The secret to faster iteration.
Drew Wollman, Anne Tong, and John Shanley from AbbVie’s SPaRCS group show how they overcame complex lab bottlenecks with #3Dprinting , enabling rapid prototyping and faster learning cycles.
🎧 Listen to more episodes: youtube.com/playlist?lis...
#microfluidics
Oil droplets in deformable tubes can be mobilized via hydrodynamic or wall actuation. Simulations show resonance can minimize transport time, a step toward precise droplet control in biomicrofluidics.
🔗 journals.aps.org/prfluids/abs...
#microfluidics #droplets #fluiddynamics #simulation #resonance
Analytica 2026 is coming up, and if you're working through a fluidic challenge, we'd like to meet in person.
Booth 519, Hall A3. Controlled Fluidics + TriContinent + Thomas + ILS, all under one roof.
#Analytica2026 #Microfluidics #LifeSciences
In 2018, we developed the first MasterMold for PDMS to overcome limits of conventional #3Dprinting resins. In 2019, researchers at UTS and Macquarie University validated it. (1/2) #microfluidics
Full research details here: cadworks3d.com/discover/aca...
Catch up on the latest ANFF news! mailchi.mp/anff.org.au/...
#NCRIS #ANFFNetwork #AdvancedManufacturing #Nanotechnology #Microfluidics #Translation #Commercialisation #Newsletter @anff-sa.com
Hot take for fluidic device engineers:
Process selection isn't procurement. It's design.
CNC ≠ diffusion bonding ≠ 3D printing. Each process shapes what geometry is even possible. Bonding strategy becomes part of the architecture.
Read more here: buff.ly/uJg94rt
#Microfluidics #Engineering
We 3D printed a 𝐂𝐫𝐨𝐬𝐬-𝐅𝐥𝐨𝐰 𝐌𝐞𝐦𝐛𝐫𝐚𝐧𝐞 𝐃𝐞𝐯𝐢𝐜𝐞 this week, and it works.
100 µm paprika particles in, stopped cleanly by a 50 µm membrane. Separation working exactly as designed🎥
4-layer stack: PDMS → 50 µm membrane → PDMS → PDMS. Bonded, no leaks, benchside ready.
#3dprinting #microfluidics
Researchers made an egg-roll-shaped capillary tube with inclined microplates. Liquids move directionally based on contact angles, opening new ways to control fluids in microchannels.
🔗 pubs.aip.org/aip/pof/arti...
#Microfluidics #Capillarity #LiquidTransport #SurfaceScience #PhysicsOfFluids
🧪 Proud to back Hummingbird Nano, building high-precision microfluidic chips that power next-gen diagnostics and life-science tools. KY innovation with global potential.
🔗 hummingbirdnano.com
#Microfluidics #KYStartups
Image shows an on-chip vesicle production method for to produce large micron or sub-micron sized vesicles.
🧪 New Paper Alert!
Out now in @cp-cellrepmethods.bsky.social : A robust method for on-chip production & manipulation and oil-free retreival of lipid vesicles via inverted emulsion
#SyntheticBiology.
Read it here: doi.org/10.1016/j.cr...
#Microfluidics #Biophysics #Science #SciSky #Syntheticcell
Global Microfluidics Market Expected to Grow to $77.5 Billion by 2033 Driven by Increasing Demand #None #healthcare #Microfluidics #Lab-on-a-Chip
Manufacturing decisions are increasingly validation decisions.
#MedTech #Diagnostics #Microfluidics #LifeSciences #EngineeringDesign #MedicalDevices
Read the full paper by Ramak Khosravi and Milica Radisic of @uhn.ca, @dukesurgery.bsky.social, and @bme-uoft.bsky.social and @donnellycentre.bsky.social at @utoronto.ca.
www.nature.com/articles/s41...
Supported by CHIR, NHLBI, NSERC, @innovation.ca, and SVRF.
#CardioSky #NAMs #Microfluidics
Owning the full fluidic stack? Fewer surprises start with better design decisions upstream.
👉 Download the condensed guide (10-minute read): buff.ly/sdfQqWK
#MedTech #LifeSciences #Microfluidics #EngineeringDesign #DFM #Manufacturing #Diagnostics #OEM
Otra interesante aplicación en microfluídica reproductiva. Un chip que imita el tracto reproductor femenino para seleccionar espermatozoides con mínimo daño en el ADN.
buff.ly/nolBEQ1
#bianorbiotech #SDF #microfluidics #AssistedReproduction
We 3D-printed this cell trap in our office.
16 channels. 120 µm traps. Built for single-cell capture and interaction studies.
Functional #microfluidics in 1 day with our Complete System.
Ready to 3D print at benchside? Let’s talk 👉 cadworks3d.com/start-a-one-...
🎙️ Meet COSA Ltd.
Turning lab expertise into real-world tools.
Dr. Iwan Roberts and Dr. Filip Hrnčiřík from the University of Cambridge developed COSA Ltd, creating devices from cochleas to mouse tumours.
🎧 Listen here: cadworks3d.com/discover/big...
#3dprinting #microfluidics #biotechnology
𝐇𝐨𝐰 𝐥𝐨𝐧𝐠 𝐭𝐨 3𝐃 𝐩𝐫𝐢𝐧𝐭 𝐚 𝐜𝐞𝐥𝐥 𝐭𝐫𝐚𝐩 𝐝𝐞𝐯𝐢𝐜𝐞?
At #CADworks3D, just 1 day to create functional #microfluidics devices!
1-Day Workflow: CAD → Print → Clean → Cast & Cure → Bond
Device complete at your benchside, no cleanroom needed.
Want to learn more? Talk to a specialist: cadworks3d.com/start-a-one-...
What’s the hardest part for you right now: keeping tolerances in clear plastics, bonding without haze, or managing surface finish inside channels? Let us know in the comments.
#manufacturing #microfluidics #engineering
Lab-on-chip innovations boost the US Microfluidic Devices Market growth. Report: www.marketresearchfuture.com/reports/us-m...
#Microfluidics
Stimulus-responsive gradient hydrogel micro-actuators fabricated by two-photon polymerization-based 4D printing
A gradient 2PP-based #4Dprinting strategy tailors hydrogel crosslinking to create multilayer #microactuators with greater bending, faster response cycles, and enhanced performance, enabling advances in #softrobotics and #microfluidics.
Nanotechnology Reviews: doi.org/10.1515/ntre...
This week, we 3D-printed a 𝐜𝐞𝐥𝐥 𝐭𝐫𝐚𝐩 𝐝𝐞𝐯𝐢𝐜𝐞 with 16 channels to capture single cells or pairs. Using paprika as a cell mimic, the ‘cells’ were successfully trapped under the microscope.
Visit us: cadworks3d.com?utm_source=b...
Next week, watch our step-by-step #3Dprinting tutorial 👀
#microfluidics
This work demonstrates how microfluidic synthesis enables rapid preparation of highly dispersed Ru catalysts, achieving efficient hydrodeoxygenation of lignin-derived phenolics and offering a scalable pathway for biomass energy conversion.
doi.org/10.59717/j.x...
#microfluidics #catalyst
Dr. Iwan Roberts and Dr. Filip Hrnčiřík from the The University of Cambridge talk about how 3D printing reveals the true scale and delicate structure of the human ear.
🎧 Listen here: cadworks3d.com/discover/big...
#3dprinting #microfluidics #biotechnology
✨Koç University engineers unveil AI-powered tool designing microscopic labs-on-chips! 🔬 Automating innovation for faster discoveries.🤯 #microfluidics
Source: phys.org/news/2026-02-automating-...
✨Tiny droplets—keys to future tech!—struggle on surfaces at minuscule scales. Friction's a big hurdle. Can we master their movement?🔬 #microfluidics
Source: phys.org/news/2026-01-liquid-repe...
Microfluidics Market Expected to Reach $37.2 Billion by 2030, Indicating Significant Growth #USA #healthcare #Delray_Beach #diagnostics #Microfluidics
🚨 New!! Our latest paper explores microfluidic chamber design for Organ-on-a-Chip systems using CFD, highlighting how pillar geometry and pulsatile perfusion shape shear stress and flow behavior. 🧬
🔗 www.mdpi.com/2077-0375/16...
#Microfluidics #Biosensors #Bioengineering #CFD
Strategic Partnership Between Intrepid Automation and Rapid Fluidics to Revolutionize Microfluidic Manufacturing in the U.S. #United_States #San_Diego #healthcare #Additive_Manufacturing #Microfluidics
💡 The core idea:
Instead of encoding computation only in chemistry, we make the reaction vessel itself programmable.
Soft hydrogel structures can be written & erased in situ, reshaping flow, mixing, and reaction environments on demand. #3Dprinting #microfluidics