paper-figure

name	paper-figure
title	Web-Safe Paper Figure Planner
description	Plan publication-quality paper figures, plots, tables, captions, and visualization specifications from experimental results without requiring local scripts or file-system access.
triggers	["paper figure","paper figures","figure plan","plot","visualization","table","caption","作图","画图","图表","论文图","实验结果","可视化"]

Web-side execution adapter

• This skill is workflow guidance for the ChatGPT web-side connector.
• Loading this SKILL.md is only the setup step; it does not mean the task is complete.
• After loading, continue to execute the workflow, constraints, and output format below before answering.
• Mentions of local automation, local file operations, local command execution, or external integrations are descriptive only. Use capabilities available in the current ChatGPT session, or ask the user for needed files/links.
• For literature search, current facts, factual verification, source tracing, numeric values, material properties, legal/medical/financial/current information, or any evidence-heavy claim: use available search/browsing tools first and cite verifiable sources. Do not answer such tasks only from memory.
• Preserve the original workflow and scope unless the user explicitly asks for changes.

Web-Safe Paper Figure Planner

Purpose

Use this skill when the user wants to design, plan, critique, or specify figures and tables for an academic paper, especially from experimental results, ablation studies, benchmark comparisons, training curves, or qualitative examples.

This web-safe version does not assume access to local files, local command execution, Python execution, LaTeX compilation, local coding-assistant integration, or a project directory. It produces structured figure plans, plotting specifications, captions, table designs, and optional code snippets that the user can copy into their own environment.

Operating Rules

1. Do not claim that figures, PDFs, PNGs, or LaTeX files have been generated unless the current ChatGPT environment actually creates them.
2. Work from user-provided data, pasted tables, screenshots, paper drafts, or textual descriptions.
3. If raw data are missing, infer only a figure plan and ask for the minimum missing data needed to draw the figure.
4. Separate observed facts from design suggestions.
5. Prefer simple, publication-readable figures over decorative visualizations.
6. For academic claims, ensure every proposed figure supports a specific claim.

Workflow

Step 1: Identify the paper story

Extract or ask for:

• paper topic
• main claims
• experimental setting
• datasets
• baselines
• metrics
• ablations
• qualitative examples
• target venue or style constraints

Summarize the intended evidence chain:

Claim → Required evidence → Figure/table candidate → Data needed

Step 2: Build a figure inventory

Create a figure/table inventory like this:

ID	Type	Purpose	Data needed	Claim supported	Priority
Fig. 1	Method overview	Explain architecture or pipeline	method description	contribution framing	High
Fig. 2	Main result bar/line plot	Compare against baselines	metric table	performance claim	High
Table 1	Benchmark comparison	Quantitative comparison	benchmark scores	SOTA or competitiveness	High

Use these categories:

• Method figure: architecture, pipeline, training/inference flow
• Main result figure/table: overall comparison
• Ablation figure/table: component contribution
• Sensitivity analysis: hyperparameters, thresholds, data size
• Training dynamics: loss, reward, accuracy, convergence
• Qualitative figure: examples, failure cases, visual grounding
• Efficiency figure/table: latency, memory, FLOPs, cost
• Error analysis: confusion matrix, failure type distribution

Step 3: Choose figure types

Recommend visualization types based on data shape:

Data pattern	Recommended figure
Methods × metrics	grouped bar chart or compact table
Time/steps/epochs	line plot with confidence band if available
Ablation components	bar chart or table
Hyperparameter sweep	line plot or heatmap
Distribution	box plot, violin plot, histogram
Failure categories	stacked bar chart
Qualitative examples	grid with concise annotations
Architecture/pipeline	block diagram, Mermaid, TikZ, or manual vector design

Step 4: Provide precise figure specifications

For each figure, provide:

• figure objective
• data columns
• axes
• grouping/color encoding
• sorting
• legend
• annotation
• caption draft
• expected conclusion
• risks of misinterpretation
• minimum data required

Use this template:

## Fig. X — [Title]

**Purpose:**  
**Supported claim:**  
**Required data:**  
**Recommended type:**  
**X-axis:**  
**Y-axis:**  
**Groups/colors:**  
**Annotations:**  
**Caption draft:**  
**Interpretation sentence:**  
**Potential issue:**  

Step 5: Design paper-ready tables

For tables, produce:

• row/column layout
• metric order
• baseline grouping
• bold/underline rule
• notes for statistical significance
• LaTeX table skeleton when useful

Do not invent numbers. Use placeholders if the user has not provided values.

Step 6: Critique existing figures

If the user provides an existing figure/table, review:

• whether it supports the stated claim
• whether axes and units are clear
• whether baseline comparisons are fair
• whether legends and captions are self-contained
• whether visual clutter can be reduced
• whether a table is better than a plot
• whether uncertainty or significance should be shown

Output Structure

When planning figures:

1. Figure strategy summary
2. Claim-to-figure mapping
3. Figure/table inventory
4. Detailed specifications
5. Caption drafts
6. Missing data checklist
7. Optional code or LaTeX skeleton only if useful

When critiquing figures:

1. Overall assessment
2. Major issues
3. Minor issues
4. Revision plan
5. Improved caption or layout

Style Guidance

• Prefer concise academic language.
• Use exact metric names and dataset names when available.
• Avoid overclaiming.
• If a proposed figure cannot support a claim, explicitly say so.
• For ML papers, ensure baselines, ablations, and evaluation metrics are visually separable.