Signals Xynthetica™
A Tectonic Shift is Here: AI-Powered Design Converges with Experimental Science
Today, artificial intelligence enables scientists to generate candidate molecules, predict their properties, and virtually screen vast chemical spaces before synthesis. When tightly integrated with experimental science, this convergence creates a virtuous cycle in which predictions improve, fewer experimental cycles are needed, and discovery accelerates.
AI-Powered In Silico Design
Data-guided Molecular Generation
By learning from high-quality experimental data, generative models such as large language models and diffusion models can propose new molecules that match predefined property profiles or design constraints. These models capture hidden structure–activity relationships and suggest candidates beyond classical intuition, helping scientists explore regions of chemical space that would be difficult to reach with manual design alone.
Hybrid Property Prediction
Newly generated molecules are evaluated with a combination of machine learning and physics-based models to estimate key properties, liabilities, and developability metrics. Machine learning models are continuously updated as fresh experimental results become available, while physics-based simulations provide mechanistic insight, together delivering a more reliable and nuanced view of each candidate’s potential.
Multi-objective Optimization
In the final step, candidate designs are ranked against multiple objectives at once, such as performance, manufacturability, and risk-related constraints. The system balances these often-competing criteria to identify candidates with the strongest overall trade-offs, resulting in a focused shortlist for experimental follow-up.
Data Fuels AI – AI Empowers Scientists
Models, embedded in scientific workflows
Predictive models are available as a service directly inside Signals One™, Signals Synergy™, and Signals ChemDraw™. This tight integration ensures predictions are part of routine scientific decision-making, enabling AI-augmented design to run continuously as research progresses.
Privately fine-tune with fresh data
As new experimental results are generated, organizations can privately fine-tune selected models on their own high-value data. This continuous learning loop sharpens prediction accuracy for their specific chemistry and biology, without exposing proprietary information.
Governed models, scalable impact
Models are managed, versioned, and governed centrally while being applied consistently across teams and projects. This ensures predictions remain transparent, auditable, and reproducible—so AI-augmented design can scale reliably across the organization.