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#softrobotics — Public Fediverse posts

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

  1. The LIMA pump is a pea-sized, lightweight fluid pump that utilizes liquid metal to convert electrical energy into fluid motion. It serves as an efficient, ultra-compact power source for next-generation soft robotics and adaptive wearable materials.
    #SoftRobotics #ElectromechanicalEngineering #FluidDynamics #Magnetohydrodynamics #sflorg
    sflorg.com/2026/05/eng05272601

  2. Xenobots are microscopic, programmable biological machines constructed entirely from living cells without any genetic modification. Measuring less than a millimeter, they lack traditional mechanical parts and are entirely organic, biodegradable, and derived primarily from embryonic stem cells of the African clawed frog (Xenopus laevis).
    #WhatIs #EvolutionaryBiology #DevelopmentalBiology #SyntheticBiology #ComputationalBiology #SoftRobotics
    sflorg.com/2026/05/wi05172601.

  3. Xenobots are microscopic, programmable biological machines constructed entirely from living cells without any genetic modification. Measuring less than a millimeter, they lack traditional mechanical parts and are entirely organic, biodegradable, and derived primarily from embryonic stem cells of the African clawed frog (Xenopus laevis).
    #WhatIs #EvolutionaryBiology #DevelopmentalBiology #SyntheticBiology #ComputationalBiology #SoftRobotics
    sflorg.com/2026/05/wi05172601.

  4. Xenobots are microscopic, programmable biological machines constructed entirely from living cells without any genetic modification. Measuring less than a millimeter, they lack traditional mechanical parts and are entirely organic, biodegradable, and derived primarily from embryonic stem cells of the African clawed frog (Xenopus laevis).
    #WhatIs #EvolutionaryBiology #DevelopmentalBiology #SyntheticBiology #ComputationalBiology #SoftRobotics
    sflorg.com/2026/05/wi05172601.

  5. Xenobots are microscopic, programmable biological machines constructed entirely from living cells without any genetic modification. Measuring less than a millimeter, they lack traditional mechanical parts and are entirely organic, biodegradable, and derived primarily from embryonic stem cells of the African clawed frog (Xenopus laevis).
    #WhatIs #EvolutionaryBiology #DevelopmentalBiology #SyntheticBiology #ComputationalBiology #SoftRobotics
    sflorg.com/2026/05/wi05172601.

  6. Xenobots are microscopic, programmable biological machines constructed entirely from living cells without any genetic modification. Measuring less than a millimeter, they lack traditional mechanical parts and are entirely organic, biodegradable, and derived primarily from embryonic stem cells of the African clawed frog (Xenopus laevis).
    #WhatIs #EvolutionaryBiology #DevelopmentalBiology #SyntheticBiology #ComputationalBiology #SoftRobotics
    sflorg.com/2026/05/wi05172601.

  7. Korean researchers have developed 4D printed polymers using an industrial waste material that could transform soft robotics. The team from Korea Research Institute of Chemical Technology created printable polymers that overcome a longstanding manufacturing challenge in flexible robotics. 3dprintingindustry.com/news/kr #3Dprint #3Dprinting #Research #SoftRobotics #KRICT

  8. Korean researchers have developed 4D printed polymers using an industrial waste material that could transform soft robotics. The team from Korea Research Institute of Chemical Technology created printable polymers that overcome a longstanding manufacturing challenge in flexible robotics. 3dprintingindustry.com/news/kr #3Dprint #3Dprinting #Research #SoftRobotics #KRICT

  9. Korean researchers have developed 4D printed polymers using an industrial waste material that could transform soft robotics. The team from Korea Research Institute of Chemical Technology created printable polymers that overcome a longstanding manufacturing challenge in flexible robotics. 3dprintingindustry.com/news/kr #3Dprint #3Dprinting #Research #SoftRobotics #KRICT

  10. Korean researchers have developed 4D printed polymers using an industrial waste material that could transform soft robotics. The team from Korea Research Institute of Chemical Technology created printable polymers that overcome a longstanding manufacturing challenge in flexible robotics. 3dprintingindustry.com/news/kr #3Dprint #3Dprinting #Research #SoftRobotics #KRICT

  11. Korean researchers have developed 4D printed polymers using an industrial waste material that could transform soft robotics. The team from Korea Research Institute of Chemical Technology created printable polymers that overcome a longstanding manufacturing challenge in flexible robotics. 3dprintingindustry.com/news/kr #3Dprint #3Dprinting #Research #SoftRobotics #KRICT

  12. The soft fiber actuator is an ultrafine, electrically driven "soft yarn" made from flexible polymer capable of bending, contracting, and producing complex three-dimensional movements upon the application of an electrical voltage.
    #MaterialScience #SoftRobotics #BiomedicalEngineering #sflorg
    sflorg.com/2026/03/ms03102601.

  13. The soft fiber actuator is an ultrafine, electrically driven "soft yarn" made from flexible polymer capable of bending, contracting, and producing complex three-dimensional movements upon the application of an electrical voltage.
    #MaterialScience #SoftRobotics #BiomedicalEngineering #sflorg
    sflorg.com/2026/03/ms03102601.

  14. The soft fiber actuator is an ultrafine, electrically driven "soft yarn" made from flexible polymer capable of bending, contracting, and producing complex three-dimensional movements upon the application of an electrical voltage.
    #MaterialScience #SoftRobotics #BiomedicalEngineering #sflorg
    sflorg.com/2026/03/ms03102601.

  15. The soft fiber actuator is an ultrafine, electrically driven "soft yarn" made from flexible polymer capable of bending, contracting, and producing complex three-dimensional movements upon the application of an electrical voltage.
    #MaterialScience #SoftRobotics #BiomedicalEngineering #sflorg
    sflorg.com/2026/03/ms03102601.

  16. The soft fiber actuator is an ultrafine, electrically driven "soft yarn" made from flexible polymer capable of bending, contracting, and producing complex three-dimensional movements upon the application of an electrical voltage.
    #MaterialScience #SoftRobotics #BiomedicalEngineering #sflorg
    sflorg.com/2026/03/ms03102601.

  17. 🧪Dehnbare Leiter aus Flüssigmetall: leitfähig bei 500% Dehnung, selbstheilend aber noch weit von Marktreife

    👉 Meine Meinung: Der Impuls zählt. Die Herausforderung liegt in der Skalierbarkeit, nicht im Material.

    (Video Credits to Cell Press / iScience, 14.06.2018, via CELL PRESS / ISC, "Video S1. MPC for Stretchable Circuits, Related to Figure 3"; Social Media-Bearbeitung: Rinor Restelica)

    #FlüssigMetall #SoftRobotics #StretchableElectronics #Innovation

  18. Universität Stuttgart @Uni_Stuttgart@bawü.social ·

    Dr. Philipp Rothemund, Junior-Professor an der #UniStuttgart, erhält einen renommierten ERC Consolidator Grant (bis zu 2 Mio. €), um die Bewegungssteuerung von #SoftRobotics grundlegend zu vereinfachen.
    Mehr dazu: uni-stuttgart.de/universitaet/

    #ERCGrant #ERCCoG

  19. Universität Stuttgart @Uni_Stuttgart@bawü.social ·

    Dr. Philipp Rothemund, Junior-Professor an der #UniStuttgart, erhält einen renommierten ERC Consolidator Grant (bis zu 2 Mio. €), um die Bewegungssteuerung von #SoftRobotics grundlegend zu vereinfachen.
    Mehr dazu: uni-stuttgart.de/universitaet/

    #ERCGrant #ERCCoG

  20. Universität Stuttgart @Uni_Stuttgart@bawü.social ·

    Dr. Philipp Rothemund, Junior-Professor an der #UniStuttgart, erhält einen renommierten ERC Consolidator Grant (bis zu 2 Mio. €), um die Bewegungssteuerung von #SoftRobotics grundlegend zu vereinfachen.
    Mehr dazu: uni-stuttgart.de/universitaet/

    #ERCGrant #ERCCoG

  21. Universität Stuttgart @Uni_Stuttgart@bawü.social ·

    Dr. Philipp Rothemund, Junior-Professor an der #UniStuttgart, erhält einen renommierten ERC Consolidator Grant (bis zu 2 Mio. €), um die Bewegungssteuerung von #SoftRobotics grundlegend zu vereinfachen.
    Mehr dazu: uni-stuttgart.de/universitaet/

    #ERCGrant #ERCCoG

  22. Universität Stuttgart @Uni_Stuttgart@bawü.social ·

    Dr. Philipp Rothemund, Junior-Professor an der #UniStuttgart, erhält einen renommierten ERC Consolidator Grant (bis zu 2 Mio. €), um die Bewegungssteuerung von #SoftRobotics grundlegend zu vereinfachen.
    Mehr dazu: uni-stuttgart.de/universitaet/

    #ERCGrant #ERCCoG

  23. Universität Stuttgart @Uni_Stuttgart@bawü.social ·

    Herzlichen Glückwunsch an Philipp Rothemund zu den „Top 40 unter 40“!💐👏
    Ausgezeichnet wurde Jun.-Prof. Philipp Rothemund vom Wirtschaftsmagazin #Capital für seine wegweisende Forschung im Zukunftsfeld #SoftRobotics am Institut für Adaptive Mechanische Systeme der #UniStuttgart👉 shorturl.at/vBWIQ

  24. Universität Stuttgart @Uni_Stuttgart@bawü.social ·

    Herzlichen Glückwunsch an Philipp Rothemund zu den „Top 40 unter 40“!💐👏
    Ausgezeichnet wurde Jun.-Prof. Philipp Rothemund vom Wirtschaftsmagazin #Capital für seine wegweisende Forschung im Zukunftsfeld #SoftRobotics am Institut für Adaptive Mechanische Systeme der #UniStuttgart👉 shorturl.at/vBWIQ

  25. Universität Stuttgart @Uni_Stuttgart@bawü.social ·

    Herzlichen Glückwunsch an Philipp Rothemund zu den „Top 40 unter 40“!💐👏
    Ausgezeichnet wurde Jun.-Prof. Philipp Rothemund vom Wirtschaftsmagazin #Capital für seine wegweisende Forschung im Zukunftsfeld #SoftRobotics am Institut für Adaptive Mechanische Systeme der #UniStuttgart👉 shorturl.at/vBWIQ

  26. Universität Stuttgart @Uni_Stuttgart@bawü.social ·

    Herzlichen Glückwunsch an Philipp Rothemund zu den „Top 40 unter 40“!💐👏
    Ausgezeichnet wurde Jun.-Prof. Philipp Rothemund vom Wirtschaftsmagazin #Capital für seine wegweisende Forschung im Zukunftsfeld #SoftRobotics am Institut für Adaptive Mechanische Systeme der #UniStuttgart👉 shorturl.at/vBWIQ

  27. Universität Stuttgart @Uni_Stuttgart@bawü.social ·

    Herzlichen Glückwunsch an Philipp Rothemund zu den „Top 40 unter 40“!💐👏
    Ausgezeichnet wurde Jun.-Prof. Philipp Rothemund vom Wirtschaftsmagazin #Capital für seine wegweisende Forschung im Zukunftsfeld #SoftRobotics am Institut für Adaptive Mechanische Systeme der #UniStuttgart👉 shorturl.at/vBWIQ

  28. Printing an Air-Powered Integrated Circuit for Squishy Robots - There’s no rule that says that logic circuits must always use electrically conduct... - hackaday.com/2025/10/15/printi #softrobotics #robotshacks #pneumatics

  29. Printing an Air-Powered Integrated Circuit for Squishy Robots - There’s no rule that says that logic circuits must always use electrically conduct... - hackaday.com/2025/10/15/printi #softrobotics #robotshacks #pneumatics

  30. Printing an Air-Powered Integrated Circuit for Squishy Robots - There’s no rule that says that logic circuits must always use electrically conduct... - hackaday.com/2025/10/15/printi #softrobotics #robotshacks #pneumatics

  31. Printing an Air-Powered Integrated Circuit for Squishy Robots - There’s no rule that says that logic circuits must always use electrically conduct... - hackaday.com/2025/10/15/printi #softrobotics #robotshacks #pneumatics

  32. Printing an Air-Powered Integrated Circuit for Squishy Robots - There’s no rule that says that logic circuits must always use electrically conduct... - hackaday.com/2025/10/15/printi #softrobotics #robotshacks #pneumatics

  33. Dank künstlicher Intelligenz können Roboter Menschen bereits viele Aufgaben abnehmen. Im Interview erklärt Edoardo Milana, Juniorprofessor für Soft Machines, wie ein verbessertes Design und neuartige Mechanik das Anwendungspotenzial der Maschinen erweitert.

    Zum Interview: ufr.link/soft-machines

    #Robotik #SoftRobotics #KI #livMatS #IMTEK #UniversitätFreiburg

  34. Dank künstlicher Intelligenz können Roboter Menschen bereits viele Aufgaben abnehmen. Im Interview erklärt Edoardo Milana, Juniorprofessor für Soft Machines, wie ein verbessertes Design und neuartige Mechanik das Anwendungspotenzial der Maschinen erweitert.

    Zum Interview: ufr.link/soft-machines

    #Robotik #SoftRobotics #KI #livMatS #IMTEK #UniversitätFreiburg

  35. Dank künstlicher Intelligenz können Roboter Menschen bereits viele Aufgaben abnehmen. Im Interview erklärt Edoardo Milana, Juniorprofessor für Soft Machines, wie ein verbessertes Design und neuartige Mechanik das Anwendungspotenzial der Maschinen erweitert.

    Zum Interview: ufr.link/soft-machines

    #Robotik #SoftRobotics #KI #livMatS #IMTEK #UniversitätFreiburg