Are you an athlete looking to enhance your abilities? Would you like to increase your muscular size? Would you like to increase your strength? Would you like to boost your self-esteem? Do you want to lose body-fat? Are you a weekend warrior trying to extend your ability to play sports? Are you a stay at home mom who just wants to look and feel better? Are you a forty something male who wants to feel strong and lose some that spare tire? If you answered yes to any of these, you should be training for strength.

Strength training is not just for powerlifters, bodybuilders or high impact sports. Strength training can benefit everyone. At a minimum you should be strength training to ensure your health and overall wellbeing. And I’m not just talking about today, but for the future as well. As we age we lose muscle. This is an undeniable truth. This facet of aging has several negative outcomes:

Losing muscle will cause a decrease in your basal metabolic rate. Muscle drives the metabolism. The more you have the more calories you burn. Conversely, the more you lose the fewer calories you burn. It doesn’t stop here.

The weaker one gets as a result of muscle lost, the tighter one gets resulting in a loss of flexibility. And as one loses flexibility, they lose more strength, which also creates a loss of muscle. This loss of flexibility coupled with a loss of strength dramatically increases ones risk for injuries.

Are you starting to see what a vicious cycle this becomes?

So, I think my point that despite your genetics, experience, what you know (or what you think you know) about training, strength training is for you.

People who engage in very repetitive tasks such as long distance running, labor or swimming show very little or no improvement in the size and strength of their muscles. Long distance events are by nature very low in intensity.

Compare a marathon runner to a 100 meter sprinter. Marathon runners who train for very long periods at a very low intensity are emaciated looking having less than normal muscle mass and carry on average 14 ? 16% body fat. Sprinters, on the other hand, who train for short periods at a high level of intensity are very muscular and have half the body fat levels than marathoners. If cardio is the key to getting lean, as many people presume, why do marathoners have a higher body fat than sprinters? The reason is, a specific stimulus is required for a specific outcome.

The specific stimulus needed to stimulate muscle and strength is high intensity training. This is a universal training principle that affects everyone without exception. This is due to the fact that we are anatomically and physiologically the same. If this were not true doctors could not perform surgery and prescribe medicine. Consequently, the stimulus needed to induce biochemical changes that build muscle and strength in humans is the same.

Intensity, when referring to training, is the percentage of physical exertion that one is capable of. Training with one hundred percent intensity is the best way, the only way, to stimulate muscular size and strength in the shortest amount of time. How does one gauge the intensity of their workouts? By taking your working sets to positive or concentric failure.

Taking a set to the point of failure, where you cannot possibly perform another rep despite your maximum effort is one of, and perhaps the most important of several factors in your success. There are many who disagree and advocate high volume training with 60%, 72%, 95%, or whatever percentage of intensity they decide is the best. Some even claim training all out, with one hundred percent intensity is not only unnecessary, but detrimental. Over the years I’ve seen so called strength coach specialists, and personal trainers with 15 letters after their last names, concoct the most ridiculous routines, using almost every percentage, that have yet to show any effectiveness in real world application.

The main problem with these bogus routines is that there are only two accurate measures of intensity. Zero, when you are at rest; and 100%, when you?re training to the point of failure. How do you measure anything less than 100% intensity? If I can do 10 repetitions to complete failure with 100 pounds on the leg extension machine, where do I go for 80% intensity? Do I perform 10 reps with 80 pounds? Or do I use 100 pounds and only perform 8 reps? Is 80% the optimum percentage, or is it 65%? There is no evidence that suggests, let alone proves, anything less than 100% effort is equally or more effective. Are you starting to see the ridiculousness and inaccuracy of such training prescriptions?

Intensity cannot be measured accurately with reps or weight. While performing a set, intensity increases exponentially with each successive rep. Performing the first 5 reps on the leg extension is not equivalent in intensity to performing the last 5 reps. Hence, 5 reps is not the equivalent of 50% intensity.

The only way to train that is completely accurate is with all out intensity to failure. This will give you a concrete view of how you?re performing. If you train with 100% intensity during every workout and you do not progress, you know you are not recovering. There will never be a question whether you are providing a strong enough stimulus for progress. However, if you follow the percentage of intensity or the percentage of max rep principles, how will you know you are training intensely enough to stimulate muscular size and strength? If you plateau, are you training too hard or too long? Do you lower the percentage or raise it? Do you need more rest, or do you need to train at a higher intensity? There is no need for this guessing game.

Your goal is to bring about the largest, most rapid outcome for your individual genetic potential. In order for this to occur, the body requires 100% intensity every working set of every exercise. This is the only truly accurate way to gauge the efficacy of your training program. Nothing less than 100% will do. The body needs a reason to adapt. Give it!

Many strength and muscle building experts will say, the barbell back squat is much more effective at building size and strength. They argue free weight squats are a more natural movement and require much more stabilization and balance, which increases its effectiveness. However, the Smith machine is much easier to learn, especially for beginners, which many argue is safer. I contend that it depends upon the person’s build. If one has long legs and a shorter torso, they will have a very difficult time performing a squat correctly in order to get optimum stimulation for strength or growth. In this case and in others, they would benefit greatly from performing smith machine squats. But what does science have to say? Which is better for gaining strength?

Researchers from the University of Saskatchewan in Canada compared the free weight squat to the Smith machine using electromyography (EMG). The purpose of their study was to determine which exercise was better at stimulating the prime movers and stabilizers of the legs (e.g., tibialis anterior, gastrocnemius, vastus medialis, vastus lateralis and biceps femoris) and trunk (e.g., lumbar erector spinae and rectus abdominus). Six healthy participants performed 1 set of 8 repetitions using a weight they could lift 8 times, i.e., 8 rep maximum.

Contrary to our hypotheses, muscles of the legs (specifically the vastus medialis and biceps femoris) displayed greater EMG activity during the free weight squat compared to the Smith machine squat, whereas there were no differences between exercises for EMG activity of trunk stabilizers.

Researchers conclude that the free weight squat may be superior to the Smith machine squat for training the major muscle groups of the legs and possibly would result in greater strength development and hypertrophy of these muscle groups with long-term training.
Journal of Strength and Conditioning Research, 23(9), 2588-2591.

Unstable Surface Training (UST) has moved from being used almost exclusively in rehabilitation to becoming common place among personal trainers and strength coaches. One can’t go to a gym and not see somebody training on a Bosu ball, stability ball, wobble board or foam pad. It’s so popular entire books have been written on this type of training. But do not be fooled by its popularity.

UST is not popular because it works, but because of a tremendous media campaign. The fitness industry is always looking for something new. They know here’s huge money in marketing a piece of equipment and/or workout program.

Performing exercises on unstable equipment can be challenging no doubt, but research has not shown that the type of balance, and core stability developed through UST will transfer to any sports skill. Performing exercises on unstable equipment will make an individual proficient at performing resistance exercises on unstable surfaces but will not improve sports performance. Is UST training even necessary?

Researchers from Appalachian State University compared trunk muscle activity during stability ball and free weight exercises. The stability ball exercises utilized were the quadruped, pelvic thrust and ball back extensions. The free weight exercises were the squat (SQ) and deadlift (DL). During all exercises muscle activity was collected using electromyography (EMG).

During the study trunk muscle activity during SQ and DL’s was equal to or greater than which was produced during stability ball exercises. This was true even when 50% of the 1 rep max was used during SQ and DL. The role of UST is again shown to be in question.
(Journal of Strength Conditioning Research 22:95-101,2008)

These days it?s becoming common practice to start sports earlier and earlier in a child?s life. Soccer is no exception. In the United States the popularity of soccer has exploded along with strength and conditioning camps focusing on sport specific programs. Unfortunately many coaches do not train their players correctly because they do not look at the metabolic demands of the sport.

Research on soccer players has shown, to the surprise of many, anaerobic as well as aerobic power are prerequisites to success. More-over, it?s been reported that 96% of the sprints in a soccer game are shorter than 30m, and 49% are shorter than 10m. It?s becomes obvious that strength and power are important aspects of a player?s development. As soccer becomes more competitive, becoming faster and stronger to get to the ball before your opponent by jumping or sprinting is becoming more important. As a strength coach the question is, how do we develop a player to their optimum ability?

A study by Chelly et al recently reported the effects of a back squat training program on leg power, jump performance, and field performance in junior soccer players. Twenty two male soccer players were divided into two groups a resistance training group (RTG) and a control group (CG). Both groups completed tests before the start of the program and after 2 months of strength training twice per week with heavy loads (80 ? 100% 1RM). The tests included a force velocity test to evaluate power, 3 jump tests, a 40m dash, and a 1 RM back half squat. (J Strength Cond Res 2009;23(8):2241-2249)

No significant changes were noted in leg or thigh muscle volume after the 2 month training period between the 2 groups. However, the RTG showed significant improvement over the CG in leg cycling power, jumping and sprinting. This is another example of the value in sticking to the basics. Too many coaches try to reinvent the wheel while training their athletes. There is no need or value in complicated, high volume strength training programs. KISS, Keep It Simple Stupid and train according to the athletes needs

The question, “What’s best workout for building strength and muscle?” has been the subject of heated debates for years. My answer is always the same. There is no one workout that is the best. There is no one workout that works for all. However, there are training principles that do apply to everybody.

Anatomically and physiologically we are identical. A bicep is a bicep and has the exact same function from person to person. An aorta is an aorta. Our anatomical structures may have different shapes and sizes, but they all function the same. This holds true for all tissues in our bodies from blood to hormones. If this weren’t true medicine could not exist. How could an anesthesiologist do his job if everybody were different?

Therefore, in order to get bigger, stronger muscles the same stimulus is needed. That stimulus is short, intense training sessions. Why short? Because we have known for centuries the body can either train long or train hard. A perfect example is to compare distance runners to sprinters. Because of the types of training, one is emaciated looking and one is muscular. Remember you can not sprint a mile. Is it difficult to run a mile, yes? But it is essentially impossible to run a mile with 100% intensity.

The other factor one needs to take into consideration for building bigger, stronger muscles is recovery. How much or how often can you train? Or better yet, how much “should” you train? Here is where the differences in genetics lie. Our muscles need the exact same stimulus in order to cause a chain of events that forces them to adapt by making bigger stronger muscles. However, the rate at which we are able to recover from these intense bouts is as different as the shapes and sizes of our bodies.

So what are you to do? If you’re training using the typical muscle building routine, which is 3 or more working sets per exercise and 4 or more sessions a week, and not getting anywhere, change it. First, reduce your sets per exercise by half and only train each body part once a week. If you still don’t make gains or you plateau after a short while, reduce your sets again. Remember, if you’re training with 100% intensity and you’re not making gains, you’re not recovering.

More is only better when it comes to sex and money.

We all recover from exercise at different rates. Many people who recover quickly have reached a high level of success performing a high number of sets. Many who recover slowly have also been very successful performing low numbers of sets. Because everybody is unique in their ability to adapt and recover from different programs, the number of sets needs to be individualized.

A very important component of a training program that should be given consideration is training frequency. How often can, or more importantly, should I train per week? Optimum recovery time between training sessions is essential if one is going to continue to make progress. Training frequency, which is determined by ones recovery ability, is often a forgotten part of most training protocols.

Don’t be so concerned with how many training sessions you can handle per week. Be more concerned about the optimal amount. More is not always better. In fact, when somebody comes to me for advice because they’ve stopped making progress, usually I either reduce the workout volume or add days off. There is no reason to go to the gym if you’re not going to make progress.

Does it make sense to keep doing the same routine if gains are not being made? Isn’t the definition of “crazy”, doing the same thing over and over expecting different results. If your current program is not working, change it. The number one complaint people have is they’re not making progress or their progress has come to a halt. In both cases, the answer is more recovery time. Understanding the fact our bodies have a finite amount of recovery ability should help explain this concept.

The following is Mike Mentzer’s explanation of overtraining and recovery. I’m sure you’ll find it interesting.

In bodybuilding, the idea is to impose a training stress onto the body that will serve to induce the biochemical changes which result in muscular hypertrophy. Applying any more of the training stress (high-intensity) than is required by nature will result in the equivalent of over-dosing on a medicine; or, as we say typically in bodybuilding – overtraining.
A person exposed to the sun’s ultraviolet rays at the equator in summer would not have the slightest concern whether the intensity of the sunlight stress is high enough to disturb the physiology sufficiently to induce an adaptive response, i.e., the buildup of a suntan. His only concern, his overriding consideration, would be to properly regulate the volume (or duration) and frequency of exposure time so as not to overdose on the stress/stimulus; and, thereby, incur a sunburn or, in extreme cases, death. A person seeking to develop a suntan at the equator, or wherever the intensity of the sunlight is high has no concern that he will develop a suntan; but only if he doesn’t overexpose. (Note that bodybuilding science is largely based on the medical discipline of stress physiology. Also, that the end result of the healing of a sunburn is not a suntan, just as the end result of the healing of overtraining is not greater strength or added muscle.)
As the stresses grow progressively greater, they will eventually reach a critical point such that they constitute overtraining. The first symptom will be a slow down in progress; and if the individual continues with the same volume and frequency protocol, the stresses will continue to increase until there is a complete cessation of progress, typically referred to as a “sticking point.” One need not ever experience a slow down in progress, let alone a sticking point, if he bears in mind all the while that as the weights grow progressively greater so do the stresses; and he must do certain specific things to compensate for them.

MikeMentzer.com

A training program in the form of progressive resistance exercise builds muscular size and strength. In order for a training routine to be productive, however, it must first provide the correct stimulus to induce an adaptive response. Second, a workout that stimulates and adaptive response must provide for recovery. Third, in order for recovery and subsequent size and strength increases to occur, nutrients, which are of limited supply in our bodies, must be provided. It is clear that the most important nutrient for recovery is protein. In particular, essential amino acids contained in complete protein sources; dairy, meats, and fish. It is well documented that essential amino acids consumed before, during, and after resistance training boost strength and size gains.

HMB is a metabolite of the essential amino acid L-leucine. During many studies on protein effects, L-leucine seemed to be the single greatest contributor to muscle protein synthesis. A recent study examined the effects of an essential amino acid based product, Muscle Armor (MA); manufactured by Abbott Laboratories contains beta-hydroxy beta-methylbutyrate (HMB).

Seventeen healthy men were randomly assigned to one of two groups and performed twelve weeks of periodized heavy resistance training while supplementing with either MA or an isocaloric, isonitrogenous placebo (Control group (CG)). Every two weeks the subject?s strength and power were measured and blood was drawn. More-over the blood draws taken were performed pre, mid and post-training. Researchers found the MA group affected training induced changes in muscular size and strength to a significantly greater extent than the CG. Also found, was reduced levels of circulating muscle damage markers creatine kinase and malondealdehyde compared with the CG. In addition, the MA group experienced increases in resting and exercise-induced testosterone and resting growth hormone levels with reduced pre-exercise cortisol levels.
(Medicine & Science in Sports & Exercise. 2009;41(5):1111-1121)

Q: Mike,
I was told to do dumbbell flys on an incline bench (35-40 degrees). wrong? better? worse?

A: Better? No. Different? Yes.
As the angel of the incline starts to go beyond 30% the only difference is the degree to which the deltoids are used. And while we’re on the subject of angled benches, don’t even bother with decline bench. It is a myth that it stimulates the bottom portion of the pec muscles more than the flat bench.

Also, if you’re performing different angles to change the shape of your pecs, it’s not going to happen. Your shape is genetically predetermined. Train with 100% intensity and stick with the basics.

Read the rest @ Q&A

In the case of weight training, the duration of exercise is the volume or number of sets performed. Intensity and duration have an inverse relationship. Meaning, the harder you train, the less time can be spent training. This is because we have a finite amount of fuel available to carry that level of stress. This is not a choice or an opinion; it?s fact.

This brings us to the most common way people train too much; too many sets. Although training hard is the best way to move forward, some people are under the impression that doing more is training harder. Performing anything more than what is optimum, will hinder your progress. Yet, most perform more sets with reduced weight or reduced intensity because of the more is better mentality. Do not get caught in this no win cycle.

Training all out, poses extreme demands on the body’s resources, which are governed by genetics and in limited supply. Because of this finite supply, the body will not allow you to train ?too hard? for too long, and gives clues you are reaching your limits. Once you reach failure performing a set, or run out of gas during a workout, you?re simply not able to train any harder. And because training intensity is the number one stimulus for building srength and muscle does it make sense to do more with less.