
Explore semantic models of probabilistic programming languages over graphs, connecting graphons to equational theories through Markov categories, measure-theoretic probability, and nominal sets.

Explore random walks on graphs to achieve better-than-1/2 approximation for max-cut on expanding and clusterable graphs, using sublinear time algorithms.

Explore efficient algorithms for graphlet sampling, including linear and sublinear preprocessing techniques, with applications to semi-streaming and MPC settings.

Explores a novel randomized algorithm for near-linear time graph edge coloring, improving on decades-old methods. Discusses implications for Vizing's theorem and dense graph coloring efficiency.

Efficient distributed algorithms for clustering high-dimensional data using Euclidean Minimum Spanning Tree, achieving constant factor approximation in O~(loglogn) rounds of MPC model.

Explore Reddit's implementation of a graph-based CMDB for cloud security governance, including visibility gains, implementation journey, and the power of centralized configuration data aggregation.

Explora cómo la teoría de grafos revoluciona la escalada de privilegios en Active Directory, revelando relaciones ocultas y optimizando tanto ataques como defensas en redes empresariales.

Explore the journey of creating origami software, from basic geometry to complex algorithms, with interactive visualizations and insights into mathematical foundations and user-friendly design.

Explore CypherDog 2.0, a tool bridging the gap between attacker mindsets and management metrics, enhancing cybersecurity strategies and decision-making processes.

Explore a graph-based platform for enhanced cybersecurity detection and response, covering node relationships, log analysis, and advanced investigation techniques.

Explore the theory of planar graphs and their bounded queue-number property, including history, extensions, and applications in graph theory.

Explore efficient parallel algorithms for graph connectivity, focusing on near-optimal solutions and innovative techniques for large-scale graph processing.

Explore expander graphs, their local and global properties, construction methods, and applications in this concise IEEE talk by experts in the field.

Explores computational complexity of clustering in Lp metrics, discussing approximation algorithms, hardness of approximation, and key concepts like Johnson Coverage Hypothesis.

Explore adjacency labelling for planar graphs, covering universal graphs, labeling schemes, and the Strong Graph Product. Learn about binary search trees and their applications in graph theory.

Explore graph isomorphism algorithms for graphs excluding small minors, covering decompositions, t-CR-bounded graphs, and quasipolynomial-time solutions in this advanced theoretical computer science talk.

Explore average-case complexity of counting cliques in Erdos-Renyi hypergraphs, covering proof techniques, random KQ accounting, and binary expansions.

Explore high-dimensional expanders and their role in approximating constraint satisfaction problems, with insights on natural collections and general expanders.

Explore efficient graph sampling techniques and unbalanced expanders, focusing on avoiding forbidden subgraphs and achieving negligible error rates in computational applications.

Explore tree-depth's impact on subgraph isomorphism complexity, examining special cases, formula complexity, and graph minor approximation in this theoretical computer science talk.

Explores advanced techniques for approximating graph crossing numbers, focusing on new frameworks and theorems for both general and bounded-degree graphs.