SAN FIERCE Supplement Information
S.A.N. Presents:
Fierce
Heart Of A Lion!
Formulated To Increase Endurance And Pre-Workout Strength Levels!
Fierce was specifically formulated to increase endurance and pre-workout
strength levels assisting the user to lift more weight and exercise for
prolonged periods without feeling fatigued. Let's run through the list of
ingredients in Fierce and see how each and every one contributes to an overall
ergogenic and endurance-enhancing effect. The proprietary formula consists
of 5 individual categories each of them designed to work in tandem with
one anther.
Fierce - Cell Hydration Matrix
Of all the ingredients seen in Fierce, creatine in its various forms
is perhaps the most familiar to supplement users. Numerous studies have
shown the creatine consumption leads to increased strength and athletic
performance. There are several theories about how creatine works. The
original theory, and perhaps still the most widely accepted, is that oral
creatine supplementation increases total creatine and creatine phosphate
(CrP) in human skeletal muscle. An increased muscle CrP concentration
increases its availability for ATP synthesis. This additional ATP can
be used by the muscle to perform work.
Studies have also shown that creatine supplementation increases the glycogen
content of skeletal muscle along with an increase in myosin heavy chain
synthesis (Nelson et al. 2001). The increases in lean body mass associated
with creatine use may be a result of creatine’s ability
to elevate insulin like growth factor 1 (IGF-1) in muscle tissue (Deldicque
et al 2005).
Why do we see Malate combined with creatine in the formulation? Malate
is an intermediate in the so-called Tricarboxylic Acid Cycle (TCA). While
being processed in the TCA, each kind of major fuel is converted to acetyl
groups, which are handled by attachment to a particular coenzyme known
as coenzyme A. Ultimately ATP is produced from another compound, NADH,
generated by the TCA. Malate is dehydrogenated in the TCA cycle to oxaloacetate,
the concentration of which is one of the most critical controls of the
rate of aerobic ATP production. During prolonged aerobic activity, and
in patients suffering from malate deficiency, malate becomes depleted
and the TCA is unable to produce ATP fast enough to meet the demands of
working muscle.
Creatine-Ethyl-Ester is a synthetic analog of the popular supplement
creatine. The main difference between the two compounds is that the carboxylic
acid group of creatine was molecularly modified through the attachment
of an ester linkage. In doing this, we are able to create an organic compound
that possesses both increased water solubility and enhanced muscle partioning
effects over ordinary creatine monohydrate. Once in the body, regular
creatine monohydrate rapidly loses its water molecule yielding the byproduct
‘creatinine.’ Even though a natural
by-product of creatine metabolism, creatinine possesses numerous undesirable
side effects to the athlete. It was therefore significant to discover
that treating the creatine with Ethyl alcohol and hydrogen chloride not
only removed the undesirable water molecule from creatine, but also yielded
a pure creatine- Ethyl-ester compound that is completely devoid of both
water and creatinine.
Once in the gastrointestinal tract the Creatine-Ethyl-ester is rapidly
hydrolyzed to pure creatine by the esterase enzyme yielding an immediate
ATP substrate without any stomach discomfort or bloat. ATP (adenosine
triphosphate/ or three phosphates attached to adenosine, which is a nucleoside)
is the necessary energy molecule that fuels muscular contractions by donating
one phosphate group as cellular energy.
Fierce - Nitro NO
One of the major controlling factors in the expansion and contraction
of blood vessels is nitric oxide (NO). In the body NO is produced from
the amino acid arginine. When exposed to NO, blood vessels dilate, allowing
for increased blood flow due to the vessel’s increased
crossectional area. Working muscles require a copious blood supply to
deliver nutrients and carry away waste products. Since arginine is the
direct precursor to NO, Bodybuilders have supplemented with arginine-based
compounds to increase NO production. This leads to the sought-after "pump"
associated with muscle blood vessels engorged with blood. Arginine alpha-ketoglutarate
(AKG) is reportedly better absorbed than arginine, and has a more sustained
effect on NO production. AKG itself has been used extensively for nutritional
support in various health areas and in the post surgery setting.
Ornithine alpha-ketoglutarate (OKG) is added to Fierce as a secondary
route to raise plasma arginine levels and subsequently NO in the body.
OKG is documented to work parallel with AKG to also raise levels of glutamine,
polyamines, growth hormone and insulin. In turn, these elevations prevent
catabolic muscle wasting that usually follows post workout. As a note,
OKG is often used in clinical settings as a first aid medicine to carry
away muscle waste supplements in burn victims. It is also documented to help
re-grow skin and muscle tissue.
Fierce - Creatine Assimilator
Glycocyamine (GAA) and Guanidinopropionic Acid (GPA) have been added
to Fierce to mimic the actions of insulin in that they lower blood glucose
in animal studies (Meglasson et al 1993). This appears to be the result
of increased expression of GLUT-4, a major glucose transporter (Ren 1993).
GAA is also converted in the liver into creatine, adding to plasma creatine
levels outside that of Dicreatine-Malate and Creatine-Ethyl-Ester (see
above). Because of the insulin mimetic/ creatine transport effects of
glycocyamine and GPA, taking these along with Dicreatine-Malate and Creatine-Ethyl-Ester
is superior to simply taking more creatine by virtue of secondary and
third biochemical pathways.
Betaine Anhydrous has been well characterized as an agent capable of
lowering levels of homocysteine in the body. Betaine lowers plasma homocysteine
up to 20% in normal humans (Olthof et al 2005). One interesting study
looked at the effects of betaine on both trained and untrained animals.
In the untrained group betaine lowered plasma lactate levels post-exercise
significantly, implying that betaine should allow for a faster recovery
from exercise. For your information, muscle fatigue is believed to be
due to, at least in part, lactic acid buildup. In other studies, betaine
increased muscle area and decreased fat thickness.
Fierce - Duralast Matrix
Glucuronolactone is a naturally occurring chemical compound produced
by the metabolization of glucose in the human liver. It has received some
public notoriety due to its inclusion in energy type drinks like Red Bull.
Some of its positive attributes have been linked to acting as a stimulant,
and helping in memory retention and concentration. Glucuronolactone is
also a direct precursor to Taurine therefore aiding in improved mental
performance and reaction time. In clinical settings, Glucuronolactone
was found to reduce sleepiness with sleep related driving incidents. (Reyner
et al 2002)
L-Aspartic acid is a non-essential amino acid, synthesized from glutamate
or otherwise derived from protein. Its chief mechanism is believed to
be involved in the repair of DNA and assisting carbohydrate metabolism.
It is a carrier molecule for the transport of magnesium & potassium
in and out of living cells. L-Aspartic acid is also a major excitatory
transmitter in your brain making it useful especially to those involved
in reaction type sports such as basketball, football etc. Just like Malic
acid, aspartic acid acid is an intermediate in the TCA cycle (see above)
and thus extremely useful in removing ammonia from the body. Last but
not least, in human studies, L-Aspartic acid has been shown to halt fatigue
after strenuous exercise thus increasing endurance levels.
b-Alanine is a direct precursor to Carnosine. Carnosine is extremely
effective in buffering hydrogen ions, which are generally elevated in
exercising athletes. Under normal exercising conditions, hydrogen ions
rise in response to energy production resulting in a subsequent fall of
muscle PH. With low intra-muscular PH levels athletes often times get
fatigued resulting in sub-par performance. The extent to which Carnosine
can delay fatigue (acidosis) is correlated to its content in muscle tissue.
(Tallon et al 2004-2005) In essence, the addition of b-Alanine (and subsequently
Carnosine) in Fierce is related to its effects on preventing your muscles
from becoming too acidic during times of stress. Since Carnosine works
alongside creatine (which is considered a phosphate donor) in buffering
the intra-muscular system from becoming too acidic it makes perfect sense
to stack the two together. Simply stated, b-Alanine makes creatine work
better through a second and independent pathway.
Fierce - Neuro Coognitizing Substrates
Taurine was included for its antioxidant properties and may be responsible
for the cytoprotective effect that is reported throughout the literature.
Dawson et.al 2002 subjected animals to 90 minutes of strenuous downhill
running after which muscle tissue damage was assessed. The taurine supplemented
group not only showed less extensive tissue damage, but running performance
as assessed by a subjective rating scale was improved. Exercise has been
shown to deplete the muscle content of taurine. In light of its ergogenic
actions, this warrants taurine supplementation during exercise. A similar
experiment in young men showed equal results: After exhaustive exercise,
the taurine group exhibited less cellular damage and enhanced performance
(Zhang et al 2004). Quoting from the study,
"Significant increases were also found in VO(2)max, exercise time
to exhaustion and maximal workload in test with taurine supplementation
( p<0.05). After supplementation, the change in taurine concentration
showed positive correlations with the changes in exercise time to exhaustion
and maximal workload. The results suggest that taurine may attenuate exercise-induced
DNA damage and enhance the capacity of exercise due to its cellular protective
properties."
What is even more exciting is that Taurine works extremely well with glucuronolactone
(see above) in aiding mental performance, clarity and reaction time.
N-Acetyl-L-Glutamine (NAG) is known to form a protective layer over the
lining of the stomach. It accomplishes this by activating a chemical action
that serves as an anti-acid buffer while suppressing the secretion of
pepsin, a protein-digesting enzyme produced in the stomach.
More recent clinical research indicates that NAG has psycho-stimulant
properties while improving memory. Chemically speaking, N-Acetyl-L-Glutamine
is the acetylated version of the most abundant amino acid found in skeletal
muscle tissue, which is glutamine. NAG is more stable in water and metabolically
efficient at delivering glutamine’s biological effects
over conventional Glutamine or Glutamine Peptides. As a glutamine donor
it supports the immune system. (Haussinger et al 2001).
Tyrosine is a nonessential amino acid synthesized in the body from phenylalanine.
It is an important nutritional ingredient and chief factor in the biosynthesis
of the brain neurotransmitters epinephrine, norepinephrine, and dopamine.
As such, Tyrosine is a precursor for the neurotransmitters that are responsible
for transmitting nerve impulses. Tyrosine is also considered an antioxidant,
reacting with free radicals that can cause damage to cells.
Caffeine is our last and final ingredient which is known as a competitive
inhibitor of the enzyme cAMP-PDE, thus converting cyclic AMP in cells
to its noncyclic form, allowing cAMP to build up. Cyclic AMP participates
in the messaging cascade produced by cells in response to stimulation
by epinephrine, so by blocking its removal caffeine intensifies and prolongs
the effects of the neurotransmitters epinephrine and norepinephrine.
The metabolites of caffeine contribute to caffeine's overall powerful
effects. Theobromine which is considered a vasodilator increases the amount
of oxygen and nutrient flow to the brain and muscles. Theophylline, the
second of the three main metabolites, acts as a smooth muscle relaxant
that chiefly affects the bronchioles and acts as a chronotrope and inotrope
thus increasing heart rate and efficiency. The third metabolic derivative,
paraxanthine, is responsible for an increase in the fat burning process,
which releases glycerol and fatty acids into the blood to be used as a
source of fuel by the muscles (Dews et al. 1984).
Supplement Information SAN FIERCE
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