Why use the Janus language?

Janus is specifically designed for reversible computing, ensuring that every operation (like XOR-assignment) is invertible, which prevents information loss and allows the program to be run backwards automatically.

How does this skill assist with quantum programming?

Since quantum operations are inherently unitary and reversible, this skill provides the logical patterns required to design quantum-ready algorithms and reversible circuit architectures.

What is Bennett's trick?

Bennett's trick is a method used to make irreversible computations reversible by storing intermediate results, copying the final output, and then 'uncomputing' the intermediate steps to eliminate garbage data without releasing heat.

What is reversible computing?

Reversible computing is a model of computation where every process is time-reversible, meaning every state transition is bijective and no information is lost or erased during execution.

Reversible Computing Logic

Name: Reversible Computing Logic
Author: plurigrid

byplurigrid

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データサイエンスとML

Implements time-symmetric, information-preserving computation patterns for Janus-style reversible logic and quantum-ready algorithms.

概要

This skill provides Claude with specialized knowledge in reversible computing, enabling the design and implementation of programs that can run both forwards and backwards without information loss. It covers core concepts such as bijective state transitions, the Landauer limit for thermodynamic efficiency, and Bennett's trick for uncomputing intermediate garbage data. Whether you are working with the Janus programming language, designing hardware gates like Toffoli and Fredkin, or developing quantum-compatible unitary operations, this skill provides the domain-specific patterns needed for time-symmetric software architecture.

主な機能

Time-symmetric state recovery and bidirectional program execution
Janus language syntax and reversible control flow patterns
GF(3) trit-preserving logic and compositional coherence
2 GitHub stars
Implementation of Bennett’s trick for garbage-free uncomputation
Modeling of reversible hardware gates (Toffoli, Fredkin, CSWAP)

ユースケース

Designing energy-efficient algorithms that minimize heat dissipation for low-power hardware.
Developing and debugging quantum-compatible circuits and unitary operations.
Implementing reversible data structures for full state recovery and history-independent execution.

概要

主な機能

Time-symmetric state recovery and bidirectional program execution
Janus language syntax and reversible control flow patterns
GF(3) trit-preserving logic and compositional coherence
2 GitHub stars
Implementation of Bennett’s trick for garbage-free uncomputation
Modeling of reversible hardware gates (Toffoli, Fredkin, CSWAP)

ユースケース

Designing energy-efficient algorithms that minimize heat dissipation for low-power hardware.
Developing and debugging quantum-compatible circuits and unitary operations.
Implementing reversible data structures for full state recovery and history-independent execution.