Showing posts with label Hypertrophy programme. Show all posts
Showing posts with label Hypertrophy programme. Show all posts

Saturday, October 1, 2011

Guide In gaining muscle by good bodybuilders


 Makes Muscles develop through or by a process called hypertrophy. The aim of both Bodybuilding and weight training is to achieve maximum hypertrophy or maximum muscle .And there are two sorts of hypertrophy though, and they both achieve different sorts of muscular development. One of these is favored by bodybuilders, the other is favored by competitive weight lifters. So lets look at the difference between the two.

 The sarcoplasmic hypertrophy is the technical name for when a muscle grows in size and this is what most bodybuilders are ultimately looking to achieve. It is believed that this size increase in muscles is caused by an increase in the amount of sarcoplasmic fluid in the muscle. To encourage this type of muscle development the bodybuilder will aim to lift weights which are not to heavy but which allow for around 8 to 12 reps of the exercise to be done in a set. (This is thought to be the optimum repetition range for encouraging sarcoplasmic fluid to grow in the muscles.) Performing more reps than this causes the muscles to become hardened and strong, rather than to increase in size. The sort of muscles produced by increased reps are similar to those seen in endurance athletes. Strong but not bulky

 If you are wanting to gain strength, more than you are wanting to bulk up, your best bet is to do less reps and use heavier weights. This is what strength athletes do, focusing on just 2-6 reps and pushing to always lift more. This produces myofibrillar hypertrophy, which is where the muscles increase in strength but only minimally increase in size. This is the type of hypertrophy that makes the most effective use of protein and with the right diet increases the amount of actin and myosin proteins in the muscle.

 Any correctly done weightlifting will increase size and strength of muscles because both types of hypertrophy naturally take place in any form of weight lifting. However it is important to know which you are most wanting to achieve. Knowing this will help you to tailor your workout to promote the growth of the muscle type you most wanting. A bodybuilder wants to increase muscle size, while a competitive weight lifter wants to increase the overall strength of his muscles so that they can lift more total weight. This end goal greatly affects how you plan and approach your workouts.

 Another point to note in closing, is that muscles grow when they are resting, so it is important to allow a period of rest between exercising the same muscles when using weights. It is thought that it takes about 48 hours or more for the muscles to recover and achieve maximum hypertrophy. This is particularly important for bodybuilders as they are looking for muscle growth not muscle hardness, endurance athletes on the other hand may wish to exercise more often than this in order to promote hardening of the muscles.

Tuesday, November 16, 2010

How to Make Hypertrophy programme

   While bodybuilding may still dominate many sport-specific strength training programs, in reality it is only suitable for a small number of athletes and should only make up a portion of the overall conditioning program. See the

sport specific approach to strength training article to see how these sample hypertrophy weight training programs are incorporated into the annual plan.

Athletes that can benefit from a phase of hypertrophy training include shot putters, rugby players, heavyweight wrestlers and linemen in football. For these individuals, an increase in active fat-free mass is beneficial. Other athletes such as boxers and wrestlers may want to move up a weight class and can use a bodybuilding approach to do so.

Traditional bodybuilding aims to increase the size of every muscle group making it a time consuming and enervating pursuit. Hypertrophy training for sport on the other hand aims only to increase the size of the prime movers, saving time and energy for other modes of training.

Whilst these hypertrophy weight training programs increase muscle and mass, they do not result in the nervous system adaptations that occur with maximal strength training - such as increased recruitment of fast twitch fibers and better synchronization of the muscles involved in the action (1).

To this end, a phase of hypertrophy training should be followed by a phase of maximal strength training before finally being converted into sport-specific power or muscular endurance.The table below is an example of how this may occur for a collegiate-level football lineman:

is the increase of the size of an organ. It should be distinguished from hyperplasia which occurs due to cell division; hypertrophy occurs due to an increase in cell size rather than division. It is most commonly seen in muscle that has been actively stimulated, the most well-known method being exercise.

Hypertrophy is only desirable when it occurs in the skeletal muscles. This is most effectively done by undertaking resistance training, though it can also occur during other high anaerobic exercises such as interval training, rowing, cycling and sprinting.

For hypertrophy to occur in the skeletal muscles, the muscle must be directly stimulated as discussed above. Also a diet, in which there is a caloric surplus and abundant in protein is required in conjunction with regular rest (8-10 hours per night). Also you should consult with your physician before undertaking any strenuous exercise routine.

Hypertrophy can be pathological in many organs; for example in the heart hypertrophy of the left ventricle can be associated with up to a four fold risk of dying over the following 5 years. In skeletal muscle, it is usually helpful and increases strength.

Two different types of hypertrophy are common; Sarcoplasmic hypertrophy, in which sarcoplasmic fluid in the muscle cell increases rather than the contractile protein, and hence no increase in contractile strength. Myofibrillar Hypertrophy, in which there is an increase in myofibrils, and hence increase in muscular contractile strength.

Resistance training

Resistance training typically produces a combination of the two different types of hypertrophy; contraction against 80-90% of the one repetition maximum for a lower number of repetitions causes myofibrillated hypertrophy to dominate (as in powerlifters, olympic lifters and strength athletes), while several repetitions against a sub-maximal load facilitates mainly sarcoplasmic hypertrophy (professional bodybuilders and endurance athletes).

Ventricular hypertrophy

Increased ventricular mass is an adaptation by the ventricle to increased stress, such as chronically increased volume load (preload) or increased pressure load (afterload). It is a physiological response that enables the heart to adapt to increased stress; however, the response can become pathological and ultimately lead to a deterioration in function. For example, hypertrophy is a normal physiological adaptation to exercise training that enables the ventricle to enhance its pumping capacity. This type of physiologic hypertrophy is reversible and non-pathological. Chronic hypertension causes ventricular hypertrophy. This response enables the heart to maintain a normal stroke volume despite the increase in afterload. However, over time, pathological changes occur in the heart that lead to a functional degradation and heart failure.

If the precipitating stress is volume overload, the ventricle responds by adding new sarcomeres in-series with existing sarcomeres. This results in ventricular dilation while maintaining normal sarcomere lengths. The wall thickness normally increases in proportion to the increase in chamber radius. This type of hypertrophy is termed eccentric hypertrophy.

In the case of chronic pressure overload, the chamber radius may not change; however, the wall thickness greatly increases as new sarcomeres are added in-parallel to existing sarcomeres. This is termed concentric hypertrophy. This type of ventricle is capable of generating greater forces and higher pressures, while the increased wall thickness maintains normal wall stress. This type of ventricle becomes "stiff" (i.e., compliance is reduced) which can impair filling and lead to diastolic dysfunction.

Neural Response

The first measurable effect is an increase in the neural drive stimulating muscle contraction. Within just a few days, an untrained individual can achieve measurable strength gains resulting from "learning" to use the muscle.

Genetic Response

As the muscle continues to receive increased demands, the synthetic machinery is upregulated. Although all the steps are not yet clear, this upregulation appears to begin with the ubiquitous second messenger system (including phospholipases, protein kinase C, tyrosine kinase, and others). These, in turn, activate the family of immediate-early genes, including c-fos, c-jun and myc. These genes appear to dictate the contractile protein gene response.

Protein Synthesis

Finally, the message filters down to alter the pattern of protein expression. It can take as long as two months for actual hypertrophy to begin. The additional contractile proteins appear to be incorporated into existing myofibrils (the chains of sarcomeres within a muscle cell). There appears to be some limit to how large a myofibril can become: at some point, they split. These events appear to occur within each muscle fiber. That is, hypertrophy results primarily from the growth of each muscle cell, rather than an increase in the number of cells.

Penile Hypertrophy is the continual enlargement of a males penis.

Examples of sample hypertrophy:

Hypertrophy weight training programs can follow several formats. One popular format is the total body routine where each session consists of exercises to target all the major muscle groups in the body. This would be performed 2-3 days per week with at least 24 hours rest between sessions: