Creative Biolabs remains at the forefront of microfluidic technology, providing microfluidic development services for droplet generators and flow chemistry systems. We tailor solutions to address the unique challenges faced by academic laboratories, pharmaceutical enterprises, materials science institutions, and industrial manufacturers, bridging the gap from concept to scalable production-ready applications.
Our Service Portfolio
Leveraging precision microfabrication, modular design, and advanced flow control, our team provides a comprehensive suite of microfluidic services that transform reaction performance, scalability, and reproducibility.
Flow Continuous Reaction Chip Development Service
We design and fabricate continuous flow reaction chips tailored for high-efficiency synthesis and precise kinetic control. These systems enable seamless scaling from laboratory experiments to pilot production, ensuring stable temperature gradients, uniform residence time distribution, and minimal reagent waste.
Micro Reactor Chip Development Service
Our micro reactor chips integrate multiple reaction zones for complex chemical sequences under continuous flow. With customizable channel geometry, temperature control, and pressure resistance, we help clients achieve enhanced mixing, selectivity, and safety compared to conventional batch reactors.
Flow Photochemistry Chip Development Service
Specialized for light-driven reactions, our photochemistry chips combine optimized optical transparency with controlled fluid dynamics. The platform supports diverse photo-catalytic and photo-polymerization processes, enabling uniform irradiation and high photon utilization for improved quantum yields and reaction precision.
Ionic Polymerization Chip Development Service
We provide microfluidic chip platforms optimized for cationic, anionic, or coordination polymerization processes. These chips offer precise initiation, propagation, and termination control, allowing researchers to synthesize polymers with narrow molecular weight distribution and tunable chain architectures.
Emulsion Polymerization Chip Development Service
Our emulsion polymerization chips enable the controlled generation of monodisperse droplets that serve as confined reaction microreactors. Through accurate tuning of droplet size and surfactant concentration, we support the synthesis of uniform polymer particles and nanocapsules for coating, drug delivery, and materials applications.
Gas Bubble Microfluidic Synthesis Service
This service utilizes bubble-assisted flow systems for reactions involving gaseous reactants or intermediates. By controlling gas–liquid interfaces within microchannels, we enable efficient gas–liquid mass transfer.
Particle Synthesis Services
We offer microfluidic particle synthesis solutions capable of producing polymeric, metallic, or hybrid nanoparticles with exceptional uniformity.
Encapsulation Services
Our encapsulation services use droplet-based microfluidic systems to precisely encapsulate cells, biomolecules, or active compounds within microgels, liposomes, or polymer shells. With excellent reproducibility and high encapsulation efficiency, we empower clients to engineer functional microcarriers for drug screening, cell assays, and controlled release applications.
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Client Testimonials
"We worked with the team on a droplet generator for single-cell studies. The system integrates smoothly with our lab tools, and their post-delivery support quickly resolved minor setup issues. It made our sample prep much more consistent."
— Sarah Lee, Founder & CEO
"For our pharmaceutical flow chemistry needs, their custom system cut down on reagent waste. The team listened closely to our reaction requirements, and the final setup runs reliably with minimal oversight. Good, practical service overall."
— James Wilson, Process Engineering Manager
"As a small materials startup, we needed a flexible droplet system. They adapted the design to our budget and timeline, and the system's easy to adjust for different formulations. Their training helped our team get up to speed fast."
— Dr. Elena Martinez, Lead Researcher
"We used their services for an environmental testing flow system. It's portable and delivers accurate results, which is key for our fieldwork. The team was responsive when we had questions about fluid compatibility."
— Lisa Torres, Quality Assurance Manager
"Their microfluidic setup for our polymer synthesis project has improved reaction efficiency. They walked us through each design step, and the system's held up well during long runs. No unnecessary frills—just what we needed."
— Mark Wilson, Operations Director
Published Data
Hybrid digital-droplet microfluidic chip for applications in droplet digital nucleic acid amplification
A study combined Digital Microfluidics (DMF) and Droplet Microfluidics (DrMF) on a single substrate, where DMF enables droplet mixing and serves as a controlled liquid supplier for high-throughput nanoliter droplet generators. The droplets were generated in a flow-focused region under dual pressure conditions: negative pressure applied to the aqueous phase and positive pressure to the oil phase. The research evaluated droplets produced using the hybrid DMF-DrMF system in terms of volume, velocity, and production frequency, and compared them with those generated by standalone DrMF devices.
Fig.1 Droplets produced with a hybrid DMF-DrMF device.1,3
A 3D-printed standardized modular microfluidic system for droplet generation
A research paper introduces a modular microfluidic system utilizing projection-based microlithography 3D printing technology for droplet generation. All modules feature standardized cubic structures with leak-proof connectors, while their 3D capabilities enhance functionality. The team developed specialized functional modules that can be flexibly assembled into droplet generators capable of producing various types including single droplets, alternating droplets, merged droplets, and Janus particles. The compact design and simplicity of these droplet generators make them ideal for integration into multifunctional microfluidic systems.
Fig.2 Schematics of the standard droplet generation modules.2,3
References
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Coelho, Beatriz J., et al. "Hybrid digital-droplet microfluidic chip for applications in droplet digital nucleic acid amplification: design, fabrication and characterization." Sensors 23.10 (2023): 4927. https://doi.org/10.3390/s23104927
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Chen, Junyi, et al. "A 3D-printed standardized modular microfluidic system for droplet generation." Biosensors 12.12 (2022): 1085. https://doi.org/10.3390/bios12121085
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Distributed under Open Access license CC BY 4.0, without modification.
Created October 2025
