hypothesis-generation

Generate structured, testable hypotheses with mechanistic explanations and falsifiable predictions from observations and literature syntheses.

5|2|Updated Jan 22, 2026
One-click install
npx skills add https://github.com/hyperbolic-c/auto-writing --skill hypothesis-generation-hyperbolic-c
Or copy as Structured Prompt for Agent▼
Please help me install this Agent Skill.
Skill: hypothesis-generation
Source: https://github.com/hyperbolic-c/auto-writing/tree/main/claude-scientific-writer/skills/hypothesis-generation
Command: npx skills add https://github.com/hyperbolic-c/auto-writing --skill hypothesis-generation-hyperbolic-c

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Hypothesis-generation helps researchers convert observations and scattered literature into structured, testable hypotheses complete with mechanistic explanations, competing hypotheses, and testable predictions, enabling rigorous scientific inquiry.

Core Features & Use Cases

  • Structured workflow: transform raw observations into 3-5 competing hypotheses with clear mechanisms.
  • Literature synthesis: organize supporting evidence, gaps, and contextual knowledge across domains.
  • Experimental planning: outline high-level designs and appendices for detailed protocols and data needs.
  • Use Case: a researcher observes an anomaly and uses this skill to generate a concise hypothesis set with explicit predictions and experiments.

Quick Start

Start a hypothesis-generation session by uploading your observations or introducing a phenomenon. The tool will propose a set of candidate hypotheses and initial predictions; refine them iteratively.

Frequently Asked Questions about hypothesis-generation

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

FAQPage Schema
How do I generate testable hypotheses from raw observations and literature?▼

To generate testable hypotheses, input your raw observations or literature syntheses to produce 3-5 competing hypotheses. Each hypothesis includes mechanistic explanations, supporting evidence, and falsifiable predictions.

What is the best way to structure competing hypotheses for experimental design?▼

The best way to structure competing hypotheses is using built-in templates like experimental_design_patterns. This yields structured hypotheses with explicit mechanisms, evidence gaps, and detailed experimental protocols in appendices.

Can I use this hypothesis-generation method across different scientific domains?▼

Yes, hypothesis-generation applies across scientific domains. It transforms scattered literature and observations into structured, testable hypotheses with mechanistic explanations regardless of the specific scientific field.

How do I evaluate the quality of a generated scientific hypothesis?▼

You evaluate a generated scientific hypothesis using built-in reference templates like hypothesis_quality_criteria. These criteria ensure the hypothesis includes clear mechanisms, supporting evidence, and falsifiable predictions.

Does this tool provide detailed experimental designs for testing predictions?▼

Yes, the tool provides detailed experimental designs for testing predictions. It outlines high-level designs and includes appendices with detailed protocols and data needs for rigorous experimental planning.

What is the hypothesis-generation process for organizing literature synthesis?▼

The hypothesis-generation process for literature synthesis organizes supporting evidence, gaps, and contextual knowledge across domains. This structured synthesis yields 3-5 competing hypotheses with mechanistic explanations and falsifiable predictions.