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.