compare

Compare model versions and circuit variants from experimental evidence.

Updated Jun 17, 2025
One-click install
npx skills add https://github.com/necatiincekara/Quanvolutional-Neural-Network --skill compare-necatiincekara
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: compare
Source: https://github.com/necatiincekara/Quanvolutional-Neural-Network/tree/main/.agents/skills/compare
Command: npx skills add https://github.com/necatiincekara/Quanvolutional-Neural-Network --skill compare-necatiincekara

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Compare model versions, circuit variants, or training configurations to help select the best performing setup using consolidated evidence from the project artifacts.

Core Features & Use Cases

  • Evidence gathering from docs/EXPERIMENTS.md, experiments/*.json, paper/draft.md, and related sources to inform decisions.
  • Structured comparisons that present feature map size, circuit type, trainable vs fixed quantum layer, runtime/quantum-call cost, and validation metrics.
  • Use Case: When choosing between V4 and V6 architectures, the skill can compute a ranked recommendation based on reported accuracy, speed, and stability.

Quick Start

Run a comparison across available model versions and configurations using the AGENTS.md workflow to produce a ranked recommendation.

Frequently Asked Questions about compare

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I compare model versions to find the best performing architecture?

To compare model versions, aggregate experimental evidence from docs/EXPERIMENTS.md and experiments/*.json files to evaluate performance metrics, speed, and stability. This produces a structured table ranking feature map size, circuit type, runtime cost, and validation accuracy to identify the optimal architecture.

What is the best way to benchmark quantum circuit variants using experimental data?

Benchmarking quantum circuit variants involves aggregating evidence from experiments/*.json and paper/draft.md to evaluate trainable versus fixed quantum layers, feature map sizes, and runtime quantum-call costs. This yields a structured comparison table with a clear recommendation for the best circuit configuration.

How do I select the best training configuration from multiple experiments?

Selecting the best training configuration requires consolidating evidence from documented experiments to rank setups by validation accuracy, runtime cost, and stability. The process outputs a structured table highlighting the differences between configurations like V4 and V6 architectures to guide your final choice.

Can I evaluate trainable versus fixed quantum layers across different model versions?

Yes, you can evaluate trainable versus fixed quantum layers by parsing experimental evidence from docs/EXPERIMENTS.md and related source files. The comparison aggregates validation metrics and circuit types into a structured table to determine which layer configuration performs best.

Does comparing model variants require specific experiment file formats?

Comparing model variants relies on experiments documented in docs/EXPERIMENTS.md, experiments/*.json, paper/draft.md, and related source files. These files provide the necessary evidence on feature map size, circuit type, and validation accuracy to generate a ranked recommendation.