1M Compute Hours 1 Hour

We compress millions of compute hours into just a few, unlocking answers with precision to reshape chemical engineering. With our ΦAI platform, simulations aren't just fast — they're transformative. By enabling extremely accurate virtual chemistry and process design, we empower companies to bring breakthrough materials to market faster, at a fraction of the cost.

Traditional Approach

100 Scientists
100 Simulations = 1Mcompute hours
100 Experiments
99 Failures

Quastify Approach

2 Scientists
10,000 Simulations = 1hour
5 Experiments
1 Success
Quastify Innovation

Why Molecular Properties Matter

Every material around us — from coatings and batteries to semiconductors, plastics, and medicines — is made of molecules. But can a material be commercialized? That depends on its properties, such as stickiness, reactivity to heat or light, solubility, and how its molecules interact.

The massive computational efficiency enabled by our ΦAI platform lets us predict these properties in silico, before building materials in the lab — dramatically reducing costs and accelerating time to market.

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The Core Challenges

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Costly Development

$20M-200M per new material

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Time-consuming

5-15 years development cycles

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Unique Problems

Every material development is a unique challenge

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Invaluable Data

Materials and experimental data are crucial for maintaining a competitive edge

AI-Powered Digital Twins

Our ΦAI platform creates digital twins for chemical manufacturing by combining AI with physics. This drastically reduces the need for expensive data collection while providing scalable, computational data assets.

Physics-Based AI

Our AI models work with limited data through our physics-based ΦAI approach

Quality Over Quantity

Quality of data is crucial, while large quantities are unnecessary

Targeted Data

Problem-specific data tailored for materials experimentation and development

Digital Twins

Create computational models that accurately represent real-world chemical processes

AI + Physics: The ΦAI Advantage

Unlike brute-force AI methods that require enormous datasets, our ΦAI platform leverages physics-based models to generate confidential computational data (“Bricks”) that predict large molecules or materials while safeguarding your proprietary information.

Meet Our Team

Dr. Jan Weinreich

Dr. Jan Weinreich

CEO & Co-founder

Expert in Physics & Materials, driving innovation and customer success.

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Prof. Dr. Anatole von Lilienfeld

Prof. Dr. Anatole von Lilienfeld

Chief Scientist & Co-founder

Renowned researcher in quantum mechanics, statistical mechanics, and AI.

Physics, Chemistry, Materials UoT, Ed Clark Chair in Advanced Materials, Vector Institute, Acceleration Consortium

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Igor Muskatblit

Igor Muskatblit

Co-founder

25 years experience in the semiconductor industry.

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Dr. Stefan Heinen

Dr. Stefan Heinen

Senior Computational Chemist

Expert in computational chemistry and materials modeling.

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Dr. Konstantin Karandashev

Dr. Konstantin Karandashev

Senior Machine Learning Scientist

Leading research in applying ML to chemical data and materials discovery.

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Prof. Dr. Guido Falk von Rudorff

Prof. Dr. Guido Falk von Rudorff

Director R&D

University of Kassel, Germany

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Umar Mughal

Umar Mughal

Business Advisor

Advisor in product and business development.

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Contact Us

Interested in learning how our ΦAI platform can transform your chemical manufacturing process? We're ready to discuss your specific needs.

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Our Location

Based in Menlo Park, California