Loading

Our engine

Ai-driven.
Lab-proven.

How we design your next-gen polymers.

We don't sell software licenses, we deliver validated, compliant materials. Our team deploys polySCOUT’s proprietary deep-tech platform and high-throughput physical lab to solve your toughest material challenges.

The polySCOUT Engine

Powered by over 4 years of deep-tech development and an exclusive worldwide licence from TNO, our platform-independent algorithms bridge the gap between quantum physics and physical materialization.

  • Polymer-native machine learning

    More Than Statistical Patterns

    Standard materials AI struggles with the infinite complexity of polymers. Our engine utilizes specialized polymer representation scripts, encoders, and transformer training algorithms designed specifically to capture complex molecular architectures.

    Our core Structure-Property-Function models predict real-world mechanical, thermal, and structural performance with unprecedented accuracy.

  • Advanced physics & chemistry models

    Grounded in physical reality

    We prevent "hallucinated" molecules by embedding thermodynamic guardrails directly into our AI code.

    Our engine deploys advanced Rheology models to predict flow and viscosity, alongside dedicated Thermoset polymer models to design highly complex, cross-linked materials that traditional AI cannot map.

  • Multi-objective inverse design

    Genetic algorithms & nearest neighbour matching

    Finding the perfect molecule is like searching for a needle in a haystack of billions of options. 

    We run advanced Genetic Algorithm workflows to actively generate and evolve candidate molecules, combined with Nearest Neighbour Matching algorithms to screen the entire known design space for optimal performance, cost, and compliance targets simultaneously.

  • Compliance & safe-by-design (in-loop)

    Screening out risks from millisecond one

    We don't retrofit sustainability; we design for it from the very first calculation to prevent late-stage qualification failures.

    Our engine runs automated, in-loop ML screening utilizing proprietary Biodegradation algorithms, Toxicity algorithms, and Life Cycle Assessment (LCA) models to screen every design for compliance with REACH, PPWR, and PFAS restrictions.

From data to discovery

  1. Specify

    You define the target mechanical properties, thermal specs, cost targets, and compliance requirements.

  2. Simulate & Screen

    We deploy our quantum simulations and polymer informatics database to de-risk structures before lab work begins.

  3. Inverse Design

    Our genetic and structure-property-function algorithms calculate the optimal molecular architectures.

  4. Pathway Prediction

    Our polymerization algorithms calculate the exact, most cost-effective synthetic pathway.

  5. Physical Lab Validation

    Our high-throughput lab synthesizes and tests the actual material samples.

  6. Deliver & Deploy

    We deliver a physically validated polymer sample along with a comprehensive platform-generated performance and compliance report.

From code to physical samples

Bridging the digital and physical loop

AI predictions are only as good as the physical validation that backs them. Once our engine identifies the optimal molecular design, we translate it directly into real physical samples.

  • The polymerization decision tree

    Our software features a unique, automated decision tree that translates the predicted molecular values directly into instructions for our high-throughput polymerization equipment. This ensures seamless, error-free synthesis in our physical labs.

  • 25+ validated materials a week

    Our partially automated synthesis and characterization lab physically tests these samples, feeding the experimental data back into our database to make our models continuously smarter.

Why polySCOUT?

Others go broad. We go deep in (biobased) polymers.

Traditional R&D is slow and costly. Generalist materials platforms manage data but don't validate physically. polySCOUT is the only polymer-native specialist combining proprietary data, advanced physics-informed models, and a high speed lab loop to guarantee real-world success.

Talk to our team