Industries · Polymer R&D

A Chemistry-Native AI Workbench for Polymer R&D

REACTOR is used by polymer researchers across synthesis, formulation, composites, conductive systems, and recycling chemistry. It reasons across peer-reviewed literature, your own protocols, and connected chemistry data sources, with source references for extracted claims and supporting citations for synthesized inferences.

Free tier available. No credit card required.

For Polymer Scientists

Polymer R&D moves across multiple chemistries in a single project.

A typical project covers monomer design, polymerization, formulation, characterization, processing, and increasingly, end-of-life behavior. Each step draws on different sources: peer-reviewed literature, internal protocols, patents, supplier data, and the team's own prior work.

Most of the time cost sits in reasoning across all of that while keeping the chemistry context coherent. Switching tools, re-establishing context, capturing decisions, and preserving rationale across team changes is where the slow days come from.

REACTOR is a chemistry co-pilot designed for this process. It reasons across polymer chemistry alongside the materials you bring in, links extracted claims to source documents, and keeps captured insights organized in your Research Space so the reasoning compounds project over project.

Notable Divisions

Where REACTOR Fits Across Polymers

Polymer R&D spans a wide chemistry surface. Each sub-area has its own reasoning challenges, and each benefits from a chemistry-native intelligence layer.

Synthesis & Polymerization

Synthesis spans radical, condensation, controlled living, and emerging catalytic systems. The core task is translating monomer choice and reaction conditions into the polymer properties the project requires. REACTOR reasons across synthesis routes, catalyst behavior, kinetics, and side reactions using peer-reviewed literature, your uploaded protocols, and connected chemistry data sources like PubChem.

Polymer Formulation

Formulation work moves between blends, additives, plasticizers, stabilizers, and fillers, balancing property trade-offs against specs that often continue to change. REACTOR supports this work by comparing additive systems across the literature, surfacing relevant safety and compatibility data from connected chemistry sources, and storing your decisions as reusable Resources. The underlying rationale stays available when the project pivots or moves to another team member.

Composites & Reinforced Polymers

Composites sit at the boundary between polymer chemistry and process. Decisions about resin systems, interface chemistry, and curing behavior need input from both polymer science and characterization data. REACTOR reasons across these intersections, ingesting papers, patents, and your own data into a single Research Space. The team keeps a structured record of what was tried and why it worked.

Biodegradable & Bio-Based Polymers

PLA, PHA, biopolymer blends, and lignin-derived materials each carry distinct structure-property and degradation behavior. The work moves between feedstock chemistry, degradation pathways, and performance benchmarks. REACTOR reasons across the literature on bio-based polymers, allows side-by-side comparison of degradation mechanisms, and captures the trade-offs that matter for the application. Captured insights stay tied to the Research Space.

Conductive & Functional Polymers

Conjugated polymers such as polyaniline and PEDOT conduct electronically via delocalized backbone π-systems, with conductivity dependent on doping and morphology (in PEDOT:PSS, PEDOT provides electronic conduction and PSS acts as counterion and dispersant). Ionic conductors transport charge through mobile ions in side chains, salts, or solvated phases. REACTOR supports reasoning across both electronic and ionic conduction mechanisms, linking synthesis routes to characterization data and surfacing adjacent literature and patents on related systems.

Recycling Chemistry & Circular Polymers

Chemical recycling, depolymerization, monomer recovery, and closed-loop polymer systems are evolving quickly, with new catalysis approaches and downstream methods appearing regularly. REACTOR reasons across the emerging literature, depolymerization mechanisms, and purification chemistry. Captured insights compound across projects and stay accessible when team members change.
Chemical Intelligence Layer at Work

What This Looks Like in Polymers

Concrete examples of how REACTOR's chemistry-native reasoning supports the full R&D loop: discover, analyze, capture, reuse.

Discover · Analyze

Exploring Biodegradable Alternatives

A polymer chemist exploring biodegradable alternatives to a legacy resin works across recent catalysis literature and their own lab data inside a single Research Space. Degradation pathways are compared across systems, with every observation referencing its source: papers, figures, and connected chemistry data.

Analyze · Capture

Comparing Stabilizer Systems

A formulation scientist comparing stabilizer systems uploads supplier data sheets and peer-reviewed studies into a Research Space. REACTOR reasons across compatibility and aging behavior, referencing each claim back to the source document, including extracted images and figures.

Analyze · Reuse

Investigating a Competitor Patent

An R&D lead investigating a competitor's patent for a new composite resin uploads the patent PDF and receives a chemically relevant analysis. Adjacent literature surfaces alongside, and the full analysis stays attached to the Research Space for future work on the same chemistry.

Discover · Capture

Forking Reasoning on Two Routes

A senior chemist running a recycling chemistry program forks a reasoning thread to explore two depolymerization routes in parallel. Both lines of inquiry stay live in the same Research Space, with AI Notes and User Notes captured separately for traceability.

Beyond Chemistry Literature

Web Research Inside REACTOR

REACTOR includes live web research alongside its core chemistry reasoning. Polymer scientists use it to evaluate monomer and additive suppliers, compare vendors, and pull current industry information from across the open web. Web results are presented with source provenance; users should verify critical safety or regulatory information against primary literature, regulatory databases, or supplier data.

Who This Is For

Built for the People Doing the Work

Startup / Spinout

VP R&D · Head of R&D · Technical Co-Founder

Small polymer teams working under time and capital pressure. REACTOR adds technical depth without adding headcount, holding chemistry context across projects and reducing the cost of pivots.

Mid-Sized SME

Senior Chemist · Formulation Scientist

Practicing scientists balancing throughput with documentation. REACTOR provides professional leverage by accelerating analysis, capturing the rationale behind decisions, and producing better-documented research that survives team changes.

Industrial R&D Org

VP R&D · Head of Innovation · Senior Principal

R&D leaders with 10+ chemists, where knowledge loss and slow innovation cycles carry real cost. REACTOR functions as research infrastructure, providing organizational memory and chemistry-native reasoning across the polymer portfolio.

500+

Researchers using REACTOR across chemistry and materials science

Source-traceable

Extracted claims reference papers, figures, and data; synthesized inferences flag supporting citations

Multi-source

Connected to peer-reviewed literature and chemistry data sources like PubChem

By scientists

Founded by a physical chemist, an AI/ML PhD, and a CS/Math PhD

Test REACTOR on Your Own Polymer Chemistry

Open a Research Space, bring in a paper, patent, or one of your own protocols, and see how REACTOR reasons across the chemistry in your own work.

REACTOR supports R&D reasoning and information work. It is not a substitute for institutional safety review. Always consult qualified safety officers and validated SOPs before lab work involving hazardous chemistry.