A microfluidic device with animated lines flowing through its air and fluidic channels.

A new era in microfluidic fabrication

Production-grade materials

Build your device in the right material from day one.

Three blocks labeled “PC,” “PMMA,” and “COP” respectively. PC PMMA COP

10X Speed

Shorten your development cycle with 10X faster iterations than legacy manufacturing.

A 3 to 5 month timeline. Legacy manufacturing produced 1 iteration while Parallel Fluidics produced 10 iterations. 3-5 months Legacy manufacturing 1 iteration Parallel Fluidics 10 iterations

Powered by Transition Molding

Molded part performance in a fraction of the time.

8 planes stacked on top of each other as if forming something.

Focus on the science

Your real technology is what’s happening inside your chip. Embedded Hardware lets you prioritize your scientific challenges instead of reinventing the wheel to control or connect to flow.

Hardware library

Hardware used in video

  • A small square cuboid that is the MV-1 microvalve.
    MV-1 microvalve

    Automate flow control

  • An octagonal prism that is the 1/4-28 port.
    1/4-28 port

    Connect to capillary tubing

  • A flanged cylinder that is the Luer port.
    Luer port

    Connect to male Luer fittings

On-demand manufacturing

Ramp up from a few prototype devices to hundreds per month with a single click. Dynamic quotes let you turn production on and off to meet your needs without lengthy and expensive contracts.

Top-down view of a custom microfluidic device with 3 1/4-28 ports and an MV-1 microvalve.

Custom chip 1

Quantity

35

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Reduce risk

Device performance can vary wildly when switching from one material to another. With Transition Molding, you start with production-grade resins from day one, eliminating risk and shortening the time to scale up.

Close-up of microfeatures on a microfluidic device.

How it works

  1. Select your hardware

    The 1/4-28 port being selected out of a group of hardware.
  2. Drop the CAD into your custom design

    3 1/4-28 ports placed onto a custom microfluidic device.
  3. Upload to Parallel Fluidics

    The custom microfluidic device being uploaded.
  4. Get your devices

    A finished microfluidic chip that looks exactly like the drawings.

Accelerate your microfluidic technology development.