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Optimized immobilizations,
real applications

Discover practical applications of enzyme immobilization in various industries. Tailored immobilizations and use cases for our products.
Services

🧬 Advanced Immobilization via Bioinformatics (CapiPy)


CapiPy was the cornerstone of our journey. By integrating bioinformatics specifically adapted for enzyme immobilization, we introduced structure and predictability into a field traditionally governed by trial and error. Immobilization decisions can now be driven by data and protein-specific insights, saving time, resources, and frustration.


🛑 The Problem: Protein immobilization remains a trial-and-error process, making it inefficient and time-consuming.

🔄 Chemo‑Enzymatic Flow Synthesis of Chiral α‑Aryl Amines


Seamless chemo‑enzymatic flow workflows deliver high-purity products with waste-minimized processing. Chiral α-aryl amines are gaining momentum as essential building blocks for advanced pharmaceuticals. Our integrated system demonstrates how flow chemistry and enzymatic steps can be harmonized for continuous production of high-value targets.


🛑 The Problem: Chiral α-heteroaryl amines are critical pharmaceutical precursors but traditional routes are step‑intensive and low-yield.

🧩 Multi-Enzyme System Optimization via High‑Throughput Screening


We collaborated with Prof. Fernando Gallego from biomaGUNE to immobilize multiple enzymes simultaneously, a task that is challenging due to the varied requirements of each protein. Our support from the bioinformatics offered rational explanations for the immobilization results, enabling a scalable solution to rationally select carriers and chemistries based on comparative performance, rather than trial alone.


🛑 The Problem: Designing immobilization strategies for cascades of multiple enzymes is complex and inefficient using individual trial-and-error.

♻️ Continuous Flow IRED Immobilization for Heterocyclic Amines


Immobilized IREDs proved transformative—enabling efficient, selective, and scalable synthesis of bio-relevant heterocycles. These structures are prevalent in pharmaceuticals, pesticides, and flavors, making their efficient synthesis both economically and strategically important. We used our full stack: bioinformatics, enzyme immobilization, and flow chemistry.


🛑 The Problem: Immobilization of IREDs in an efficient and reusable manner proved difficult due to intrinsic properties of these enzymes.

Have a use case to share?

We’re always collecting new success stories. If you've used our enzymes, we’d love to feature your work.

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