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Urgent Warnings, Breakthrough Solutions, Second Edition

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outer layers of the DNA system.<br />

Some of the “non-gene” control layers<br />

may be easier to manipulate than<br />

the classic, first-line gene layer. Recent<br />

discoveries have opened several<br />

new lines of genetic research, making<br />

this the dawn of a new era in<br />

molecular genetics.<br />

9.<br />

Biotech Analysis<br />

Instrumentation<br />

At present, only about 40% of the<br />

population reacts favorably to a new<br />

drug. The rest have either minimal<br />

reaction or adverse reactions. As<br />

knowledge of human bio-metabochemicals,<br />

but how to interpret the<br />

results. Too few tests have been conducted<br />

to establish the normal level<br />

of most of these chemicals in the human<br />

body. By the mid-twenty-first<br />

century, we will have enough data<br />

analyzed to tell what chemicals, proteins,<br />

and enzymes are normal in the<br />

human body; whether their physical<br />

form is a mutation or merely a normal<br />

statistical variation; and<br />

whether certain measurements are<br />

metabolic disorders or just normal<br />

variations of human metabolism.<br />

This information will have a significant<br />

impact on health.<br />

10.<br />

“Biochemists’ ultimate goal — of<br />

a full-scale biochemical computer<br />

model of human genetics, biochemistry,<br />

and all their interactions —<br />

will be available within 10 to 20<br />

years.”<br />

Development of new instruments<br />

to examine biological phenomena is<br />

revolutionizing the fields of biological<br />

research and medicine. One of<br />

the most important new instruments<br />

is the DNA microarrays, which are<br />

compact robotic systems that detect<br />

DNA and other biochemical matter.<br />

Modern microarrays’ detector systems<br />

are made with postage-stampsized<br />

coated glass wafers. Each wafer<br />

includes a grid of strands of DNA<br />

that only bind to their complementary<br />

DNA matches (or alternatively,<br />

dots of some biochemical reagent).<br />

The grid elements can measure the<br />

presence and level of a given gene or<br />

gene product (mutants, abnormal<br />

variants, dysfunctional genes) in a<br />

sample. These wafers can also find<br />

and analyze chemical and biological<br />

compounds within the body. Current<br />

machines are only capable of statistical<br />

samples. Scientists would like a<br />

machine capable of analyzing the entire<br />

human genome and its biochemical<br />

environment with all its variants<br />

in a single pass. It will probably be<br />

the late 2020s before a full human<br />

body biochemical scan can be performed.<br />

At present, however, our greater<br />

challenge is not how to detect the<br />

Human Biogenetic–<br />

Chemical Computer Model<br />

New biotechnology and computer<br />

science breakthroughs are revealing<br />

the body’s biochemical<br />

secrets<br />

and spurring creation<br />

of new methods<br />

for attacking<br />

metabolic and genetic<br />

disorders. We<br />

have begun to examine<br />

the body’s<br />

biochemical nature<br />

t o d e t e r m i n e<br />

whether it is functioning<br />

correctly<br />

and is in balance<br />

and to determine<br />

what effect this balance<br />

or imbalance has on health.<br />

Biochemists’ ultimate goal—of a<br />

full-scale biochemical computer<br />

model of human genetics, biochemistry,<br />

and all their interactions—will<br />

be available within 10 to 20 years.<br />

The amount of data and calculations<br />

involved will require a larger computer<br />

than available today, but this<br />

deficiency will be overcome within<br />

that time.<br />

By the mid-twenty-first century,<br />

we will have a working computer<br />

model of human genetics, biochemistry,<br />

and major portions of their<br />

interactions. This will permit the<br />

modeling of an individual’s genetics<br />

and biochemistry, which can be used<br />

to diagnose and isolate individual<br />

biochemical deficiencies, including a<br />

number of conditions that today<br />

may be considered psychological but<br />

are actually statistical variations in<br />

metabolism. This will also be used to<br />

determine the effect of drugs and<br />

nutrients.<br />

11.<br />

Treatment of Hereditary<br />

Diseases<br />

The human race is now afflicted<br />

by some 4,000 hereditary diseases<br />

caused by genetic abnormalities.<br />

These diseases have until now<br />

largely been untreatable. However,<br />

the new knowledge of gene structure<br />

and function could possibly lead to<br />

new treatments. Eventually, genetic<br />

intervention could prevent or treat a<br />

large number of diseases. More successful<br />

treatments might be possible<br />

via selected artificial protein therapy<br />

and/or micronutrients.<br />

It is also possible that this new biotech<br />

knowledge will uncover a variety<br />

of “minor” genetic diseases that<br />

people haven’t recognized or have<br />

assumed to be normal variations.<br />

Since these minor diseases affect a<br />

larger portion of the working population<br />

than the major hereditary disorders<br />

do, mitigating or curing them<br />

could lead to bigger increases in<br />

workforce productivity and performance.<br />

12.<br />

Control of Bio-Metabolic<br />

Disorders<br />

New means will arise to measure<br />

how the body is working at a biochemical<br />

level and to assess the<br />

body’s biochemicals (types and<br />

amounts) and whether the body metabolism<br />

displays proper balance.<br />

Biochemical “retuning” will treat a<br />

number of chronic, long-term conditions—including<br />

Parkinson’s disease,<br />

Alzheimer’s, and possibly even<br />

the aging process itself—by supplying<br />

chemical compounds that the patient’s<br />

body does not have in order<br />

to realign the biochemical functions.<br />

13.<br />

Blood and Tissue<br />

Matching of Drugs<br />

continued on page 15<br />

<strong>Urgent</strong> <strong>Warnings</strong>, <strong>Breakthrough</strong> <strong>Solutions</strong> 13

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