Friday, July 31, 2009

Catholic Scientists 5: Dr. Alexis Carrell

Dr. Alexis Carrell

Alexis Carrel was born at Lyons, France, on June 28, 1873. He was the son of a business man, also named Alexis Carrel, who died when his son was very young.
Alexis was educated at home by his mother Anne Ricard, and also at St. Joseph School, Lyons.
In 1889 he took the degree of Bachelor of Letters at the University of Lyons; in 1890 the degree of Bachelor of Science and in 1900 his Doctor's degree at the same University. He then continued his medical work at the Lyons Hospital and also taught Anatomy and Operative Surgery at the University, holding the post of Prosector in the Department of Professor L. Testut. Specializing in Surgery, Carrel began experimental work in this subject in Lyons in 1902, but in 1904 he went to Chicago and in 1905 worked in the Department of Physiology in the University of Chicago under Professor G. N. Stewart. In 1906 he was attached to the Rockefeller Institute for Medical Research, New York, as an Associate Member, becoming a Full Member in 1912. In this Institute he carried out most of the experiments which earned him, in 1912, the Nobel Prize in Physiology or Medicine.
During the 1914-1919 War, Carrel served as a Major in the French Army Medical Corps and at this time he helped to devise the well-known Carrel-Dakin method of treating war wounds, which was widely used.
Carrel's researches were mainly concerned with experimental surgery and the transplantation of tissues and whole organs. As early as 1902 he published, in the Lyons Medical, a technique for the end-to-end anastomosis of blood vessels and in 1910 he demonstrated that blood-vessels could be kept for long periods in cold storage before they were used as transplants in surgery. Earlier, in 1908, he had devised methods for the transplantation of whole organs and later, in 1935, in collaboration with Charles Lindbergh, the airman who was the first to flow across the Atlantic, he devised a machine for supplying a sterile respiratory system to organs removed from the body, Lindbergh having solved the mechanical problems involved. He discussed this aspect of his work and its implications in his book The Culture of Organs. Carrel also published the well-known book entitled Man, the Unknown and, in collaboration with Georges Debelly, a book on Treatment of Infected Wounds.
In collaboration with the French surgeon Theodore Tuffier, who was a pioneer of thoracic surgery, Carrel performed on the heart a successful series of valvotomies, and in collaboration with Burrows he grew sarcoma cells in tissue cultures by the technique of Harrison.
Carrel was honoured by memberships of learned societies in the U.S.A., Spain, Russia, Sweden, The Netherlands, Belgium, France, Vatican City, Germany, Italy and Greece, and by honorary doctorates of the Universities of Belfast, Princeton, California and New York, and Brown and Columbia Universities. He was a Commander in the Legion d'Honneur of France and in the Leopold Order of Belgium, a Grand-Commander in the Swedish Order of the Polar Star, and the recipient of other decorations in orders from Spain, Serbia, Great Britain and the Holy See.
He was married to Anne-Marie-Laure Gourlez de La Motte, the widow of M. de La Meyrie. They had no children.
In 1939, when the Second World War broke out, Carrel went to France as a member of a special mission for the French Ministry of Health, a post which he held for a year. He then became Director of the Carrel Foundation for the Study of Human Problems which was set up by the Vichy Government. While holding this appointment he died in Paris on November 5, 1944.

From Nobel Lectures, Physiology or Medicine 1901-1921, Elsevier Publishing Company, Amsterdam, 1967
Lourdes Basilica

Stanley L. Jaki, OSB (August 17, 1924 – April 7, 2009) was a Benedictine priest and Distinguished Professor of Physics at Seton Hall University, New Jersey since 1975. He was a leading thinker in the philosophy of science, theology, and on issues where the two disciplines meet and diverge. After completing undergraduate training in philosophy, theology and mathematics, Father Jaki did graduate work in theology and physics and holds doctorates in theology from the Pontifical Institute in Rome (1950), and in physics from Fordham University (1958), where he studied under the Nobel laureate Victor Hess, the co-discoverer of cosmic rays. He also did post-doctoral research in Philosophy of Science at Stanford University, UC Berkeley, Princeton University and Institute for Advanced Study, Princeton.

Father Jaki authored more than two dozen books on the relation between modern science and orthodox Christianity. He was Fremantle Lecturer at Balliol College, Oxford (1977), Hoyt Fellow at Yale University (1980) and Farmington Institute Lecturer at Oxford University (1988-1989). He was the Gifford Lecturer at Edinburgh University in 1974-75 and 1975-76. In 1987, he was awarded the Templeton Prize for furthering understanding of science and religion.

Jaki was also among the first to claim that Gödel's incompleteness theorem is relevant for theories of everything (TOE) in theoretical physics. Gödel's theorem states that any mathematical theory that includes certain basic facts of number theory (and is computably enumerable, i.e. whose formulas can be explicitly listed) will be either incomplete or inconsistent. Since any 'theory of everything' will certainly be consistent, it must be either incomplete or unable to prove basic facts about the integers. Fr. Jaki died on April 7, 2009, at about 1:15 PM (MET) in Madrid (Spain) following a heart attack. He was in Spain to visit friends on his way back to the USA, after delivering some lectures in Rome, for the Master in Faith and Science of the Pontificio Ateneo Regina Apostolorum.
Two Lourdes Miracles and a Nobel Laureate: What Really Happened? by Rev. Fr. Stanley Jaki
The author is the winner of the 1987 Templeton Prize. The following is the annual Joseph M. Gambescia lecture given at the conclusion of the 19th World Congress of FIAMC and the 67th Annual Meeting of the Catholic Medical Association, September 13, 1998.

The Nobel laureate is, of course, Alexis Carrel (1873-1944). He received the Nobel Prize in 1912, for his work in vascular anastomosis. Four years ago the joint authors of an article in Scientific American1 credited Carrel with having initiated all major advances in modern surgery, including organ transplants. In the 1920s he was a chief celebrity of New York City. Important visitors vied with one another to be admitted to his labs at Rockefeller University. They wanted to see a piece of tissue from the heart of a chicken embryo which Carrel kept alive from 1922 on in a special solution. It became a journalistic cliché to claim that Dr Carrel was on his way to discovering the secret of immortality.

Carrel had a brush with immortality in another way. This happened when he witnessed at close range a miraculous cure in Lourdes. In fact, he witnessed two such cures. The second took place in 1910, when he saw the sudden restoration of the sight of an 18-month-old boy who was born blind.

By far the more famous of the two cures is, of course, the first. It took place on May 28, 1902. It is known as the Marie Bailly case. Indeed it is so famous that it is not possible to write on Carrel without discussing it, however briefly.

The authors of that article in Scientific American devoted the better part of a column to the Marie Bailly case. Unfortunately, almost every statement there is either false or only half true. It is always worth setting the record straight, but there is more at stake in having this case recounted as it actually happened.

A miraculous cure is much more than a purely medical matter, however interesting. A miraculous cure is far more than a purely medical challenge to the physician in charge. The manner in which Carrel faced up to that challenge is where the true interest of the Marie Bailly case lies.

But first back to that article. We read there that "Carrel was an intensely religious man." He was not. Then we are told that "in 1903 he accepted a priest's invitation to join him on a pilgrimage to Lourdes, anxious to gain first-hand knowledge of the alleged miracles and to check their authenticity through objective assessment." The second part of this statement is half true, the first part is false. The year was not 1903 but 1902. It was not a priest but a fellow doctor, a former classmate of his, who asked Carrel to take his place as the doctor in charge of a train carrying sick people to Lourdes.

Carrel was interested in Lourdes, but not because he wanted to check on the authenticity of miracles. At that time and for many years afterwards, he did not believe in miracles. He merely wanted to see at close range the fast rate of the healing of wounds reported from Lourdes.

In that article we are also told that "On the train he met and examined a girl who was close to death from tuberculous peritonitis, a common affliction of the time, and he suggested that the priest administer the Last Rites." There is no evidence whatsoever that such a suggestion was made by Carrel or that a priest was nearby. As to tuberculous peritonitis, it was not common, but it was certainly lethal at that time. And this was especially true of the kind of tuberculous peritonitis from which Marie Bailly suffered.

And now to the "unscientific" part of the story in Scientific American that relates to Lourdes proper: "At Lourdes Carrel went to the pools with the girl and her nurse. She was still alive, but in a coma." The fact is that when the train arrived in Lourdes the girl, Marie Bailly was half-conscious, but by the time she arrived in the hospital in Lourdes proper, she was fully conscious. Then the authors continue: "Submergence into the sacred pool was out of the question. They settled to whispering prayers and sprinkling holy water on her distended abdomen, then covered her with a blanket."

As far as this can be known, there was no sprinkling of holy water. Instead, at the insistence of Marie Bailly, a pitcherful of Lourdes water was poured three times on her abdomen, which was very distended indeed. "Half an hour later," our authors go on, "the girl's pulse began to slow, and she slowly regained consciousness. The portion of the blanket covering her abdomen had flattened. Pulling the blanket back, Carrel saw that her abdomen was flat and felt that it was soft; the swelling and hard masses of the previous day were gone. A few months later the girl joined a religious order, where she lived to the age of 51."

Actually Marie Bailly died at the age of 58. There is no evidence that Carrel performed the diagnosis as described right then and there. During all that half hour Marie Bailly was fully conscious. Our authors continue: "Carrel was perplexed. The scientist in him refused to accept the possibility of a miracle, but an empirical and pragmatic conclusion also eluded him." Carrel was certainly perplexed. But it was totally false to claim that "Therefore he chose merely to describe the event to the Lyons medical community without trying to draw any conclusions that would explain it."

Actually, Carrel very much hoped that nobody in that community would learn about his having gone to Lourdes. He knew that the mere rumor of it would jeopardize his career in the Medical Faculty of the University of Lyons, where at that time he was assistant professor of anatomy.

What happened was that the sudden cure of Marie Bailly became widely known in Lyons, together with the fact that Carrel was present at her cure. A newspaper published an article, implying that Carrel refused to believe in the miracle. Carrel then was forced to publish a reply which pleased nobody. He blasted the believers for taking too readily something unusual for a miracle. He also took to task those, and they were largely the members of the medical community, who refused to look at facts whenever they appeared to be miraculous.

Carrel’s Career Progression

Half a year later Carrel had to leave the Medical School. He first went to Paris, from there to Montreal, from there to the University of Chicago, and from there, via a lecture at Johns Hopkins, to the Rockefeller Institute. The Marie Bailly case became big news in France only from 1913 on, after Carrel, with the halo of the Nobel Prize around his head, returned to France for a visit.

Before taking a look at the case itself, a few words may be in order about Carrel. He came from a devout Catholic family and was educated by the Jesuits. By the time he entered the University, he no longer practiced his religion. He was a second-year medical student when the French President, Sadi Carnot, was assassinated by an anarchist in Lyons in 1894. The knife of the anarchist cut a thick artery. The President lingered on for two days and then died. At that time the suturing of a large blood vessel was still a hit-and-miss affair.

Carrel the young medical student decided to solve the problem. Six years later, already an MD and an assistant in the anatomy department, Carrel read a paper on May 12, 1902, before the Medical Society of Lyons. The paper made medical history as Carrel knew it would. Clearly, he was in that state of euphoria in which one is apt to throw caution to the wind. Two weeks later he found himself on the train that carried Marie Bailly to Lourdes.

What happened from that moment on during the next five or so days was written up by Carrel shortly afterwards, but the MS was published only in 1948, four years after his death in November 1944. In two more years, in 1950, it came out also in an English translation as The Voyage to Lourdes.[2]

Partly because Charles Lindbergh wrote the introduction to it, the book failed to reveal its true significance. One reason was that Lindbergh, a sort of agnostic, skirted the issue of the miraculous and the supernatural. Another reason was that Carrel had written a novelistic account, rather than a medical document. Still he had been factual enough.

The most important factual details can be gathered only from the Archives of the Lourdes Medical Bureau. Those details form the backbone of the introduction I wrote to a new edition of The Voyage to Lourdes, published in 1994.

Marie Bailly was born in 1878. Both her father, an optician, and her mother died of tuberculosis. Of her five siblings only one was free of that disease. She was twenty when she first showed symptoms of pulmonary tuberculosis. A year later she was diagnosed with tuberculous meningitis, from which she suddenly recovered when she used Lourdes water. In two more years, in 1901, she came down with tubercular peritonitis. Soon she could not retain food. In March 1902 doctors in Lyons refused to operate on her for fear that she would die on the operating table.

On May 25, 1902, she begged her friends to smuggle her onto a train that carried sick people to Lourdes. She had to be smuggled because, as a rule, such trains were forbidden to carry dying people. The train left Lyons at noon. At two o'clock next morning she was found dying. Carrel was called. He gave her morphine by the light of a kerosene lamp and stayed with her. Three hours later he diagnosed her case as tuberculous peritonitis and said half aloud that she would not arrive in Lourdes alive. The immediate diagnosis at that time largely depended on the procedure known as palpation.

In Lourdes Marie Bailly was examined by several doctors. On May 27 she insisted on being carried to the Grotto, although the doctors were afraid that she would die on the way there. Carrel himself took such a grim view of her condition that he vowed to become a monk if she reached the Grotto alive, a mere quarter of a mile from the hospital.

The rest is medical history. It is found in Dossier 54 of the Archives of the Medical Bureau of Lourdes. The Dossier contains the immediate depositions by three doctors, including Carrel, and Marie Bailly's own account, which she wrote in November and gave to Carrel, who then duly forwarded it to the Medical Bureau in Lourdes.

The highlights of Marie Bailly's own account are as follows: On arriving at the baths adjoining the Grotto, she was not allowed to be immersed. She asked that some water from the baths be poured on her abdomen. It caused her searing pain all over her body. Still she asked for the same again. This time she felt much less pain. When the water was poured on her abdomen the third time, it gave her a very pleasant sensation.

Meanwhile Carrel stood behind her, with a notepad in his hands. He marked the time, the pulse, the facial expression and other clinical details as he witnessed under his very eyes the following: The enormously distended and very hard abdomen began to flatten and within 30 minutes it had completely disappeared. No discharge whatsoever was observed from the body.

She was first carried to the Basilica, then to the Medical Bureau, where she was again examined by several doctors, among them Carrel. In the evening she sat up in her bed and had a dinner without vomiting. Early next morning she got up on her own and was already dressed when Carrel saw her again.

The Aftermath

Carrel could not help registering that she was cured. What will you do with your life now?Carrel asked her. I will join the Sisters of Charity to spend my life caring for the sick, was the answer. The next day she boarded the train on her own, and after a 24-hour trip on hard benches, she arrived refreshed in Lyons. There she took the streetcar and went to the family home, where she had to prove that she was Marie Bailly indeed, who only five days earlier had left Lyons in a critical condition.

Carrel continued to take a great interest in her. He asked a psychiatrist to test her every two weeks, which was done for four months. She was regularly tested for traces of tuberculosis. In late November she was declared to be in good health both physically and mentally. In December she entered the novitiate in Paris. Without ever having a relapse she lived the arduous life of a Sister of Charity until 1937, when she died at the age of 58.

This is not the place to recite the depositions from that famous Dossier 54. They are given in full in the introduction to my re-edition of The Voyage to Lourdes. But all that material gives only half of the answer to the question: What really happened?

The other half is not so much about medicine as about faith, Catholic faith. An integral part of that faith is the view that there is a Church that teaches in the name of Jesus Christ and therefore has to teach infallibly.

Part of that infallible teaching is that there were, there are, and there forever will be miracles. This is so because the Church is the enduring presence of a supernatural reality, the reality of God's revelation to mankind. That revelation is God's sharing his very life with man and therefore it has to be a most vital matter. Miracles are the most tangible signs of that divine supernatural vitality.

Therein lay the rub for Carrel. If anyone did, he knew that what happened to Marie Bailly far exceeded all that medicine could dream of. Yet he could not bring himself to believe that anything more than merely natural forces had been at work in Marie Bailly's sudden recovery. He kept going back to Lourdes so that he might see more sudden cures, more very fast healing of wounds. He hoped that this way he would gain a glimpse of a purely natural force that works miraculous healing and does so through the power of prayer, which he took for a purely natural psychic force.

The proof of this is in his famous book, Man the Unknown, which first appeared in French in 1934 and then in English, and then in thirty other languages. There he speaks in precisely this vein of various Lourdes miracles.

By then thirty-two years had gone by since he had stood behind the stretcher of Marie Bailly. In all those years he had met priests again and again. He met theologians, or rather some theologians sought him out, hoping that Carrel would give them a "scientific" endorsement of miracles.

None of this brought him any closer to the faith of his childhood. Then Marie Bailly died in 1937. Undoubtedly she went straight to heaven as one of God's many unknown saints. As such she had a new job, which is to pull spiritual strings on behalf of others.

The next year, Carrel ran into a priest, the Rector of the Major Seminary in Rennes, with whom he quickly developed a rapport. The Rector told him to see a Trappist monk whose first name also happened to be Alexis. His full name was Alexis Presse. Among other important people, Charles de Gaulle was a great admirer of Father Alexis.

Father Alexis had by then spent a decade restoring and reopening ruined abbeys all over France. In 1939 he started working on a ruined abbey in Bouquen, that was only an hour's drive from the Carrel's summer residence in Brittany. As he was driving there with his wife, Carrel kept grumbling: Meeting with priests does one more harm than good.

They arrived. Out of the ruins came a monk, Father Alexis. He looked at Carrel, who began to feel something strange running through him. Four years later, in November 1944, Carrel was dying in Paris. Word was sent to Father Alexis in Brittany. He jumped on an American military train carrying bananas to the troops still fighting the Germans well beyond Paris. He arrived just in time. Carrel died with the sacraments.

In heaven Carrel could have a good conversation about the nature of the string which Marie Bailly was pulling for him, and about the nature of the force that wrought miraculous healing. The force had nothing to do with even the most advanced forms of string theories of particle physics. It was the force of the supernatural.

This is the gist of what really happened to a Nobel laureate who had the good fortune, the extraordinary good fortune, to witness not only one but two Lourdes miracles.

Church Certification of the Miraculous

Incidentally, neither of those miraculous healings was recognized by the Church. The second, the miraculous healing of the 18-month old baby boy, was probably never put forward for Church approval, a long and arduous process. The other, the Marie Bailly case, was repeatedly discussed at various levels by the Medical Bureau in Lourdes and finally in Paris at its highest or International Committee. The year was 1964. A decision was made against the miraculous nature of the cure. The reason?

Before I give the reason, let me recall what happened to me three years ago when I gave a talk on Carrel at Rockefeller University. After my talk, there followed a question-answer period. As usual some questions were not to the subject. These can be dealt with easily, with some presence of mind. But I gasped for words when a doctor — most of the audience were medical people got up and shot at me the objection: Marie Bailly could have been pregnant.

I am still rolling over. I would not have fallen speechless had it been objected that the case was pseudosciosis, or psychologically induced mimicry of pregnant condition. But even that is an outlandish assumption. Could so many doctors have misdiagnosed the case? Were all those doctors wrong as they felt through palpation that heavy mucous in the abdomen? For Marie Bailly's peritonitis produced not liquid but heavy mucous. Palpation can easily establish the presence of that heavy stuff, especially when present in large quantities. Again, where did all that heavy mucous go in 30 minutes? Finally, Marie Bailly passed all the psychological tests with flying colors. She was found to be a person with most sound judgment, a person who was not easily impressionable.

But it seems that because those earlier doctors had not considered the possibility of pseudosciosis, the International Committee decided against recommending Marie Bailly's cure for ecclesiastical approval.

One's first reaction to this may be that it is self-defeating to be so careful in excluding the possibility of an error. But this is the kind of caution which the Church has always demanded from doctors as they are consulted in evaluating cures that appear miraculous.

There is a story, a true story, that takes us back almost three hundred years, to Rome. A young English aristocrat arrives there and establishes contact with someone high in the Vatican. He wants to know what really happens when miracles are being approved by the Church in support of beatifications and canonizations. He is convinced that Rome carelessly admits any sudden cure as a miracle. In response, his contact in the Vatican gives him a thick dossier about a miraculous cure recently submitted to the Sacred Congregation of Rites.

The aristocrat goes home, studies the dossier and a few days later hands it back with the words: This most certainly was a miracle. The Vatican man, still Monsignore Prospero Lambertini and not yet Pope Benedict XIV, replies with a dry smile: the case has already been rejected.[3]

Catholic doctors can be sure of two things: One is that the Church will always be most careful about certifying miracles. She has to certify them because every process of beatification and canonization depends, among other things, for its favorable outcome on the Church's approval of at least one miraculous healing obtained through the intercession of the person to be beatified or canonized. That approval puts therefore the very infallibility of the Church on the line. The Church will not be overawed just because the doctor, who states that medical science cannot explain the healing, happens to be a Nobel-laureate. The Church will show extreme carefulness, because in doing so it simply cares for that supernatural vitality of hers of which miracles are the most palpable signs. One, however, needs not only a physical but also a spiritual sort of palpation, to detect those miracles.

References

1. V.E. Friedenwald, Jr. And C. Crossen, "Vascular Anastomosis," Scientific American, Science and Medicine, Volume 1, Number 4, September/October 1994, pp. 68-77.

2. Royal Oak, MI: Real View Books, 1994.

3. The circumstantial evidence that Lambertini was in fact that Vatican official, is given in the chapter on miracles in my forthcoming book, Means to Message: A Treatise on Truth (Grand Rapids, MI: Wm.B. Eerdmans, 1999).

St. Ignatius of Loyola, the founder of the Jesuit Order

St. Ignatius of Loyola

From the life of Saint Ignatius from his own words by Luis Gonzalez

Put inward experiences to the test to see if they come from God

Ignatius was passionately fond of reading worldly books of fiction and tales of knight-errantry. When he felt he was getting better, he asked for some of these books to pass the time. But no book of that sort could be found in the house; instead they gave him a life of Christ and a collection of the lives of saints written in Spanish.

By constantly reading these books he began to be attracted to what he found narrated there. Sometimes in the midst of his reading he would reflect on what he had read. Yet at other times he would dwell on many of the things which he had been accustomed to dwell on previously. But at this point our Lord came to his assistance, insuring that these thoughts were followed by others which arose from his current reading.

While reading the life of Christ our Lord or the lives of the saints, he would reflect and reason with himself: “What if I should do what Saint Francis or Saint Dominic did?” In this way he let his mind dwell on many thoughts; they lasted a while until other things took their place. Then those vain and worldly images would come into his mind and remain a long time. This sequence of thoughts persisted with him for a long time.

But there was a difference. When Ignatius reflected on worldly thoughts, he felt intense pleasure; but when he gave them up out of weariness, he felt dry and depressed. Yet when he thought of living the rigorous sort of life he knew the saints had lived, he not only experienced pleasure when he actually thought about it, but even after he dismissed these thoughts, he still experienced great joy. Yet he did not pay attention to this, nor did he appreciate it until one day, in a moment of insight, he began to marvel at the difference. Then he understood his experience: thoughts of one kind left him sad, the others full of joy. And this was the first time he applied a process of reasoning to his religious experience. Later on, when he began to formulate his spiritual exercises, he used this experience as an illustration to explain the doctrine he taught his disciples on the discernment of spirits.

Thursday, July 30, 2009

Catholic Scientist-Philosopher 4: PIERRE DUHEM

Pierre Duhem

Pierre Maurice Marie Duhem (10 June 186114 September 1916) was a French physicist, mathematician and philosopher of science, best known for his writings on the indeterminacy of experimental criteria and on scientific development in the Middle Ages. Duhem also made major contributions to the science of his day, particularly in the fields of hydrodynamics, elasticity, and thermodynamics.
Oresmes-Nicole, a Catholic philosopher scientist of the Middle Ages. Miniature of Nicole Oresmes Traité de l’espere, Bibliothèque Nationale, Paris, France, fonds français 565, fol. 1r.
***
HISTORY OF SCIENCE
Duhem is well known for his work on the history of science, which resulted in the ten volume Le système du monde: histoire des doctrines cosmologiques de Platon à Copernic (The System of World: A History Cosmological Doctrines from Plato to Copernicus).[5 Duhem, Pierre (1914). Le système du monde: histoire des doctrines cosmologiques de Platon à Copernic (The System of World: A History Cosmological Doctrines from Plato to Copernicus)] Unlike many former historians (e.g. Voltaire and Condorcet), who denigrated the Middle Ages, he endeavored to show that the Roman Catholic Church had helped foster Western science in one of its most fruitful periods. His work in this field was originally prompted by his research into the origins of statics, where he encountered the works of medieval mathematicians and philosophers such as John Buridan, Nicole Oresme and Roger Bacon, whose sophistication surprised him. He consequently came to regard them as the founders of modern science, having in his view anticipated many of the discoveries of Galileo Galilei and later thinkers. Duhem concluded that "the mechanics and physics of which modern times are justifiably proud to proceed, by an uninterrupted series of scarcely perceptible improvements, from doctrines professed in the heart of the medieval schools."[6. Duhem, Pierre. Les origines de la statique (The Origins of the Static). 1. Harvard University Press. pp. 38. ]
Cathedrale NOTRE DAME DE PARIS

LIFE AND WORKS [Cf. "Stanford Encyclopedia of Philosophy"]

Pierre Maurice Marie Duhem was born on June 10, 1861, in Paris, in a modest neighborhood on the Rue des Jeûneurs, near the Grands Boulevards, just South of Montmartre. His father, Pierre-Joseph Duhem, was of Flemish origin, the oldest child of a large family who lived in the French northern industrial city of Roubaix, near the Belgian border. After the death of his parents, Pierre-Joseph was forced to discontinue his studies with the Jesuits in order to provide for the family. He worked in the textile industry as a sales representative, but never abandoned his love of learning; it is said that, late in life, he was seen everywhere with the work of a Latin author under his arm. Pierre Duhem's mother, Marie-Alexandrine Fabre, descended on her mother's side from the Hubault-Delormes, a bourgeois family who had settled in Paris during the seventeenth century. Her father's family had originally come from the southern town of Cabesprine, near Carcasonne, and it was there, in a house they still maintained and to which Pierre returned most summers, that he died on September 14, 1916.

The Duhems made sure that Pierre was well educated. Starting at the age of seven he was given private lessons with a small group of students, on grammar, arithmetic, Latin, and catechism. A letter he wrote about the siege of Chateaudun he experienced in October 1870 attests to his being already a literate writer by the age of nine. The young Duhem was witness to some troubling times, with the Franco-Prussian War raging until the armistice in February 1871 and the Paris Commune in March. The Duhems had avoided the advance of the Prussians against Paris but were caught up in the siege of Chateaudun; they barely escaped to Bordeaux, returning to Paris after the armistice and just before the Paris Commune. That social experiment lasted only two months, though it set the stage for some wide-ranging transformations to French culture that were to have great consequences when they were later established permanently. Among the Commune's decrees were the separation of church from state, the rendering of all church property into public property, and the exclusion of religion from schools. The Duhems did not approve of these measures and were particularly chagrined by some of the extreme actions taken by the most radical elements of the Commune, such as the desecration of churches and graveyards. For the Duhems, the Commune was a paradigm of anarchy and irreligion.

The Fall of 1872 brought two great tragedies to the Duhem family: a diphtheria epidemic killed Pierre's younger sister Antoinette and his recently born brother Jean, leaving only Pierre and Antoinette's twin sister Marie. Pierre continued his education (as demi-pensionnaire) at a Catholic school, the Collège Stanislas in Paris, in 1872 and for the next ten years. The mature Duhem recalled his college days as most formative. In particular, he singled out his science teacher as an important influence:

Let us return to some twenty-five years back to the time when we received our first initiation as a physicist in the mathematics classes of the Collège Stanislas. The person who gave us this initiation, Jules Moutier, was an ingenious theorist; his critical sense, ever aware and extremely perspicacious, distinguished with sure accuracy the weak point of many a system that others accepted without dispute; proofs of his inquiring mind are not lacking, and physical chemistry owes him one of its most important laws. It was this teacher who planted in us our admiration for physical theory and the desire to contribute to its progress. … Being a disciple of Moutier, it was as a convinced partisan of mechanism that we approached the courses in physics pursued at the Ecole Normale. (1914, 417-18; 1954, 275-76.)
Duhem's science teacher Jules Moutier went on to teach at the Ecole Polytechnique and to publish a number of texts, including La thermodynamique et ses principales applications (Paris: Gauthier-Villars, 1885). Duhem recognized in his theory of chemical dissociation and in his thermodynamics generally a first enunciation of the chemical theories that Josiah Willard Gibbs, an important later influence on Duhem, was to develop more fully.

In 1882 Duhem enrolled at the prestigious secular institution of higher education, the Ecole Normale Supérieure. When he entered the Ecole Normale he was first in his class in the Science Section, out of the approximately 30 students chosen from the best 800 or so graduates in France that year, and he remained first throughout his years there. The curriculum at the Ecole Normale usually lasted three years; Duhem was granted a fourth year and stayed on a fifth year as agrégé préparateur. He received a license in mathematics and another in physics at the end of academic year 1883-84. In his final year, Duhem was offered a position in Louis Pasteur's laboratory as a chemist-bacteriologist, though he refused it because of his desire to work in theoretical physics.

One of the turning points in Duhem's career occurred during academic year 1884-85, while he was only a third-year student. Duhem presented a thesis in physics for his doctorate. The thesis, on thermodynamic potential, Le potentiel thermodynamique et ses applications à la mécanique chimique et à l'étude des phénomènes électriques, was rejected by a panel composed of three scholars: the physicist Gabriel Lippmann and the mathematicians Charles Hermite and Emile Picard. The panel, chaired by Lippmann, seems to have made a political decision. The prestigious French scientific publisher, Hermann, published a version of the thesis the following year. Duhem defended another thesis in applied mathematics, on the theory of magnetization by induction, Sur l'aimantation par influence, and received his doctorate in October 1888; this time, the physicist Edmond Bouty, the mathematician Gaston Darboux, and the mathematician-physicist Henri Poincaré constituted the panel that accepted the dissertation. It would be difficult to understand fully these events without delving deeply into the social, cultural, and intellectual context of France at the end of the nineteenth century. At a time when French scientists were predominantly liberal and anti-clerical, Duhem was openly conservative and deeply religious; he was also stubborn and often contentious. The structure of French academia was surely also a factor in the affair. However, the specific motives generally cited in the case were Lipmann's “jealousy” and the fact that Duhem's thesis refuted the principle of maximum work: that chemical changes tend spontaneously to produce maximum heat. It was one of the cherished theses of Marcelin Berthelot, Lippmann's friend and a significant power in the French scientific establishment. It was reported that Berthelot had said: “This young man will never teach in Paris.” Berthelot's edict came true. Duhem spent his academic career in provincial universities far from Paris, the center of academic life in France. His teaching positions brought him from Lille, then briefly to Rennes, then to Bordeaux for the remainder of his life, but never to Paris.

Duhem assumed the position of Maitre de Conférences at the Faculté des Sciences at Lille in October 1887. There he met Adèle Chayet, whom he married in October 1890. Their daughter Hélène was born in September 1891. Tragically, Adèle died in childbirth the following summer; the newborn child also did not survive. Duhem never remarried. He left the upbringing of Hélène to his mother who lived with him after his father Pierre-Joseph died. The situation in Lille soured for Duhem. Never one to back off from a dispute, he fought with the Dean of his faculty over a minor issue: an assistant had failed to unlock the door of Duhem's laboratory for his students during their licentiate examinations. The assistant complained about his mistreatment by Duhem to the Dean, who requested that the assistant write a letter of apology; Duhem rejected the apology and took issue with the Dean, who then brought the matter to the Rector, adding further complaints against Duhem. The minor issue having escalated to immense proportions, Duhem requested and received a change of positions at the end of academic year 1893. During these formative years, Duhem worked very hard on his science. He published six books: a two-volume work on hydrodynamics, elasticity, and acoustics, his lectures on electricity and magnetism, in three volumes, and an introduction to physical chemistry. Duhem was one of the first to appreciate the work of W. J. Gibbs, writing the earliest critical examination of Gibbs' “On the Equilibrium of Heterogeneous Substances” in 1887 and later promoting the French translation of Gibbs' works (Duhem 1907).

In October 1893, Duhem left Lille for Rennes. He lasted only one year, leaving for Bordeaux in October 1894. He was hoping for a position in Paris. The prodigious quantity and quality of his publications in many fields of science, the philosophy of science, and the history of science were not able to change his situation. Very late in life, he was approached about the newly created chair in the History of Science at the Collège de France, but he refused to be a candidate for it. The proud and stubborn Duhem told his daughter: “I am a theoretical physicist. Either I will teach theoretical physics at Paris or else I will not go there.”

Duhem's curriculum vitae, written in 1913, on the occasion of his nomination as non-resident member of the Académie des Sciences (1917, 41-70), lists over 350 items, about 50 of which were books. From the mid-1880s to 1900, Duhem's primary interests were scientific, ranging from thermodynamics and physics, but publishing on elasticity and energetics as late as 1911. In the 1890s, while still at Lille, he began writing essays on questions of methodology that would lead to the publication of his most influential books in the philosophy of science, translated into English as The Aim and Structure of Physical Theory and To Save the Phenomena. It was also in the mid-1890s that Duhem published his first essays in the history of science, starting on the path that would lead him in 1904 to a new understanding of the history of science and to his thesis of continuity between medieval and early modern science. This path would culminate in such important historical works as Études sur Léonard de Vinci and Le système du monde.

Duhem made a number of enduring contributions to thermodynamics and physical chemistry. Among these were the Duhem–Margules and Gibbs–Duhem equations, which deal with reversible processes in thermodynamics as quasi-static limiting processes and give a general proof of the Gibbs phase rule. These results were obtained in the context of a program of generalized thermodynamics called “energetics.” Indeed, Duhem's entire scientific program was driven by the conviction that a generalized thermodynamics should be foundational for physical theory, thinking that all of chemistry and physics, including mechanics, electricity and magnetism, should be derivable from thermodynamic first principles. Duhem started from the concept of the thermodynamic potential (the topic of his failed thesis), deploying it in a manner similar to that of potentials in mechanics, so as to represent all physical and chemical changes. The program finds its mature statement in his Traité d'énergétique of 1911; it was well received by late-nineteenth-century energeticists, such as Wilhelm Ostwald and Georg Helm. So important was energetics for Duhem, that his work in the history and philosophy of science has been viewed as an attempt to defend its aims and methods (see Lowinger 1941). More recently, Niall Martin and others have argued for the importance of religious motives in Duhem's work (see Martin 1991, Jaki 1991) and it has become clear in the course of Duhem's writings that he expected the endpoint of science to harmonize with the teachings of the Catholic Church.

Whatever was Duhem's initial motivation, his historical and philosophical work took on a life of its own. One cannot read Duhem's numerous historical and philosophical tomes and think that his labor was only in the service of energetics and that the sole goal of his works was but a defense of its methods and its historical position. No doubt energetics might be a thread running through Duhem's various works, and no doubt these works harmonize with the method of energetics as he conceives it, but energetics cannot be the whole story.

Catholic Scientist-Philosopher 3: RENE DESCARTES - Mathematician, Scientist and Philosopher, 'The Father of Modern Philosophy'

Young Rene Descartes

Descartes: "Descartes was a French mathematician, scientist and philosopher who has been called the father of modern philosophy. His school studies made him dissatisfied with previous philosophy: He had a deep religious faith as a Catholic, which he retained to his dying day, along with a resolute, passionate desire to discover the truth. At the age of 24 he had a dream, and felt the vocational call to seek to bring knowledge together in one system of thought. His system began by asking what could be known if all else were doubted - suggesting the famous 'I think therefore I am'. Actually, it is often forgotten that the next step for Descartes was to establish the near certainty of the existence of God - for only if God both exists and would not want us to be deceived by our experiences can we trust our senses and logical thought processes. God is, therefore, central to his whole philosophy. What he really wanted was to see his philosophy adopted as standard Catholic teaching. Rene Descartes and Francis Bacon (1561-1626) are generally regarded as the key figures in the development of scientific methodology. Both had systems in which God was important, and both seem more devout than the average for their era." [Source: http://astro.estec.esa.nl/SA-general/Projects/Planck/mplanck/mplanck.html].

From: Rich Deem, "Famous Scientists Who Believed in God", last modified 19 May 2005, on "Evidence for God from Science" website (http://www.godandscience.org/apologetics/sciencefaith.html; viewed 5 October 2005):

Descartes was a French mathematician, scientist and philosopher who has been called the father of modern philosophy. His school studies made him dissatisfied with previous philosophy: He had a deep religious faith as a Catholic, which he retained to his dying day, along with a resolute, passionate desire to discover the truth. At the age of 24 he had a dream, and felt the vocational call to seek to bring knowledge together in one system of thought. His system began by asking what could be known if all else were doubted - suggesting the famous "I think therefore I am". Actually, it is often forgotten that the next step for Descartes was to establish the near certainty of the existence of God - for only if God both exists and would not want us to be deceived by our experiences can we trust our senses and logical thought processes. God is, therefore, central to his whole philosophy. What he really wanted was to see his philosophy adopted as standard Catholic teaching. Rene Descartes and Francis Bacon (1561-1626) are generally regarded as the key figures in the development of scientific methodology. Both had systems in which God was important, and both seem more devout than the average for their era.

[Sources:] S. Gaukroger, Descartes, an Intellectual Biography (1995), M. R. Keith, Rene Descartes: The Story of the Soul (1987)

Catholic Scientist 2: ANTOINE-LAURENT LAVOISIER - The Father of Modern Chemistry

The Religious Affiliation of Chemist, Economist, Philosopher
Antoine Laurent Lavoisier
His biographer, the first to read his papers wrote of him: "Raised in a pious family which had given many priests to the Church, he had held to his beliefs. To Edward King, an English author who had sent him a controversial work, he wrote, 'You have done a noble thing in upholding revelation and the authenticity of the Holy Scriptures, and it is remarkable that you are using for the defence precisely the same weapons which were once used for the attack.'" [Source: http://www.csn.net/advent/cathen/09052a.htm].
From
BIOGRAPHY FROM CATHOLIC ENCYCLOPEDIA 1913
Chemist, philosopher, economist; born in Paris, 26 August, 1743; guillotined 8 May, 1794. He was the son of Jean-Antoine Lavoisier, a lawyer of distinction, and Emilie Punctis, who belonged to a rich and influential family, and who died when Antoine-Laurent was five years old. His early years were most carefully guarded by his aunt, Mlle Constance Punctis, to whom he was devotedly attached; and through her assistance he was secured the advantage of a good education. He attended the College Mazarin, which was noted for its faculty of science, and here he studied mathematics and astronomy under Abbé de la Caille, who had built an observatory at the college after having won renown by measuring an arc of the meridian at the Cape of Good Hope, by determining the length of the second's pendulum, and by his catalogue of the stars. Young Lavoisier also received instruction from Bernard de Jussieu in botany, from Guettard in geology and mineralogy, and from Rouelle in chemistry. In logic he was influenced by the writings of Abbé de Condillac, as he frequently acknowledges in his "Traité Elementaire de Chimi." He began his career by entering the profession of the law, but soon abandoned this to return to his favourite studies of chemistry and mineralogy. His first scientific communication to the Academy was upon the composition and properties of gypsum and plaster of Paris, and this is to-day a classic and a valuable contribution to our knowledge of crystallizing cements. He early learned to look to the balance for help in the definition of facts, and found its great value particularly when he began to study the phenomena we now know under the terms combustion or oxidation, and reduction or deoxidation.

The most advanced chemical philosophers of his day taught that there was something in every combustible substance which was driven out by the burning, that the reduction of an oxide of a metal to the metallic state meant the absorption of this substance or principle, which Stahl had called phlogiston. Lavoisier studied the teaching of the phlogistonists, but having also a mastery of physics and of pneumatic experimentation he became dissatisfied with their theory. He seized upon two important discoveries, that of oxygen by Priestley (1774), and that of the compound nature of water by Cavendish (1781) and by a masterly stroke of genius reconciled discordant appearances and threw the light of day upon every phase of the world's reacting elements. His theory, for a long time thereafter known as the antiphlogists' theory, was really the reverse of that of the phlogistonists, and was simply that something ponderable was absorbed when combustion took place; that it was obtained from the surrounding air; that the increase in the weight of a metallic substance when burned was equal to the decrease in the weight of the air used; that most substances thus burning were converted into acids, or metals into metallic oxides. Priestly had called this absorbed substance or gas dephlogisticated air; Scheele called it empyreal air; Lavoisier "air strictly pure" or "very respirable air" as distinct from the other and non-respirable constituent of the atmosphere. Later, he called it oxygen because it was acid-making (oxys, and geinomai).

So great a change ensued in experimental chemistry, and in theory and nomenclature, and such a mass of facts was co-ordinated and explained by Lavoisier that he has been justly called "the father of modern chemistry." He was the first to explain definitely, the formation of acids and salts, to enunciate the principle of conservation as set forth by chemical equations, to develop quantitative analysis, gas analysis, and calorimetry, and to create a consistent system of chemical nomenclature. He made deep researches in organic chemistry, and studied the metabolism of organic compounds. His memoirs and contributions to the Academiy were of extraordinary number and variety. His life in other fields was romantic, full of interest and a social triumph, but sadly destined to end in tragedy. Happily married, and having the aid of his wife even to the extent of employing her in the prosecution and recording of his experiments, he drew around his fireside and to his library at the State Gunpowder Works a circle of brilliant French savants and distinguished travellers from other lands. Early in his career he felt the need of increasing his resources to meet the necessities caused by his scientific experiments. With this in view he became a deputy fermier-général, whereby his income was much increased. But joining this association of State-protected tax-collectors only prepared the way for many years of bitter attack and a share of the public odium attaching to their privilege. He headed many public commissions requiring scientific investigation, he aimed at bringing France to such a state of agricultural and industrial expansion that the peasant and the working-man would have profitable employment and the small landed proprietor relief from the burdensome taxes hitherto purposely increased to make grants to corrupt favourites of the Court. Having incurred the hatred of Marat he found himself, together with his fellow fermiers-général, growing more and more unpopular during the terrible days of the Revolution. Finally in 1794 he was imprisoned with twenty-seven others. A farcical trial speedily followed, in which he was charged with "incivism" in that he had damaged public health by adding water to tobacco. He and his companions, amongst them Jacques Alexis Paulze, his father-in-law, were condemned to death. Lavoisier, who was devotedly attached to him, was obliged to stand and see M. Paulze's head fall under the guillotine, 8 May, 1794. Lavoisier was then 51 years old. His biographers say little as to his last hours. Grimaux relates that all the condemned men were silent and carried themselves with dignity and courage in the face of death. What Lavoisier's sentiments were can be assumed from a passage in Grimaux (p. 53) who had been the first biographer to obtain access to Lavoiosier's papers.

Raised in a pious family which had given many priests to the Church, he had held to his beliefs. To Edward King, an English author who had sent him a controversial work, he wrote, 'You have done a noble thing in upholding revelation and the authenticity of the Holy Scriptures, and it is remarkable that you are using for the defence precisely the same weapons which were once used for the attack.'

His goods and chattels and all his scientific instruments were listed and appropriated on the day following his execution, though Mme Lavoisier succeeded in having some restored to her. She was childless and long survived him.
***
THORPE in Contempory Review, Antonine Laurent Lavoisier (Dec., 1890); GRIMAUX, Lavoisier 1743-1794 (Paris, 1888); THORPE, Priestly, Cavendish, Lavoisier and La Revolution Chimique in Brit. Assoc. Address (Leeds, 1890); BERTHELOT, La Revolution Chimique (Paris, 1890); KOPP, Entdeckung der Chemie in der neueren Zeit (1874); HOFER, Histoire de la Chimie, II, 490; VON MEYER, Geschichte der Chemie (Leipzig, 1888); LAVOISIER, Memoires de Chimie (1805); Euvres de Lavoisier, published by the Ministry of Public Instruction (Paris, 1864-8); DUMAS, Lecons sur la Philosophie Chimique.

C.F. MCKENNA
***
SHORT DESCRIPTION OF ACHIEVEMENTS FROM WIKIPEDIA:
Antoine-Laurent de Lavoisier (26 August 1743 – 8 May 1794; French pronunciation: [ɑ̃ˈtwan lɔˈʁɑ̃ də la.vwaˈzje]), the father of modern chemistry,[1] was a French noble prominent in the histories of chemistry and biology. He stated the first version of the law of conservation of mass,[2] recognized and named oxygen (1778) and hydrogen (1783), abolished the phlogiston theory, helped construct the metric system, wrote the first extensive list of elements, and helped to reform chemical nomenclature. He discovered that, although matter may change its form or shape, its mass always remains the same. Thus, for instance, if water is heated to steam, if salt is dissolved in water or if a piece of wood is burned to ashes, the total mass remains unchanged. He was also an investor and administrator of the "Ferme Générale" a private tax collection company; chairman of the board of the Discount Bank (later the Banque de France); and a powerful member of a number of other aristocratic administrative councils. All of these political and economic activities enabled him to fund his scientific research. At the height of the French Revolution he was accused by Marat of selling watered-down tobacco, and of other crimes, and was beheaded.