: optimizing overall performance

There’s just something about a morning coffee/espresso that gives a higher enjoyability in which to start the day.

Adding coconut oil to your morning coffee will make you feel energized, alert and focused without the traditional coffee crash. Coconut oil also supports healthy body fat metabolism and can help increase muscle mass.

Coconut oil is mostly made up of the medium-chain triglyceride (MCT), lauric acid (about 45-50%). Some advantages of MCT’s include:

  • MCTs are absorbed quickly by the body (digestion) and can be used for immediate energy;
  • MCTs enhance ketone production which have therapeutic (energy/cognitive) and nitrogen retention (protein sparing) advantages;
  • MCTs have been shown to boost immune function;
  • MCT rich diets have been shown to increase metabolic rates; and
  • MCT rich diets shown to better reduce hunger/suppress appetite.

The potential to not only have more immediate and stable energy but also control hunger/appetite better (reducing rebound eating tendencies), makes it a no brainer for a lasting lean lifestyle plan.

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Coconut Oil Coffee
Just 3 easy steps to enjoy this energy boosting drink:

  • Put your coconut oil in a cup (1-2 tablespoons);
  • Add in your hot coffee or espresso (tea is also an option);
  • Stir and enjoy.

For variation you can also add collagen and some cinnamon, or to make the infamous Bulletproof Coffee you can add some grass-fed butter!

Pre-workout Coffee
Why coffee before training? Caffeine, of course. Caffeine triggers the muscles to start using fat as an energy source rather than carbohydrate sugars. Some of the other benefits of coffee taken pre-workout include:

  • Increased athletic endurance performance;
  • Increased strength and power performance;
  • Reduced perceived exertion level.

As little as 3-5 milligrams of caffeine (per kilo of body weight) is all that is required. For most people, that is roughly 1-2 espresso coffee’s taken within the final 60-90 min prior to a workout or race.

Note
It takes nearly twice as much Red Bull and nearly 3 times as much tea to equal the caffeine in coffee.

Try it out for yourself and tell me what you think of it.

The Paleo Diet for Athletes

Traditionally, Paleo type diets are much lower in carbohydrate than the average modern-day athlete diet. Our ancestors seldom did 2 hour runs and 6 hour bike rides. Certainly, they had periods of intense activity, but these where relatively brief and spaced apart.

Endurance athletes require a higher intake of carbohydrates in order to replenish fuel stores after long and intense workouts. As such the program for athletes makes changes to the basic program to allow the intake of some foods that are not included in a Paleo Diet.

The major adjustment to the diet is that certain high glycemic index carbohydrate foods are included during the immediate post-workout period. For the remainder of the day the dietary pattern is the same as a typical Paleo Diet program. This is required to satisfy the need to quickly replace glycogen stores after exercise and will help speed up the recovery process for repeated efforts.

I did not write the article below, however it is an excellent summary of The Paleo Diet for Athletes by Loren Cordain and Joe Friel.

A QUICK GUIDE TO
THE PALEO DIET FOR ATHLETES © 2005 Loren Cordain, PhD and Joe Friel, MS

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The Paleo Diet for Athletes was released in October, 2005 from Rodale Press. Written by Loren Cordain, Ph.D., author of The Paleo Diet, and Joe Friel, M.S., author of numerous bestselling books on training for endurance athletes, the book applies the concept of eating as our Stone Age ancestors ate to the extraordinary demands of training for serious endurance sports. Although it is now the 21st century, athletes still have Old Stone Age (Paleolithic) bodies. There has been no significant change in the human genome in the past 10,000 years. Physiologically speaking, we are still Paleolithic athletes.

THE PALEO DIET
The basic premise of Dr. Cordain’s research on paleolithic nutrition is that certain foods are optimal for humans and others are non optimal. The optimal foods are those that we have been eating for most of our time on Earth—more than 4 million years. Only in the last 10,000 years, a mere blink of the eye relative to our species’ existence, have we been eating non optimal foods. Unfortunately, these foods comprise the bulk of what western society eats today and include such foods as grains, dairy and legumes. Given that our bodies have not changed, we are simply not well adapted to these non optimal foods and they moderate health and peak performance. On the other hand, we have been eating optimal foods – vegetables, fruits, and lean animal protein – for hundreds of thousands of years and we are fully adapted to them. Science tells us that these foods also best meet our nutritional needs. Eat these and you will thrive. Avoid or strictly limit them and your health and performance will be compromised.

PALEO FOR ATHLETES
Serious athletes, however, when it comes to immediately before, during, and directly after workouts, need to bend the rules of the Paleo Diet a bit since we’re placing demands on the body that were not normal for our Stone Age ancestors. Hour after hour of sustained high energy output and the need for quick recovery are the serious athlete’s unique demands. This requires some latitude to use non optimal foods on a limited basis. The exceptions may best be described by explaining the athlete’s 5 stages of daily eating relative to exercise.

Stage I: Eating Before Exercise
In brief, we recommend that athletes eat low to moderate glycemic index carbohydrates at least two hours prior to a hard or long workout or race. There may also be some fat and protein in this meal. All foods should be low in fiber. Take in 200-300 calories for every hour remaining until exercise begins. If eating two hours prior is not possible, then take in 200 or so calories 10 minutes before the workout or race begins.

Stage II: Eating During Exercise
During long or hard workouts and races you will need to take in high glycemic index carbohydrates mostly in the form of fluids. Sports drinks are fine for this. Find one that you like the taste of and will drink willingly. Realize that events lasting less than about an hour (including warm-up) don’t require any carbohydrate. Water will suffice for these. A starting point for deciding how much to take in is 200-400 calories per hour modified according to body size, experience and the nature of the exercise (longer events require more calories than short).

Stage III: Eating Immediately After
In the first 30 minutes post workout (but only after long and/or highly intense exercise) and post race use a recovery drink that contains both carbohydrate and protein in a 45:1 ratio. You can make your own by blending 16 ounces of fruit juice with a banana, 3-5 tablespoons of glucose (such as CarboPro) depending on body size, about 3 tablespoons of protein powder, especially from egg or whey sources and two pinches of salt. This 30 min window is critical for recovery. It should be your highest priority after a hard workout or race.

Stage IV: Eating for Extended Recovery
For the next few hours (as long as the preceding challenging exercise lasted) continue to focus your diet on carbohydrates, especially moderate to high glycemic load carbohydrates along with protein at a 45:1 carb/protein ratio. Now is the time to eat non optimal foods such as pasta, bread, bagels, rice, corn and other foods rich in glucose as they contribute to the necessary carbohydrate recovery process. Perhaps the perfect Stage IV foods are raisins, potatoes, sweet potatoes and yams.

Stage V: Eating for Long Term Recovery
For the remainder of your day, or until your next Stage I, return to eating a Paleo Diet by focusing on optimal foods. For more information on the Paleo Diet go to The Paleo Diet website or read The Paleo Diet by Loren Cordain, Ph.D.

HOW MUCH PROTEIN, CARB AND FAT SHOULD I EAT?
The macronutrient requirement changes with the demands of the training season and so should be periodized along with training. We recommend that athletes maintain a rather consistent protein intake year round. As a percentage of total calories this will typically be in the range of 20-25% for athletes. This is on the low end of what our Stone Age ancestors ate due to the athlete’s increased intake of carbohydrate in Stages I to IV which dilutes protein as a percentage of daily calories.
On the other hand, periodization of diet produces significant and opposing swings in the athlete’s fat and carbohydrate intake as the training seasons change. During the base (general preparation) period the diet shifts toward an increased intake of fat while carbohydrate intake decreases. At this time in the season when a purpose of training is to promote the body’s use of fat for fuel, more healthy fat is consumed – in the range of 30% of total calories – with carbohydrate intake at around 50%. During the build and peak (specific preparation) periods the intensity of training increases placing greater demands on the body for carbohydrate to fuel exercise. At this latter time of the season Stages III and IV become increasingly critical to the athlete’s recovery. Carbohydrate intake increases accordingly to around 60% of total calories with fat intake dropping to around 20%.
During times of the year when training is greatly reduced (peaking/tapering and transition periods) the athlete must limit caloric intake to prevent unwanted weight gain.

WHY IS THE PALEO DIET BENEFICIAL?
Health and fitness are not synonymous. Unfortunately, many athletes are fit but unhealthy. Frequent illness, injury and overtraining reduce performance potential.

The Paleo Diet for Athletes significantly improves health long-term. Compared with the commonly accepted athlete’s diet, the Paleo Diet:

  • Increases intake of branched chain amino acids (BCAA). Benefits muscle development and anabolic function. Also counteracts immunosuppression common in endurance athletes following extensive exercise.
  • Decreases omega-6:omega-3 ratio. Reduces tissue inflammation common to athletes while promoting healing. This may include asthmatic conditions common in athletes.
  • Lowers body acidity. Reduces the catabolic effect of acidosis on bone and muscle while stimulating muscle protein synthesis. This is increasingly important with aging.
  • Is high in trace nutrients. Vitamins and minerals are necessary for optimal health and long term recovery from exercise. The most nutrient dense foods are vegetables and seafood. On average, vegetables have nearly twice the nutrient density of grains.

EXCERPT FROM THE PALEO DIET FOR ATHLETES
Training for endurance sports such as running, cycling, triathlon, rowing, swimming, and cross-country skiing places great demands on the body, and the athlete is in some stage of recovery almost continuously during periods of heavy training. The keys to optimum recovery are sleep and diet. Even though we recommend that everyone eat a diet similar to what our Stone Age ancestors ate, we realize that nutritional concessions must be made for the athlete who is training at a high volume in the range of 10 to 35 or more hours per week of rigorous exercise. Rapid recovery is the biggest issue facing such an athlete. While it’s not impossible to recover from such training loads on a strict Paleo Diet, it is somewhat more difficult to recover quickly. By modifying the diet before, during, and immediately following challenging workouts, the Paleo Diet provides two benefits sought by all athletes: quick recovery for the next workout, and superior health for the rest of your life.

Basically…
At every level of competition, The Paleo Diet for Athletes can maximize health and performance in a range of sports.

Welcome

Welcome. This blog will be targeting just about anybody who is interested in improving their overall quality of life, is interested in sports performance, improved body composition, weight management or even disease prevention.

All of the above areas can be achieved easily by following simple guidelines that were set out by previous generations. They ate whole foods (both animal and plant based), moved around frequently, had solid social connections and got adequate sleep.

Sounds simple? You would be surprised at how challenging it can be to achieve in the modern world. Fast foods, social media platforms, 24-hour trading are just some of the distractions in modern society.

Most of the information shared on this site will fall under one of the following categories:

  1. Nutrition;
  2. Training; and
  3. Lifestyle.

It is basically  a collection of information and lessons learned with regards to optimising human performance that I have picked up along the way.

Feel free to comment on topics, ask questions and share your own knowledge and experiences. After all, we’re all here to learn, adapt and evolve…