ADDENDUM TO QUEST FOR THE PHILOSOPHER'S STONE
The document, "Quest for the Philosopher's Stone" will need periodic updates as more knowledge is gained
about ORMUS. That is the purpose of this addendum. Here we can post safety advice, short announcements, and
other updates.
Index
General
Safety/Warning
Wet Method
Dry Method
Boiling Gold Method
Chloride Method
Sources
GeneralPERCENTAGE OF M-STATE ELEMENTS IN PRECIPITATE FROM VARIOUS SEA WATERS
Water source
|
Gold
|
Rhodium
|
Iridium
|
Magnesium
|
Dead Sea |
70%
|
-
|
-
|
30%
|
Salt Lake |
19%
|
30%
|
5%
|
46%
|
Pacific |
8-14%
|
30%
|
6-9%
|
?
|
DEAD SEA SALT MIGHT HAVE NO GILCREST PRECIPITATE
One person tried the following experiment using Masada Dead Sea salt:
1. Made a batch of ORMUS using the wet method, going up to pH 10.5.
2. Let the precipitate settle and removed the clear liquid on top.
3. Adding lye water, ran the clear liquid up to pH 12.
Nothing else precipitated, showing that there is no Gilcrest precipitate (from toxic metals) in Masada salt.
This significant experiment needs to be replicated.
M-STATE CONTENT OF VARIOUS SEA SALTS
4 liters of water (almost a gallon), mixed with 250 ml (about 1 cup) of the following salts, produced the
following yield of wet precipitate:
Source
|
Brand
|
Wet Yield (ml)
|
Dead Sea |
Dead Sea Products Mineral Care Mineral
Bath Salts |
2220
|
Dead Sea |
Masada |
1700
|
Dead Sea and sea salt |
Ocean Potion |
1200
|
Celtic Sea Salt |
Bulk from health food
store |
275
|
Celtic Sea Salt |
Brittany Sea Salt |
200
|
Sun dried ocean salt, Beaumont,
CA |
DeSouza's Solar Sea
Salt |
180
|
Solar Dried New Zealand Sea
Salt |
Comvita |
30
|
Solar Dried New Zealand Sea
Salt |
Pacific Salt |
24
|
Sun dried sea salt |
Bulk from health food
store |
20
|
Mediterranean Sea Salt |
La Baleine |
10
|
Mined near Redmond,
Utah |
Real Salt |
10
|
Ordinary sea salt |
Bulk from food coop |
trace
|
After the Masada Dead Sea salt precipitates out, there is clear liquid left on top. If you put this liquid back
into the stainless steel pot, and add lye water to it (up to pH 10), you'll get even more precipitate, probably due
to the high concentration of salt. 1/4 cup of starting material in 1 liter of distilled water are suggested amounts
for experimenting.
The Dead Sea Products salt is probably comparable to the Masada brand in yield. The Masada yield was measured
after settling several days. The Dead Sea Products salt, and the others, were measured after settling
overnight.
YIELD OF PRECIPITATE FROM 1 GALLON (4 LITERS) OF VARIOUS SOURCE WATERS
Source
|
Additional info
|
Wet Yield (ml)
|
Baker City water |
Out of water filter |
28
|
Mt. Carmel water |
Mt. Carmel, Illinois |
50
|
Medical Lake water |
Medical Lake Washington |
20
|
Santa Barbara Water |
Santa Barbara,
California |
200
|
Lithia Spring |
Ashland, Oregon |
220
|
Salt Lake |
concentrate |
3500
|
Dead Sea water |
-
|
6500
|
Pacific Ocean water |
-
|
1000-2000
|
HUDSON'S ORME YIELD
Element
|
Oz./Ton
|
Percent of Total
|
Ruthenium
|
250
|
10.34%
|
Rhodium
|
1200
|
49.62%
|
Palladium
|
5
|
0.21%
|
Osmium
|
150
|
6.20%
|
Iridium
|
800
|
33.08%
|
Platinum
|
12.5
|
0.52%
|
Gold
|
1
|
0.04%
|
|
|
|
Total
|
2,419
|
100%
|
BOILING POINT AND ACID SOLUBILITY OF CERTAIN ORMUS ELEMENTS
Element
|
ORME BP
|
Dry M-state dissolves in Hydrochloric
Acid?
|
Magnesium |
?
|
y
|
Calcium |
?
|
y
|
Cobalt |
?
|
y
|
Nickel |
?
|
y
|
Copper |
?
|
y
|
Ruthenium |
?
|
y
|
Rhodium |
900 C or 1066 C
|
y
|
Palladium |
Over 2250 C
|
y
|
Silver |
1800 C
|
y
|
Rhenium |
?
|
y
|
Osmium |
?
|
y
|
Iridium |
5400 C
|
n
|
Platinum |
2700 C
|
s
|
Gold |
425 C
|
n
|
Mercury |
?
|
y
|
Using the information above it should be possible to devise a parting procedure to isolate m-gold, m-rhodium and
m-iridium from each other and the rest of the m-state elements. We know of no one who has done this yet.
If you are using suspect dry materials to make the m-state for technical uses you may need to know the
precipitation points of various elements in their metallic forms. For a table which contains this information click
here.
Safety/WarningSAFETY ADVICE FOR THE DRY METHOD
Target Glacial Rock Dust contains substantial amounts of aluminum which plants can tolerate, but is toxic to
people when extracted with lye. Agricultural-grade powdered limestone from some sources contains sufficient
lead and/or arsenic to be a potential hazard. This form of limestone should not be used for human consumption
without testing.
WARNING ABOUT GEMATRIA PRODUCTS
There seems to be a conflict between certain products of the Gematria Products company
(http://www.gematria.com/) and the m-state elements. Four people who were consuming both reported symptoms
including headaches, nausea, dizziness and hives which ceased when they discontinued the use of either the m-state
or the Gematria Products. The products which were mentioned were AloeMEM Gems(TM) and Laser Blue (TM).
A CAUTION RELATED TO DEAD SEA WATER
Some folks get diarrhea from all the m-state magnesium in the m-state produced from the Dead Sea water. The
percentage of magnesium can be reduced in the final product if you pull the pH back down after taking it up to
10.78.
WHAT TO AVOID WHEN USING ORMUS
Certain things "pin" ORMES to their metallic state; they will de-spin the monoatomic Platinum-group elements
into their metallic form. These should be avoided:
Short wavelength ultraviolet light
Nitric oxide, such as in smog (not nitrous oxide)
Sulfides (S03), such as in some salad dressings
Carbon, such as in burned food
Carbon monoxide, such as in smog
Source: Hudson interview (with Binga), June 28, 1996,
WhiteGold@zz.com
Wet MethodWET METHOD DETAILS
The goal is to get the precipitate between pH 8.5 and 10.78. After you get the precipitate, the goal is to wash
it well. Washing the precipitate will take the pH down closer to 8.5. The m-state is in the precipitate. You can
take the pH down to 4 or 5 and the washed precipitate will re-dissolve but the m-state will still be in the
liquid.
When you drip lye water into water containing the m-state elements, you create a small area around the drip
where the pH is higher than the rest of the water. This local area of high pH will precipitate more quickly than
the rest of the water. This is what you are seeing when you see the little cloud of precipitate which forms around
the area where the lye touches the water.
The Dead Sea salt is a good salt to experiment with since it produces so much precipitate. Other source material
might not seem to produce the little cloud of precipitate around the lye water drips but it really is there. You
can't see it because it is not as thick as with the Dead Sea water.
A SUGGESTED WET METHOD FOR OCEAN WATER
1. Filter the water on site.
2. When you get the water to your work place, boil the water for 15 minutes to sterilize it. Boiling also speeds
the reaction by increasing the movement of the atoms in the water.
3. Immediately after boiling, add lye water drops as in the WET method.
4. Wash the precipitate four times.
5. If you want to store the precipitate for a long time, boil again and place in nested containers.
Dry MethodCONTAINER MATERIAL
Stainless steel and glass sauce pans are fairly safe if you don't take the pH too low or too high. When boiling
at high pH (12+) for long periods of time, high-temperature plastic like Polypropylene (PP), High Density
Polyethylene (HDPE) or Teflon (PTFE) is recommended. Glass is NOT recommended for the Dry Method or Boiling Gold
Method because the lye water will etch silica from the glass and the silica will contaminate your precipitate.
CHEMICAL RELATED PROPERTIES OF COMMON PLASTICS
Boiling Gold MethodSUGGESTION FOR THE BOILING GOLD METHOD
When you put the gold and lye solution in a PTFE or HDPE bottle for boiling, here are two ways to do it:
1. Fill the bottle half full, squeeze out the air, and tighten the cap. This lets the bottle expand when
heated.
2. Bring the surrounding water to a boil with the bottle open. When the lye solution has started boiling,
tighten the cap and continue boiling.
Boil for the desired time in a crock pot. Replace the water in the crock pot as needed. The lye water in the
bottle does not boil away so it does not need replenishing.
Chloride MethodThis is a method for producing a dissolved chloride form from the
white precipitate generated by the various production methods mentioned in the ORMUS document. Though the
precipitate form works for healing, the clear chloride form seems to work better.
Once you get the washed precipitate, take the pH down till all of the precipitate re-dissolves. Since this
will be at quite a low pH (may be less than 1.0) you will then need to bring the pH back up by slowly adding a one
molar solution of sodium hydroxide over a 24 hour period till you get back up around pH 3.
A molar solution of any material is the molecular weight of the material numerically expressed in grams per
liter of solution. For sodium hydroxide (NaOH) the atomic weights of the elements add up to 40. Therefore you
weigh up 40 grams and dilute it with water to make one liter. Approximately two teaspoons of granulated NaOH in
nine (9) ounces of distilled water.
As you get close to pH 3 you may wish to go to a tenth molar solution. You will need a calibrated pH meter
to do this since the pH should be brought as close to 3 as possible without going over. The pH should remain
stable at 3 for at least 3 hours. The key here is to keep the solution free of any precipitate. If
precipitate forms, you have moved the pH up too far or too fast.
This preparation is taken at the rate of one teaspoon mixed in a glass of distilled water, twice a day. If
the water you use is not distilled some of the m-state may precipitate out on contact with it.
This clear solution has the m-state elements in a chloride form rather than the hydroxide form of the
precipitate. It is believed that the body must convert to the chloride form in order to easily assimilate the
m-state elements. Since stomach acid is around pH 4 this is not sufficiently acid to completely re-dissolve
the m-state precipitate.
Question: Is it necessary to bring the pH up so precisely; this is quite a sophisticated
step. I don't have the necessary equipment to ensure such a slow, precise raising of the pH. Might this be a
little faster and still work?
Answer: It must be done precisely but the person who developed this technique does it by hand, a
little bit at a time over a 24 hour period. The sodium hydroxide must be added while stirring vigorously in
order to avoid creating local areas of high pH. An accurate pH meter is required.
Question: Is it possibly equivalent to add enough NaOH to bring the pH up to 3 and then let that
settle for 24 hours or more?
Answer: The only reason to bring the pH up to 3 is that it can be safely ingested at that pH with
the dilution that was suggested. A slightly lower pH with a higher dilution would also work.
SourcesSOURCES FOR DEAD SEA SALTS
It's not necessary to go to the Dead Sea to get its salt for the dry method. Try Dead Sea bath salts from a
health, bath, or beauty aids store. The unscented varieties are the purest. Masada is a popular brand.
You can buy Dead Sea salts directly from Bill Kuluva at Dead Sea Minerals in NY (1-800-DEAD SEA).
1.5 kg of salt yields about 5 liters of precipitate after Mg(OH)2 is removed.
GOOD SOURCE MATERIAL FOR THE WET METHOD
Ayruveda Plus sells a clean, filtered concentrate of Salt Lake water, which is an excellent producer of m-state
precipitate.
http://ayurvedaplus.com/
1-800-588-4108
richard@ayurvedaplus.com.
SOURCE FOR BUFFER SOLUTIONS TO TEST pH PAPER
The accuracy of pH paper depends on how, where, and how long it has been stored. You can check its accuracy with
buffer solutions. Here is one source:
http://www.hannainst.com/products/chemical/chemical.htm
MORE CHEMICAL/LAB EQUIPMENT SUPPLIERS
http://www.ebay.com
http://www.labx.com
http://www.sciplus.com
Hagenow Laboratories Inc., 1202 Washington St., Manitowoc, WI 54220, tel. (902) 683-3339
BUILD A SIMPLE TITRATER AND STIRRER FOR ORMUS MATERIALS
Stirrer
Titrater
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