Industrial separation technologies have remained largely unchanged for decades. Conventional ion-exchange resins rely on synthetic chemistry, offering limited selectivity when recovering critical minerals from increasingly complex industrial streams.
Cerion Praxis is developing a new generation of biological ion-exchange materials inspired by nature’s molecular precision and enabled by the latest breakthroughs in synthetic biology, artificial intelligence and bioengineering.
Our platform combines engineered microorganisms, AI-driven biomanufacturing and advanced biological design to produce highly selective metal-binding materials capable of recovering rare earth elements and other critical minerals with exceptional efficiency.
Our Technology Platform
Cerion Praxis integrates several breakthrough technologies into a single manufacturing platform.
AI-Driven Protein Engineering
Artificial intelligence accelerates the discovery and optimization of highly selective metal-binding biomolecules, significantly reducing development time while continuously improving performance.
Advanced Bioengineering
Synthetic biology enables the design of biological systems specifically optimized for industrial production, transforming naturally occurring microorganisms into highly efficient manufacturing platforms.
Engineered Microorganisms
Our production strains are extensively bioengineered to maximize the synthesis of proprietary metal-binding biomolecules while improving productivity, stability and manufacturing efficiency under industrial operating conditions.
AI-Driven Bioreactors
Our proprietary bioreactor platform continuously monitors biological production and automatically optimizes growth conditions in real time. Artificial intelligence enhances process stability, improves production yields and ensures consistent manufacturing quality while reducing operational costs.
Biological Ion-Exchange Materials
The produced biomolecules are integrated into proprietary support materials to create a new generation of reusable biological ion-exchange materials combining molecular precision with industrial robustness.
Digital Manufacturing
Advanced automation, machine learning and digital process control continuously improve manufacturing performance, enabling scalable production with increasing efficiency over time.
Built on Nobel Prize-Winning Science
Cerion Praxis’s technology platform builds upon some of the most important scientific breakthroughs of the last decade. Together, these advances have transformed biology from a research discipline into a powerful industrial manufacturing technology.
AI Protein Design
Recent advances in artificial intelligence have fundamentally changed how proteins are discovered and engineered. AI models can predict protein structures, optimize molecular interactions and accelerate the development of entirely new metal-binding biomolecules with unprecedented speed and accuracy.
For Cerion Praxis, AI dramatically shortens development cycles while enabling continuous improvement of selectivity, stability and industrial performance.
CRISPR Gene Editing 2020 Nobel Prize in Chemistry
CRISPR revolutionized genetic engineering by enabling precise modification of DNA with exceptional accuracy. Today, it allows microorganisms to be redesigned into highly efficient biological production platforms tailored for industrial manufacturing.
Cerion Praxis applies advanced gene-editing technologies to develop proprietary microbial strains capable of producing next-generation biological materials at commercial scale.
Directed Evolution 2018 Nobel Prize in Chemistry
Directed evolution allows scientists to rapidly improve proteins by recreating natural evolutionary processes in the laboratory. Thousands of protein variants can be generated and screened to identify those with superior stability, selectivity and industrial performance.
This technology enables Cerion Praxis to continuously optimize its biological materials for demanding industrial applications.
AI-Driven Biological Manufacturing
Individually, these scientific breakthroughs are transformative. Combined within a single manufacturing platform, they enable the creation of entirely new classes of biological ion-exchange materials that were impossible only a few years ago.
Cerion Praxis integrates artificial intelligence, synthetic biology, bioengineering and automated biomanufacturing into a scalable technology platform designed to redefine the recovery of rare earth elements and other critical minerals.