Mathematicians throughout history have grappled with Fermat's Last Theorem, a puzzle left behind by Pierre de Fermat in 1637. The podcast explores the challenges faced in proving this theorem, including the contributions of Andrew Wiles in finally solving the puzzle in 1995. From Pythagoras' theorem to advancements in exponent powers and unique factorization failure, the podcast delves into the fascinating world of mathematics and the interconnected realm of mathematical conjectures.
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Quick takeaways
Fermat's Last Theorem stumped mathematicians for centuries, eventually solved by Andrew Wiles in 1995.
Exploration of number theory and Diophantine equations led to advancements in solving Fermat's Last Theorem.
Deep dives
Fermat's Last Theorem and its Origins
Fermat's Last Theorem, originating from Pierre de Fermat's musings in the 17th century, sparked a mathematical quest enduring centuries. With roots in Pythagoras' theorem, it revolved around finding whole number solutions for equations like a^2 + b^2 = c^2. This journey led to the exploration of Diophantine equations by mathematicians like Diophantus, unraveling questions of whole number and fractional solutions.
Contributions of Sophie Germain
Sophie Germain, a self-taught French mathematician, made significant contributions to Fermat's Last Theorem by delving into number theory. She drew inspiration from Gauss's works and expanded on Fermat's conjecture regarding cubes, proving intricate connections between seemingly disparate mathematical concepts. Germain's tireless pursuit pushed the boundaries of mathematical exploration, paving the way for deeper insights into number properties.
Advancements Utilizing Elliptic Curves
The 20th century witnessed key advancements in understanding Fermat's Last Theorem, where mathematicians like Mordell and later Faltings delved into elliptic curves and modular forms. Mordell postulated finitely many solutions for equations like x^n + y^n = z^n, laying the groundwork for Faltings to demonstrate a profound link between elliptic curves and modular forms. This breakthrough marked a significant stride in elucidating the profound complexities of mathematical structures.
Andrew Wiles and the Definitive Proof
In a momentous turn of events, Andrew Wiles's meticulous effort culminated in a definitive proof of Fermat's Last Theorem in 1994 and 1995. Leveraging insights from prior mathematicians and the Taniyama-Shimura conjecture, Wiles intricately connected elliptic curves to modular forms, unveiling the elusive proof. His perseverance and groundbreaking work exemplified the amalgamation of mathematical disciplines, ultimately resolving a centuries-old mathematical enigma.
Melvyn Bragg and his guests discuss Fermat's Last Theorem. In 1637 the French mathematician Pierre de Fermat scribbled a note in the margin of one of his books. He claimed to have proved a remarkable property of numbers, but gave no clue as to how he'd gone about it. "I have found a wonderful demonstration of this proposition," he wrote, "which this margin is too narrow to contain". Fermat's theorem became one of the most iconic problems in mathematics and for centuries mathematicians struggled in vain to work out what his proof had been. In the 19th century the French Academy of Sciences twice offered prize money and a gold medal to the person who could discover Fermat's proof; but it was not until 1995 that the puzzle was finally solved by the British mathematician Andrew Wiles.
With:
Marcus du Sautoy
Professor of Mathematics & Simonyi Professor for the Public Understanding of Science at the University of Oxford
Vicky Neale
Fellow and Director of Studies in Mathematics at Murray Edwards College at the University of Cambridge
Samir Siksek
Professor at the Mathematics Institute at the University of Warwick.
Producer: Natalia Fernandez.
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