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Some reagents have a reputation for being “haunted”; toxic, unstable, or dangerously reactive. In traditional batch chemistry, these molecules send chills down a chemist’s spine. But in flow chemistry, there’s nothing to fear. Hazardous intermediates like azides, diazonium salts, peroxides, or fluorine can be operated under precise control and with superior heat and mass transfer. Flow turns spooky chemistry into safe, scalable reality, transforming what was once feared into a powerful advantage. This Halloween, don’t be afraid of your chemistry. Haunted molecules aren’t scary in flow.

Microinnova is proud to contribute to the TWIN4PHARMA initiative, led by the Research Center Pharmaceutical Engineering (RCPE). This COMET Module drives the digital and sustainable transformation of pharmaceutical process development, and the successful review of the first year marks a major milestone!

Harnessing liquified gases like ammonia or ethylene oxide in pharmaceutical manufacturing offers unique advantages; from faster reactions to greener processes, but also presents challenges in control and safety. Continuous flow technology provides the solution.

At zenonIZE 25, our team joined forces with COPA-DATA and industry peers to shape the future of process automation. From real-world MTP applications to hands-on interoperability testing, we explored how modular production can accelerate innovation, especially in pharma.

Esterification doesn’t need to mean slow, energy-intensive batch runs. We demonstrated how the same chemistry can be brought into flow – with faster reaction times, smaller equipment, and improved energy efficiency. By addressing water removal and optimizing process control, the reaction reached completion more effectively. The outcome is a flexible, modular system that meets today’s needs and lays the foundation for sustainable ester production in the future. A clear example of how rethinking tradition unlocks new opportunities.

Photochemistry in flow enables safer, scalable, & efficient light-driven reactions, transforming challenges into bright solutions.

Discover how model predictive control cuts API waste, reduces impurities, and makes pharmaceutical production more sustainable.

Highly energetic molecules like n-Butyllithium, Fluorine (F₂), Ethylene Oxide, or Azo Compounds are powerful, but notoriously difficult to control in traditional batch processes. Their reactivity often demands cryogenic conditions to prevent runaway reactions—driving up energy consumption and costs. Flow chemistry offers a smarter solution.