UNITED STATES COURT OF APPEALS FOR THE FEDERAL CIRCUIT |
2010-1406 |
THE ASSOCIATION FOR MOLECULAR PATHOLOGY, THE AMERICAN COLLEGE OF |
MEDICAL GENETICS, THE AMERICAN SOCIETY FOR CLINICAL PATHOLOGY, THE |
COLLEGE OF AMERICAN PATHOLOGISTS, HAIG KAZAZIAN, MD, ARUPA |
GANGULY, Ph.D, WENDY CHUNG, MD, Ph.D, HARRY OSTRER, MD, DAVID |
LEDBETTER, Ph.D, STEPHEN WARREN, Ph.D, ELLEN MATLOFF, M.S., ELSA REICH, |
M.S., BREAST CANCER ACTION, BOSTON WOMEN�S HEALTH BOOK COLLECTIVE, |
LISBETH CERIANI, RUNI LIMARY, GENAE GIRARD, PATRICE FORTUNE, VICKY |
THOMASON, and KATHLEEN RAKER, |
Plaintiffs-Appellees, |
v. |
UNITED STATES PATENT AND TRADEMARK OFFICE, |
Defendant, |
and |
MYRIAD GENETICS, INC., |
Defendant-Appellant, |
and |
LORRIS BETZ, ROGER BOYER, JACK BRITTAIN, ARNOLD B. COMBE, RAYMOND |
GESTELAND, JAMES U. JENSEN, JOHN KENDALL MORRIS, THOMAS PARKS, DAVID |
W. PERSHING, and MICHAEL K. YOUNG, in their official capacity as Directors of the |
University of Utah Research Foundation, |
Defendants-Appellants. |
Appeal from the United States District Court for the Southern District of |
New York, in case no. 09-CV-4515, Senior Judge Robert W. Sweet |
BRIEF FOR AMICUS CURIAE JAMES D. WATSON |
IN SUPPORT OF NEITHER PARTY |
Matthew J. Dowd |
James H. Wallace, Jr. |
WILEY REIN LLP |
1776 K Street NW |
Washington, DC 20006 |
(202) 719-7000 |
Attorneys for Amicus Curiae James D. Watson |
TABLE OF CONTENTS |
Page |
INTEREST OF AMICUS CURIAE JAMES D. WATSON .....................................1 |
ARGUMENT .............................................................................................................2 |
I. |
BECAUSE HUMAN GENES ARE UNIQUE AND CONVEY |
INFORMATION ABOUT THE ESSENCE OF BEING HUMAN, |
THEY SHOULD NOT BE PATENTED ........................................................2 |
II. |
THE HUMAN GENOME PROJECT WAS INTENDED TO |
BENEFIT ALL, NOT JUST SELECT COMPANIES....................................8 |
III. |
PATENTS ON HUMAN GENES ARE NOT NECESSARY, BUT IF |
THEY ARE GRANTED, COMPULSORY LICENSES SHOULD BE |
REQUIRED TO ENSURE FAIR ACCESS..................................................12 |
IV. |
RULE 29(c)(5) STATEMENT......................................................................15 |
V. |
CONCLUSION..............................................................................................15 |
CERTIFICATE OF SERVICE |
TABLE OF AUTHORITIES |
Page |
Buck v. Bell, |
274 U.S. 200 (1927)..............................................................................................6 |
OTHER SOURCES |
Alok Jha, Human Genome Project Leader Warns Against Attempts to Patent |
Genes, The Guardian, June 24, 2010 .................................................................13 |
James D. Watson, The Double Helix (1968).............................................................1 |
Tom Walsh, et al., Detection of Inherited Mutations for Breast and Ovarian |
Cancer Using Genomic Capture and Massively Parallel Sequencing, 107 |
Proceedings of the National Academy of Science USA 12,629 (2010).............13 |
James D. Watson, The Nobelist vs. The Film Star: DNA Restrictions |
Attacked, Washington Post, May 14, 1978, at D1................................................8 |
James D. Watson, DNA: The Secret of Life (2003)..........................................11, 15 |
J.D. Watson & F.H.C. Crick, |
A Structure for Dexoyribose Nucleic Acid, 171 Nature 737 (1953).....................3 |
James D. Watson & John Tooze, |
The DNA Story: A Documentary History of Gene Cloning (1981) ....................7 |
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INTEREST OF AMICUS CURIAE JAMES D. WATSON |
James D. Watson is the co-discoverer of the double helix structure of |
deoxyribonucleic acid (�DNA�). For this discovery, he and his colleague, the late |
Francis Crick (along with the late Maurice Wilkins for related work), were |
awarded the Nobel Prize in Physiology or Medicine in 1962. See James D. |
Watson, The Double Helix (1968). |
Throughout his career, Dr. Watson has been at the forefront of recombinant |
DNA research and advances in genetic engineering. From 1956 until 1976, Dr. |
Watson was on the faculty of Harvard University, leading the effort to focus the |
biology department on the then-emerging field of molecular biology. Starting in |
1968, Dr. Watson was the director of Cold Spring Harbor Laboratory (�CSHL�). |
From 1994 to 2004, he served as the president of CSHL, and from 2004 until 2007, |
he was CSHL�s chancellor. Dr. Watson is now Chancellor Emeritus of CSHL. |
Of particular pertinence to the present appeal is Dr. Watson�s role in the |
Human Genome Project. In 1988, Dr. Watson was appointed Associate Director |
for Human Genome Research of the National Institutes of Health (�NIH�) and, in |
1989, Director of the National Center for Human Genome Research at the NIH. In |
these positions, Dr. Watson lead the public effort to sequence the human genome. |
Given the significance of the issue at hand, Dr. Watson wishes to write |
directly to the Court. |
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ARGUMENT |
I. BECAUSE HUMAN GENES ARE UNIQUE AND CONVEY |
INFORMATION ABOUT THE ESSENCE OF BEING HUMAN, |
THEY SHOULD NOT BE PATENTED |
I have read through the various opinions issued in this case.1 Although the |
opinions admirably describe the scientific details of DNA and human genes, what |
the Court misses, I fear, is the fundamentally unique nature of the human gene. |
Simply put, no other molecule can store the information necessary to create and |
propagate life the way DNA does. It is a chemical entity, but DNA�s importance |
flows from its ability to encode and transmit the instructions for creating humans. |
Life�s instructions ought not be controlled by legal monopolies created at the whim |
of Congress or the courts. |
Even before DNA�s structure was revealed, many scientists recognized the |
importance of a cell�s chromosomes (which are composed of DNA) to the |
propagation of life. In 1944, Erwin Schrレdinger, a Nobel Prize-winning physicist, |
wrote a small book titled What Is Life? In it, he reasoned that chromosomes were |
the genetic information bearers. Schrレdinger thought that, because so much |
information must be packed into every cell, the information must be compressed |
into �hereditary code-script� embedded in the molecular fabric of the |
1 I have also read the Supreme Court�s decision in Mayo v. Prometheus, although |
its opaqueness must leave many attorneys wondering if it adds anything at all to |
the issue of whether human genes ought to be patented. |
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chromosomes. At the time, this was an untested hypothesis; most biologists |
thought that proteins would be identified as the bearers of genetic instruction. |
Eventually, chemical techniques advanced, and scientists confirmed that the |
chromosomes contained our genes. |
As it turned out, the secret to DNA�s ability to create life is its double helical |
structure, along with its information-coding sequences. Francis Crick and I |
published the first correct structure of DNA in 1953. J.D. Watson & F.H.C. Crick, |
A Structure for Dexoyribose Nucleic Acid, 171 Nature 737 (1953).2 The double- |
helical structure epitomized elegance in simplicity. From a chemical perspective, |
DNA is little more than two strands of a nucleotide polymer wound together in a |
double helix formation. The nucleotide polymer consists of various sequences of |
A, T, G, and C bases. The helical structure has two strands, one complementary to |
the other. |
As soon as Francis and I deciphered the structure, we immediately |
understood its significance. With a hint of more to come, we wrote in our article |
that �[i]t has not escaped our notice that the specific pairing we have postulated |
immediately suggests a possible copying mechanism for the genetic material.� |
The double helix structure confirmed DNA�s role as the genetic carrier and created |
2 At the time, we were in a tight race with Linus Pauling (soon to be a Nobel |
laureate in chemistry). Fortunately for us, Pauling concluded that DNA was a |
triple helix�an erroneous conclusion ironically based on a chemical error. |
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the possibility of almost limitless information storage. The various sequences of |
bases could be translated by a cell�s machinery, and that information would be |
used to create new proteins for the cell.3 |
Later scientists discovered that certain DNA sequences controlled the |
expression of other genes. One of the earliest discovered of these control |
sequences was the �TATA box.� The TATA box contains the core DNA sequence |
5�-TATAAA-3� or a similar variant. Specific proteins can bind to this sequence, |
which promotes the transcription of other specific genes. Extracted from the |
chromosome, a nucleic acid molecule having the TATAAA sequence has little, |
physically inherent value. Its significance arises because that sequence is useful |
information to the cell�s genetic machinery. The TATAAA sequence leads to the |
expression of genes that affect the cell and ultimately our human experience. |
The terminology of DNA underscores DNA�s informational role in life. In a |
living cell, DNA is used to make RNA, and then RNA is used to make |
polypeptides, i.e., protein. The first step�DNA to RNA�is called transcription. |
The second step�RNA to proteins�is called translation. Both words connote the |
conveyance of information. The information encoded by a human gene is first |
3 Amusingly, after I gave my first presentation of our DNA structure in June 1953, |
Leラ Szilヌrd, the Hungarian physicist and inventor of the nuclear chain reaction, |
asked whether I would patent the structure. That, of course, was out of the |
question. |
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transcribed into RNA (DNA and RNA are similar molecules, thus similar |
languages, so the genetic information is merely transcribed from one format to |
another). Then, the genetic information is translated from RNA into protein. |
(RNA and protein are different biochemical �languages,� hence translation). The |
entirety of the DNA machinery focuses on transferring and utilizing the genetic |
information. |
When cells replicate, they make copies of the genetic code for the progeny |
cells. New strands of DNA are synthesized in a process analogous to the way |
scriveners of years past would copy legal documents. Just as scriveners would |
copy legal documents word by word, a cell copies the DNA molecule letter by |
letter (A, G, T, or C). And just as scriveners proofread their work, the DNA |
polymerase�the enzyme that replicates DNA�has a built-in proofreading |
mechanism. But as with all proofreading, the system is not perfect, and errors |
occur. �Typographical� errors with DNA replication can lead to genetic |
mutations�which can cause devastating diseases or can lead to evolutionary |
improvements. |
To this day, we continue to learn how human genes function. We estimate |
that humans have approximately 22,000 genes. We have yet to fully understand |
the functions of all human genes, but this lack of understanding is further reason |
-5 - |
that scientists should be permitted to experiment on human genes free from any |
threat of patent infringement. |
The social history of human genes also reveals DNA�s informational |
uniqueness. In the early part of the twentieth century, many in society believed |
that the answers to all of society�s ills resided in the human genome. From that |
belief grew the eugenics movement�an ill-fated movement founded on an |
incomplete understanding of genetics. |
Even the legendary Supreme Court justice Oliver Wendell Holmes |
misunderstood the role of genes in human development. In the landmark case of |
Buck v. Bell, 274 U.S. 200, 207 (1927), Justice Holmes expressed a view about |
genetics that prevailed during his time: |
It is better for all the world, if instead of waiting to execute degenerate |
offspring for crime, or to let them starve for their imbecility, society |
can prevent those who are manifestly unfit from continuing their |
kind. . . . Three generations of imbeciles are enough. |
We now know that many factors affect a person�s mental acuity, genes being some |
of them. But Justice Holmes and other supporters of the eugenics movement could |
not appreciate, at that time, the precise role of the human gene. |
In years to come, with the right advances in genetic engineering, we may |
well be able to treat or rectify mental disabilities and physical diseases which today |
are deemed incurable. Such hope is all the more reason that scientific research on |
human genes should not be impeded by the existence of unnecessary patents. |
-6 - |
More importantly, we would not want one individual or company to monopolize |
the legal right to the beneficial information of a human gene�information that |
should be used for the betterment of the human race as a whole. |
By the 1970s, the public�s perception of DNA had reached its nadir. Far |
from being viewed as the vindicator of the wrongfully accused�as the public sees |
it today�recombinant DNA technology was considered by many to be inherently |
dangerous. Indeed, various interest groups wanted to ban recombinant DNA |
research.4 Ironically, this hysteria seemed to begin after I participated in the first |
scientific discussions exploring whether proposed regulations on DNA research |
were necessary (at the Gordon Research Conference of Nucleic Acids in June |
1973). Unfortunately, the initial ruminations mutated into full-fledged proposed |
restrictions, issued from the Asilomar Conference in February 1974. Later, as the |
hysteria increased, the National Institutes of Health (�NIH�) enacted regulations |
governing recombinant DNA technology. The public discourse reached such a |
fevered pitch that, in the summer of 1976, the Cambridge City Council declared a |
three-month moratorium on recombinant DNA research in the city of Cambridge� |
and therefore at Harvard University and the Massachusetts Institute of Technology. |
4 I describe much of this history in one of my books. See James D. Watson & John |
Tooze, The DNA Story: A Documentary History of Gene Cloning (1981). |
-7 - |
I, of course, did not favor these restrictions. At one point, I had to defend |
recombinant DNA research from the attacks of the actor Robert Redford, who, |
along with the Environmental Defense Fund, raised money to stop experiments |
with recombinant DNA. See James D. Watson, The Nobelist vs. The Film Star: |
DNA Restrictions Attacked, Washington Post, May 14, 1978, at D1. Eventually, |
reason and objectivity prevailed, and scientists were free to conduct their |
recombinant DNA research without absurd regulations. |
My point with this overly brief and incomplete history of recombinant DNA |
research is to illustrate how the major controversies associated with human genes |
have arisen because human genes are much more than chemical compounds. The |
myopic viewpoint thinks of a human gene as merely another chemical compound, |
composed of various bases and sugars. But history and science teach us otherwise. |
A human gene, which is a product of nature, is useful because it conveys vital |
information. The human genome�s ability to be our instruction book on life |
distinguishes it from other chemicals covered by the patent laws. No other |
molecule carries the information to instruct a human zygote to become a boy or a |
girl, a blonde or brunette, an Asian, African, or Caucasian. |
II. |
THE HUMAN GENOME PROJECT WAS INTENDED TO BENEFIT |
ALL, NOT JUST SELECT COMPANIES |
In addition to understanding the uniqueness of human DNA, I hope that an |
awareness of the Human Genome Project�s history will guide the Court to the |
-8 - |
correct decision that human genes, as products of nature, should not be patented. |
The Human Genome Project was started not to increase the profits of select |
companies but to expand the our understanding of the human genome and make |
this information available to all scientists. |
The genesis of the Human Genome Project dates to the mid-1980s, when the |
dual technological advances of recombinant DNA and computers opened the door |
to deciphering the human genome. In June 1986, I organized a special session at |
Cold Spring Harbor Laboratory to discuss the beginnings of what would become |
the Human Genome Project. At that time, the U.S. Department of Energy had also |
begun to focus on sequencing the genome. Other eminent scientists joined the |
early effort, including Bruce Alberts, Sydney Brenner, and David Botstein. |
Eventually, we published our report (from the National Academy of Sciences) |
making the case for sequencing the human genome. With the support of James |
Wyngaarden, then-head of NIH, and many others, the Human Genome Project |
became reality. |
In May 1988, I was appointed Associate Director for Human Genome |
Research of NIH (and later, in 1989, became NIH�s Director of the National Center |
for Human Genome Research). In these positions, my role was to oversee a |
multimillion dollar budget and to organize what had become an international effort |
to map the human genome. The United States was directing the project and carried |
-9 - |
out half of the work, while the rest was done mainly in the United Kingdom, |
France, Germany, and Japan. |
Even at the early stages of the project, we were concerned about the issue of |
patenting human genes. Most, although not all, eminent scientists recognized that |
human genes should not be monopolized by patents. I believed at the time�and |
continue to believe�that the issue of patenting human genes went to the very crux |
of whether the information encoded by human DNA should be freely available to |
the scientific community. Some twenty years ago, I explained that patenting |
human genes was lunacy, and I was not a lone voice. |
Sadly, and to the detriment of scientific research, my view did not control |
the policy decisions of NIH, which had filed for numerous patents covering human |
genes. Even more egregious were the types of patents being filed on human genes. |
Many of NIH�s patents described only small portions of a gene. For example, in |
June 1991, an NIH official had urged Craig Venter, who at the time was working at |
NIH, to file patent applications on several hundred new DNA sequences, even |
though, in many instances, neither Venter nor NIH had any inkling of what those |
sequences did. The following year, Venter listed over 2,000 more sequences in his |
patent applications, still having no clue about the function of those sequences. |
I expressed my objections to NIH management, but to no avail. To me, it |
was clear that the goal of the Human Genome Project was to map and publish the |
-10 - |
human genome sequence for the scientific community. As the then-leader of the |
project, I felt a particular obligation to do what I could. In my view, |
[t]he Human Genome Project is much more than a vast roll call of As, |
Ts, Gs, and Cs: it is as precious a body of knowledge as humankind |
will ever acquire, with a potential to speak to our most basic |
philosophical questions about human nature, for purposes of good and |
mischief alike. |
James D. Watson, DNA: The Secret of Life 172 (2003). In 1992, I publicly |
opposed NIH�s decision to patent human genes. As a result, I was left with no |
choice and was forced to resign from NIH that year. Patenting human genes was |
not necessary to complete the Human Genome Project. Indeed, the international |
effort was proceeding on schedule without any need to file patent applications on |
human genes. |
Less than fifteen years after its start, the Human Genome Project, along with |
Celera Genomics, achieved success. On June 26, 2000, President Bill Clinton and |
Prime Minister Tony Blair announced that the two groups had finished a working |
draft, which was published for the public in February 2001. Gaps in the rough |
draft were filled in by 2003�fifty years after Crick and I published the structure of |
DNA. Scientists have used the data to estimate that humans have about 22,000 |
genes�in some sense a surprisingly small number compared to other organisms. |
The Human Genome Project was a multi-agency, international effort. It was |
funded in large part by taxpayer money, and the primary expectation was that the |
-11 - |
information derived from the sequenced human genes would be available for all |
scientists to use. Unfortunately, a decade later, private companies are still trying to |
unnecessarily restrict access to human genes and the information encoded in those |
genes. This situation burdens all of society. Other scientists involved in the |
Human Genome Project continue to warn about the harms caused by patenting |
human genes. For instance, John Sulston, who received the 2002 Nobel Prize in |
Physiology or Medicine, headed the British effort of the Human Genome Project. |
He has explained that �many human genes have patent rights on them and this is |
going to get in the way of treatment unless you have a lot of money.�5 |
III. |
PATENTS ON HUMAN GENES ARE NOT NECESSARY, BUT IF |
THEY ARE GRANTED, COMPULSORY LICENSES SHOULD BE |
REQUIRED TO ENSURE FAIR ACCESS |
As a third point, lawyers and judges misunderstand scientific research when |
they contend that patent protection is necessary to encourage scientists to discover |
human genes. A scientist does not�and should not�expect to obtain a legal |
monopoly controlling the information encoded by human genes. And the average |
scientist should not expect a windfall simply for revealing the sequence of DNA |
bases that encode various genes. Research on human genes is one of those rare |
endeavors which should be�and is done�with the understanding that, although |
5 See Alok Jha, Human Genome Project Leader Warns Against Attempts to Patent |
Genes, The Guardian, June 24, 2010, at http://www.guardian.co.uk/science/2010/ |
jun/24/human-genome-project-patent-genes. |
-12 - |
inventions based on those genes may later be commercialized, the genes |
themselves are to be employed for the maximum benefits of humankind. |
Consider also whether a biotechnology or pharmaceutical company derives |
major revenue of human genes. From what I have seen, the answer is generally no. |
Most biotechnology and pharmaceutical companies do not derive substantial |
revenue from selling or licensing human genes. Rather, their primary revenue |
source is much more likely their selling pharmaceuticals or actual research tools. |
We should not be overly concerned that banning patents on human genes will |
cause a detrimental loss of revenue. |
Additionally, researchers are developing new medical diagnostic tools which |
often rely on the use of multiple genes. For instance, investigators at the |
University of Washington have developed parallel gene sequencing methods for |
identifying of inherited mutations in breast and ovarian cancer genes. See Tom |
Walsh, et al., Detection of Inherited Mutations for Breast and Ovarian Cancer |
Using Genomic Capture and Massively Parallel Sequencing, 107 Proceedings of |
the National Academy of Science USA 12,629 (2010). This group�s approach uses |
multiple genes, not just the specific BRCA1 and BRCA2 genes in the Myriad |
patents, to estimate cancer risk. |
If each of the human genes used in a new multi-gene assay are subject to |
patents, I fear that useful tests requiring multiple human genes will be |
-13 - |
unnecessarily delayed, become prohibitively expensive, or, worse yet, never be |
made available to patients at all. For a new assay using hundreds of human genes, |
the sea of patents and patent applications would create hundreds, if not thousands, |
of individual obstacles to developing and commercializing the assay. The best |
way, in my view, to resolve this problem is to eliminate the unnecessary patenting |
of human genes. |
If, for some reason, patents on human genes are deemed necessary, the next |
best, albeit imperfect, solution is to require those patent holders to license the |
patents to other researchers so that scientific progress is not obstructed. This is |
often called a �compulsory license.� In my view, a compulsory license can |
establish reasonable access to human genes and genetic information�which is |
what scientists in general want, had the lawyers and courts not complicated |
matters. Reasonable access facilitates scientific and social progress. |
Compulsory licensing ensures that scientists and researchers will have |
reasonable access to human genes and genetic information. Compulsory licensing |
will attenuate the negative consequences of the genetic monopolies created by |
patents. Implementing a compulsory license protocol will also reduce the risk that |
a patient is denied access to life-saving medicines and technologies using human |
genes and the information encoded in the genes. |
-14 - |
CERTIFICATE OF SERVICE |
I hereby certify that on this day, June 15, 2012, two copies of the foregoing |
BRIEF OF AMICUS CURIAE JAMES D. WATSON IN SUPPORT OF |
NEITHER PARTY were served via first class mail on the following counsel for |
the parties: |
Gregory A. Castanias |
Jones Day |
51 Louisiana Avenue, N.W. |
Washington, D.C. 20001 |
Counsel for Defendants-Appellants |
Bruce Vignery |
AARP Foundation Litigation |
601 E Street, NW |
Washington, DC 20049 |
Counsel for Amicus AARP |
Barbara R. Rudolph |
Finnegan, Henderson, Farabow, |
Garrett & Dunner |
901 New York Avenue, N.W. |
Suite 1100 |
Washington, DC 20001-4413 |
Counsel for Amicus American |
Intellectual Property Law |
Association |
Seth P. Waxman |
Wilmer Hale |
1875 Pennsylvania Avenue, N.W. |
Washington, DC 20006 |
Counsel for Amici Biotech Industry |
Organization et al. |
Christopher A. Hansen |
American Civil Liberties Union |
125 Broad Street, 18th Floor |
New York, New York 10004 |
Counsel for Plaintiffs-Appellees |
Stephen B. Maebius |
Foley and Lardner |
3000 K Street, N.W., Suite 500 |
Washington, DC 20007 |
Counsel for Amicus Alnylam |
Pharmaceuticals |
Lori B. Andrews |
Chicago-Kent College of Law |
Illinois Institute of Technology |
College of Law |
565 West Adams Street |
Chicago, IL 60661 |
Counsel for Amici American |
Medical Association et al. |
Erik P. Belt |
McCarter & English |
265 Franklin Street |
Boston, MA 02110 |
Counsel for Amicus Boston Patent |
Law Association |
John L. Hendricks |
Hitchcock Evert LLP |
750 North St. Paul Street |
Suite 1110 |
Dallas, Texas 75201 |
Counsel for Amici Canavan |
Foundation et al. |
Christopher M. Holman |
5100 Rockhill Road |
Kansas City, MO 64110 |
Counsel for Amici Christopher |
Holman et al. |
E. Richard Gold |
Faculty of Law, McGill University |
3664 Peel Street |
Montreal, Quebec H3A 1W9 |
Counsel for Amici E. Richard Gold |
et al. |
Erika R. George |
Loyola University Chicago School |
of Law |
25 E. Pearson |
Chicago, IL 60611 |
Counsel for Amici Erika R. George and |
Kali N. Murray |
David S. Forman |
Finnegan, Henderson, Farabow, |
Garrett & Dunner |
901 New York Avenue, N.W. |
Washington, DC 20001-4413 |
Counsel for Amicus Genetic |
Alliance |
Larry Frierson |
The Law Offices of Larry Frierson |
3265 Lake County Highway |
Calistoga, CA 94515 |
Counsel for Amici Cancer Council |
Australia and Luigi Palombi |
Jennifer Gordon |
Baker Botts |
30 Rockefeller Center |
New York, NY 10112 |
Counsel for Amicus Croplife |
International |
Eileen M. Kane |
Penn State Dickinson School of Law |
328 Katz Building |
University Park, PA 16802 |
Counsel for Amicus Professor |
Eileen N. Kane |
Maxim H. Waldbaum |
Schiff Hardin |
900 Third Avenue, 23rd Floor |
New York, NY 10022 |
Counsel for Amicus Fホdホration |
Internationale des Conseils en |
Propriホtホ Industrielle (FICPI) |
William G. Gaede, III |
McDermott, Will & Emery |
275 Middlefield Rd., Suite 100 |
Menlo Park, CA 94025 |
Counsel for Amici Genomic Health |
et al. |
J. Timothy Keane |
Harness, Dickey & Pierce |
7700 Bonhomme Avenue, Suite 400 |
St. Louis, MO 63105 |
Counsel for Amici Gilead Sciences |
et al. |
George Kimbrell |
International Center for |
Technology Assessment |
660 Pennsylvania Ave., Suite 302 |
Washington, D.C. 20003 |
Counsel for Amici International |
Center for Technology Assessment |
et al. |
Judy Deleon Jarecki-Black |
Merial Limited |
3239 Satellite Blvd. |
Duluth, GA 30096 |
Counsel for Amicus Merial Limited |
Debra L. Greenfield |
UCLA Center for Society and |
Genetics |
Box 957221, 1323 Rolfe Hall |
Los Angeles, CA 90095 |
Counsel for Amici National |
Women�s Health Network et al. |
Kurt G. Calia |
Covington & Burling |
1201 Pennsylvania Avenue, N.W. |
Washington, DC 20004-2401 |
Counsel for Amicus Pharmaceutical |
Research and Manufacturers of |
America |
Herbert C. Wamsley |
Intellectual Property Owners |
1501 M Street |
Suite 1150 |
Washington, D.C. 20005 |
Counsel for Amicus Intellectual |
Property Owners Association |
Jacqueline Wright-Bonilla |
Foley & Lardner LLP |
3000 K Street, NW |
Suite 500 |
Washington, D.C. 20007 |
Counsel for Amici Rosetta Genomics, |
Inc. et al. |
Kent D. McClure |
Animal Health Institute |
1325 G Street, NW, Suite 700 |
Washington, DC 20005 |
Counsel for Amicus Animal Health |
Institute |
Aaron Stiefel |
Kaye Scholer |
425 Park Avenue |
New York, NY 10022 |
Counsel for Amicus Novartis Corp. |
Mark R. Freeman |
U.S. Department of Justice |
950 Pennsylvania Avenue, N.W. |
Room 7646 |
Washington, D.C. 20530 |
Counsel for Amicus Curiae United |
States |
Krista L. Cox Ann M. McCrackin |
Universities Allied for Essential University of New Hampshire |
Medicines 2 White Street |
2625 Alcatraz Avenue Concord, NH 03301 |
No. 180 Counsel for Amicus University of New |
Berkeley, CA 94705 Hampshire School of Law |
Counsel for Amicus Universities Allied |
for Essential Medicines |
James J. Kelley Andrew Chin |
Eli Lilly & Co. University of North Carolina School of |
940 S. East Street Law |
Dock 88 160 Ridge Road CB# 3380 |
Lilly Corp. Center � Drop Code 1104 Chapel Hill, NC 27599 |
Indianapolis, IN 46225 Counsel for Amici University of North |
Counsel for Amicus Eli Lilly & Co. Carolina School of Law et al. |
Francis Pizzulli |
718 Wilshire Blvd. |
Santa Monica, CA 90401 |
Counsel for Amicus The Southern |
Baptist Convention |
____________________ |
Matthew J. Dowd |
Dated: June 15, 2012 |
Wednesday, July 18, 2012
Watson Amicus Brief FC Myriad Hearing of July 20, 2012
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