
Explore type-theoretic concepts for describing and proving properties of quantum computations, focusing on quantum circuits using Coq's dependent and polymorphic types.

Explore innovative binding syntax for dependently-typed programs, enhancing ergonomics while maintaining fixed grammar for improved error messaging.

Explore efficient evaluation techniques in polymorphic and dependently typed languages, focusing on controlled definition unfolding for improved user interaction and unification processes.

Explore practical applications of dependently typed programming in Idris, focusing on everyday software correctness without complex proofs. Suitable for those familiar with algebraic data types and FP functions.

Explore System DE, a calculus for dependently-typed programming with equality reflection. Learn about termination tracking, inductive proofs, and performance-safety trade-offs in functional languages.

Explore a graded modal type theory with dependent types, erasure, and formalized meta-theoretic properties. Delve into its universe, extraction function, and soundness proofs for open programs.

Explore an extensive mechanization of Martin-Löf Type Theory in Coq, covering decidability of conversion and type checking, with a certified executable type checker for MLTT.

Dive deep into advanced Scala techniques, exploring type-level programming for powerful compile-time computations and fine-grained type control.

Explore a type-theoretic framework for certified meta-programming, delving into advanced concepts and techniques in programming language theory and formal verification.

Explore the formalization of Lean's type theory with Mario Carneiro, delving into advanced concepts and techniques for theorem proving and mathematical reasoning.

Explore GHC's latest developments, including quality-of-life improvements, WebAssembly support, dependent types, and linear types in this comprehensive status report.