I
was born in Wilno, Poland on November 30, 1926, being of Polish, Austro-Hungarian,
French and Swedish ancestry. My father, a professional soldier trained in the
military academies of Vienna, Austria and St. Cyr, France, had to leave his
family when the Second World War broke out to fight with the Allied Forces.
My life and outlook were influenced by the harsh childhood which I spent in
the Nazi-occupied Eastern Europe, but I was fortunate to survive the holocaust
while living among the Jewish-Polish Community in Roumania. I used to speak
Polish, Roumanian, Yiddish, Italian and some German and Russian, but I have
almost completely forgotten them, and my French in which I used to excel is
also now far from fluent. In 1945, I moved via Italy and France to England and
Scotland. In spite of post-war economic and nutritional austerity, the United
Kingdom seemed like a paradise to me because of the respect for human rights.
Since that time, I have always had a profound friendship for the British. I
received my high school diploma in Scotland in 1946 and afterwards studied chemistry
in London. I adored English and Scottish association football and I even tried
out as an inside forward for some English and Scottish football clubs, but since
I could not devote enough time to training I never made regular First Division
teams. However, since 1946 I have always stayed in excellent physical shape
by swimming daily and practicing other sports. "Mens sana in corpore sano" has
always truly been my motto. In England I also developed a great liking for classical
music, especially Beethoven, Brahms and Liszt.My interest in medical research
started at the age of 23, when I joined the National Institute of Medical Research
(NIMR, MRC) Mill Hill, London, England. I was fortunate to work with and be
exposed to the stimulating influences of such scientists as Dr. D. F. Elliott,
Sir Charles Harington, Dr. R.R. Porter, Dr. A.J.P. Martin, Dr. R. Pitt-Rivers,
Dr. J. Gross, Dr. T. S. Work, Dr. H. Fraenkel-Conrat, and Dr. W. Cornforth,
several of whom later won Nobel Prizes for chemistry or physiology and medicine.
Although my position was very junior at Mill Hill, my work was appreciated and
this was a source of tremendous satisfaction for me, inasmuch as this recognition
came from scientists of such caliber. I learned much in those 2 1/2 years, not
only technical expertise but also the philosophy of research and a systematic
approach to scientific investigations. These years of instruction (1950-1952)
were decisive in providing inspiration, training, and laboratory discipline
and profoundly influenced the course of my career. In fact, it was at NIMR,
Mill Hill where I endured my "baptism of fire" in medical research and became
addicted to it. In May, 1952, I moved to Montreal, Canada where I was given
the opportunity to work and study at McGill University. There I learned endocrinology
from the brilliant lectures by Professor D. L. Thomson and from my work with
Dr. M. Saffran in the laboratory of experimental therapeutics of the Allan Memorial
Institute of Psychiatry headed by Dr. R. A. Cleghorn. The work at this laboratory
was devoted to ACTH and adrenal cortical steroids. That period marked the beginning
of my interest in the relationship between brain function and endocrine activity,
and it was there in 1954 that my involvement in the hypothalamic field began.
In 1955, using in vitro systems, Dr. M. Saffran and I demonstrated the
presence of corticotropin releasing factor (CRF) in hypothalamic and neurohypophysial
tissue. This was the first experimental proof of the existence of hypothalamic
hormones regulating pituitary function postulated with prophetic insight by
Dr. G. W. Harris. I obtained my doctorate at McGill University in May, 1957,
and in September of the same year I was able to secure a position which enabled
me to continue my work on CRF at Baylor University College of Medicine in Houston,
Texas, where I was associated with Dr. R. Guillemin. My years in Houston (1957-1962)
where I was Assistant Professor of Physiology and a Senior Research Fellow of
the U.S. Public Health Service were discouraging and frustrating because of
problems with the isolation of CRF. Our failure to obtain enough CRF to determine
its structure tended to cast doubt on the initial findings. We encountered much
skepticism, but I remained unshaken in my confidence in the correctness of the
observations on CRF and in the postulation of other hypothalamic hormones regulating
anterior pituitary function.
In 1961 I spent about one month at the Institute of Biochemistry in Uppsala
with Dr. J. Porath where I gained useful experience in the use of Sephadex and
column electrophoresis. I also visited Dr. V. Mutt and the late Professor E.
Jorpes in Stockholm, in connection with our collaboration on gastrointestinal
hormones, and I was encouraged that they and other astute scientists had confidence
in our work and the foresight to appreciate the possible scientific and medical
importance of hypothalamic hormones.
I was grateful for the opportunities I was given in the United States, for which
I felt a complete allegiance, and in 1962 became a naturalized citizen. When
Dr. Joe Meyer, then head of the Veterans Administration (VA) basic research,
offered in June, 1962, to set up a VA laboratory devoted to research on the
hypothalamus and make me its chief, I accepted since this gave me a clear opportunity
to be in complete command of such an effort. The support of a number of individuals,
including Dr. E. H. Bresler, then Associate Chief of Staff for Research of the
New Orleans VA Hospital, Dr. C. Y. Bowers and Dr. G. Burch of the Department
of Medicine of Tulane University School of Medicine, and Dr. W. Locke of the
Ochsner Foundation Hospital, was instrumental in helping me establish the laboratory
in New Orleans. In December of 1962, I was appointed Chief of the Endocrine
and Polypeptide Laboratories at the VA Hospital in New Orleans and Associate
Professor of Medicine at Tulane University, and, in 1966, Professor. The earliest
members of our 1962 VA-Tulane team were T. W. Redding, W. H. Carter, and M.
Tanaka. They have stayed with me all these years, and without their devoted
help we could not have resolved the many problems associated with our work on
TRH in 1969, LH-RH in 1971, and porcine somatostatin in 1975. Working in a clinical
environment, I became more aware of the need for better diagnosis and treatment
of patients than I had been before. It occurred to me early that problems with
infertility on the one hand and the necessity for population control on the
other would make a breakthrough in the control of reproduction particularly
desirable from the standpoint of society, and therefore I became especially
interested in reproductive endocrinology. To broaden our knowledge of reproductive
processes at the brain level, we studied the central effects of contraceptive
steroids and clomiphene. In some of the early studies on LH-RH, before its isolation,
we collaborated with one of the pioneers of the hypothalamus and the man I always
admired deeply, Professor C. H. (Tom) Sawyer and also with Drs. J. Hilliard,
D. Holtkamp, A. Parlow and W. F. White.
It was my good fortune that in 1964 Dr. A. J. Kastin and in 1965 Dr. A. Arimura
came to join our laboratory. Dr. Abba Kastin was mainly interested in continuing
his work on control of release of MSH and in helping us in clinical work on
hypothalamic hormones. He quickly became my best friend and a most efficient
collaborator. Dr. Akira Arimura was an experienced physiologist and endocrinologist.
Because of his great knowledge, enthusiasm and very hard work, he made great
contributions in all phases of our program, and also broadened it with many
independent ideas, especially in immunology. Other excellent collaborators at
that time included Drs. I. Ishida, A. Kuroshima, T. Saito, and S. Sawano from
Japan, and Dr. E. E. Muller from Italy.
All during the period since 1962, I had been hard at work on TRH with Cy Bowers
and Tom Redding. In 1966, we reported for the first time the isolation of porcine
TRH and determined that it contained three amino acids (glutamic acid, histidine,
and proline) in equimolar ratio, but did not take full advantage of this original
early finding, as we were preoccupied with parallel studies on reproduction
and growth hormone-releasing hormone (GH-RH). However, when R. Burgus and R.
Guillemin announced at the 1969 Tucson, Arizona, conference that they also found
the same three amino acids in ovine TRH, I realized that we had the right substance.
The same year I established the correct amino acid sequence of porcine TRH with
Dr. R. M. G. Nair in New Orleans. Subsequently, with help from Drs. F. Enzmann
and J. Bøler working in K. Folkers laboratory in Austin, Texas, we were
able to determine the structure of porcine TRH and synthesize it. We have shared
the credit with R. Burgus, W. Vale and R. Guillemin, who elucidated the structure
of ovine TRH at about the same time.
The identification of TRH removed the skepticism surrounding the work on the
hypothalamus and I realized that many workers would now be attracted to the
field. We therefore redoubled our efforts on LH-RH.In 1965, in Mexico City,
I met Dr. C. Gual of the National Institute of Nutrition who invited me to collaborate
with him in the clinical testing of hypothalamic hormones in Mexico. We took
advantage of this invitation and in 1968 demonstrated, with Cy Bowers, that
preparations of natural TRH are active in humans. Subsequently, again in collaboration
with Carlos Gual, Abba Kastin and I established that highly purified porcine
LH-RH unequivocally released LH and FSH in men and women under a variety of
conditions. It was clear that LH-RH might be useful clinically and this encouraged
us to continue the agonizing effort involved in the isolation of this hormone.
Although I consider myself an endocrinologist or neuroendocrinologist, with
considerable interest in clinical endocrine research and not a biochemist, I
personally carried out the isolation work on TRH, LH-RH, somatostatin, and other
hormones. Only a person such as myself with strong faith in the presence of
these materials would have the patience to go through the many fastidious steps
of the isolation procedure, since the effort required in isolating exceedingly
small quantities of gradually purer and purer materials from a crude hypothalamic
exctract is so enormous. I was able to isolate a small amount (800 µg)
of LH-RH from 160,000 hypothalami and proved it to be a polypeptide. This tiny
amount of material was passed to our chemists, Dr. H. Matsuo and Dr. Y. Baba,
with suggestions for a structural approach. Since I did not think that amounts
of LH-RH on hand would be enough to complete our structural work, I decided
to isolate additional amounts of LH-RH. Drs. Matsuo and Baba worked hard and
efficiently, and we were able to determine the complete structure of LH-RH with
the 800 µg material. After confirming the structure by synthesis, we were
in a position to present our findings at the Endocrine Society meeting in San
Francisco, California, in June 1971. It was one of the high points in my life
to be able to report for org Andrew - beastiality Schally V. the first time the dvd Schally V. - Andrew rape fantasy solution - rape gallery V. Andrew Schally no membership to underwear - young V. gallery Andrew boys Schally the problem beastiality org V. - Andrew Schally which had
preoccupied me and others for so long.
Physiological and subsequently immunological studies with natural and synthetic
LH-RH in our laboratory by Drs. A. Arimura, L. Debeljuk, J. Reeves and M. Saito,
and with others demonstrated that LH-RH was indeed the physiological hormone.
With the synthetic LH-RH readily available, Dr. Kastin and I continued to carry
out a variety of clinical studies in Mexico in association with Dr. Gual and
later with Drs. A. Zarate and D. Gonzalez-Barcena. I also did parallel clinical
tests with Dr. J. Zanartu in Chile and in Argentina with Drs. L. Schwarzstein,
N. Aparicio, and the late R. Mancini.
The importance of analogs, particularly with respect to the possibility of developing
a new birth control method was uppermost in my mind. I was very fortunate in
being able to induce Dr. D. H. Coy, a superb peptide chemist and his wife Esther,
also a researcher, to join our laboratory in 1972. More than 300 analogs of
LH-RH were synthesized by the Coys with the help of Drs. Y. Hirotsu, K. Nikolics
and J. Seprödi in our laboratory between 1972 and 1977. We were particularly
interested in stimulatory long-acting superactive analogs for clinical use and
in inhibitory analogs which would block LH and FSH release. We were joined in
this important work by researchers from many countries. The work of Drs. J.
Vilchez from Venezuela, A. de la Cruz from Peru, E. Pedroza from Colombia, and
N. Nishi from Japan established in 1976 that the antagonists of LH-RH can indeed
completely block ovulation in animals. Very recently with Dr. D. Gonzalez-Barcena
in Mexico we showed that these analogs are also active in humans. This of course
raises the possibility that such analogs could eventually form the basis of
a new birth control method. However, much work is still needed to make my dream
of being able to control reproduction at the central level come true.
In 1971, immediately after solving the LH-RH problem, I decided to reinforce
our attacks on PIF and GH-RF next, but six years of hard work with Dr. A. Arimura
and Drs. J. Sandow from Germany, A. Dupont from Canada and J. Takahara from
Japan resulted only in a demonstration that hypothalamic catecholamines and
gamma-amino butyric acid (GABA) may be involved in the control of release of
prolactin, but did not yet lead to the development of any clinical agents. In
our preoccupation with PIF and GH-RH, we did not work on factors inhibiting
growth hormone release but after P. Brazeau and collaborators in 1973 announced
the isolation and structure of ovine somatostatin, we purified this hormone
from porcine hypothalami, determined its structure and synthesized it. We also
carried out much physiological and immunological work (some in collaboration
with Dr. F. Labrie in Quebec, Canada), as well as clinical work which convinced
us of its importance. Particularly important was the establishment of a radioimmunoassay
for somatostatin by Dr. Arimura. The clinical work on somatostatin was carried
out mainly in England. Brilliant clinicians Professor R. Hall from the Royal
Victoria Infirmary in Newcastle-upon-Tyne and Professor G. M. Besser of St.
Bartholomew's Hospital in London were our leaders of two clinical teams which
also included excellent collaborators such as Drs. A. Gomez-Pan, D. Evered,
C. Mortimer, S. R. Bloom, and others. These clinical studies in England (based
in part on some of our suggestions) showed that somatostatin inhibits the release
of GH, TSH, glucagon, insulin, and gastrin. Basic studies carried out in England
in collaboration Dr. A. Gomez-Pan and in Poland with Professor S. Konturek showed
that somatostatin also inhibits gastric acid and pepsin secretion, and the release
of duodenal hormones, secretin and cholecystokinin. Since the immunological
work of Dr. Arimura showed the presence of somatostatin in the pancreas, stomach
and intestine, we then suggested that this substance may be involved in the
control of secretion not only of the pituitary, but also of the pancreas, stomach
and duodenum. Since somatostatin has multiple short-lived effects, Drs. D. H.
Coy and C. Meyers are achieving considerable success in the synthesis of long-acting
and selective analogs of somatostatin, some of which could be more practical
clinical agents.
Also among our present projects is the isolation of all the compounds with PIF
activity, of PRH, GH-RH, CRF, and other hypothalamic substances. In addition
to authoring or co-authoring many publications, I take satisfaction from the
fact that I helped Dr. W. Locke write a book for clinical endocrinologists.
Since much work with hypothalamic hormones and their analogs is being carried
out in Latin America and Spain, my ability to communicate in Spanish and Portuguese
has aided me greatly, and resulted in the formation of many beautiful friendships.
However, the greatest reward for learning Spanish and Portuguese came when,
in 1974, in the course of my work in Brazil I met a very charming endocrinologist,
Ana Maria de Medeiros-Comaru (M.D.). Our friendship soon deepened into love
and led to our marriage.
I have had the satisfaction that my work in the hypothalamus was honored by
top U.S., Canadian and Spanish awards: Van Meter Prize of the American Thyroid
Association; Ayerst-Squibb Award of the U.S. Endocrine Society; William S. Middleton
Award, the highest award of the VA; Charles Mickle Award of the University of
Toronto; Gairdner Foundation International Award, Canada; Edward T. Tyler Award;
Borden Award of the Association of American Medical Colleges; Albert Lasker
Basic Medical Research Award, and the Laude Award, Spain. In 1973 I was made
a Senior Medical Investigator by the Veterans Administration, an honor reserved
for only a few. When I learned about my Nobel Prize, I was too grateful and
too moved to be overcome with joy, but that came a few hours later when my friends
from all over the world began to phone or wire. However, I do not feel that
these prizes will have an adverse effect on my future productivity. I am still
as keen as ever to make new discoveries and useful contributions to endocrinology.In
the years 1972-1978, I developed agonistic analogs of LH-RH (also called GnRH)
and in 1981 was the first to show that they inhibit growth of prostate cancer
in rats. On this basis, I organized with Dr. George Tolis the first clinical
trial with LH-RH agonists in patients with advanced prostate cancer in 1982.
This trial demonstrated the clinical efficacy of LH-RH agonists in palliative
treatment of androgen-dependent prostate cancer. I then helped develop sustained
delivery systems (microcapsules) for agonists of LH-RH and participated in evaluations
of their efficacy. Sustained delivery systems of various LH-RH agonists (microcapsules
or implants) now provide the preferred method for the treatment of advanced
prostate carcinoma. Previous primary endocrine treatment modalities for advanced
adenocarcinoma of the prostate based on the work of Charles Huggins (Nobel Prize
in Medicine for 1966), used since the 1930s, included orchiectomy or administration
of estrogens (DBS). However, surgical castration (bilateral orchiectomy) is
associated with psychological impact and estrogens such as DES have serious
cardiovascular, hepatic and mammotropic side effects. Treatment with LH-RH agonists
is as effective as orchiectomy and offers the advantage of avoiding castration.
The therapy with agonists of LH-RH is presently the preferred method of treatment
for men with advanced prostate cancer and in about 70% of cases, LH-RH agonists
are selected for primary treatment.
I helped Prof. R. Hall and Prof. M. Besser in the first clinical evaluations of somatostatin in normal subjects and patients with neuroendocrine tumors in England and I was profoundly influenced by its effects. Based on this experience, I became one of the pioneers in the development of analogs of somatostatin for oncological uses and demonstrated their antitumor activity in animal models of various tumors. I have been credited with influencing the thinking in the field of oncological applications of somatostatin. Analogs of somatostatin are used now for treatment of acromegaly and endocrine tumors, including carcinoid tumors. The fact that few relevant clinical benefits have been obtained in patients with pancreatic, colorectal, prostatic, breast and other cancers treated with somatostatin analogs is due to a low expression of SST receptor subtypes 2 and 5 in these malignancies that preferentially bind octapeptide somatostatin analogs. However, the expression of these subtypes should be high enough to permit therapy with targeted cytotoxic somatostatin analogs synthesized by my group or somatostatin analogs labeled with various radionuclides developed in the meantime in Europe. Radiolabelled somatostatin analogs pioneered in Holland are now extensively used for tumor localization. Among my other major accomplishments is the development of antagonistic analogs of LH-RH, the demonstration of their antitumor activity in experimental cancer models and with my associates of clinical efficacy of these antagonists in patients with prostate cancer, endometriosis and leiomyomas. My late wife Ana Maria Comaru-Schally also showed that antagonists of LH-RH could be used as a therapy for benign prostatic hyperplasia (BPH).
My group demonstrated that the receptors for LH-RH, somatostatin and bombesin are present in various tumors, including human prostatic, mammary, endometrial and ovarian cancers. Based on this demonstration of receptors for peptides in various tumors, I started in 1995 the development of modern cytotoxic analogs of LH-RH, bombesin and somatostatin, which can be targeted to peptide receptors on various primary cancers and their metastases. We demonstrated in experimental models of human cancers that these hybrids produce tumor regression or eradication. Because the receptors for these peptides are present on many cancers, targeted chemotherapy based on cytotoxic analogs of these peptides should be more efficacious and less toxic than the currently used systemic chemotherapeutic regimens and might permit dose escalation. My group also developed bombesin antagonists aimed at decreasing EGF receptor levels in tumors and GH-RH antagonists, which suppress IGF-I and -II levels and block tumoral receptors for GH-RH and showed that they inhibit a variety of experimental cancers, including androgen-independent prostate cancers, estrogen independent breast cancers, ductal pancreatic cancers, colorectal cancers, lung cancers and brain tumors. My associates and I also demonstrated that GH-RH, which we found in mammary, ovarian, endometrial lung cancers and other tumors, is probably an autocrine growth factor. Our work suggests that cytotoxic somatostatin analog AN-238, cytotoxic LH-RH analogs AN-152 or AN-207 and GH-RH antagonists could be used in the management of patients with advanced prostatic carcinoma who relapsed androgen ablation. Cytotoxic LH-RH analogs or GH-RH antagonists might also be considered for improvement of primary hormonal therapy for prostate cancer.
In September 2004, my wife Ana Maria Comaru-Schally, M.D., F.A.C.P. died suddenly from thyroid cancer. I was profoundly hurt by the unexpected passing of my wife after 28 years of wonderful marriage, which was preceded by 2 years of an exciting and emotional romance. She was an ideal wife, companion, collaborator and my best friend. She will be sorely missed by me and many friends in various countries. Her death was the hardest blow and the biggest tragedy in my life. I am seeking consolation and comfort by continuing my work in cancer research. I believe that this is what she would want me to do.
In conclusion, since receiving the Nobel Prize, I developed the preferred method for treatment of advanced prostate cancer based on LH-RH agonists. My group synthesized several new classes of antitumor peptides such as LH-RH antagonists, somatostatin analogs, bombesin/GRP antagonists, GH-RH antagonists and targeted cytotoxic analogs of LH-RH, bombesin and somatostatin. I then proposed, and with my associates experimentally demonstrated, the efficacy of new approaches to therapy of prostatic, mammary, ovarian, endometrial, renal, pancreatic, colorectal, gastric and lung cancer (SCLC and non-SCLC), osteosarcomas, melanomas, non-Hodgkin's lymphomas and brain tumors based on these antitumor peptides.
I have been credited with extending the concepts of hormone-dependent tumors beyond the pioneering work of the great Charles Huggins. Hormonal therapies that I proposed are based on the peptide analogs of hypothalamic and other hormones and are relatively free of side effects, in contrast to radiation and chemotherapy. I am gratified that my discoveries have led to many practical clinical applications that are widely used and highly effective. It is my hope that the significance of these discoveries and their applications to oncology will increase in the future.
I now have over 2200 publications, more than 1200 of which were published after I received the Nobel Prize.