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MYOZENE: Where Science Meets the Gym
Posted in:
Articles by ProSource,
Supplement Articles,
BioQuest: MyoZene,
Protein
By Richard B. Kreider, PhD, FACSM, FISSN
| Feb 21, 2007
"Frankly, it's the most scientifically sound nutritional supplement formulation that I have seen in a long time."
Over the last 20 years, the nutritional supplement
industry has evolved from marketing of products with little scientific
evidence supporting the use to the development of high quality
functional products based on solid scientific evidence.
MyoZeneTM from Bioquest
is an example of a nutritional supplement that has been forged through
years of scientific study that has identified specific nutrients that
can optimize performance, recovery, and training adaptations. It's one
of the best new supplements I have seen hit the market in years. Why am
I so pumped about MyoZene? The following overviews the science behind
MyoZene
and why it may prove to be the most effective nutritional supplement
ever developed for athletes interested in increasing strength, power,
and muscle mass.
What's in MyoZene?
MyoZene is a scientifically-formulated post-exercise supplement that contains a number of highly effective anabolic/ergogenic nutrients. More specifically, MyoZene
contains: 60 grams of a high glycemic carbohydrate (maltodextrin) that
stimulates insulin secretion; 25 grams of ultra-high quality whey
protein hydrolyzed into smaller pre-digested peptides that rapidly
stimulate protein synthesis (i.e., anabolism); and, nutrients research
has shown to increase protein synthesis and to degrease protein
catabolism (leucine, glutamine), maintain a healthy immune system
(Vitamin C, zinc, glutamine), help athletes recover and/or tolerate
heavy training (maltodextrin, whey protein, L-carnitine L-tartrate,
creatine, calcium-ketoisocaproic acid), and enhance performance and/or
training adaptations (i.e., creatine). Frankly, it's the most
scientifically sound nutritional supplement formulation that I have
seen in a long time. It's no wonder that my colleagues like Dr. Jeff
Stout feel this is one of the
best supplements available for strength/power athletes and body builders.
The Science Behind MyoZene
There are a number of nutrients contained in MyoZene
that can enhance recovery, training adaptations, and performance. The
following describes why these nutrients are so important for athletes
engaged in intense training who want to increase strength, power, and
muscle mass as well as tolerate heavy training demands to a better
degree.
|
Table 1. MyoZene Ingredients
Amount Per Serving:
Calories 365, Calories from Fat 23, Total Fat 2.5g, Saturated Fat 2g,
Trans Fat 0g, Cholesterol 9mg, Total Carbohydrates 60g, Dietary Fiber
0g, Sugars 30g, Protein 25g, Vitamin C (ascorbic acid) 250mg, Vitamin E
(d-alpha tocopherol) 400IU, Thiamin (thiamin HCl) 3mg, Riboflavin
3.4mg, Niacin (niacinamide) 20mg, Vitamin B6 (pyridoxine HCl) 4mg,
Vitamin B12 (cyanocobalamin) 6mcg, Biotin 300mcg, Pantothenic acid
10mg, Calcium 130mg, Phosphorus 100mg, Magnesium (magnesium oxide)
300mg, Zinc (zinc oxide) 10mg , Chromium (picolinate) 50mcg, Sodium
(chloride) 295mg, Potassium (potassium citrate) 500mg, MyoZene
Insulinotropic /Anabolic Proprietary Blend 18g [L-Leucine, Creatine
Monohydrate, L-Glutamine, L-Taurine].
Other Ingredients: ProtaZeneTM
(Ultra high D.H. complete spectrum whey protein hydrolysate [providing
fast-acting, low-molecular-weight di- and tripeptides],
premium-grade
dextrose, spray-dried and enzymatically converted maltodextrin,
malic acid, citric acid, SynthaZeneTM (Beta vulgaris powder,
L-carnitine L-tartrate, calcium-ketoisocaproic acid), natural and
artificial flavors, sucralose, red # 40.
CONTAINS MILK
|
Maltodextrin.
Most
athletes know that carbohydrate is the primary fuel used for
high-intensity intermittent or prolonged exercise [1]. When you lift
weights, for example, you use phosphagens (adenosine triphosphate [ATP]
and phosphocreatine [PCr]) as well as carbohydrate stored in the muscle
as muscle glycogen to fuel high intensity exercise. Over time, your
muscle glycogen levels deplete and your ability to perform
high-intensity exercise declines [2, 3]. When you finish working out,
it's important to replenish the carbohydrate used during exercise.
Research has shown that the first few hours after intense exercise are
the most important time to ingest carbohydrates and promote muscle
growth [4-6]. The reason for this is that intense exercise stimulates
release of hormones that promote anabolism. Ingestion of a high
glycemic carbohydrate after exercise promotes a marked increase in
insulin levels [7]. Insulin is an anabolic and anticatabolic hormone
that serves to promote carbohydrate and amino acid storage into the
muscle. Maltodextrin is a very high glycemic index carbohydrate that
promotes large increases in blood glucose and insulin levels [8]. In my
lab, for example, we have tested the effects of various types of
carbohydrate consumed with whey protein on hormonal responses following
resistance exercise. We have found that ingestion of maltodextrin
markedly increases glucose and insulin levels and that maltodextrin is
an optimal type of carbohydrate to ingest with whey protein following
resistance exercise [9]. Therefore, maltodextrin is one of the best
types of carbohydrates to consume after exercise in order to maximize
carbohydrate replenishment as well as promote rapid uptake of amino
acids in the muscle.
Whey Protein.
Recent studies have
shown that ingestion of carbohydrate and protein following exercise
stimulates protein synthesis [10-14]. Initially, this was simply
thought to be due to an insulin stimulating effect of adding protein to
carbohydrate which in turn promotes amino acid storage into the muscle.
However, researchers have since learned that the type of protein
ingested has differential effects on protein synthesis and/or reducing
catabolism [10, 15-20]. For example, research shows that since
whey protein has the highest concentration of essential amino acids (EAA),
it is digested quickly and therefore causes a sharp increase in amino
acid availability into the blood which stimulates a rapid increase in
protein synthesis [15, 18-21]. On the other hand, casein tends to clump
in the stomach and is therefore digested at a slower rate [18-20]. The
more prolonged release of amino acids in the blood after consuming
casein serves to reduce protein degradation over time. In other words,
casein has anti-catabolic effects on muscle degradation while whey protein has anabolic effects on protein synthesis. These findings indicate that if you want to rapidly increase protein synthesis, you should ingest whey protein.
Ok - you say - that's nothing new! Well, here's the exciting part.
MyoZene contains a
high quality whey protein
that has been hydrolyzed by enzymes to break up the large proteins into
smaller tripeptide and dipeptide protein fragments. In other words, the
whey protein in
MyoZene comes in a "pre-digested" form. This process maintains the
high quality amino acid profile of the whey protein while promoting fast absorption of the peptides and amino acids into muscle.
In other words, MyoZene has taken whey protein to a whole new level in
order to maximize amino acid delivery to the muscle. Ingestion of a
high quality hydrolyzed whey protein like that found in MyoZene
following exercise would be an excellent way to quickly deliver
essential amino acids to the muscle in order to repair and build muscle
tissue. Over time, this could lead to greater gains in strength and
muscle mass. In support of this hypothesis, Boza and associates [22]
reported that diets containing peptides were more effective than a diet
containing free amino acids in the nutritional recovery of the starved
rats. Additionally, Willoughby and colleagues [10] recently reported
that ingesting 14 grams of whey and casein with 6 grams of free amino
acids resulted in greater increases in body mass, fat-free mass, thigh
mass, muscle strength, serum insulin-growth factor-1, muscle fiber
protein content, and markers of protein synthesis compared to a
carbohydrate placebo.
Leucine.
Research evaluating the
role of protein and amino acid supplementation on protein synthesis has
indicated that about 20 grams of whey protein is effective in promoting
protein synthesis. The reason for this is that whey protein has a high
proportion of EAA. Research has also shown that ingestion of as little
as 3-6 grams of EAA prior to or following resistance-exercise can
significantly increase protein synthesis [11-13, 23-31]. Additionally,
that leucine appears to be the primary stimulant of protein synthesis
[32-37]. Consequently,
ingesting
a supplement with leucine and whey protein would be an optimal way to
stimulate protein synthesis prior to and/or following exercise leading
to better training adaptations. There are several studies
supporting this concept. For example, Koopman and coworkers [37]
reported that co-ingestion of hydrolyzed protein and leucine stimulates
muscle protein synthesis and optimizes whole body protein balance
compared to ingestion of carbohydrate alone. This research group also
reported that co-ingestion of leucine with hydrolyzed protein
stimulated protein synthesis in both younger and older subjects [36].
Rieu et al. [32] similarly concluded that adding leucine to a balanced
meals improved muscle protein synthesis in the elderly independently of
an overall increase of other amino acids. Layman and colleagues [38-40]
have also suggested that leucine supplementation may be important for
weight loss and/or management due to it's ability to manage glucose
levels. Finally, Crowe and associates [33] reported that six weeks of
dietary leucine supplementation (45 mg/kg/d) significantly improved
endurance performance and upper body power in canoeists. These studies
and others provide strong rationale as to the potential value of
ingesting leucine with carbohydrate and protein prior to and/or
following intense exercise.
Glutamine.
MyoZene
also contains L-glutamine. Glutamine is the most plentiful
non-essential amino acid in the body and plays a number of important
physiological roles [41]. Glutamine has been reported to be an
important regulator of cell volume and stimulate protein [42, 43] and
glycogen synthesis [44-46]. Theoretically,
glutamine supplementation
prior to and/or following exercise (e.g., 6-10 g) may help to optimize
cell hydration and protein synthesis during training leading to
greater gains in muscle mass and strength.
In support of this hypothesis, Colker and associates [47] reported that
subjects who supplemented their diet with glutamine (5 grams/day) and
BCAA (3 grams/day) enriched whey protein during training promoted about
a 2 lbs greater gain in muscle mass and greater gains in strength than
ingesting whey protein alone. These findings provide preliminary
evidence to indicate that glutamine supplementation during training may
help build muscle.
However, there is another important reason for athletes engage in
intense training to consider adding glutamine to their training table.
Glutamine serves as the primary fuel for white blood cells (i.e.,
lymphocytes) that help the body fight off infections [41, 48]. We know
that intense exercise suppresses the immune system particularly during
the first few hours after a hard workout. This exercise-induced
immunosuppression has been related to increases in the susceptibility
to upper respiratory tract infections (URTI) [48-50]. Studies have
found that intense exercise decreases blood glutamine levels and may be
related to the incidence of overtraining. Consequently, glutamine
supplementation has been suggested to be a possible nutritional means
of maintaining a healthy immune system during intense training [41,
50-52]. In support of this theory, Castell and coworkers [53] reported
that glutamine supplementation can help reduce the incidence of URTI in
runners after a marathon.
MyoZene
α-Ketoisocaproate (KIC).
KIC is a branched chain keto acid (BCKA) that is a metabolite of
leucine metabolism. Metabolites of leucine are believed to possess
anticatabolic properties [57, 58]. There is some clinical evidence that
KIC may spare protein degradation in clinical populations [57, 58].
Theoretically, KIC may help minimize protein degradation during intense
training possibly leading to greater training adaptations.
Taurine.
Taurine is the second
most abundant amino in muscle next to glutamine. Taurine has primarily
been reported to have two important roles that may be of benefit for
athletes. First, taurine has been reported to affect cell hydration
status [59, 60]. As mentioned before, maintenance of cell hydration has
been reported to be an important regulator of protein synthesis.
Second, taurine serves as an antioxidant and may therefore help reduce
exercise-induced oxidative stress [61-63]. For example, Zhang and
associates [64] reported that taurine supplementation may attenuate
exercise-induced DNA damage and enhance the capacity of exercise due to
its cellular protective properties. Other studies have suggested that
taurine produces a beneficial effect on lipid metabolism and may have
an important role in cardiovascular disease prevention in overweight or
obese subjects [65].
L-Carnitine L-Tartrate (LCLT).
LCLT is a form of L-carnitine. L-carnitine is most known to be an
important nutrient involved in the shuttling of fatty acids from the
cytosol into the mitochondria for oxidation. For this reason,
L-carnitine supplementation has been primarily marketed as a potential
weight loss supplement [66]. However, recent evidence indicates that
LCLT may also help athletes tolerate intensified training. For example,
Giamberardino and associates [67] reported that 3-weeks of L-carnitine
supplementation (3 grams/day) significantly reduced pain, tenderness
and creatine kinase release (a marker of muscle damage) after eccentric
exercise. More recently, Volek et al. [68] reported that LCLT
supplementation (2 grams/day for 3-weeks) enhanced recovery from an
intensified period of squat exercise. In this regard, LCLT
supplementation resulted in less accumulation of markers of oxidative
stress as well as lessened tissue damage and perceptions of muscle
soreness. There was also evidence of a reduction in muscle trauma from
magnetic resonance imaging (MRI) scans [69]. In a subsequent study,
these researchers reported that LCLT supplementation up-regulated
androgen receptor content which may be helpful in promoting recovery
[70]. These findings suggest that LCLT may help athletes tolerate
and/or recover from heavy training periods.
Vitamins and Minerals.
MyoZene
also contains Vitamin C (250mg), Vitamin E (400 IU of d-alpha
tocopherol), Thiamin (3 mg of thiamin HCl), Riboflavin (3.4 mg), Niacin
(20 mg of niacinamide), Vitamin B6 (4 mg of pyridoxine HCl), Vitamin
B12 ( 6 mcg of cyanocobalamin), Biotin (300 mcg), Pantothenic acid (10
mg), Calcium (130 mg), Phosphorus (100 mg), Magnesium (300 mg of
magnesium oxide), Zinc (10 mg of zinc oxide), Chromium as picolinate
(50 mcg), Sodium chloride (295 mg), and Potassium (500 mg of potassium
citrate). Consequently, one serving per day of
MyoZene serves as a high potency one-a-day multivitamin.
Creatine.
Alright, if you're not convinced yet,
MyoZene also contains the mother of all dietary supplements for resistance trained athletes -
ultra-pure creatine from Germany.
In my view, creatine is the most effective nutritional supplement
available to athletes to increase high intensity exercise capacity and
muscle mass during training.... period. Numerous studies have indicated
that creatine supplementation increases body mass and/or muscle mass
during training [71, 72]. Gains are typically 2 - 5 pounds greater than
controls during 4 - 12 weeks of training. The gains in muscle mass
appear to be a result of an improved ability to perform high intensity
exercise enabling an athlete to train harder and thereby promote
greater training adaptations and muscle hypertrophy. The only
clinically significant side effect reported from creatine
supplementation has been weight gain. Consequently, creatine has proven
to be one of the most effective and safest ergogenic aids available for
strength athletes. Topping off MyoZene with pure German creatine makes
this one of the
most impressive nutritional supplements I have ever evaluated.
also contains vitamin C and Zinc that have also been reported to help
lessen the immunosuppressive effects of intense exercise [48, 50, 52,
54-56]. Consequently, the availability of glutamine, vitamin C, and
Zinc in MyoZene may offer immuno-protective effects for athletes
engaged in intense exercise.
Bottom Line
MyoZene is a scientifically formulated vitamin and mineral fortified
carbohydrate and protein supplement that contains a number of nutrients
that cutting edge research has shown can help optimize performance,
enhance recovery from intense training, and maximize training
adaptations. Adding
MyoZene to your training program will no doubt lead to greater gains in strength, muscle mass, and performance. It's the real deal!
Disclaimer
Articles published in fitness magazines and/or in online venues are
provided for educational purposes. Publication of articles in these
venues does not constitute endorsement by the authors, members of the
Exercise & Sport Nutrition Lab, or Baylor University of these
magazines and/or online venues, the material contained in these
magazines and/or online venues, or products marketed through
advertisements in these magazines and/or online venues. Articles are
for informational purposes only and should not be construed as medical
advice. Specific medical advice should only be obtained from a licensed
health care professional. No liability is assumed for any information
herein.
|
�©ProSource.
*Use as directed and with a sensible nutrition and exercise program.
Read and follow all product labels and warnings thoroughly before use.
These statements have not been evaluated by the Food and Drug
Administration. These products are not intended to diagnose, treat,
cure or prevent any disease.
|
Click here to view MyoZene User Testimonials
About Dr. Kreider
Dr.
Kreider serves as Professor and Chair of the Department of Health,
Human Performance & Recreation at Baylor University and Director of
the Exercise & Sport Nutrition Lab and Center for Exercise,
Nutrition and Preventive Health. Dr. Kreider has conducted numerous
studies on nutrition and exercise and has published two books, more
than 300 research articles/abstracts in scientific journals, and over
150 articles for health and fitness magazines. He has also received
nearly ten million dollars in external funding to investigate the role
of exercise and nutrition on health, disease, rehabilitation, and
performance. Dr. Kreider is a Fellow of the American College of Sport
Medicine (ACSM), is an active member of the National Strength and
Conditioning Association (NSCA), and is a founding board member of the
International Society of Sports Nutrition and Editor-In-Chief of the
Journal of the International Society of Sports Nutrition.
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