Microfluidics in One Day: Physics, Fabrication, and Functional Devices

Jacques Fattaccioli

Microfluidics scholar & founder

Microfluidics is learnable in a day — if taught by someone who builds it.

Most researchers encounter microfluidics the hard way: a paper references a chip, a collaborator hands over a protocol, and suddenly you're troubleshooting bonding failures or droplet instability with no clear framework to reason from.

This workshop exists to short-circuit that process.

In one intensive day, you'll build the physical intuition, fabrication literacy, and experimental vocabulary that usually takes months of lab trial-and-error to acquire. The content is drawn directly from active research — droplet microfluidics, single-cell encapsulation, biomimetic devices — taught by someone who designs, fabricates, and publishes with these tools every week.

Whether you're a PhD student starting a microfluidics project, a postdoc expanding your toolkit, or an R&D engineer evaluating lab-on-a-chip solutions, you'll leave with a coherent mental model of how microfluidic systems work, why they fail, and how to design them with intent.

No prior microfabrication experience required. Curiosity and a concrete research or engineering challenge are enough.

What you’ll learn

Build the physical intuition and hands-on fluency to design and troubleshoot microfluidic systems — from first principles to working device.

  • Apply Reynolds, Péclet, and capillary numbers to real device design

  • Identify when surface forces dominate and how to exploit them

  • Avoid design mistakes that only make sense at larger scales

  • Compare PDMS, glass, and thermoplastic workflows side by side

  • Understand bonding strategies and surface activation trade-offs

  • Know what's achievable without a cleanroom

  • Map squeezing, dripping, and jetting regimes to device geometry

  • Select surfactants based on interface chemistry, not habit

  • Tune flow rates and pressures for stable, monodisperse emulsions

  • Match detection modality to throughput and sensitivity requirements

  • Set up fluorescence readout on standard or compact microscopes

  • Extract fabrication and flow parameters from methods sections

  • Identify transferable vs. lab-specific elements of published protocols

  • Translate published designs into your own experimental context

  • Diagnose leaks, delamination, clogging, and droplet instability

  • Build a failure-mode checklist grounded in physical reasoning

  • Develop habits that reduce trial-and-error in device development

Workshop agenda

  • What changes at small scales

    The physics of miniaturization: Reynolds number, surface-to-volume ratio, capillary forces, diffusion dominance. Why intuitions from bench-scale fail. Dimensional analysis as a design tool.

  • Fabrication

    Soft lithography and PDMS: the standard route and its limits. Alternative substrates (glass, thermoplastics, NOA). Bonding strategies, surface chemistry post-fabrication. What you can realistically m

  • Flow control and droplet generation

    Pressure-driven vs. syringe-pump actuation. Droplet formation regimes (squeezing, dripping, jetting). Surfactant choice and interface stabilization. Passive vs. active control.

  • Detection and readout

    Fluorescence detection on-chip: widefield, confocal, and compact setups.

  • Application and Integration

    Single-cell encapsulation and analysis. Droplet-based screening. Organ-on-chip and biomimetic geometries. From prototype to translational device — where the field is heading.

  • Q&A / case study discussion

    Participants bring their own use case; collective troubleshooting and design critique.

Learn directly from Jacques

Jacques Fattaccioli

Jacques Fattaccioli

Microfluidic designer for biological questions

See all products from Jacques

Who this workshop is for

  • PhD student or postdoc launching a microfluidics project, needing a fast, rigorous entry point to avoid months of costly trial and error.

  • R&D engineer evaluating lab-on-a-chip solutions for diagnostics or screening, who needs real fluency before committing to a platform.

  • Life scientist adding microfluidics to an existing toolkit to scale down assays or reach single-cell resolution.

Prerequisites

  • Basic fluid mechanics and chemistry literacy

    Participants need basic physics and chemistry literacy to engage with quantitative reasoning — no fabrication experience required.

What's included

Jacques Fattaccioli

Live sessions

Learn directly from Jacques Fattaccioli in a real-time, interactive format.

Lifetime access

Go back to course content and recordings whenever you need to.

Community of peers

Stay accountable and share insights with like-minded professionals.

Certificate of completion

Share your new skills with your employer or on LinkedIn.

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Reimbursement

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Private cohort

Run a cohort for your org

A dedicated cohort with a custom schedule and curriculum, tailored to your team.

Book a private cohort

€800

EUR

Jul 10
·

2 cohorts