math-figure-generator

Generate publication-quality multi-panel mathematical modeling figures with Matplotlib.

452|24|Updated Apr 26, 2026
One-click install
npx skills add https://github.com/zhnnky329/MathModeling-skills --skill math-figure-generator
Or copy as Structured Prompt for Agent▼
Please help me install this Agent Skill.
Skill: math-figure-generator
Source: https://github.com/zhnnky329/MathModeling-skills/tree/main/.claude/skills/math-figure-generator
Command: npx skills add https://github.com/zhnnky329/MathModeling-skills --skill math-figure-generator

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Orchestrates the creation of publication-quality figures for mathematical modeling papers, ensuring visuals clearly convey modeling logic and are reproducible across multiple figure types.

Core Features & Use Cases

  • Generate multi-panel figures (e.g., 2x2 grids or hero-plus-support panels) that capture contracts, data sources, and robustness checks.
  • Enforce figure contracts, render-checks, consistent color palettes, typography, and layout standards to meet publication requirements.
  • Apply during the creation or revision of contest papers to visualize evaluation, prediction, optimization, mechanism schematics, data exploration, and workflow diagrams.

Quick Start

Create a publication-ready 2x2 multi-panel figure for a contest dataset, including a final ranking panel, a weight distribution panel, a baseline comparison panel, and a sensitivity panel.

Frequently Asked Questions about math-figure-generator

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

FAQPage Schema
How do I create multi-panel figures for mathematical modeling papers using Matplotlib?▼

Multi-panel figures for mathematical modeling are generated using Matplotlib with contract-driven logic, enforcing consistent color palettes, typography, and layout standards to meet publication requirements. You can build 2x2 grids or hero-plus-support panels capturing data sources and robustness checks.

What is the best way to visualize evaluation and prediction results for contest papers?▼

Visualizing evaluation and prediction results for contest papers is achieved through publication-quality figures that apply contract-driven logic. The workflow supports multi-panel layouts for ranking panels, baseline comparisons, and sensitivity checks to ensure reproducibility.

Do I need Python and Matplotlib to generate publication-quality figures for mathematical modeling?▼

Yes, you need Python and Matplotlib to generate publication-quality figures for mathematical modeling. The workflow relies on these dependencies to execute render-checks, apply color palettes, and document data sources across various multi-panel layouts.

Can I visualize mechanism schematics and optimization data within a single Matplotlib workflow?▼

Yes, you can visualize mechanism schematics and optimization data within a single Matplotlib workflow. The process supports creating evaluation, prediction, optimization, mechanism schematics, data-exploration, and workflow diagrams using reproducible multi-panel layouts.

What are the limitations of using contract-driven logic for multi-panel Matplotlib layouts?▼

Limitations of using contract-driven logic for multi-panel Matplotlib layouts include strict adherence requirements for render-checks, color palettes, panel labeling, and data-source documentation. Deviating from these publication standards may break the reproducibility of the mathematical modeling figures.

Why does my mathematical modeling figure fail publication reproducibility checks?▼

Mathematical modeling figures fail publication reproducibility checks when they do not adhere to enforced figure contracts, render-checks, consistent color palettes, and data-source documentation. The workflow requires strict compliance with these layout and typography standards.