The Prime Number Theorem: From Euclid to Hadamard & de la VallΓ©e Poussin
Traces the historical and analytical journey proving that Ο(x) ~ x/log x, exploring Chebyshev's estimates, Riemann's memoir, and the pivotal role of complex analysis.
A branch of mathematics that uses methods from mathematical analysis to solve problems about the integers and prime numbers. It bridges abstract algebra, complex analysis, and asymptotic methods to uncover the hidden structure of the number system.
A comprehensive survey of the critical line conjecture, its connections to prime distribution, random matrix theory, and recent breakthroughs by Soundararajan, Bui, and others.
Traces the historical and analytical journey proving that Ο(x) ~ x/log x, exploring Chebyshev's estimates, Riemann's memoir, and the pivotal role of complex analysis.
How Dirichlet characters and L-series revolutionized number theory, guaranteeing infinitely many primes in any progression a mod q with gcd(a,q)=1.
A deep dive into combinatorial sieves, upper and lower bound techniques, and their applications to twin primes and Goldbach-type problems.
Understanding the major/minor arc decomposition, Weyl differencing, and how analytic techniques solve additive partition problems.
The profound link between modular forms, elliptic curves, and L-functions, culminating in the Langlands program and Fermat's Last Theorem.
How Vinogradov, Korobov, and later researchers refined zero-free regions to produce sharp error bounds in prime counting functions.