
Explore global optimization techniques for cardinality-constrained minimum sum-of-squares clustering using semidefinite programming, focusing on exact algorithms and state-of-the-art approaches.

Explore the relationship between optimization landscapes in parametrized problems. Gain insights into applications like low-rank matrix optimization, semidefinite programming, and neural network training.

Efficient algorithm for approximating maximum graph cuts using semidefinite programming and randomized rounding, with guaranteed performance ratio of 0.878.

Explore SDP relaxation for Max-Cut, transforming a quadratic program into a semidefinite program solvable by the Ellipsoid Algorithm. Part of CMU's graduate-level CS Theory Toolkit course.

Comprehensive exploration of modular forms, covering definitions, properties, and applications. Delves into Eisenstein series, theta functions, and related mathematical concepts for advanced learners in number theory.

Explore advanced techniques in semidefinite programming for combinatorial optimization, focusing on fast and differentiable methods presented by Carnegie Mellon expert Zico Kolter.

Explore the prevalence and implications of exponential size solutions in semidefinite programming, their impact on feasibility determination, and strategies for efficient representation.

Explore sensor network localization techniques using noisy distance measurements, including EDM problems, semidefinite programming, and nonlinear least-squares optimization for accurate node positioning.

Explores partial matrices, completions, and distance matrices, focusing on characterizing patterns for distance completable partial matrices and their geometric implications.

Explore innovative approaches to solving turbulence in fluid dynamics using auxiliary functionals and sum-of-squares polynomial optimization, with applications to Kuramoto-Sivashinsky and Navier-Stokes equations.

Explore linear programming in coding theory, including MRRW and Levenshtein bounds, spherical codes, and connections to combinatorial objects. Discover recent advances in equiangular lines and energy bounds.

Explore sparsity exploitation techniques in polynomial optimization, focusing on advanced mathematical concepts and practical applications.

Explore entanglement limits in highly symmetric quantum states on complete graphs, using semidefinite programming and representation theory to solve long-standing problems.

Explore advanced quantum physics through SU(2)-symmetric semidefinite programming hierarchies, focusing on Quantum Max Cut problem and its applications in approximating extremal energy states of local Hamiltonians.

Explores explicit CSPs hard for Sum-of-Squares hierarchy using small-set high dimensional expanders, introducing new isoperimetric inequality for Square Cayley Complexes to construct optimally hard XOR-families.

Explore quantum algorithms for optimization, including discrete and continuous problems, with insights on potential speedups and limitations in quantum computing applications.

Explore a novel quantum algorithm for many-body systems, comparing it to existing methods and demonstrating its advantages in molecular simulations and quantum computing applications.

Explore robust regression techniques for learning and estimation in algorithms and optimization, focusing on practical applications and theoretical foundations.

Explores semidefinite programming for quantum correlations, improving approximation algorithms for two-player free games with quantum assistance using entropy inequalities and de Finetti theorems.

Explore neural set function extensions for integrating discrete functions into neural networks, focusing on continuous domain extensions and high-dimensional representations for combinatorial optimization.

Explore optimal point arrangements in projective spaces, surveying current research and open problems in this fundamental area of metric geometry with applications in digital communication.