High-pressure mixing
Controlled collision and rapid mixing of lipid and aqueous streams for reproducible nanoparticle formation.
Technical overview ↗SC Biosystems develops high-pressure mixing, fluid-control, and software-defined process systems for lipid nanoparticle formulation — from early development toward scalable production.
We are building equipment and control technologies intended to keep critical process conditions visible and transferable as a formulation moves through development and scale.
Controlled formulation of ionisable and ligand-mediated LNPs through defined mixing, conditioning, and process measurement.
View programme ↗Development programme 02Programmable synthesis equipment for controlled reagent routing, reaction cycles, measurement, and repeatable operation.
View programme ↗Our approach combines fluid handling, instrumentation, automation, and process understanding rather than treating them as separate layers.
Controlled collision and rapid mixing of lipid and aqueous streams for reproducible nanoparticle formation.
Technical overview ↗Precision pumping, pressure management, defined flow ratios, and coordinated downstream handling.
Technical overview ↗Recipe execution, process visibility, data capture, automation, and system diagnostics within one environment.
Technical overview ↗Programmable reagent routing and reaction-cycle control for repeatable oligonucleotide synthesis workflows.
Technical overview ↗Lipid and aqueous payload streams must be delivered at defined flow rates and brought together under tightly controlled conditions. Our systems work combines the mixer with pumping, pressure management, automation, conditioning, and process data.
View the systems approach →A process is scalable only when its critical conditions remain visible and reproducible.
Low-pulsation pumping and precise flow ratios establish repeatable conditions before materials reach the critical mixing step.
Pressure, flow, system state, and process data make operating conditions visible throughout development.
Common control logic and process definitions support a more direct path from formulation work toward larger-scale production.