Researchers developed flexible, reconfigurable microfluidic #batteries using #SoftLithography and #3DPrinting, integrating GaSnZn & BiIn electrodes, enabling voltage tuning and powering wearable #LCD and #sensor wristbands. #Fabrication

#OpenAccess in #IJEM: doi.org/10.1088/2631...

Development of NIR #SmartWindows via #laserprinting and #SoftLithography, with shape‑memory microwalls enabling reversible optical/wettability control, >10,000‑cycle raindrop tolerance, and versatile functions from thermal management to #antiicing.

#IJEM: doi.org/10.1088/2631...

Gel-Shrink Softlithography: Enabling 3D Tissue Culture Microstructure Miniaturization and Tacky Super-Soft Material Molding https://www.biorxiv.org/content/10.1101/2023.09.27.559860v1

Gel-Shrink Softlithography: Enabling 3D Tissue Culture Microstructure Miniaturization and Tacky Super-Soft Material Molding https://www.biorxiv.org/content/10.1101/2023.09.27.559860v1

| Apparatus
3D Material: Master Mold for #PDMS Photopolymer Resin - Rapid HD
3D Printer: ProFluidics 285D

| Time
#3DPrinting: 2.5 hours
PDMS Curing: 1.5 hours

| Device Channel – Pillar
XY: 120 μm
Z: 120 μm
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#additivemanufacturing #drugdelivery #organonachip #softlithography #photolithography

| Apparatus
3D Material : Master Mold for PDMS Photopolymer Resin - Rapid HD
3D Printer : ProFluidics 285D

| Device Channel - Pillar
XY 120μm
Z 120μm

#additivemanufacturing #drugdelivery #pointofcare #bedsidediagnostics #organonachip #softlithography #pdms #photolithography #celltrapdevice