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A Monadic Calculus with Episodic Flows

Sotirios Henning

TL;DR

This work builds a monadic-style calculus based on episodic flows, introducing the episodic category $Ep$ and the matrix-like episodic flow category $Φ$ to model computation as nested actions. It develops encodings for numbers, arithmetic, formal logic, typing, and invariants within process lattices, and introduces an information-theoretic notion of episodic entropy to analyze data mutation and memory lifetimes. By treating flows as mathematical objects whose inspection yields results, the framework provides a principled method to reason about success/failure of computations and the reproduction of data structures. The approach promises a quantitative, mutation-aware foundation for reasoning about data encoding, memory behavior, and information-theoretic aspects of computation within a unified categorical setting.

Abstract

We define computational atoms named "actions" equipped primarily with three operations: reduction, collection, and inspection. We show how actions can be used for decision-making algorithms from simple axioms. We describe the encodings of typical data structures as actions, and provide a method of analysis for algorithms on the basis of data mutation.

A Monadic Calculus with Episodic Flows

TL;DR

This work builds a monadic-style calculus based on episodic flows, introducing the episodic category and the matrix-like episodic flow category to model computation as nested actions. It develops encodings for numbers, arithmetic, formal logic, typing, and invariants within process lattices, and introduces an information-theoretic notion of episodic entropy to analyze data mutation and memory lifetimes. By treating flows as mathematical objects whose inspection yields results, the framework provides a principled method to reason about success/failure of computations and the reproduction of data structures. The approach promises a quantitative, mutation-aware foundation for reasoning about data encoding, memory behavior, and information-theoretic aspects of computation within a unified categorical setting.

Abstract

We define computational atoms named "actions" equipped primarily with three operations: reduction, collection, and inspection. We show how actions can be used for decision-making algorithms from simple axioms. We describe the encodings of typical data structures as actions, and provide a method of analysis for algorithms on the basis of data mutation.

Paper Structure

This paper contains 9 sections, 5 theorems, 16 equations.

Key Result

Proposition 1.1

A reducible subcategory of $\mathbf{Cat}$, $\mathcal{E}$, whose each flow $\varphi$ is a category with the following structure, is an episodic flow category if each $\varphi_{pq}\in\mathcal{E}$.

Theorems & Definitions (50)

  • Definition 1.1
  • Remark
  • Definition 1.2
  • Definition 1.3
  • Definition 1.4
  • Definition 1.5
  • Remark
  • Definition 1.6
  • Remark
  • Definition 1.7
  • ...and 40 more