What is the current impact of genetic discovery, and where could
it lead us?
1)
Research
has already provided us ways to diagnose and potentially treat many diseases,
such as certain forms of childhood leukemia, X-linked severe combined
immunodeficiency disease (X-SCID), and many others (http://www.ornl.gov/sci/techresources/Human_Genome/medicine/genetherapy.shtml)
a. Overpopulation and rapid resource usage
are running rampant; helping people live longer is making it more difficult for
everyone to live a good life
b. Playing with the building blocks of what
makes us, “us,” is bound to have consequences – not letting life run its course
the way it was intended could create a problem on some yet-unknown scale
2) There is the potential of organ
replication using only a small sample of cells; imagine being able to have a
spare heart in case yours stops. In addition, genes are common among all
organisms, and unlocking them could give us the answers to questions like,
"how are trees able to process carbon monoxide and turn it into oxygen?"
-- answers that could help provide solutions for other issues such as
sustainable energy
a. At what point is an ethical boundary
crossed? If someone has a heart
condition from birth, it’s possible that a healthy heart could be grown for
them from their own cells. On the other
hand, a 2-pack-a-day smoker could have a healthy heart grown too. Does money make a difference, i.e. would the
smoker get ahead in line because he or she was wealthier and could afford
better insurance? Would insurance costs
skyrocket? At what point would
accountability be put on the patients?
b. While the idea of genetics influencing the
growth of sustainable energy isn’t terribly far-fetched, the question
remains: how can this knowledge get utilized? Learning how a tree can recycle
carbon-dioxide into oxygen is fantastic, but how does that help us replicate
the process when clear-cutting is so prominent throughout the world?
3) People are constantly hungry for
knowledge, and this is one of the few areas outside of deep space and deep
marine which are still open for exploration. The cartographers of today
are genetic scientists, mapping out the millions of routes and channels that
make "us."
a. This research goes into previously
uncharted territory. The questions being
asked and the potential answers that lie over the horizon are not something we’re
prepared for. All outcomes cannot be
planned, and as with the Internet, governing for all new technologies is a
trial-and-error process; one that cannot be afforded given the value of the
information at hand.
b. The inevitable question of stem-cells will
divide people – these are the “holy grail” of genetic research: a cell that can
turn into anything it’s put next to.
Imagine a cell that could replicate a cancerous cell, so we could study
cancer in a way that’s never been done; a cell that, put next to a severed
spinal cord, could regenerate it; a cell that could re-create neurons so even
those in the most aggressive states of catatonia could be revived. Unfortunately, the only known sources of stem-cells
are unborn fetuses. The debate of when a
fetus is actually considered a living being rages on, with many staunch
supporters on one side or the other, and a few riding the fence.
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