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#microfluidics — Public Fediverse posts

Live and recent posts from across the Fediverse tagged #microfluidics, aggregated by home.social.

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  1. CellTrap is an instrument-free, microfluidic lab-on-a-chip system designed to isolate and observe interactions between individual immune cells and cancer cells at the single-cell level.
    #Immunology #Oncology #Microfluidics #BiomedicalEngineering #Biophysics #sflorg
    sflorg.com/2026/06/imgy0618260

  2. A new tilting method extracts droplet friction from a single droplet experiment. Surprisingly, many surfaces converge toward the same theoretical value, suggesting a hidden universality in wetting dynamics.

    🔗 doi.org/10.1021/acs.langmuir.6

    #InterfacialFlows #Wettability #Microfluidics #Physics #MaterialsScience

  3. Marine snow is a continuous shower of organic dust and detritus that falls from the upper layers of the ocean to the seafloor, acting as a vital "biological pump" that transports and stores atmospheric carbon in the deep #ocean
    #MarineBiology #EarthScience #Oceanography #Biogeochemistry #Microfluidics #sflorg
    sflorg.com/2026/03/es03092601.

  4. A highly adaptable and cost-efficient #microfluidics system designed to automate fluid exchange in multiplexed super-resolution microscopy, allowing scientists to simultaneously visualize multiple molecular components inside a single cell with nanometer precision.
    #Biophysics #CellBiology #Microfluidics #OpticalMicroscopy #sflorg
    sflorg.com/2026/03/cbio0304260

  5. Watching Waves on the Nanoscale

    It’s tough to simulate nonlinear wave dynamics, so scientists often test theories in wave flumes, where they can create more controlled waves than what we see in the wild. But conventional wave flumes are big–meters-long, complicated equipment–and can only test a small range of conditions. To reach more extreme nonlinear dynamics, researchers have turned to a chip-based approach. These 100-micron-long wave flumes carry a film of superfluid helium less than 7 nanometers thick. But despite that tiny size, the system can reach levels of nonlinearity five orders of magnitude greater than their full-sized counterparts. (Image and research credit: M. Reeves et al.; via Physics Today)

    #fluidDynamics #microfluidics #nonlinearDynamics #physics #science #superfluid #waves
  6. Necroprinting By Mosquito

    Engineers have been adapting biological materials into robotics in recent years. One of the latest versions of this trend is “necroprinting,” in which researchers built a microscale 3D printer around a mosquito’s proboscis. Made to pierce thick skin to reach blood, the mosquito proboscis offered the kind of size, geometry, and stiffness needed for small-scale printing. The team found that their necroprinter performed well at the ~20 micron scale, with the mosquito-based nozzle costing only a fraction of what a conventional human-made nozzle would. (Image credit: NIAID; research credit: J. Puma et al.; via Ars Technica)

    #3DPrinting #biology #fluidDynamics #microfluidics #physics #science
  7. Acoustically Trapping Nanoparticles

    Micrometer-sized particles can be trapped in place against a flow using acoustic waves. But smaller nano-sized particles feel less radiation pressure from acoustic waves, and so keep moving in the flow. But new work shows that it is possible to trap those nanoparticles with some additional help.

    In this case, researchers seeded their flow with microparticles that were held in place by acoustic waves against the background flow. When nanoparticles were added to the mix, they remained trapped in the wells between microparticles due to a combination of acoustic forcing and the hydrodynamic shielding of the nearby large particles. (Image credit: P. Czerwinski; research credit: A. Pavlič and T. Baasch; via APS)

    #acousticTrapping #acoustics #fluidDynamics #microfluidics #particleSuspension #physics #science

  8. Microsoft's claiming a 'breakthrough' in AI chip cooling with microfluidics, promising 3x better cooling and allowing for overclocking without, you know, melting things. Apparently, the design is inspired by leaf veins. Is this the cool future we've been waiting for, or just another drop in the data center ocean? engadget.com/ai/microsoft-clai #AI #TechNews #Cooling #Microfluidics #Hardware

  9. Ah, the cutting-edge #technology we've all been waiting for: playing #Snake with glorified water droplets! 🚰🐍 Because nothing screams "innovation" like reinventing the wheel with microfluidic acrobatics. 🙄🔬
    youtube.com/watch?v=rf-efIZI_Dg #cuttingedge #microfluidics #game #innovation #waterdroplets #HackerNews #ngated

  10. Teach your #microscope how to print: Low-cost rapid-iteration #OpenSource #microfabrication for #biology:

    - no cleanroom required
    - replace SU-8 #photoresist & silicon wafers by #3Dprinting #resin & microscope slides
    - #fluorescence microscope-based maskless #photolithography
    - achieve µm-scale precision across cm-sized areas

    doi.org/10.1039/D5LC00181A
    #DIYbio #lab #instruments #microfluidics

  11. OIST’s Micro/Bio/Nanofluidics Unit and collaborators explore how active #microfluidics can sort particles and pair them with powerful detection tools in a new ACS Sensors Perspective. pubs.acs.org/doi/10.1021/...

    pubs.acs.org/doi/10.1021/ac...

  12. #OpenSource tubing-free #impeller #pump platform for controlled recirculating #fluid flow for #microfluidics & organs-on-chip:

    - customizable pump & #3Dprinted chip geometry
    - fluid velocities: µm/s to mm/s
    - #cell culture incubator compatible

    doi.org/10.1016/j.ohx.2025.e00
    #DIYbio #lab #instruments

  13. #OpenDrop – Desktop Digital Biology Laboratory
    gaudi.ch/OpenDrop/

    #microfluidics goes #foss

    Can we create simple medicines with this devices?

  14. 🧪 ⚛️ Digital twins aren’t just for rockets… meet one for single cells! We built a microfluidic digital twin of a mechano-NPS device to predict cell flow & deformation. Read: duke.is/iccs25twin #DigitalTwin #SingleCell #Microfluidics @dukeengineering.bsky.social @ucberkeleyofficial.bsky.social

  15. Hi floss.social. Just moved in from fosstodon.org/@ygor

    I'm an #ElectricalEngineer from #Brazil, currently living in #France for many years. I work as a #SoftwareDeveloper, writing proprietary software for #microfluidics (I do wish I could work on #FreeSoftware for a living instead). My favorite programming language is #rustlang, but I use/have used about a dozen other languages, they're alright. I'm also a fan of #animation.

    #introduction