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The Genomic Dream in Iceland
(and elsewhere) v.s. Cystic Fibrosis
By Steindor J. Eerlingsson
The Iceland-based US genomics company deCODE Genetics
has been the subject of much international discussion since 1998.
In that year, the Icelandic Parliament passed a bill that gave the
company exclusive rights to construct a commercial database, based
on Icelands extensive medical records. The controversy surrounding
the company has flared up again in Iceland. In January, 2002, deCODE
announced that it had bought the US pharmaceutical company MediChem
Lifesciences, enabling deCODE to conduct its own pharmacological
researches. DeCODE plans to move MediChems operations to Iceland.
In order to facilitate this $350 million move, the Icelandic Government
is guaranteeing a $200 million loan to the company. This has met
with great opposition in Iceland but the Government, with its secure
parliamentary majority, is ignoring it. Critics in Iceland argue
that deCODEs pharmacological expansion is ill advised and,
in light of the great financial risks involved this project, does
not merit state sanction. deCODE plans to move from high-risk genomics
research to an even more perilous project: using genetic information,
that it has not yet produced, to develop drugs; a feat that no one
has yet accomplished. In this context it is interesting to compare
deCODEs plans, and those of other genomics companies, with
the story of cystic fibrosis.
Biotechnology, as we know it today, does not have
a long history. It was not until the advent of the polymerase chain
reaction (PCR) technology in the late 1980s that it could even be
turned into an industry. Since then the technological advances in
the life sciences have moved at a rapid pace, symbolized by the
early completion of the Human Genome Project. The sequencing of
the human genome is, indeed, one of the foundations underlying companies
that are engaged in functional genomics. (Functional genomics can
be defined as the development and application of genome-wide experimental
approaches to assess gene function by making use of the information
and reagents provided by structural genomics.) deCODE and other
genomics companies are hence using relatively new technologies that
have not yet produced any decisive results.
This is vividly shown in an article in the American
Journal of Human Genetics (November 2001), entitled Genomewide
Scans of Complex Human Diseases: True Linkage is Hard to Find.
The article reviews 101 papers that report the findings of research
based on genome-wide scans. These papers show that we are still
a long way from finding the genes and their products that some scientists
thought played a role in various human diseases, if there even is
a correlation. deCODE now plans to venture into this still more
uncertain business of developing drugs based on genetic information,
which the company has not made public. Even if deCODE had all the
necessary genetic information, gigantic difficulties would still
await the company, as the cystic fibrosis (CF) story shows vividly.
The gene that plays a role in CF was found in 1989,
and in a report in Science (September 1, 1989) it is hoped that
this discovery would lead to improved therapies for the now
fatal disease. In a paper in Science (May 8, 1992) entitled
Cystic Fibrosis: Molecular Biology and Therapeutic Implications,
Francis S. Collins states that three new pharmacological approaches
are currently in clinical trials and show considerable promise
and that the nature of cystic fibrosis has increased the attractiveness
of CF as one of the first major targets for human gene therapy.
Collins, it should be mentioned, owns a patent on the CF gene.
Nine years later neither of these approaches to treating
CF have been successful, as was noted in the Lancet late in 2001.
Even though CFTR [the gene associated with CF] was among the
first large human genes to be identified, cloned, and fully sequenced
and an early candidate for use in gene therapy, technical challenges
remain evident even after more than a decade of effort with this
form of therapy. Meanwhile, pharmacological approaches directed
at specific biochemical defects underlying the disorder have continued
to be pursued. Indeed, recent pharmacological findings
hold promise for the development of effective treatment protocols
(Lancet, December 15, 2001). In other words, it is obvious that
13 years of extensive efforts and huge financial investments to
find a treatment for CF have still not borne fruit, either on the
pharmacological or gene therapy fronts. An editorial in Science
(October 13, 1989) stated that the Cystic Fibrosis Foundation
has spent $120 in the past 4 years on one illness, to say nothing
of the other foundation and federal money spent on the same project.
But the article observes that, unlike CF, illnesses such as
manic depression, Alzheimers, schizophrenia, and heart disease
are probably all multigenic and even more difficult to unravel.
This story of the CF researches in the past decade
throws a very interesting light on deCODEs strategy and also
on the genomics industry as a whole. deCODE plans to identify and
describe the function of genes that contribute to the onset of 45
common diseases (http://www.decode.com/resources/diseases/), and
to discover new and better drug targets. In addition, the company
will use gene expression studies and protein-protein interaction
systems to define molecular pathways that also may contain drug
targets. All of these diseases are thought to be caused by an unknown
number of genes and their interactions with the environment, while
CF is associated with one gene whose expression is not known to
be directly affected by the environment. deCODE and other genomics
companies have still not made any significant progress in identifying
the genes linked to the diseases they are studying, while the role
of the CF-gene has been known for 13 years. deCODE is now planning
to build a pharmaceutical company in Iceland that is supposed to
produce drugs based on genetic information that still is not available
(and may never come), while years of effort to find a cure for CF
has so far been in vain.
Though these particulars also apply to other genomics
companies, deCODEs uniqueness lies in the fact that the company
is part of one of the smallest economies in the world. Iceland only
has a population of 285,000, and deCODE has now convinced the Icelandic
government to guarantee a loan for $200 million roughly
15% of the annual state budgetto enable the companys
expansion. deCODEs collapse would have a serious effect on
Icelands small economy, as local investors, individuals, banks,
and pension funds have already invested heavily in the company.
And the fact is that deCODEs collapse is now more likely than
ever. As Rana Foroohar observed in a Newsweek article (February
18, 2002) entitled The Gene Bubble, deCODE, like the
internet and telecom bubbles,
had to burst. Stock prices
of many bioinformatics firms have fallen sharply in recent years.
LION Biosciences of Germany went public at $40 a share and now trades
at about $13. deCODE is worth a fourth of its former high. Even
Celera, the US firm that helped decode the human genome, is off
its peak. None of this bodes well for deCODEs financial
or scientific prospects.
Steindor J. Erlingsson holds BSc and MSc degrees in biology (emphasis
on molecular and evolutionary biology) and history of science, respectively,
from the University of Iceland. He is currently working on a PhD
thesis in the history of science at the CHSTM, The University of
Manchester, England. Between 1998 and 2000 he was the Director of
the Information Resource Center, US Embassy, Reykjavik, Iceland.
He is writing a book about the scientific and political implications
of deCODE's operations in Iceland that will also be put into international
context. It will be published in December 2002 by the Icelandic
publisher Forlagid, an imprint of Edda Media & Publishing (http://edda.is/english/).
Email: steindor@akademia.is
Homepage http://www.raunvis.hi.is/~steindor/
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