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1 - jar, 350 grams (70 servings)
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Directions: Take 1 tsp, 1-3 times a day
as needed or directed by physician.
To Mix As A Drink:
break up clumps, mix 1 tsp into 4-6 ounces of warm water.
May also be stirred into hot porridges such as
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DO NOT USE IF PREGNANT OR NURSING
DO NOT USE IF YOU HAVE RENAL INSUFFICIENCY
* This product is not intended to diagnose,
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REFERENCES FOR THIS MONGRAPH
1. Alvarez Medrano, Carlos: Utilización
de diferentes niveles de "maca" en
la fertilidad de los cobayos. Cerro de Pasco-Perú
1993.
2. Baquerizo Vasquez, Gloria : Estudio Químico
Bromatológico de Lepidium meyenii
Walp y de Aiphanes var Deltoidea Burret
"shica-shica". Fac. Medicina UNMSM Lima-Perú
1968
3. Brack Egg, Antonio: Diccionario enciclopédico
de plantas útiles del Perú.
Cusco-Perú. 1999.
4. Cóndor, D. Efecto de diferentes niveles
de maca (Lepidium meyenii walp) en raciones
de crecimiento para cuyes. Junín-Perú,
1994.
5. Cóndor Surichaqui, D: Influencia de la maca
en el incremento de peso en la reproducción
y descendencia de borregas en la cooperativa
comunal San Ignacio de Junín. Cerro
de Pasco- Perú 1991
6. Dini A, Migliuolo G, Rastelli L, Saturnino P, Schettino P.:
Chemical composition of Lepidium meyenii .
1994
7. Espinoza Tumialán , Carmen L.,Poma Mansilla: Determinación
de los aminoácidos esenciales de
la maca (Lepidium meyenii walp) y elaboración
de una mezcla protéica a base
de alimentos andinos. Huancayo-Perú 1995.
8. Garró Virginia: Investigación Química
y Biológica de Lepidium meyenii Walp
(maca). Revista Theorema, Año 4 N°6 Lima
Perú 1996.
9. Instituto Nacional de Nutrición del Perú: Composición
Química de los alimentos consumidos
en el Perú, Lima Perú 1993
10. León Jorge: The Maca (Lepidium meyenii)
a little Know food plant of Perú.
Economic Botany 1964.
11. Lobatón Erazo, Margarita:1998, Micronutrientes
en Lepidium meyenii W. (maca-maca) y actividad
en sujetos con anemia ferropénica
e Hiperlipidemia" Tesis Mag. Fac. Farmacia
y Bioquíimica UNMSM, Lima-Perú.
12. Matos Tovar, Tony: Efecto de la maca (Lepidium
meyenii walp) en la presentación
de celo en vaquillas Holstein en el
establo Chacra Valdivia, Matahuasi- Concepción
.Huancayo-Perú. 1995
13. Meza Ninanja, Edgar : Efectos de la maca (Lepidium
meyenii walp) sobre los parámetros productivos
y reproductivos de cuyes de raza Wanka.
Huancayo-Perú 1995.
14. Moreno L. Javier R.: Maca, Recurso genético
patrimonio del Perú para la humanidad.
1ra edición. Lima-Perú 1996.
15. Obregón Vilchez Lida: Maca, Planta medicinal
y nutritiva del Perú. Instituto de fitoterapia
americana, 1ra edición Lima-Perú. 1998.
16. Tello J, Hermann M, Calderón A.1992 La Maca
(Lepidium meyenii Walp.) Cultivo alimenticio
potencial para las zonas altoandinas. Boletín
Lima N° 81.
17. Rostworoski M. : Historia del Tahuantinsuyo
. Edición IEP Lima-Perú 1992.
18. Steinberg Phillip, Phil Steinberg¢s : Cat¢s
Claw News, Vol I issue 2, julio/agosto 1995.
19. Torres Villanueva R. ,1984 Estudio Nutricional de
la Maca (Lepidium meyenii Walp) y su
aplicación en la elaboración de
una bebida base. Tesis Facultad de Ingeniería
en Industrias Alimentarias, UNA Lima-Perú.
20. Yllesca Gutierrez María: Estudio Químico
y fisicoquímico de tres ecotipos
de Lepidium meyenii procedentes de Carhuamayo.
Facultad de Farmacia y Bioquíimica UNMSM. Lima-Perú.
21. Raintree Nutrition, Inc, 1999, Maca Lepidium meyenii, Austin
Texas USA.
|
Maca (Lepidium meyenni Walp) Tubers
Scientific
References
MACA (Lepidium meyenni Walp) MONOGRAPH
(by RAIN LABS S.A., Lima Peru)
SYNONYMS
Lepidium peruvianum G. Chacon
Lepidium sp.
Lepidium peruvianum Chacón sp. nov.
COMMON NAMES
Peruvian Ginseng, maca-maca, maino, macca, maha, Dr. macasi,
Ayak, chichira, Ayuk Willku, huto-huto, Small flake.
USED PART
Root
HISTORY
The cultivation of "maca", a native Peruvian plant
that grows in the Andes, specifically in the tropical Andes,
dates back to approximately 3800 B.C. (or before). Evidence of
this is found in archeological sites left behind by local inhabitants
of that period, as well as from the Chaupihuaranga river sub-basin,
in the Department of Pasco. Agriculture in the Andes, over 4000
meters a.s.l., was determined by climatic factors, the adaptation
by certain species, among which are "maca", "shiripapa"
and "mauna".
Jorge León in 1964 (10) pointed out that ancient Peruvians
had a well-developed agriculture. Based on their creativity and
labor, theirs is comparable to modern ecological agriculture.
This is how they achieved the domestication of Andean species
that still are so today, and how they propitiated the formation
of microclimates, adequate for high-altitude cultivation. Proofs
of this are the vestiges of irrigation channels, fences, ridges
and terraces found today.
In the plateau of Junín or Bonbón one can find
the remains of this intensive agriculture activity, at altitudes
where there is no present cultivation. We can state, without
a doubt, that the Central Peruvian Andes was a center for domestication
and cultivation of plants with particular characteristics, such
as "maca". Their agricultural management style dates
back to the oldest of the high Andean plateau, which could have
existed even before "shiripa" and potato were planted.
It is believed that around the years 1200 and 100 years B.C.,
wild primitive groups called "Pumpush " traveled to
the riverbanks of lake Chinchaycocha (Junín) and they
settle in that region, possibly looking for better lands for
their subsistence. It is believed that this hardened race is
the one who domesticated "maca"; starting a cultivation
that, because of the uniqueness of its traditional technology,
is thought to be the product of "God and man's patient hand
through the centuries", who had to face the harshest weather
typical of those altitudes, suffocating mid-day heat and extreme
nighttime cold.
According to some authors, around the years 1100 at 1470 D.C.,
Aymara shepherds, called Yarovillcas, invaded the areas of the
high plateau and Jalca in the central mountain range. Waldemar
Espinoza refers to the Yaros as "farmers and outstanding
ranchers, who were extraordinary "maca" farmers, a
much sought-after tuber for its fabulous aphrodisiac and fertility
properties".
The historian María Rostworowski (17), in her work
"The Ayamarcas" (primitive inhabitants of Cusco), comments
that this ethnical trajectory of the Ayamarcas is not common
in the Peruvian history. Similarly, while analyzing the significance
of their name, which derived from the words Ayar and "maca",
indicates that Ayar means "wild quinoa" while "maca"
was known in the Tahuantinsuyo Empire as an Andean plant of great
importance that grew in elevated ecological steps, where corn
did not grow.
According to this author, the name " Ayar " could
have been given by the Incas as a justification for continuity
between primitive and Inca ethnicity, after gaining control over
them; and "maca", attributed to the root utilized since
prehistoric times, whose magical origin was attributed to its
fertility properties.
The Inca Empire adopts the cultivation of "maca"
after general Pachacútec invades the lands of Chinchaycocha
in the central mountain range. However, it was not until Huaya
Capac, the last Inca ruler, who after conquering the Pumpush
through the "mitimaes" (prestigious pacifying colonists
sent to warring regions) that they devote themselves exclusively
to the cultivation of "maca" in the Bonbon plateau,
vital crossroad between Cusco and the Chinchaysuyo region.
According to XVI and XVII century chronicles, the Inca troops
were fed "maca" because it was believed to give vitality
and physical strength to the warriors. It is said that during
the Inca period it was cultivated in the entire plateau, being
sent to Cusco as a tribute from the Pumpush to the Tahuantisuyo
Incas. Vasquez Espinoza mentions as "a root with so much
firethat it leaves the ground sterile wherever it is planted,
leaving little strength in it to plant again...". Rostworowski
shares the opinion of the peasants that plant it nowadays, who
say that "maca" impoverishes the soil in the high plateaus.
This is why it is planted by accumulating humic soil, in virgin
soil, or in soil that has been left unused for several years.
This tells us that here we have a plant that on the one hand
is offered as a native nutritional supplement, and on the other
depletes the soil of nutrients in very high proportions.
When the Spaniards arrived in Peru, according to their chronicles,
"maca" turned out to be the most important product
being produced, consumed and marketed by the inhabitants of the
high plateau. The settlers themselves did not value its fertility
power, but they did use it successfully to improve the fertility
of the mares. The Pumpush people paid approximately 15 MT of
"maca" annually to the agent in Chinchaycocha; the
oddity of which draws attention to the intrinsic value and importance
of this plant. Around the middle of the XIX century there were
extensive "maca" plantations in that area.
Not much was written on "maca" during the XIX century.
However, it is noteworthy that, for the first time, in 1843,
this plant was described scientifically; taxonomically denominated
Lepidium meyenii Walp, based on a Peruvian specimen
collected in Pisacoma, in the Department of Puno (Walpers 1843)
The German scientist Augusto Weberbauer, in 1945, pointed-out
the existence of Lepidium meyenii Walp specimens at 4000 meters
a.s.l., considering it to be a high plateau grass. It is in the
decade of the 60s that scientific papers, by mostly Peruvian
biologists chemists, engineers, zoologists, pharmacists and physicians,
begin to appear in popular publications. Not much research has
been done on "maca" in foreign countries (15).
MACA PROPERTIES IN THE ANDEAN TRADITION
1. TO ENERGIZE, REVITALIZE AND REGULATE: Used by Tahuantinsuyo
Empire troops before battle, to increase their physical strength.
To regulate menstruation, lessen menopause symptoms and help
with insomnia. Recommended as well for malnutrition, convalescence,
memory loss, fatigue and mental weakness.
2. TO AID IN FERTILITY: This is the main quality attributed to
this plant by the Incas, before the arrival of the Spaniards,
and the reason why it was considered magical and used in sacred
rites by them and their descendants.
3. AS AN APHRODISIAC: This property is second in importance and
parallel to fertility. Much has been written about this property,
as an aid to overcome frigidity.
4. ANTI-ARTHRITIC: It was possibly used for this purpose because
shamans and herbalists categorize it as a "hot plant".
5. RESPIRATORY ILLNESSES: Also probably used for this purpose
because of it being considered a "hot plant"
DESCRIPTION
Annual, tuberous, herbaceous plant that belongs to the Brassicaceae,
family. During the vegetative stage it presents a small rose-like
cluster of leaves; during the growth stage it presents a large
rose-like cluster of leaves and flowers, with a large, fleshy
root, in the shape of a radish.
"Maca's" fleshy axis color can be light yellow,
purple and almost black or with the topside purple and the lower
yellowish. The Indians, who prefer the first kind, identify these
three types. Internally, by making a cut lengthwise, there are
two well-defined parts: the cortical region, which is light and
soft, and presents dark areas; most of this cortical areas has
rich-in-starch "parenquima" and the center cylinder,
which is harder and is formed by radial edges of "xilema",
separated by broad "parenquima" sections.
Four varieties of "maca" are identified according
to the color of their axis: "cream", "purplish",
"purple" and "black". These colors are due
to the intensity of the "antocianines" of the external
layers. Yellow "maca" is preferred because of its color.
Some researchers, such as Juan Tello, Michael Hermann and Abelardo
Calderon, found in 1992 up to 13 different ecotypes in a 758
sample from the Department of Junin; 47.8% of which were yellow,
16.5% were reddish-white and 9% were purple-white.
BOTANICAL DESCRIPTION
ROOT: Tuberous, of spherical, rounded form, axonomorphe and "napiforme".
A variety of colors, from light yellowish, through whitish pink,
to spotty, all the way to purple and black; about 3-6 cm across
and 4-7 in length.
STEM: Short and not very visible, "acaule".
LEAVES: Rose-like growth, made up of an enlarged sheath, long
petiole, composed smooth surface, 6 to 9 cm. in length
FLOWERS: Flowers grow in clusters, however can sometimes be simple,
hermaphrodites, axilary, actinomorphes, light green and small.
FRUIT: Ovoid shape, 1-2 cm wide yellowish-red in color, with
a single seed in each cell.
The root of the "maca" is not a tuber. The floral
formula given to this plant is as follows:
K4, C4, A2-4, G-2.
PHYTOCHEMICAL STUDIES (15)
Following are key research projects that shed light on the most
important "secondary metabolites of "maca"":
1. Gloria Chacón R. In her thesis "Phytochemical
Studies of Lepidium meyenii Walp", San Marcos University,
Lima-Peru 1961 summarizes:
- Alkaloids (up to 4 fractions)
- Starch, glucosides, fatty acids, tannins and scarce saponines.
2. Timothy Johs, in his thesis "Etnobotany and Phytochemistry
of Tropaelum tuberosum and Lepidium meyenii from Andean of South
America", U.British Columbia -Canada 1980, mentions the
following conclusions:
- Bencil and p-methoxibenzile glucosinolates, the author mentions
that there is a relationship between the presence of aromatic
glucosinolates and the process of human reproduction.
3. Virginia Garró, Enrique León and Betty Julca
in their research paper: "Extraction, separation and identification
of "maca" alkaloids through chromatography", University
of San Marcos, Lima-Peru 1993, were able to separate four alkaloids
and fractions.
4. María G. Yllesca Gutierrez presents in her thesis:
"Chemical and Phytochemical comparative study of 3 Lepidium
meyenii echotypes" reports the presence of the following
compounds
- three alkaloids and one flavonoid
- steroids and/or trypterphenes
- phenolic compounds
- flavonoids and/or coumarins
- tannins
- glycosides
- saponins
- free amino acids
- secondary aliphatic amines
- tertiary amines.
5. Virginia Garró, Enrique León, Cesar Fuerte and
Eriberto Carrasco, in their paper: "Chemical and biological
studies of Lepidium meyenii" reported:
- chlorophormic phase: alkaloids
- methanolic phase: fructose and alkaloids
6. Hugo Jeri Cardinal, in his thesis entitled: "Phytochemical
study of Lepidium meyenii Walp", Pasco, Peru 1995, reported
the presence of:
Secondary Metabolites:
- alkaloids
- anthocyamines (responsible for the external coloration of the
roots).
- flavonoides
- terpenoides/triterpenoides.
- Dextrine.
7. Dr. Cesar R. Fuertes, in his scientific paper: "Botanical
and chemical study of yellow and purple Lepidium peruvianum,
"maca". Evaluation of their sharp toxicity" Phytotherapy
Institute of America, Lima, Peru, 1997, reported the following
results:
Yellow "maca"
- 3 alkaloids
- 2 flavonoids
- saponins
- 3 glycosinolates
Purple "maca"
- 3 alkaloids
- 2 flavonoids
- steroidal saponins
- 3 glycosinolates
CHEMICAL- NUTRITIONAL STUDIES
The following tables show the results of different macro and
micro elements of "maca" as reported in the literature:
"Maca" Composition Based On 100 gr. Consumable
Portions
|
Components |
Values |
| Energy (calories) |
314 |
Proximate Analysis (g)
Water
Protein
Fat
Carbohydrates
Fiber
Ash |
15,3
11,8
1,60
66,40
-
5,00 |
Minerals (mg)
Calcium
Phosphorous
Iron |
247
183
14,70 |
Vitamins (mg)
Thyamine
Riboflavin
Niacine
Ascorbic Acid |
0,20
0,35
0
2,50 |
Source: National Institute of Nutrition Lima-Perú 1993
Starch Composition of "maca" Based on
100 g of consumable portions
|
Components |
Values |
| Energy (calories) |
350 |
Proximate Analysis (g)
Water
Protein
Fat
Carbohydrates
Fiber
Ash |
11,0
6,10
1,2
80,1
-
1,6 |
Minerals (mg)
Calcium
Phosphorous
Iron |
175,0
70,0
31,7 |
Vitamins (mg)
Thyamine
Riboflavin
Niacine
Ascorbic Acid |
0,15
0,07
0
2,80 |
Source: National institute of Nutrition Lima-Peru 1993
Comparative analysis of the protein components of raw and
cooked "maca", of the light and dark varieties show
that there are no significant differences, as shown in (19):
Protein Components/Light and Dark Maca
|
Light |
Dark |
| Albumins & Globulins |
74,01% |
72,02% |
| Glutelins |
15,3% |
13,32% |
| Prolamins |
10,68% |
14,65% |
| True Protein* |
42,19% |
41,55% |
* Protein constituted by essential amino acids.
Similarly, proximate analysis of 3 types of "maca"
originating in Carhuamayo (Junin), show the following results:
|
Yellow |
Red |
Black |
| Proximate Analysis |
(g%) |
(g%) |
(g%) |
Moisture
Total Proteins
Fat
Fiber
Ash
Carbohydrates
Total nitrogen
Non-Protein Nitrogen
Pure Protein (NP x 6,25)
Starch
Soluble Sugars
Direct Reducing
Soluble Sugars
Indirect Reducing |
9,71
17,99
0,82
5,30
3,49
62,69
2,87
1,55
8,25
37,86
6,17
16,52
|
10,14
17,22
0,91
5,45
3,68
62,6
2,76
1,16
9,97
37,52
6,03
17,26
|
10,47
16,31
0,82
4,95
3,63
63,82
2,42
1,36
7,7
38,18
7,02
17,10
|
| Vitamins |
(g%) |
(g%) |
(g%) |
Niacin
Ascorbic Acid
Riboflavin
Thiamine |
43,03
3,52
0,61
0,42 |
37,27
3,01
0,5
0,52 |
39,06
2,05
0,76
0,43 |
| Minerals |
(mg%) |
(mg%) |
(mg%) |
Potasium
Sodium
Magnesium
Calcium
Phosphorous |
1130
20
70
190
320 |
1160
20
80
200
290 |
1000
40
80
240
280 |
| Micro minerals |
ppm |
ppm |
ppm |
Copper
Zinc
Magnesium
Iron
Boron |
6
32
22
80
12 |
6
30
20
62
24 |
8
30
22
86
26 |
Source: Chemical and Comparative Phytochemical Study of three
types of Lepidium meyenii Walp from Carhuamayo (Junin), by Maria
Yllesca.
Comparative Analysis of Maca, Potatoes and Carrots
| Proximate Analysis (%) |
Maca |
Potato |
Carrot |
Protein
Fat
Carbohydrates
Fiber
Ash |
10,2
2,2
59,0
8,5
4,9 |
1,9
2,5
61,4
1,8
ND |
8,8
1,7
79,8
8,8
ND |
Source: Adapted from Dini et al. /Naples University,
Italy.
It is clear that the protein content in "maca" is
much superior to that of other species.
Dini et al of the University of Naples and Salerno Italy,
publishes a work titled Chemical Composition of Lepidium meyenii
which shows the following results:
|
Amino Acids |
(mg concentration / g protein) |
1. glutamatic acid
2. arginine
3. asparatic acid
4. Leucine
5. Valine
6. Glycine
7. Alanine
8. Phenylalanine
9. Lisine
10. Serine
11.Isoleucine
12.Threonine
13.Tyrosine
14.Methionine
15.HO-Proline
16.Hystidine
17.Sarcosine
18.Proline
19.Cysteine
20.Tryptophane |
156,5
99,4
91,7
91,0
79,3
68,3
63,1
55,3
54,5
50,4
47,4
33,1
30,6
28
26
21,9
0,7
0,5
undetermined
undetermined |
The "maca" amino acid profile is optimal when compared
to that of tubers, except for tryptophane, which was not analyzed,
and cysteine, which is formed from methyonine and phenylalanine.
Similarly, "maca" shows a high iron content, crucial
element for acclimatization at high altitudes (Andes) due to
oxygen deficiencies Some authors report the presence of iodine
in fresh "maca"; but this has yet to be confirmed.
Mineral Content in ""maca""
Potato and Carrot (mg/100g dehydrated matter)
| Minerals |
Maca |
Potato |
Carrot |
Fe
Mn
Cu
Zn
Na
K
Ca |
16,6
0,8
5,9
3,8
18,7
2050,0
150 |
3,6
0,8
0,7
-
3,6
1850
63 |
7,4
2,0
0,9
-
387
2504
330 |
Major differences reported in the literature are not apparently
due to differences in ""maca"" varieties,
but rather as a result of the origin vis-à-vis the mineral
content in the soil.
TOXICOLOGY
Studies carried out on 30-day old albino mice, weighing from
20 to 24 g, divided in 13 groups received different doses of
micropulverized ""maca"", in doses of 11000
mg/kg up to 15000 mg/kg. Observations were made from 8 hours
after ingestion until 7 days after the beginning of the trial.
Results suggest that levels below 15,000 mg/kg are innocuous
to mice.
Williams' criteria for the scoring of the DL 50 results:
| Toxicity Classification |
DL50 |
mg/kg |
Extremely toxic
Highly toxic
Moderately toxic
Slightly toxic
Practically toxic
Relatively innocuous |
<
<
<
<
<
> |
1
50
500
5000
15000
15000 |
Source: Lida Obregón (15).
PHARMACOLOGY
1. The effect of iron and other components of "maca"
root on ferrophenic and hyperlipidemic anemia were as follows:
| Element |
Media |
DST |
Error St |
Coef. delta |
Min. |
Max. |
Fe mg/dl before
Fe mg/dl after |
47
61 |
6.15
14.07 |
0,869
1,989 |
13,05
23,06 |
40
46 |
59
80 |
Source: M. Lobaton, "Micronutrients in Lepidium meyenii
and Activity in individual with ferrophenic and hyperlypidemic
anemia".
After 30 days with a daily consumption of 20 g of "maca"
powder, an increase in the levels of iron in 50% of the patients
can be appreciated. Apparently, this is not only due to the effect
fro Iron in "maca", but to all of the wealth of components
previously described that aid in the anti-anemic action of "maca".
1. In this same study, it is demonstrated that the decrease of
the levels of total cholesterol of 44% of the patients treated.
90% for LDL - cholesterol and 100% of the cases the triglycerides
concentration, just as it is summarized in the following chart:
Analysis of the mean differences in concentrations
of Cholesterol, LDL and serum triglycerides before and after
treatment with "maca".
| Parameter |
Mean Before |
Mean After |
Difference |
T |
P |
Tot. Cholesterol
LDL
Triglycerides |
246
147
82 |
205,3
120,58
67,70 |
40,94
27,06
14,54 |
12,410
11,127
7,976 |
< 0,005
< 0,005
< 0,005 |
Source: Lobatón M. Micronutrients in Lepidium meyenii
and activity in subject with ferropheic and hiperlipidemic Anemia."
1. Numerous studies have been conducted to show the effect
of "maca" on the fertility of rats, rams, and guinea
pigs.
Chacon (15) showed that the number of young, after a period
of 6 months of feeding was 47 for the lot of rats fed with "maca"
versus 37 for the group of rats fed a commercial diets. In this
same study an increase was shown in the sperm count in the seminal
tubes, as well as an increase in mitosis and sperm in male rats.
In female rats they observed 25 cases of Graff with 6 ova, with
augmented endometrium and prolific and active uterus.
Likewise, a significant increase in the volume of ejaculated
semen as well as the spermatic concentration and motility of
the sperm was shown in Corriedle rams. (Yauri and Valerio (15))
The studies demonstrate that "maca" is a natural
product with satisfactory results on fertility. G. Licks and
U. Apumaita (15) concluded that "maca" extract has
marked estrogenic properties. Similarly, C. Alvarez (1) (15)
showed guinea pigs fed "maca" powder showed 100% fertility,
higher number of young, larger litter weights and the lowest
mortality versus the controls.
Work groups according to diet.
| Group |
"maca" |
Wheat midds |
T-1
T-2
T-3 |
0%
6%
10% |
100%
94%
90% |
Results :
| Parameter |
T-1 |
T-2 |
T-3 |
% Sterility
% True Fertility
% Abortions
%Practical prolificity
%Average weight at birth
% Average weaning weight |
17,24
78,57
4,55
222,73
103,12
212,96 |
0,0
96,67
0,0
293,10
105,47
212,19 |
0,0
100,0
3,33
346,67
108,62
220,45 |
1. The study of "maca" in mammals and its effect
on sexual behavior prove that the results are positively significant
in estrus onset and other reproductive indicators. Tony Matos
T(12) studied Holstein heifers, showing clear external and internal
signs; as did Dalmiro Condor (5) in ewes.
POPULAR USES
For fertility
As an aphrodisiac
Against fatigue
To strengthen the immune system
Nutritional supplement
Steroidal
As a tonic
To restore body homeostasis (balance)
RECOMMENDATIONS
Given the high potassium content in "maca", it is recommended
not to be used by people with renal insufficiencies.
RAIN LABS MACA
1. Processed by Rain Labs with the highest technology. Rain Labs
forms part of CORPORACION INFARMASA S.A., a pharmaceutical company
with more than 50 years experience, being the first Peruvian
laboratory, and fifth in Latin America, to obtaining Certification
ISO 9002 and Certification of GMP (Good Manufacturing Practices),
which warrant the highest quality standard.
2. The research, production and control procedures guarantee
optimal dosage, good bioavailability and excellent stability.
To place an order, visit our secure
server or call toll free 1-888-801-2376. Our products
always come with a money back guarantee. We deliver to your mainland
US postal address in 72 hours, and International address in only
a few days more.
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