POWER SHOW is a naturally chelated trace mineral formula, originated from an ancient ocean seabed rock. It combines the ability to absorb toxins with the release of 76 oligoelements, diluted gases and chelated heavy metals. This elevated amount of trace elements helps the enzymatic formation in the body, which increases the body defenses through the well-known stimulation of the overall cell reproduction. Not only the immune response is heightened, but the new formation of connective (fiber) tissues, which are the basic elements that form the hair, hooves and skin. The hydration level obtained by adding POWER SHOW to the feed is optimized, reducing drastically the dehydration of calves at transport. In periods of up to 4 hours in a trailer, virtually no dehydration is observed. This effect is due to the characteristics of the aluminum-silicate composition, which not only helps to retain fluids, but also absorbs toxins at the intestinal and cellular level. This has been observed on many types of toxins, including aflatoxins and several types of poison.
Therefore, the incidence of endotoxic Laminitis is reduced, while favoring the growth of large amounts of hoof material, which doesn't scale, but rather has a hard and elastic condition. This aspect has been subject of long studies, which ended with the development of a sister product for horses, the POWER HORSE; with a much smaller particle size, but with the same overall ingredients, to help prevent and improve Laminitis.
That ability to form enzymes has a profound effect on rejuvenating and detoxifying tissues. The assimilation of the nutrients is maximized, which in turn increases the efficiency of the food, maximizing the conversion and supporting the body functions at its maximum genetic capabilities. The intrinsic effect on the cell is to maintain the proper osmotic pressure, which actively normalizes the exchange of nutrients and excretions, aiding to the processes of reproduction, growth and transport.
The hair of the cattle starts shedding in a few days, after the administration. It usually changes to a new, short, moist and lustrous natural coat, within 20 days. The muscle mass formation is maximized, together with the increased skeletal support. The stress level is reduced and so are some unspecific inflammatory reactions.
Feeding a Naturally Chelated
Trace-Mineral Formula to Improve
Feed Efficiency in Feedlot
By: Ing. Alvaro Arias
Contents:
1) Title
2) Objectives
3) Materials
4) Method
5) Location
6) Population
7) Length of study and dates
8) Dosage
9) Observations
10) Conclusions
11)Discussion
12) Bibliography
2- Objectives
During the trials the mineral formula for horses produced significant improvements in weight gain in this species, the possibility of using the same mineral formula for feedlot arose. A test was scheduled and performed in Puerto Rico, during the latter months of the year 2003.
The purpose of the test to be conducted on tropical conditions, was to corroborate the hypothesis that these trace minerals, a natural combination of montmorillonite with the absorbed humic chelating compounds (humic acid and fulvic acid), would increase the rate of absorption of the nutrients fed, aid in the absorption of toxins if these were present and increase the weight gain considerably, compared with a similar lot that would be provided the same feed, but not the mineral compound.
The goal was to be able to develop a system that would allow the material to be used for a period of approximately 120 days, which would finish three feedlot cycles yearly.
The four months of the proposed study were divided in an InitiationPhase of two months, where the lots were fed 20 lbs of food per day and a FinishingPhase of two months, where the lots ate 26 lbs per day. The naturally chelated trace mineral formuladescribed in the Figure # 1 was fed at a rate of 1.5 % during the Initiation Phase and at the rate of 1 % during the Finishing Phase.
Figure # 1
Naturally Chelated Trace Mineral Formula
ALUMINUM
Al
9.3%
HYDROGEN
H
.05
RUTHENIUM
Rue
7.8
ANTIMONY
Sb
10.5
INDIUM
In
.38
SAMARIUM
Sa
3.5
ARSENIC
As
.2
IODINE
I
7
SCANDIUM
Sc
3.7
BARIUM
Ba
22.5
IRIDIUM
Ir
.51
SELENIUM
Se
4.1
BERYLLIUM
Be
.10
IRON
Fe
1.6%
SILICON
Si
25%
BISMUTH
Bi
14.3
LANTHANUM
La
18
SILVER
Ag
.3
BORON
Bo
7
LEAD
Pb
15
SODIUM
Na
1.2
BROMIDE
Br
5.2
LITHIUM
Li
1.44
STRONTIUM
St
240
CADMIUM
Cd
1.12
LUTETIUM
Lu
.45
SULFUR
S
1.6%
CALCIUM
Ca
.23%
MAGNESIUM
Mg
.83%
TANTALUM
Ta
.50
CARBON
C
.19
MANGANESE
Mn
150
TELLURIUM
Te
.1
CERIUM
Ce
40
MERCURY
Hg
.166
TERBIUM
Tb
.62
CESIUM
Cs
183
MOLYBDENUM
Mo
61
THALLIUM
Tl
10.0
CHLORIDE
Cl
250
NEODYMIUM
Ne
20
THORIUM
Th
>100
CHROMIUM
Cr
70
NICKEL
Ni
60
THULIUM
Tm
.25
COBALT
Co
4.8
NIOBIUM
Nb
2.89
TIN
Sn
.44
COPPER
Cu
2.2
NITROGEN
N
.03
TITANIUM
Ti
.23%
DYSPROSIUM
Dy
4.0
OXYGEN
O
.2
TUNGSTEN
W
8.1
ERBIUM
Er
2.0
PALLADIUM
Pa
.74
URANIUM
U
> 100
EUROPIUM
Eu
.49
PHOSPHATE
P
320
VANADIUM
V
8
FLUORIDE
Fl
3.85
PLATINUM
Pt
.08
YTTERBIUM
Yb
1.4
GALLIUM
Ga
25
POTASSIUM
K
4.8%
YTTRIUM
Y
1.2
GERMANIUM
Ge
25
PRASEODYMIUM
Pr
2.0
ZINC
Zn
20
GOLD
Au
.68
RHENIUM
Rh
1.0
ZIRCONIUM
Zr
10
HAFNIUM
Hf
2
RHODIUM
Ro
.44
HOLMIUM
Ho
1.1
RUBIDIUM
Rb
36.5
3- Materials
The breed selected to work with was a Char-bray line, adapted to the terrain, although other Brahman crosses of commercial value were also used. The animals used were divided into a group of heifers and a group of bulls. The heifers were divided into a control group composed of 12 individuals and a supplemented group, composed of 29 individuals. The bulls were divided into a control group composed of 9 individuals and a supplemented group, composed of 21 individuals.
The water conditions were excellent.
The diet was a mixture of corn, sorghum and by-products from the flour industry. It was supplemented with relatively small amounts of locally grown hay.
The trace mineral formula is a montmorillonite compound, with a high content of humic compounds. Most of the trace minerals in the mineral formula shown in the Figure # 1 are included or chelated in the humic and fulvic acids, present at a rate of no less than 10% of the montmorillonite compound. The structural alumino-silicate portion and the Arsenic are not.
The feed was primarily composed of milling mash and screenings; silage, hay, calcium carbonate, water and salt ad livitum.
4- Method
The Qualitative Method of analysis was chosen to test the use of this particular kind of material, since the quantities of absorbed, secreted and excreted elements would not be easily measured at first, other than through a complicated system of analysis that would include at least a plasma spectrographer; which is not common to readily dispose of.
A very low amount of traceable elements should be normally found in cattle with a normal urinary function, after they have gone through the process of intestinal absorption. Furthermore, the availability of these in saliva, mucus, feces and sweat would be very difficult to measure. Most of the mineral ingested will combine with different molecules in the body, to intervene actively in the enzymatic cellular processes, leaving very small amounts of excretable substances.
Considering the eventual lack of these elements, the absorption of this compound would be observed externally in the overall condition of the supplemented population. The expected changes would include the visible change of coat, the increased growth of hoof tissue, the weight gain and the reduction of the toxicity level of different toxins inherent to the grain utilized in the manufacturing of the feed stuff.
5- Location:
City: Salinas.
Country: Puerto Rico, US.
Average Annual Temperature: 82° F (28° C).
Elevation: Slightly above sea level.
Climate Type: Tropical.
6- Population:
Within a population of up to 5,000 animals divided into lots of 100 individuals each, a group of 12 heifers in one corral and a group of 9 bulls in another corral, were ear marked and weighed monthly, providing the control data for this test.
Within the same population, a group of 29 heifers in one isolated corral and a group of 21 bulls in another isolated corral were fed the same diet as the control group, with the addition of the 76 oligoelements Trace Mineral formula.
7- Length of study and dates:
The study was conducted during the months of August through December of the year 2003.
Each lot was weighed with the following schedule:
1)Weighed on August 19/03 and again on September 29/03. (First cycle)
2)Weighed on October 27/03. (Second cycle)
3)Weighed on November 24/03. (Third cycle)
4)Weighed on December 23/03. (Fourth cycle)
8- Dosage:
In accordance with FDA regulations both in the US and in Canada, the permissible amount of a montmorillonite compound should not exceed a 2% limit. In this particular case, it was decided to test the conversion capabilities of the 76 oligoelements Trace Mineral Formula, by feeding proportionally less food daily than usual and dividing the administration of this supplement into an Initiation Phase of two months, where the mineral was included in the ration at the rate of 1.5%; followed by a Finishing Phase, where the mineral formula was included in the ration at a rate of 1%.
9- Observations:
A) The average daily gain observed on the animals treated with the Mineral was:
Males:1.692 lb / day.
Females:0.871 lb / day.
B) The average daily gain observed on the animals not treated with the Mineral was:
Males:0.857 lb / day.
Females:0.703 lb / day.
As we can see in the Figure # 2, not only we can appreciate a considerable increase in body weight in the lot of treated bulls, compared with the lot of untreated ones, but also the fact that even the treated heifers gained more weight than the untreated bulls.
Figure # 2
Because the Trace Mineral Formula was added to the pre-existing feed program, which already included a mineral salt mix, the effects seen could be attributed to the use of the montmorillonite formula. Since the main constituents of this formula are the Aluminum and the Silica, the rest of the elements could be considered secondary in nature and effect. The traces of most of the other elements could be considered as acting synergically to obtain the reported effects. None of the other reported elements could be considered individually responsible for the observed gain, since the quantities present are too small to have an impact. Therefore, they must be acting within the humic montmorillonite compound’s contribution as a whole.
10- Conclusions:
The use of this humic-montmorillonite compound increased the conversion rate within the population supplemented with it. At the end of the test it became clear that the population treated with the trace mineral formula increased weight at a rate of almost 2 to 1, compared to the lot that was fed the same food, but did not receive the mineral. (Figure # 3)
One fact that seems important to consider is that the lot of treated heifers totaled 29 and the lot of treated bulls totaled 21. The test was not performed exclusively on steers, as it would be in many feedlot operations, but instead in a mixed population of heifers and bulls; being the heifers the largest part of that population. Furthermore, bulls were chosen instead of steers, which slowed down considerably the overall gain.
Even if a small amount of heifers were used in future operations where these minerals were supplemented, it is sensible to presume that the results would be largely increased in the number of total pounds gained, by a reduction of the female population and the use of the males as steers, not as bulls.
Figure # 3
When a visual inspection of the lots used in the test was performed, it was clear that there wasn’t an even criterion of selection of the individuals. There was a very visible difference between what we could consider the top of the lot and the bottom, speaking in terms of the phenotype. The average quality could be considered low.
Furthermore, several animals presented different degrees of lameness, predominantly laminitis, due to the hardened terrain where the tests were conducted. This was another parameter intended to be measured, since lame animals reduce the average gain of weight and affect the end result. When the population tested entered the second weighing, there was no significant lameness described. This could account for the same effects observed during the tests resulting in the US Patent # 6,764,692, Method to treat Laminitis and to reduce dietary intake for horses, since the etiology and the end results appear to be the same.
Lastly, the weight of the animals that died during the test was not added to the total weight, which also reduced the average.
11- Discussion:
When comparing the Treated and the Non-Treated lots, the gain observed is almost twice the pounds, in favor of the animals treated with the trace mineral formula. (Figure # 4)
To this comparative weight gain, we need to add the fact that, in effect, the minimum weight of slaughter had been achieved in 120 days. The Non-treated animals, obviously, would not enter in this minimum weight (no less than 850 pounds per head at the time of slaughter) schedule, but rather would have to stay in the Feedlot a total of 7 months and 23 days, compared with the 120 days of the herd supplemented with this formula.
The obvious economic implication is that the savings obtained will be accounted for in days of production, which will be reduced with this finishing system.
THE DAILY COST OF FEEDING, PER ANIMAL, WOULD BE THE SAME WHETHER THE TRACE MINERALS ARE ADMINISTERED OR NOT. THIS COST IS INDEPENDENT OF THE PRICE OF ADMINISTERING THE TRACE MINERALS.
This consideration makes it imperative to try to achieve the maximum gain effect in the minimum amount of time, reducing expenses.
The feeding cost should not be considered in the final evaluation of the use of these Minerals, since the estimated gain achieved with their use is higher than the one obtained with the traditional fattening system. Therefore, the cost of the Trace Minerals should be extracted from the earnings achieved with its administration.
Figure # 4
Since it is feasible to adjust the parameters to obtain three production groups per year, the difference in the amount of additional pounds will create the need to do this.
The animals that entered the Feedlot with an average of 650 lbs of weight will fatten an average of 200 lbs during the four-month period; which will put them within the minimum average weight to slaughter acceptable of 850 lbs per animal.
Some other additives could be used to increase the body weight even more (in fact we would recommend them), such as the coccidiostatic antibiotic monensin and Vitamins A and E. The monensin was not used in this trial, to allow the minerals to perform without any interference of other major feed ingredients.
Ing. Alvaro Arias
January 30/2004
12) Bibliography:
THE USE OF NATURALLY CHELATED TRACE MINERALS AS AN AID TO IMPROVE AND PREVENT LAMINITIS AND FOUNDER, AND AS A SUPPLEMENT. C. C. , November 6/ 2002.
MONTMORILLONITE TECHNICAL REPORT. Dr. Melchior Dikkers, Loyola University, “The trace Mineral Story”.
THOSE HUMIC SEA MINERALS, U.S.A Magazine, year 1986, by Robert H Faust.
Comprehensive study. by Dr. Aria Amirbahman, Department of Civil and Environmental Engineering, University of Maine..
CLAYCHEMISTRY AND ADSORBABILITY OF MYCOTOXINS, by Dr. B.W. Perkins.
Code of the Canadian Food Inspection Agency (SHEDULE IV- Part 1),
Laboratory results from Chemex Labs, Nevada.
Uthus EO, Seaborn CD. Deliberations and evaluations of the approaches, endpoints and paradigms for dietary recommendations of the other trace elements. J Nutr26:2452S-2459S. 1996.
Feed Additives for Beef Cattle. This Neb-Guide discusses feed additives, including how they work, feeding restrictions and feeding recommendations.
MYCOTOXINS AND MYCOTOXICOSES, A L A B A M A A & M A N D A U B U R N U N I V E R S I T I ES,B.J. Jacobson, Extension Plant Pathologist, K.L. Bowen, Department of Plant Pathology,R.A. Shelby, department of Plant Pathology, U.L. Diener, Department of Plant Pathology,B.W. Kemppainen, Department of Physiology and Pharmacology, James Floyd, Extension Veterinarian.
ACIDOSIS IN HIGH-PRODUCING RUMINANTS – MYTH OR MENACE? Dr. Pieter Henning. KK Animal Nutrition, South Africa.
BEEF CATTLE MANAGEMENT UPDATE. Strategies for feeding mycotoxin and mold-contaminated grains to cattle. Alfred Dicostanzo, Extension Animal Scientist, Department of Animal Science, University of Minnesota, Saint Paul. Michael Murphy, Associate Professor Veterinary Diagnostic Medicine, University of Minnesota, Saint Paul. 1994.