Avantrx
Eat Less, Feel Full - Lose Weight Sensibly.
Special: Buy One, Get One Free
- Meal Time Portion Control
- Designed to Alleviate the Feelings of Hunger Associated with Calorie-Restricted Diets
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Clinical Study Average 4-week Weight Loss: 7.6 lbs
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Certified Kosher and BSE Free
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60 capsule count per bottle
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Made in the USA to FDA Good Manufacturing Standards.
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Recommended dosage: 1 or 2 capsules with 8 oz of water per capsule, 1 or 2 hours before meals
Advantage Avantrx!

Excess Weight and Disease
Over 50 studies (see below) now link obesity, excess weight and metabolic syndrome to degenerative eye disease including: cataract, macula degeneration, glaucoma, and diabetic retinopathy, as well as increased risk for cancer, cardiovascular disease, stroke and Type 2 diabetes, which is now considered an epidemic in the U.S. Therefore, a sensible portion control plan has become a focus of thought-leading eye doctors, as has recommending that patients make lifestyle changes that include: eating natural whole foods, getting regular physical activity through moderate exercise, and taking a potent full-spectrum (vitamin/mineral/antioxidant) multiple, particularly when on a reduced-calorie diet. We recommend Oculair or Macula Complete.
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reduce caloric intake
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improve macro- and micronutrient intake
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increase amount of calories burned.
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Responders: 94.1%
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Average 4-week weight loss: 7.6 lbs (4.2% body mass)
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Average number of capsules taken per day: 2
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Average reduction in meal portion size: 34.3%
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Average rating of hunger control effectiveness: 86.7%
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Average time to feel fullness effect: 33 minutes
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Average duration of fullness effect: 2.5 hours
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Total doses administered during study period: >2,000

In the first graph, participants were asked to rate their responses from the formula's effects at each breakfast, lunch and dinner. The formula generated a sensation of fullness or early satiety 94.1% of the time. In 5.9% of meals, patients described that "No Effect' was noted.



Super Absorbent Polymers (SAP), [like SWELL,
the ingredient in Avantrx, which is the subject of this GRAS
determination], are used in a variety of consumer, medical and
industrial products. SAP products are cross-linked homopolymers of
partially neutralized acrylic acid, i.e., hydrogels. Neutralization is
accomplished by sodium hydroxide solution. In the dry form SAP is a
granular powder of crystalline structure. Commercial SAP is practically
dust free because it contains much less than 0.1% of granules below 10
?m of diameter.
Upon swelling with water, it yields a gel-like
suspension. The retention of water is facilitated by the negative
carboxylic groups of the polymer and their hydration with water
molecules. Due to its cross linking, SAP is essentially insoluble in
water. However, should incomplete polymerization occur, small amounts of
a water extractable fraction can exist within the polymer matrix.
SAPs have been evaluated in various test
systems to elucidate their toxicological profile for both handling
during production and use in an article like a diaper, or in their
purified forms for ingestible purposes like: pharmacologic agents,
excipients, adjuvants, bulking agents, rheologic agents. These toxicity
data are substantial to draw conclusions on the potential risk of SAPs
to human health through its whole lifetime.
Note: Not all of
the different variations of the super absorbent polymers were tested
with all the following test systems due to ethical and economical
reasons. Some data has been drawn in analogy.
Acute oral toxicity
LD50 > 5,000 mg/kg body weight.
Up to 5% (w/v) SAP as a gel in 0.9% (w/v) saline were applied with a
stomach tube to 5 male and 5 female rats each. No toxic symptoms were
observed and body weight development was normal during observation over
14 days after single application. Necropsy revealed no visible organ
alterations.
Application of a watery extract of SAP (in the
drinking water) to 6 male and 6 female rats for 1 day led to no
symptomatic effects. No fatalities or any visible organ changes were
observed.
Subacute oral toxicity
The oral toxicity of SAP, when administered
daily to 10 male and 10 female rats per group via the diet over 4
consecutive weeks at concentrations of up to 5% weight of SAP by volume
were investigated. No changes of toxicological significance were
induced. The differences observed between treated and control animals
were limited to increases in water consumption and modification in
urinary ion excretion in treated animals. Both findings were considered
to be related to the relatively high concentration of sodium in the test
substance and therefore of no toxicological significance. (Research
Toxicology
Elimination after oral application
The elimination of radio-labeled [14C]-SAP
in the rat model following single oral administration has been
investigated and the rates and routes of excretion and tissue
distribution of total radioactivity were determined. By a recovery rate
in excess of 96% nearly the entire administered dose was excreted within
5 days and the main route of excretion was via feces. Levels of
radioactivity in tissues and organs were low. Biliary elimination of
total radioactivity did not occur to any significant extent.
Determination of the whole blood kinetics has shown also low levels of
radioactivity in blood with peak levels attained between 0.5 - 1 hour
post dosing. The results indicate that SAP is very poorly absorbed
following oral administration. (Inveresk Research International Ltd.,
Acute inhalation toxicity on SAP dust
The acute inhalation toxicity of fine dust of
SAP was determined in rats in a single 4 hour snout only exposure. The
actual exposure concentrations ranged from 0.95 to 5.54 g/m3
with respirable fractions (mass medium aerodynamic diameter (MMAD) <
3.5 ?m) of 25-40% of the total dust. A reduced respiration rate was
noted during exposure for all treated groups and mortality at exposure
concentrations at or in excess of 3.73 g/m3 was produced.
Histological examination of respiratory tissues showed evidence of an
inflammatory response, primarily in the lungs consisting mainly of
increased macrophages and mild lymphocytic infiltration. Based on the
observations recorded during the study and the histological findings
0.98 g/m3 of fine dust is considered to be a sublethal dose
level. (Inveresk Research International Ltd.,
Elimination after intratracheal administration
The elimination of radio-labeled [14C]-
SAP in the rat following single intratracheal administration has been
investigated. The levels of total radioactivity in the lung decreased
throughout the study period of one week, indicating absorption of
radio-labeled components. At the end of study approximately 15% of
administered radioactivity was left in the lung. Of the tissues
examined, highest levels of total radioactivity were found in the liver
(5%) and in the kidney (1%) at 1 hour post dose. Urinary excretion of
radio-labeled components was 26% after one week after administration.
The mechanism of absorption and the components are unknown. (Inveresk
Research International Ltd.,
Subacute inhalation toxicity on SAP dust
20 male and 20 female rats were exposed to
particulate SAP of a mass median aerodynamic diameter (MMAD) of < 10
?1m for 6 hours/day; 5 days/ week, for 4 weeks to nominal exposure
levels of 0.1, 1.0 and 10.0 mg/m3; the actual concentrations
were 1.7,4.0 and 21.1 mg/m3. No biologically significant
findings regarding ophthalmology, growth behavior, wet organ weights,
hematology, clinical chemistry and pulmonary function were reported.
Histological examination revealed a mild inflammatory reaction with
increased numbers of macrophages in the alveoli and minimal lymphocyte
response. There was some minimal evidence of a dose dependency but no
evidence of significant inflammation, tissue destruction or fibrosis. (
Note: Chronic
inhalation of fine dust may exert inflammatory reactions in the lung.
SAP was not tested in a chronic inhalation study. However, a chronic
(2-year) lifetime inhalation study with another intentionally micronized
super absorbent polymer dust (to get completely respirable particles)
performed on rats resulted in a non-specific inflammatory response in
the lungs of the rats, followed in the highest chronic exposure level by
tumor development in some animals. The no observed effect level (NOEL)
was 0.05 mg/m3. Therefore an occupational guidance value
(OGV) of 0.05 mg/m3 is recommended.
Acute dermal toxicity
LD50 2,000 mg/kg body weight of up
to 5% (w/v) of SAP as a gel in a 0.9% (w/v) saline applied to the shorn
skin of 5 male and 5 female rats. No toxic symptoms were observed; body
weight development was normal for 14 days after application; necropsy
revealed no visible organ alterations; no deaths occurred: SAP is
practically non-toxic when applied dermally.
Subacute dermal toxicity
Application of 0.5 g of SAP on shorn and
scarified skin of rabbits for five consecutive days under occlusion led
to no abnormal findings with respect to any local (i.e. irritation) or
systemic effects. Systemic effects were evaluated with hematological and
clinical parameters. (International Bio
Subchronic dermal toxicity
Repeated application of 0.05 ml of a saline
extract of SAP onto the shorn skin, without occlusion, of 10 female mice
of the strain, transiently and occasionally very slight edemas
accompanied with a slight increase in skinfold thickness. The test
substance was applied 3 times/week over 8 weeks. Body weight was within
normal range; no systemic effects, due to the test substance, were
observed.
A test for skin compatibility as a subchronic
dermal assay was performed. 10 female mice were exposed to 0.05 ml of 5%
and 7.5% (w/v) suspensions of SAP in 0.9% (w/v) saline, three times a
week. Toxicity or any other adverse effects to the skin were not
observed. There were no deaths. Body weight development was normal.
Acute skin irritation
Application of 0.5 ml of a saline extract of
SAP onto the shorn skin of 3 rabbits (both sexes) under occlusion over a
period of 4 hours showed no edema or erythema formation. No other skin
lesions were observed, as there were no systemic effects. Test duration
was 7 days.
Acute eye irritation
Application of 0.1 g of SAP into the
conjunctival sac of the eyes of rabbits caused very slight erythema and
mild transient corneal injury. There were no systemic symptoms due to
the application of the test substance. The observed very slight
irritative effects onto mucous membranes of the eyes and the cornea are
caused by the somewhat abrasive properties of the dry, crystalline
powder of SAP, and the capacity of SAP to dry out the membranes due to
the uptake of fluid during swelling. A watery suspension of SAP exerts
no such effects on the eyes of rabbits.
HET-CAM-Test
Chorioallantoic membrane (CAM) assay (HEN'S EGG
TEST): 200 mg of dry SAP was applied onto the
Cytotoxicity in vitro
Cell toxicity: SAP has been examined regarding
its influence on mammalian cells in a cell culture system using a
fibroblastic cell line derived from mice. The cells were incubated for
24 hours with an extract of SAP (15 g/l of 0.9% sodium chloride
solution) in concentrations up to 10% (v/v) in cell culture medium. No
adverse effects on the morphology or viability of the cells were
observed. Extraction of SAP with cell culture medium (10 g/l of medium)
led to a concentration dependent decrease in cell viability due to
complex formation (binding) of essential cations in the medium.
Following supplementation of the bound cations, adverse effects were not
observed any longer. Further cell toxicity tests were executed using
the agar diffusion cell culture technique, which is appropriate for
solid specimens as well. SAP was applied as dry granulate and as a
suspension (30 g/l of 0.9% sodium chloride solution). There was no
indication of cytotoxic effects.
Intravenous and intraperitoneal application
Intravenous and intraperitoneal compatibility
of SAP was tested after systemic injection in mice. Following
intraperitoneal application of 50 ml/kg extract in sesame oil or 10 g/kg
extract in polyethylene glycol no toxic reactions of the animals were
observed within 72 hours. Intravenous instillation of a SAP extract (15
g/l of 0.9% of sodium chloride solution) produced systemic effects and
mortality in dose levels greater than 40 ml/kg. Histopathological
examination revealed dose dependent toxic alterations to liver and
spleen. The no observed effect level (NOEL) is less than 10 ml/kg, a
dose where only minimal hepatic effects have been observed.
Subcutaneous and intramuscular implantation
Subcutaneous and intramuscular compatibility of
a gel and the granulate of SAP was tested in rabbits after
implantation. Histopathology revealed no abnormal reactions in the
surrounding tissue. Furthermore, there were no significant deviations
from normal values in hematology, clinical chemistry, and other standard
toxicological parameters. No signs of toxicity were observed.
(International Bio Research - IBR,
Hemocompatibility
Hemocompatibility of SAP was tested with the
extract and a gel-like suspension of the polymer against human
erythrocytes of different blood groups. No hemolysis could be observed
under the test conditions employed. Therefore SAP is compatible to
blood.
Influence on the vaginal mucosa
SAP was examined with respect to its influence
on vaginal mucosa tolerance through single intravaginal administration
to rabbits. The dosage levels used were 0.33 and 3.0 g/animal. There
were no observed toxic symptoms, nor any deaths. Body weight development
was normal, as were the amounts of food and drinking water consumed.
The mucosa of the vagina was examined macroscopically and
microscopically. No pathological changes were observed relating to SAP.
(Laboratory for
Allergic contact sensitization (GPMT)
SAP has been tested with respect to its
potential to sensitize animals after skin contact according to the
maximization test of Magnusson and Kligman. Twenty (20) guinea pigs of
either sex were treated intradermally with a water extract [1% (w/v)]
and dermally with 1% and 7.5% (w/v) gels in 0.9% (w/v) saline during the
induction period. The challenge was executed with 1%,5% and 7.5% (w/v)
gels in 0.9% (w/v) saline: No erythemas or edemas were observed;
therefore, it is unlikely for SAP to exhibit a potential for skin
sensitization.
Human allergic contact sensitization
Human repeat insult patch test (HRIPT): Saline
[O.9% (w/v)] extracts of SAP were applied repeatedly as patches on the
upper arm of 44 human volunteers, of either sex, aged 18 years or more.
Nine induction patches each, to be worn for 24 hours, were used over a
period of 3 weeks (3 for each week). One challenge patch was applied for
24 hours with reading and grading 48 and 96 hours after application.
The test showed no evidence of skin sensitization for SAP. (CTC
International Ltd.,
Human irritation test
A cumulative irritation test over 21
consecutive days was performed with 0.3 g of a gel of SAP [10% (w/v) in
isotonic saline] on volunteers. The gel scored 0.01 points out of 4.0,
and was rated "very mildly" irritating. (Harris Laboratories, Inc.,
Teratogenicity
Pregnant female rats were exposed in a
teratology study to respirable levels (particle size < 10 ?m) of SAP
at 0.3, 1.0 and 10 mg/m3 for 6 hours/day from day 6 to day 15
of gestation. On day 20 of gestation the rats were necropsied and
examined by number of implantations, early and late resorptions, live
and dead fetuses and number of corpora lutea. The fetuses were observed
for weight, external, soft tissue and skeletal alterations. No effects
were observed: The no observed effect level (NOEL) is greater than the
highest concentration applied. (
Salmonella typhimurium reverse mutation assay
Mutagenicity was tested with an extract of SAP
[10 g/l of 0.9% (w/v) sodium chloride solution] which contains
constituents extractable with water: The test was done with the
AMES-Salmonella-plate test (in vitro) with and without metabolic
activation by rat liver microsomes for screening for mutagenic
properties. The strains TA 100 and TA 1535 were used (base pair
substitution) as well as TA 98 and TA 1537 (frameshift mutation).
Cytotoxic effects were not observed up to a quantity of 100 ?l of the
above mentioned extract per plate. An increase in the revertants was not
detected in any of the examined cases. Therefore, there was no
indication of a mutagenic potential in S. typhimurium of the extract of SAP. (Laboratory for
A further AMES
test was executed with an extract of SAP [20 g/l of 0.9% (w/v) saline
with 10% (v/v) ethanol] which contains constituents extractable with
water and alcohol, with and without metabolic activation by rat liver
microsomes. The strains TA 100, TA 1535, TA 98 and TA 1537 were used. An
increase in the revertants was not detected in any of the examined
cases. Therefore, there were no indications of a mutagenic potential in S. typhimurium of the
extract of AP up to the equivalent of 20 mg/plate. (Microtest Research
Ltd.,
Escherichia coli reverse mutation assay
Extracts of SAP were tested in tryptophan
requiring strains of Escherichia
coli for their ability to induce point mutations with and
without the presence of a metabolic activation system. Up to 5,000
?g/plate no mutagenic events could be observed. Furthermore,
cytotoxicity was not detected up to 5,000 ?g/plate. (
In vitro mammalian cell gene mutation test
Mouse lymphoma L-5178-Y cells were exposed with
(S 9 mix from Aroclor induced rat liver) and without metabolic
activation to an extract of SAP [20 g/l in 0.9% (w/v) saline with 10%
(v/v) ethanol]. The test substance failed to induce point mutations at
the hypoxanthine guanine phosphoribosyltransferase (HGPRT) locus up to
the equivalent of 200 ?g/ml. (Microtest Research Ltd.,
Mouse lymphoma L-5178-Y cells were exposed with
(S 9 mix from Aroclor induced rat liver) and without metabolic
activation to an extract of SAP in 0.9% (w/v) saline with 10% (v/v)
ethanol. The test substance failed to induce point mutations at the
thymidine kinase (TK) locus up to the equivalent of 1.5 mg/ml. No
cytotoxicity was observed. (Hazleton America, Inc.,
UDS in rat hepatocytes in vitro
SAP was tested for its ability to induce
unscheduled DNA synthesis (UDS) in isolated rat hepatocytes in vitro. Treatment with up
to 1,500 ?g/ml of equivalent extracted material [i nO. 9% (w/v) saline
with 10% (v/v) ethanol] did not produce a mean net grain count greater
than zero (0), nor were 20% or more cells to be found in repair. The
test substance therefore failed to produce genotoxic activity. (
In vivo mouse bone marrow micronucleus test
SAP was assayed in an in vivo mouse bone marrow
micronucleus test at the highest oral dose level (375 mg/kg) due to its
thick consistency. Groups of 5 male and female animals were used and
were killed at intervals of 24, 48 and 72 hours after treatment. At no
time point was there a significant increase in micronucleus frequency in
any group. Therefore, it is concluded that SAP is not able to induce
micronuclei in polychromatic or normochromatic erythrocytes of bone
marrow of mice. (Microtest Research Ltd.,
Growth of pathogenic microorganisms
In order to answer the question if pathogenic
microorganism can grow on SAP, which may be used in hygiene products,
pharmaceutical applications, food additives or in food packaging, the
growth behavior of pathogenic microorganisms and the potential
production of toxins where investigated:
Growth behavior of the pathogenic
microorganisms Escherichia
coli, Staphylococcus aureus, Pseudomonas aeruginosa and Candida albicans
alone or in combination was determined with a saline (0.9%) extract of
SAP at 37 ?C for 24 hours. No significant growth could be determined,
i.e. the aqueous extract of SAP does not serve as an important
additional carbon source, especially when a free water phase is lacking.
Furthermore, cytotoxic effects of the extract could not be observed.
Additionally, the native product was tested
against its resistance to microbiological attack and subsequent growth
of microorganisms. Without addition of a culture medium, no growth was
observed, i.e. SAP does not serve as an additional carbon source.
Inhibitory effects of extracts of SAP on the
growth behavior of the potential pathogens E. coli and C. albicans were
not observed, i.e. cytotoxic, cytostatic or biocidal effects are not to
be expected. Furthermore, significant growth was not observed.
Production of bacterial toxin
Extracts and the gel of SAP were incubated with
a TOXIC SHOCK SYNDROM TOXIN 1 (TSST 1) producing strain of Staphylococcus aureus to
search for any abnormalities in the growth behavior of the microorganism
and its ability to produce the toxin. The super absorbent polymer SAP
exhibited no observed influence on the aforementioned parameters.
(Laboratory for Toxicology & Ecology,
Summary
SAP products are super absorbent polymers which
exhibit a very low toxicological profile: Under appropriate test
conditions there have been no signs of acute oral toxicity (> 5,000
mg/kg, rat) and acute dermal toxicity (> 2,000 mg/kg, rat).
Furthermore, subacute oral toxicity and subchronic dermal toxicity have
not been observed in rats. The eye irritative potency (rabbit) seems to
be very low. SAP has a good compatibility following systemic injection
or implantation and against blood. It is not per se cytotoxic.
Absorption after oral uptake is negligible. Some absorption is observed
after intratracheal application but without any systemic toxicity.
SAP shows no evidence of an allergic contact
sensitization in guinea pigs and humans. The same applies for irritative
properties. No mutagenic and teratogenic potency was found. SAP does
not serve as a growth substrate for pathogenic microorganisms. However,
chronic (2 year) inhalation of intentionally micronized fine dust of a
super absorbent polymer caused tumor formation in rat lungs but in the
highest concentration only. Therefore an occupational guidance value
(OGV) of 0.05 mg/m3 is recommended by Neutra-Labs.
Conclusion:
Additional References
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2. Advances in Polymer Science, Vol. 109 & 110, Responsive Gels: I & II, Springer-Verlag.
3. Akiyama Y, Nagahara N, Hirai S, Toguchi H: In Vitro and In Vivo Evaluation of Mucoadhesive Microspheres Prepared for the Gastrointestinal Tract Using Polyglycerol Esters of Fatty Acids and a Poly(Acrylic Acid) Derivative, Pharm. Res.,12(3), 397-405, 1995.
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13. Brannon-Peppas L, Preparation and Characterization of Cross-linked Hydrophilic Networks, Sud. Polym. Sci., 8, 45-66, 1990.
14. Briede R H: Application of Carbomer water Gel 1%, Pharm. Week, 118(9), 170-174,1983, 37 Berney B M, Deasy P B, Evaluation of Carbopol 934P as a suspending agent for Sulfademidine suspensions Int. J. Pharm.,3(2-3), 73-80, 1979
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19. Chu J S, Chadrasekharan R, Amidon G, Weiner N D, Goldberg A H:Viscometric Study of Polyacrylic Acid Systems as Mucoadhesive Sustained-Release Gels, Pharm. Res., 9(11),1408-1412, 1991.
20. Claudia V, Constantia E K, Irene H, Andreas B, Development and in vitro evaluation of a mucoadhesive vaginal delivery system for progesterone J. Control. Release, 77,323??332, 2001.
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23. Davies, N.M., Farr,
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L, P?rard D, Verhoef A C, de Boer A G , Junginger H E: The Effect of
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Calcium Dependent Proteases, Proceed. Intern. Symp. Control.
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32. ElHady S S A, Mortada N D, Awad G A S, Zaki NM, Taha RA, Development of insitu gelling and mucoadhesive Mebeverine Hydrochloride solution for rectal administration Saudi Pharm. J. ,11(4), 59-169, 2003.
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34. Gaffar A, Afflitto J, Nuran N, Chemtech,23(7),38-42, 1993.
35. Garcia-Gonzalez N, Kellaway, I W, Blanco, Fuente H, Anguiano, Igea S, Delgado, Charro B,Otero, Espinar F J, Mendez J: Influence of Glycerol Concentration and Carbopol Molecular Weight on Swelling and Drug Release Characteristics of Metoclopramide Hydrogels Int. J.Pharm., 104,107-113,1994.
36. Gumma A: Measurability of the Bioavailability of an Active Principle Applied Topically, Pharm Acta. Helv., 46(12), 7306, 1971.
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39. H P Brown, US Patent No. 2798053 (1957)
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42. Ishikawa S et al: Evaluation of the Rheological Properties of Various Kinds of
Carboxyvinyl polymer Gels,
43. Lehr C M, Bouwstra J A, Tukker J J, Verhoef A C, de Boer A G, Junginger, H E, Breimer D D: Oral Bioadhesive Drug Delivery Systems - Effects on G.I. Transit and Peptide Absorption, Pharm. Res., 7(9), Sep 1990 (Suppl.) PDD 7226, 1990.
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P?rard, Langguth P, Verhoef A G, de Boer A G, Verhoef J C, Junginger H
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48. Lueben H L, Lehr C M, Rentel, C O, Noach A B J, de Boer A G, Verhoef J C, Merckle H P, Junginger, H.E., Effect of Poly(Acrylates) on the Enzymatic Degradation of Peptide Drugsby Intestinal Brush Border Membrane Vesicles, J. Control. Release, 29(1), 329-338, 1993.
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QWho certifies Avantrx Kosher?
Avantrx does not include any animal product therefore it does not require kosher certification. The manufacturing process and the capsules used for Avantrx are certified kosher by "Ko."
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QDo I have to drink water with Professional Strength Avantrx?
YES: Drinking 6-12 oz of tap water with each Avantrx capsule is VERY IMPORTANT for 2 reasons: First; Avantrx capsules work best if they are swallowed whole - without chewing or breaking them open in the mouth. Second; once the capsules dissolve in the stomach, the microbeads expand by absorbing water. In order for the beads to expand properly, the stomach needs to have enough free water present. Eight to 12 ounces of water must be taken with each capsule one to two hours before meals for Avantrx to work safely and achieve maximal swelling effectiveness. (Maximum Limit- 2 capsules per meal or 6 capsules per day).
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QWhat is the maximum number of capsules I can take before each meal?
TWO: Taken as directed, Avantrx microbeads are designed to expand up to to 1,000 times their weight in water (about the size of an apple). Taking more than 2 capsules at a time (unless directed by a physician) for a single meal is NOT RECOMMENDED since this may over-distend the stomach causing severe cramping, nausea, vomiting or other complications.*
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QIs Professional Strength Avantrx rcommended as a stand-alone diet or weight management tool?
NO: Avantrx works best if used as part of a healthy lifestyle in combination with regular exercise, a low-fat nutritious whole-food diet, smoking cessation, and other positive decisions that are part of a comprehensive health and weight management program. The Biosyntrx science team also recommends supplementing the diet with a multi-vitamin formula to ensure complete absorption of all of the necessary vitamins and minerals needed for good health - some of which may become restricted in some diets and weight management programs. Remember, before beginning Avantrx or any weight management program you should always consult with your doctor first.
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QIs the water used to take Avantrx reabsorbed in the gut?
Any ingested free water that is not absorbed by Avantrx will be rapidly absorbed by the gut as usual. The water that is absorbed by Avantrx remains locked (hydrogen bonded) into the polyelectrolyte structure of the hydrogel until it is excreted in the feces.
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QWas there any testing done to see if the acrylic polymer was being absorbed into the blood stream?
It was not deemed necessary by the FDA. The FDA has established CEDI and ADO limits on polyacrylic acid and acrylic acid monomer. The Avantrx material contains a monomer concentration specified to be less than 20ppm, which is over 100 times below the FDA limits. The most recent batch of bulk, pre-processed material was analyzed to have 11ppm acrylic acid. So you can see that the margin of safety is extremely high. The FDA information is on file in the Biosyntrx Research Office.
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QHow do I take Avantrx?
Avantrx works best when taken one to two hours before eating. Whether you need 1 or 2 capsules varies by individual, so see what works best for you. As a general guideline, you should start with 1 capsule, especially if you weigh 150 lbs. or less.* If you don't have a sense of fullness during the meal from one capsule, then next time try 2 capsules.* Everyone is different, so Professional strength Avantrx works slightly differently for everyone.
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QWhat is Avantrx?
Avantrx contains a proprietary ultra-pure Cross-linked Polyacrylic Acid Hydrogel (PAAH). PAAH is a family of synthetic materials that have been in wide commercial use for decades. These large molecules are highly versatile, non-toxic and non-absorbable, and have been determined to be "Generally Recognized as Safe" (GRAS) for numerous FDA-approved medical applications that include: bulking agents, laxatives, thickening agents, drug delivery excipients, pharmaceutical adjuvants, cosmetic emollients, and food additives, among others.*
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QHow does Avantrx work?
Avantrx is NOT a "miracle weight loss pill." Each capsule contains hundreds of microbeads made from a proprietary, non-toxic, superabsorbent polymer that has been designed to expand up to1,000 times its weight in water when taken as directed. Each Avantrx rapid-acting capsule dissolves within minutes of ingestion. The microbeads absorb the free water and expand to partially fill the stomach; promoting the release of hormones that signal the hunger center in the brain to suppress your appetite. So by the time you sit down and start eating, you are already beginning to "feel full." Simply stated: Professional strength Avantrx lets you eat less without feeling hungry.* And in combination with a healthy lifestyle and weight management program, most people using Avantrx tend to lose more weight than with dieting and / or exercise alone.*
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QDoes Professional Strength Avantrx have any side effects"
Avantrx is a mechanical gastric bulking agent that has no nutritional value. It does not contain ephedrine, or any stimulants. It promotes bowel regularity, but it is not a laxative; nor does it interfere with digestion, metabolism, or blood sugar levels. Avantrx is not known to promote any significant side effects. It is non-fermenting and does not cause flatulence (gas).*
