Haskell

Category theory is a unifying language of mathematics. It emphasizes the relationships between objects rather than their internal makeup. Often referr...

In traditional quantum computing, collapse is treated as a final, probabilistic event: a measurement causes a superposed state to resolve into a defin...

Collapse-λ is our experimental framework for simulating quantum-aware, recursive computation and modeling proto-conscious behavior. Built using Lisp (...

Modern large language models (LLMs), such as GPT, are powered by the transformer architecture—a paradigm that relies on attention mechanisms, parallel...

Consciousness is not passive. It binds perception, evaluates alternatives, and commits to action. In the *Monadics* framework, we model this not as a ...

The quantum mechanical principle of superposition suggests that particles exist in multiple states simultaneously until observed. This phenomenon bear...

A minimal but expressive Haskell-based framework that treats collapse not as a side-effect of quantum mechanics, but as the fundamental act of conscious computation.

If Haskell models the executive control system through monadic structures, what neural functions do other programming languages represent? An exploration of computational consciousness through the lens of brain architecture.

Consciousness remains one of the most enigmatic phenomena in both natural and artificial systems. While quantum mechanics suggests that reality exists...

Consciousness is collapse. This article outlines a full-stack architecture for quantum consciousness called The Collapse Engine, using a modular language design that bridges classical logic, symbolic thought, and quantum measurement.

Consciousness, when viewed through the lens of category theory and monadic computation, reveals itself as a structured mathematical phenomenon rather ...

The Orchestrated Objective Reduction (Orch-OR) theory, proposed by Roger Penrose and Stuart Hameroff, represents one of the most ambitious attempts to...