claude-light

Design and analyze Claude-Light remote experiments with RGB inputs and spectral measurements.

34|7|Updated Nov 29, 2025
One-click install
npx skills add https://github.com/jkitchin/skillz --skill claude-light
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: claude-light
Source: https://github.com/jkitchin/skillz/tree/main/skills/programming/claude-light
Command: npx skills add https://github.com/jkitchin/skillz --skill claude-light

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes references (resource) components.

What problem does it solve?

Facilitates design and analysis of experiments using Claude-Light's RGB LED and spectral sensor, with data-handling, regression, optimization, and DOE workflows.

Core Features & Use Cases

  • Experiment Design: plan RGB input sweeps and spectral measurements.
  • Statistical Analysis: compute means, variance, confidence intervals, and regression models.
  • DOE & Optimization: design of experiments, optimization of inputs for target outputs.
  • Visualization & Modeling: visualize response surfaces and build predictive models.

Quick Start

Use the Claude-Light API to run a 3-variable DOE with R, G, B in [0,1], collect spectra, and fit a simple linear model to a single channel.

Frequently Asked Questions about claude-light

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

FAQPage Schema
How do I design and optimize experiments using RGB LED inputs and spectral measurements?

Design-of-experiments (DOE) workflows optimize RGB inputs (R, G, B values 0–1) to target specific spectral outputs across ten channels (415nm to NIR). This Skill sweeps RGB combinations, collects spectra via the Claude-Light API, fits regression models to predict channel responses, and identifies optimal input settings for your desired measurement outcomes.

Can I fit regression models to spectral data from Claude-Light sensors?

Yes. Regression modeling ingests RGB inputs and spectral measurements from all ten Claude-Light channels, computes statistical summaries (means, variance, confidence intervals), and builds predictive models. Results quantify how each RGB value drives response in target channels, enabling data-driven optimization.

What spectral channels and input ranges does Claude-Light support?

Claude-Light provides ten spectral measurement channels—415nm, 445nm, 480nm, 515nm, 555nm, 590nm, 630nm, 680nm, clear, and near-infrared (NIR)—and accepts RGB inputs normalized to [0, 1]. This range covers visible and near-infrared wavelengths for material and biological characterization.

How do I collect and visualize response surfaces from spectral experiments?

Collect spectra by sweeping RGB inputs via the Claude-Light API, then visualize response surfaces and build predictive models using Python data-science libraries. Surfaces show how spectral output varies across the RGB input space, revealing optimization targets and interaction patterns.

Do I need prior statistical knowledge to run design-of-experiments workflows?

Basic familiarity with regression, optimization, and DOE concepts helps, but this Skill handles statistical computation—confidence intervals, model fitting, and optimization logic—using standard Python libraries. Start with a simple three-variable DOE (R, G, B) and linear model to a single channel.

What's the best way to plan an RGB sweep before collecting spectral data?

Plan sweeps by defining the RGB input space (typically [0, 1] per channel), choosing a DOE strategy (factorial, response-surface, or custom grid), and mapping measurement points. This Skill automates API calls, data collection, and statistical analysis once the experimental grid is specified.