
Explore how mathematics can design our universe, from numbers to multidimensional concepts. Discover the progression of ideas that shape existence, including geometry, algebra, infinity, and relativity.

Explore extraordinary numbers in physics with Tony Padilla, uncovering fundamental truths about black holes, holographic reality, and the cosmological constant through unusually big, small, and infinite numbers.

Explore the most compelling proof of e's irrationality in this engaging mathematical demonstration, offering clear insights into this fundamental concept.

Explores Manin's conjecture on rational points in Fano varieties, focusing on exceptional sets and their impact on moduli spaces of sections in Fano fibrations, particularly del Pezzo fibrations.

Exploration of Arakelov self-intersection numbers on modular curves, examining their geometric and arithmetic properties in the context of rational points and arithmetic geometry.

Exploration of local constancy in mod p Galois representations, focusing on theoretical aspects and implications for arithmetic geometry and modular curves.

Explore Iwasawa theory for fine Selmer groups of elliptic curves over anticyclotomic extensions, delving into advanced arithmetic geometry concepts and their applications.

Explore the Galois module structure of p^s-th power classes in fields, delving into advanced number theory concepts and their applications in algebraic structures.

Experience an Oxford University mathematics admissions interview as Dr Tom Crawford tackles challenging questions, offering insights into the interview process and problem-solving techniques.

Exploration of Darmon's approach to solving generalized Fermat equations, focusing on signature (r,r,p). Discusses theoretical foundations and computational techniques in arithmetic geometry.

Explore a local-global principle for quadratic twists of abelian varieties in this advanced mathematics lecture, delving into arithmetic geometry and number theory concepts.

Explore the Explicit Motivic Chabauty-Kim Method for studying rational points on modular curves, combining advanced arithmetic geometry with computational techniques.

Explore techniques for computing local Galois representations modulo 2, focusing on arithmetic geometry and modular curves. Gain insights into advanced mathematical concepts and their applications.

Explore Eisenstein cycles and Manin-Drinfeld properties in modular curves, focusing on rational points and their significance in arithmetic geometry. Gain insights from expert Debargha Banerjee.

Explore solutions to specific Diophantine equations over totally real fields, delving into advanced number theory and algebraic geometry concepts.

Exploration of bipartite Euler systems for specific Galois representations, discussing advanced concepts in arithmetic geometry and number theory.

Explore advanced techniques for studying rational points on modular curves, focusing on quadratic Chabauty methods and nonsplit Cartan modular curves in arithmetic geometry.

Explore advanced techniques for studying rational points on modular curves, focusing on geometry, Q-rational points, Chabauty methods, and computational aspects in arithmetic geometry.

Explore advanced techniques for studying rational points on modular curves, focusing on geometry, Q-rational points, Chabauty methods, and computational aspects in arithmetic geometry.

Explore advanced techniques in arithmetic geometry: Classical and Quadratic Chabauty methods for studying rational points on modular curves, with applications to elliptic curves.

Explore the connection between Iwasawa lambda invariants and Massey products in number theory, delving into advanced mathematical concepts and their applications.