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AI-Accelerated Sustainable Material Design for Bio-Inspired Sunscreens

Develop an intelligent agent that leverages AI and computational chemistry to discover and optimize novel, sustainable sunscreen pigment molecules. Inspired by the natural melanin pigments found in cephalopods, this challenge focuses on designing compounds with superior UV protection, enhanced biodegradability, and minimized environmental impact. Participants will build a multi-stage pipeline using Claude Opus 4.5 for de novo molecular generation, orchestrated by AgentFlow. Computational chemistry simulations, powered by Fireworks, will predict properties like UV absorption spectra, photochemical stability, and biodegradability. The agent will iteratively refine molecular structures based on these simulated outcomes, aiming for optimal performance and sustainability criteria.

Challenge brief

What you are building

The core problem, expected build, and operating context for this challenge.

Develop an intelligent agent that leverages AI and computational chemistry to discover and optimize novel, sustainable sunscreen pigment molecules. Inspired by the natural melanin pigments found in cephalopods, this challenge focuses on designing compounds with superior UV protection, enhanced biodegradability, and minimized environmental impact. Participants will build a multi-stage pipeline using Claude Opus 4.5 for de novo molecular generation, orchestrated by AgentFlow. Computational chemistry simulations, powered by Fireworks, will predict properties like UV absorption spectra, photochemical stability, and biodegradability. The agent will iteratively refine molecular structures based on these simulated outcomes, aiming for optimal performance and sustainability criteria.

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Learning goals

What you should walk away with

Master the integration of Claude Opus 4.5 API for conditional molecular generation based on specified chemical properties and structural motifs.

Implement an AgentFlow pipeline to orchestrate iterative molecular design, property prediction, and feedback loops for refinement.

Design and execute molecular simulations (e.g., UV absorption spectroscopy, stability calculations) using Fireworks and a chosen computational chemistry backend (e.g., ORCA, GFN-xTB via ASE).

Build a data parsing and feedback mechanism to process simulation results and feed them back into the Claude Opus 4.1 model for intelligent molecular refinement.

Optimize pigment structures based on multiple criteria including UV absorption efficiency (UVA/UVB), photochemical stability, biodegradability, and predicted synthesis cost, using a multi-objective optimization algorithm.

Develop a visualization module using libraries like RDKit and Matplotlib to present designed molecules, their predicted 3D structures, and property profiles.

Integrate external chemical databases (e.g., PubChem, ChemSpider) to validate generated structures and ensure novelty compared to existing sunscreens.

Start from your terminal
$npx -y @versalist/cli start ai-accelerated-sustainable-material-design-for-bio-inspired-sunscreens

[ok] Wrote CHALLENGE.md

[ok] Wrote .versalist.json

[ok] Wrote eval/examples.json

Requires VERSALIST_API_KEY. Works with any MCP-aware editor.

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