Microfluidics

Acoustofluidic Microfluidics: A PDMS-Free Innovation

Case Study / /

Acoustofluidic Microfluidics: A PDMS-Free Innovation Introduction: Moving Beyond PDMS in Acoustofluidics Here Acoustofluidics is a hybrid field combining acoustics and microfluidics, and has become a cornerstone in biomedical research, enabling precise fluid manipulation using sound waves. Among its most impactful technologies are Lateral Cavity Acoustic Transducers (LCATs), which leverage microstreaming to perform tasks like cell […]

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What is a Microfluidic Chip? A Complete Guide for Scientists, Engineers, and Innovators

Article / /

What Is a Microfluidic Chip? A Beginner’s Guide to Microfluidics Microfluidic chips are tiny, powerful devices that allow scientists and engineers to manipulate fluids at the microliter or nanoliter scale. These “lab-on-a-chip” systems are revolutionizing science and engineering, offering faster, cheaper, and more precise methods in biomedical research, chemistry, diagnostics, and beyond. Whether you’re curious

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Why You Should Think Twice Before Using PDMS in Microfluidic

Article / /

Why You Should Think Twice Before Using PDMS in Microfluidic What Is PDMS in Microfluidics? PDMS (Polydimethylsiloxane) is a silicone-based polymer widely used in microfluidic chip fabrication. Its popularity stems from its optical clarity, biocompatibility, and ease of prototyping using soft lithography. For years, PDMS has been the standard in academic microfluidics labs around the

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Organ-on-chip design

Organ-on-Chip Design: Materials, Challenges, and a New Approach to Accelerate Innovation

Cell Culture / /

How to Master Organ-on-Chip Design: Tools, Methods & Materials Introduction to Organ-On-Chip Organ-on-Chip (OoC) systems are transforming biomedical research by enabling more physiologically relevant models than traditional 2D cell cultures and animal testing. These microengineered systems integrate microfluidics, tissue engineering, and cell biology to simulate human organ functions in vitro. As the field advances, robust

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flexdym microfluidic chip

Microfluidics in 2025: Applications, Trends & How It Work

Article / /

Microfluidics in 2025: Applications, Trends & How It Work What Is Microfluidics? Microfluidics is the interdisciplinary science of manipulating small volumes of fluids,typically microliters to picoliters, within micro-scale channels (less than 1 mm wide). This technology integrates principles from physics, chemistry, biology, and engineering to create systems that can mix, sort, and analyze fluids with precision.

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Reversible Bonding in Microfluidics: A PDMS Alternative

Article / /

Reversible Bonding in Microfluidics: A PDMS Alternative In the evolving field of microfluidics, the demand for reusable, biocompatible, and easy-to-access devices is growing rapidly. Traditional materials such as polydimethylsiloxane (PDMS), while widely used, show major limitations. Especially when it comes to reversible bonding and small molecule adsorption. A recent study by Moreau et al. introduces

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Droplet-Based Microfluidics: A Design Guideline

Microfluidic Design / /

Droplet-Based Microfluidics: A Design Guideline Introduction Introduction Droplet-based microfluidics has emerged as a powerful tool for applications in biotechnology, chemistry, and material sciences. By leveraging the ability to generate and manipulate discrete droplets in immiscible phases, this technique offers high throughput, precise control over reaction conditions, and minimal sample consumption. It’s important to highlight that

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3D Printing with 2PP Technology

The Potential of 3D Printing using 2PP technology in Skeletal Muscle Engineering Application Note

Application note, Article / /

The Potential of 3D Printing using 2PP technology in Skeletal Muscle Engineering – Application Note Introduction 3D printing has revolutionized various fields by enabling precise and customizable fabrication of complex structures. In the context of skeletal muscle engineering, 2-photon polymerization (2PP)-based 3D printing offers significant potential to overcome existing limitations in scaffold and microfluidic design.

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Microfluidic Device

Room Temperature and Equipment-Free Microfluidic Device assembly & Bonding Application Note

Application note, Article / /

Room Temperature and Equipment-Free Microfluidic Device assembly & Bonding – Application Note Introduction The fabrication of microfluidic devices, essential for numerous applications in biomedical, pharmaceutical, and chemical industries, faces significant challenges, primarily related to bonding. Ensuring robust, and reliable bonding without the need for expensive cleanroom facilities is crucial for the widespread adoption of microfluidic

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Microfluidics

Optimizing Microfluidics: The Advantages of Piercing Inlets and Outlets Directly During Fast Flexdym Moulding Application Note

Application note, Article / /

Optimizing Microfluidics: The Advantages of Piercing Inlets and Outlets Directly During Fast Flexdym Moulding Microfluidic devices have become indispensable in a variety of fields, from medical diagnostics to chemical synthesis. The demand for more efficient, precise, and scalable manufacturing processes has driven innovation in the way these devices are produced. This recent report outlines a

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