Bio Break: The Role of Pipettes in Lab Workflows

Resources

Bio Break: The Role of Pipettes in Lab Workflows

In this episode of Bio Break, Nick and Joris dive into a common challenge faced by researchers and product developers: the use of pipettes in laboratory workflows and the need for alternatives in non-laboratory environments. From the precision of the trusty P200 pipette to innovative solutions like microfluidics, this discussion highlights the strengths and limitations of fluid handling tools in research and beyond.

Nick kicks things off by showcasing his favorite instrument, the P200 pipette. Renowned for its precision and ease of use, the pipette is a cornerstone in basic research, capable of transferring fluids in the range of 1–200 microliters. With its ergonomic design and disposable tips, it ensures accuracy and contamination-free sample handling, making it indispensable for laboratory scientists. However, as Joris points out, transitioning workflows out of the lab introduces unique challenges.

The conversation shifts to why developers and clients often seek alternatives to pipettes. For instance, in clinical or point-of-care settings, pipettes may not be practical due to operator inexperience or the need to handle viscous solutions like honey or biological samples. Nick illustrates this challenge with a viscosity comparison, explaining how materials like honey, with viscosity 1,000 times that of water, are difficult to handle using traditional pipettes.

Joris introduces innovative alternatives like microfluidics, a precise and controlled method for transporting small liquid volumes, and off-the-shelf transfer pipettes, which can be cost-effective but may lack the precision required for critical applications. These solutions showcase the importance of adapting workflows to specific needs, whether it’s improving accuracy, handling viscous fluids, or operating in non-lab environments.

Whether you’re a researcher, engineer, or product developer, this episode provides valuable insights into optimizing fluid handling for various scenarios. Learn about the trade-offs of replacing pipettes and how cutting-edge tools can transform workflows.

The Role of Pipettes in Lab Workflows

A gloved hand holds a syringe near the palm of another hand, which has a white grid drawn on it. The needle is poised to inject at the intersection of the lines. The background is plain white, drawing focus to the skin and procedural markings.

While most people think of Botox as a simple beauty treatment, there’s a surprising amount of engineering, anatomy, and precision behind the process.

A close-up view of a transparent smart bandage with an embedded microchip adhered to human skin. The circuit lines are visible on the bandage surface. Overlay text reads “Theranostic? Smart Bandages” with “Theranostic?” in bold purple and “Smart Bandages” in bold black, set against a soft blue and skin-toned background.

A theranostic wound dressing does more than cover a cut—it actively detects infection and delivers targeted treatment.

A laptop on a wooden desk displays a digital document icon on its screen. Beside it, bold text reads "Design History Files Explained," highlighting the topic of regulatory documentation in medical device development.

Nick and Joris break down what a DHF is, why it’s required, and how it plays a vital role throughout the development lifecycle.

Two colorful paper boats—one red and one yellow—float on a blue background with illustrated white waves beneath them. Bold text reads "From Idea to Impact," symbolizing innovation and progress in medical device development.

Nick Allan and Joris van der Heijden revisit one of StarFish Medical’s most successful Pathfinder journeys, showcasing how a bold research concept evolved into a fully realized clinical diagnostic device.