Garbage Protein Is Trying to Get Yuh
Garbage Protein Is Trying to Get Yuh
Michael Colgan Ph D 6 March 2013
From a blade of grass to the tallest tree, from fleas and frogs, to you
and me, all living things are built from instructions written in the
universal language of DNA. All are built from proteins made to DNA
codes expressed by our genes. And most of the DNA is very similar. 80%
of our genes are identical to the genes of a banana, 84% to the genes
of a cockroach.
More than half the dry weight of a lean human
is proteins. They form the structural framework and operating machinery
of all tissues; brain, muscles, organs – the lot. All our thoughts are
controlled by enzymes, and all enzymes are proteins. The protein
collagen forms the essential structure of skin, tendons, ligaments, and
cartilage. The protein hemoglobin is the machine that transports our
oxygen. Thousands of different proteins control every nerve and every
muscle contraction.
All our hormones are proteins. They form an
interconnected information system far more complex that the best
computers. All our growth factors are proteins, essential for the body
to grow and repair itself. All the soldiers of our immune system are
proteins. Proteins are our beams and rafters, architects and
engineers, movers and shakers, growers and defenders. And all are made
from the proteins that we eat, far and away our most important and most
complex nutrients.
The molecular study of genes, (called
genomics) got going about 2001, as work on translating the human genome
neared completion. For a princely sum you can now get a profile of your
own individual genome. Doesn’t mean much. Just when we thought we had
hit the mother lode for understanding the basic processes of human
life, scientists realized that the study of the proteins encoded by
genes,(called proteomics) is much more important.(1)
Dr Hanno
Steen, Director of the Proteomics Center at Children's Hospital, Boston
sums it up. “To really understand biological processes, we need to
understand how proteins function in and around cells since they are the
functioning units.”
Proteomics is a lot more difficult than
genomics. The human genome is more or less constant. Depending on whose
figures you take, it contains between 20 and 40 thousand genes. But
these genes can code for 10 to 20 times as many proteins. Some single
genes alone can code for over 1,000 different proteins. The Human
Proteome Project has recently done a fair count of the proteins in the
human body: more than 350,000 different ones.(1,2)
In any
protein, amino acids are linked to form long coded chains. The longest
is titin, a protein that enables muscles to contract properly. Titin
has a chain of 34,500 amino acids. Your body and mine has to make titin
exactly every day. Consider how important it is for athletes (and the
rest of us) to provide exactly the right raw materials from food
proteins, so that the body can make titin precisely to code.
It’s doubtful our politicians understand any of this science, because it
has never influenced the food supply to provide us better health. Most
of the American food chain today results from the huge profit-driven
historical error of agribusiness in the 1950s, that has now destroyed
most of the land with NPK fertilizers and pesticides. Through its
introduction of toxins and the progressive destruction of nutrients in
the soils, crops and livestock, US agribusiness is directly responsible
for most of the obesity, diabetes, and Alzheimer’s epidemics now
undermining the American dream.(3) Eat their garbage proteins and you
will grow a garbage body. No way to avoid it.
If you value the
structure of your brain, your organs, your skin, your muscles, your
looks, and the rate at which you age, never eat junkfood protein again.
That’s all the burgers, hot dogs, battery chicken, turkey, pork, beef,
tofu, or whatever.(3) If we were not so brainwashed by false
advertising and lobby-driven government humbug, we would vote en masse
with our pocketbooks and drive them all out of business.
1.
Blackstock WP, Weir MP (1999). "Proteomics: quantitative and physical
mapping of cellular proteins". Trends Biotechnol. 17 (3): 121–7.
2. Nature Methods, Editorial. The call of the human proteome Nature Methods, 2010;7,661 doi:10.1038/nmeth0910-661.
3. Salatin J. Folks This Ain’t Normal, New York: Center Street Publishers, 2011.
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