Andre Weil Net Worth

Andre Weil was a French mathematician born in 1906 in Paris, France. He was a child prodigy and was drawn to mathematics from a young age, and his family supported his interest. He made significant contributions to a wide range of mathematical subjects, including algebra, number theory, algebraic geometry, differential geometry, topology, Lie groups and Lie algebras. His most important achievement was the discovery of profound connections between algebraic geometry and the number theory. He was also a gifted linguist and had a deep respect for all religions, particularly Hinduism. He served as a professor of mathematics in numerous universities around the world and is considered one of the most influential mathematicians of the 20th century.
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Age, Biography and Wiki

Who is it? Mathematician
Birth Day May 06, 1906
Birth Place Paris, France, French
Age 114 YEARS OLD
Died On 6 August 1998(1998-08-06) (aged 92)\nPrinceton, New Jersey, U.S.
Birth Sign Gemini
Alma mater University of Paris École Normale Supérieure Aligarh Muslim University
Known for Contributions in number theory, algebraic geometry
Awards Wolf Prize in Mathematics (1979) Leroy P. Steele Prize (1980) Barnard Medal for Meritorious Service to Science (1980) Kyoto Prize (1994) ForMemRS (1966)
Fields Mathematics
Institutions Aligarh Muslim University (1930–32) Lehigh University Universidade de São Paulo (1945–47) University of Chicago (1947–58) Institute for Advanced Study
Doctoral advisor Jacques Hadamard Charles Émile Picard
Doctoral students Pierre Cartier Harley Flanders William A. Howard Teruhisa Matsusaka Peter Swinnerton-Dyer

💰 Net worth

Andre Weil, renowned as a French mathematician, is projected to have a net worth ranging between $100,000 and $1 million by the year 2024. Widely recognized for his significant contributions to the field of mathematics, Weil's work has left an indelible mark on various mathematical disciplines. With his pioneering discoveries and profound insights, Andre Weil has not only achieved remarkable success but has also garnered considerable wealth over the years. As an influential figure in the world of mathematics, his impact extends beyond his financial achievements and continues to shape the field to this day.

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Biography/Timeline

1870

André Weil was born in Paris to agnostic Alsatian Jewish parents who fled the annexation of Alsace-Lorraine by the German Empire after the Franco-Prussian War in 1870–71. The famous Philosopher Simone Weil was Weil's only sibling. He studied in Paris, Rome and Göttingen and received his doctorate in 1928. While in Germany, Weil befriended Carl Ludwig Siegel. Starting in 1930, he spent two academic years at Aligarh Muslim University. Aside from mathematics, Weil held lifelong interests in classical Greek and Latin literature, in Hinduism and Sanskrit literature: he taught himself Sanskrit in 1920. After teaching for one year in Aix-Marseille University, he taught for six years in Strasbourg. He married Éveline in 1937.

1930

Weil introduced the adele ring in the late 1930s, following Claude Chevalley's lead with the ideles, and gave a proof of the Riemann–Roch theorem with them (a version appeared in his Basic Number Theory in 1967). His 'matrix divisor' (vector bundle avant la lettre) Riemann–Roch theorem from 1938 was a very early anticipation of later ideas such as moduli spaces of bundles. The Weil conjecture on Tamagawa numbers proved resistant for many years. Eventually the adelic approach became basic in automorphic representation theory. He picked up another credited Weil conjecture, around 1967, which later under pressure from Serge Lang (resp. of Serre) became known as the Taniyama–Shimura conjecture (resp. Taniyama–Weil conjecture) based on a roughly formulated question of Taniyama at the 1955 Nikkō conference. His attitude towards conjectures was that one should not dignify a guess as a conjecture lightly, and in the Taniyama case, the evidence was only there after extensive computational work carried out from the late 1960s.

1940

Other significant results were on Pontryagin duality and differential geometry. He introduced the concept of a uniform space in general topology, as a by-product of his collaboration with Nicolas Bourbaki (of which he was a Founding Father). His work on sheaf theory hardly appears in his published papers, but correspondence with Henri Cartan in the late 1940s, and reprinted in his collected papers, proved most influential.

1941

In January 1941, Weil and his family sailed from Marseille to New York. He spent the remainder of the war in the United States, where he was supported by the Rockefeller Foundation and the Guggenheim Foundation. For two years, he taught undergraduate mathematics at Lehigh University, where he was unappreciated, overworked and poorly paid, although he didn't have to worry about being drafted, unlike his American students. But, he hated Lehigh very much for their heavy teaching workload and he swore that he would never talk about "Lehigh" any more. He quit the job at Lehigh, and then he moved to Brazil and taught at the Universidade de São Paulo from 1945 to 1947, where he worked with Oscar Zariski. He then returned to the United States and taught at the University of Chicago from 1947 to 1958, before moving to the Institute for Advanced Study, where he would spend the remainder of his career. He was a Plenary Speaker at the ICM in 1950 in Cambridge, Massachusetts, in 1954 in Amsterdam, and in 1978 in Helsinki. In 1979, Weil shared the second Wolf Prize in Mathematics with Jean Leray.

1966

He also wrote several books on the history of Number Theory. Weil was elected Foreign Member of the Royal Society (ForMemRS) in 1966.

2013

Weil made substantial contributions in a number of areas, the most important being his discovery of profound connections between algebraic geometry and number theory. This began in his doctoral work leading to the Mordell–Weil theorem (1928, and shortly applied in Siegel's theorem on integral points). Mordell's theorem had an ad hoc proof; Weil began the separation of the infinite descent argument into two types of structural approach, by means of height functions for sizing rational points, and by means of Galois cohomology, which would not be categorized as such for another two decades. Both aspects of Weil's work have steadily developed into substantial theories.