Aspartame
is the most dangerous food additive on the market today, accounting
for over 75 percent of adverse reactions reported to the FDA,
including seizures and death
Even though
aspartame is touted as natural it has a synthetic methyl group
on one of the amino acids that rapidly breaks down to methanol
(wood alcohol). The sweetness associated with aspartame is largely
the result of methyl alcohol bonded to the amino acid phenylalanine
Methyl
alcohol is metabolized differently in the human body compared
to other animals, and is FAR more toxic in humans which is why
studies have trouble nailing down the hazards related to aspartame,
because most rely on animal not human studies
Methyl
alcohol, after it is taken up by the body as a “Trojan Horse”
into susceptible tissues like the brain, converts rapidly into
formaldehyde,. This causes severe damage to proteins and DNA that
can contribute to many serious and chronic diseases, such as cancer,
autism, Alzheimer’s disease, and multiple sclerosis
Fresh fruits
and vegetables contain minute amounts of methanol, but there’s
a natural mechanism that makes it harmless. Pectin firmly binds
to methanol, allowing it to simply pass through your body and
be excreted, because the human body does not have the enzymes
to break that bond
Aspartame is
the technical name for the brand names NutraSweet, Equal, Spoonful,
and Equal-Measure. While it's one of the most commonly used artificial
sweeteners in the world, it's also one of, if not THE most dangerous
food additive on the market today.
Aspartame accounts
for over 75 percent of the adverse reactions to food additives reported
to the FDA. Many of these reactions are very serious, including
seizures and death.
In this interview,
Dr. Woody Monte, professor emeritus at Arizona State University
in food and chemistry, sheds light on what makes aspartame so hazardous
to human health.
Dr. Monte,
who also authored the book While Science Sleeps: A Sweetener
Kills, is well-known as a world expert on the toxicities of
methanol as it relates to aspartame, having studied it for the last
three decades.
"I was
asked by the soft drink beverage industry to look at aspartame [in
1983]... Basically, the summer of '81 is when aspartame first came
out, but it first came out in powdered drinks only, and for good
reason.
Crystal
Light, that kind of thing. They didn't want to put it into liquid
form because they knew in the liquid form it would break down. It
breaks down into methyl alcohol and what's left of the molecule.
They didn't want to start doing that."
Methyl Alcohol
– The Root of the Problem with Aspartame
Aspartame is
made up of aspartic acid and phenylalanine. But the phenylalanine
has been synthetically modified to carry a methyl group as that
provides the majority of the sweetness. That phenylalanine methyl
bond, called a methyl ester and is very weak.
If the methyl
alcohol is removed from aspartame as easily happens when drinks
sweetened with it are exposed to higher temperatures, it no longer
tastes sweet. This is precisely what happened to most of the diet
soda sent to the Middle East for US troops. They received non sweet
sodas that were loaded with dangerous levels of methanol which is
more or less like drinking straight poison when it's in this already
broken down state.
Dr. Monte explains
the history of how methanol found its way into our food supply:
"Methyl
alcohol is made from wood alcohol. Wood alcohol and methyl alcohol
are two different names for the same thing. Methanol is called wood
alcohol because If you take wood and heat it in a closed cylinder,
the smoke that's evolved from that contains a large amount of methyl
alcohol.
Methanol
is the smallest molecule of alcohol there is. It's one carbon...
ethanol has two carbons... They are similar in many ways. So, if
you want to make a really, really good tasting vanilla extract,
you would use methanol to do it. You could, because you would get
more of the flavor essence out of it.
The food
industry decided, 'We've got to test the methanol to see how safe
it is.' They went to the laboratory and they tested animals. Back
in those days, believe it or not, they did actually better laboratory
testing than we did when it comes to toxicology. They would take
a whole range of animals. They would take rabbits, dogs, guinea
pigs, various kinds of ruminants besides rats and monkeys – different
varieties of monkeys – and test them all.
When you
test all of these animals to see how dangerous methanol is compared
to ethanol, ethanol comes out to be more dangerous by a factor of
about 30 percent, depending on the animal. Right away they decided
this is important because... methanol is cheap to make. We can make
it taste good, and there is no tax on it..."
Methyl Alcohol
Metabolizes Differently in Humans Compared to Other Animals
Food and drug
companies decided to use methyl alcohol (wood alcohol) to make a
variety of flavor extracts and other accoutrements that they'd previously
used ethanol for. They also began using methyl alcohol for cough
syrup. As Dr. Monte says, all hell broke loose after that. Starting
around 1904, and for the next 40 years, doctors wrote extensive
articles detailing the health problems suffered by their patients,
including blindness and death, pleading with the food and drug industry
to reevaluate their products.
"Here is
the story: there is a major biochemical problem here," Dr.
Monte says. "Methyl alcohol is known now, and has been known
since 1940, to be metabolized differently by humans from every other
animal."
Both animals
and humans have small structures called peroxisomes in each cell.
There are a couple of hundred in every cell of your body, which
are designed to detoxify a variety of chemicals. Peroxisome contains
catalase, which help detoxify methanol once it is to formaldehyde.
Other chemicals in the peroxisome then convert the formaldehyde
to formic acid, which is harmless, but this last step occurs only
in animals.
When methanol
enters the peroxisome of every animal except humans,
it gets into that mechanism. Humans do have the same number of peroxisomes
in comparable cells as animals, but human peroxisomes cannot
convert the toxic formaldehyde into harmless formic acid.
"The methanol
bounces off the catalase or bounces off something there," Dr.
Monte says. "What happens then is every cell in your body cannot
metabolize methanol. Wherein the animal body, every cell can metabolize
and turn it to formic acid, which is safe.
What happens
to the methyl alcohol?
That's
the key. In humans, methyl alcohol could just as easily not be metabolized
at all. That would be the ultimate and best outcome, and you could
urinate it away or sweat it out and you would be fine. Unfortunately,
there are some locations in the human body, particularly in the
lining of the vessels of your body... especially in your brain that
are loaded with alcohol dehydrogenase (ADH) that converts methanol
to formaldehyde and there is no catalase present to enormous amounts
of damage are created in the tissues."
Formaldehyde
May Be a Significant Contributor to Chronic Disease
According to
Dr. Monte, there are about 11 areas of the human body where you
find alcohol dehydrogenase, which is capable of converting methanol
into formaldehyde. He discusses the details of this in his book.
Unfortunately, the areas where formaldehyde tends to be created
are some of the most sensitive areas in terms of creating serious,
chronic disease, such as multiple sclerosis (MS), and Alzheimer's
disease.
"If you
look in the cell, you say, in what part of the cell is this happening?
That's the key. That enzyme, the alcohol dehydrogenase, is not associated
with any organelle that can handle formaldehyde. It's just floating
around in the cell. That means that you can convert methanol into
formaldehyde right next to your nucleus. You could do it next to
the cell membrane. You could do it next to an important organelle.
And when
that happens, when methanol turns into formaldehyde, you have a
methylating monster inside of your cell.
It's very
difficult, if not impossible, to get formaldehyde into the cell
otherwise. When you breathe formaldehyde, it's so extremely reactive
– it reacts with the tissue it first makes contact with. It's considered
a carcinogen in that case."
This cellular
methylation alters DNA functioning. It turns off the DNA by preventing
it from producing protein. The damage from methylation is not necessarily
permanent, but if not controlled, it will definitely have a negative
impact. It could possibly be reversed, and ubiquinol
and optimizing leptin and insulin signaling are likely very helpful
for this as they upregulate repair processes. This becomes crucial
if we ever hope to address the methylation damage which is a major
concern in cancer and autism.
Interestingly
enough, tobacco smoke also causes methylation, similar to that of
aspartame. Dr. Monte explains:
"Tobacco
is fermented. When you ferment tobacco in the field, [it creates]
spoilage bacteria that liberates the methanol from the pectin, which
normally we couldn't liberate. That's what really makes the methanol
content high. It's not just the smoking process itself, but it's
the way cigarettes are produced... Basically, the methanol produced
by one pack of cigarettes would be equivalent to the methanol liberated
from a liter of diet Coke."
How Can You
Prevent Methanol from Turning into Formaldehyde?
Curiously,
ethanol prevents methanol from turning into formaldehyde.
If you look up methanol toxicity in the medical literature, you
will find that most of it points to formic acid as the cause of
the problems associated with methanol poisoning in humans.
"The literature
will also point to the fact that small amounts of methyl alcohol
that are consumed, that are breathed in or consumed during the day,
will all be processed by your liver. This is not true," Dr.
Monte says.
"Scientists
have shown that most people, not all the time, but most people have
a little bit of ethanol in their bloodstream. If that's the case,
then the small amount of ethanol that comes from aspartame or whatever
will not be metabolized in the liver, because there is just that
little bit of ethanol... So what happens is – and this is not good
– the methanol gets through your liver completely... and gets into
your circulatory system."
The methanol
will continue to circulate through your body until there's no ethanol
left in your body, and at that point, any alcohol dehydrogenase
available will get converted to formaldehyde... According to Dr.
Monte, this in part explains why small amounts of alcohol each day
seem to have a protective effect against many diseases, including
atherosclerosis and Alzheimer's.
Dr. Monte believes
the major benefit of consuming alcohol that is widely known to lengthen
lifespan, is related to it being safely excreted before methanol
is converted to formaldehyde. A far safer and likely just as
effective strategy however would be to optimize your gut flora as
one of the byproducts of healthy gut flora is ethanol that could
provide the same methanol sparing formaldehyde conversion benefit.
What about
Methanol in Fruits and Veggies?
The manufacturers
of aspartame counter the claims of methanol being a harmful aspect
of aspartame by pointing out that it also occurs naturally in fruits
and vegetables. So why would it cause a problem in aspartame?
First, methyl
alcohol, while present in significant quantities in plants and vegetables
is typically safely bound to pectin and since we do not have any
enzymes capable of breaking that bond, once the methanol in fresh
vegetables or fruits is eaten, it is safely eliminated in the stool.
However the
methyl alcohol can be liberated by putrefying bacteria that spoil
fruits and vegetables and in fact methanol is an indication of spoilage
in fruits and vegetables. Dr. Monte recommends cutting off all spoiled
parts before eating your fruits and veggies. I believe most people
avoid eating spoiled produce. If not, it would be a wise move. It's
the putrefaction that liberates the methyl alcohol.
"If you
have a good whole fruit and vegetable, unspoiled, fresh off the
field, the amount of methyl alcohol in that is extremely low," he
says. "There is methyl alcohol exuded by leaves and this sort
of thing. It's part of their process of growing and all that. But
the mechanism to get rid of it is there."
Remember when
you consume methanol in soda, it easily breaks off from
the phenylalanine in aspartame in your duodenum, and this is a major
difference between consuming methanol in the form of aspartame versus
getting it from fresh fruits and vegetables. Contrary to the bond
between pectin and methanol, which is very strong, the bond holding
the methanol in aspartame is extremely weak.
"It's the
weakest methyl ester [bond] I've ever seen," Dr. Monte says.
"Chemically, it doesn't want to be there and it wants to liberate
methanol. But pectin binds extremely tightly – the methanol that
is bound to pectin gets through your digestive system and comes
out with the fiber."
Processed
Foods High in Methanol
Processed foods
are another matter, however. When fruits and vegetables are canned,
the methanol becomes liberated from the pectin. At room temperature,
it only takes one month for 10 percent of the methanol to be released.
After about six months, virtually all of the methanol is liberated.
Dr. Monte is convinced that methanol and the subsequent conversion
to formaldehyde from certain processed foods and foods containing
aspartame is a major culprit in a variety of diseases, especially
MS.
"Multiple
sclerosis behaves sort of a like an autoimmune disease. How can
methanol cause this? The formaldehyde is what causes it," he
says.
Methyl alcohol
can slip through your blood brain barrier, and your brain is one
of the areas where you find alcohol dehydrogenase, which converts
methyl alcohol to formaldehyde. This causes the destruction of myelin
basic protein, which is one of the triggers for MS.
"We know
that methyl alcohol is known to be a demyelinating agent," Dr.
Monte says. "We don't know why. In general, it's accepted as
a demyelinating agent. You have the symptoms associated with the
demyelination, and they're identical between multiple sclerosis
and methanol poisoning, and people who consume aspartame."
Dr. Monte believes
many diseases such as MS can be prevented if we start avoiding methanol,
and he offers a methanol-free diet on his website. Items to avoid,
especially if you have MS or symptoms of MS, include:
Cigarettes
Tomato
sauces, unless first simmered at least 3 hours, no lid on pan
Diet
foods and drinks with aspartame
Smoked
food of any kind, particularly fish and meat
Fruit
and vegetable products and their juices in bottles, cans, or
pouches
Chewing
gum, most chewing gum in the USA contains aspartame
Jellies,
jams, and marmalades not made fresh and kept refrigerated
Slivovitz
and other fruit schnapps
Black
currant and tomato juice products, fresh or processed
Overly
ripe or near rotting fruits or vegetables
More Information
You can learn
more by reading Dr. Monte's book While Science Sleeps,
or by visiting his website, www.WhileScienceSleeps.com.1
His site contains all the articles referenced in his book, about
600 of them, so that you can read through them and verify the details
for yourself.
There, you
can also find, free of charge, the Monte Diet,2
which will give you more details about the 10 primary sources of
methanol mentioned above.