Congratulations to 2023 @ISBioFab twitter poster conference winners! Amazing 24 hours with great biofabrication science being shared. Thanks to everyone for participated! @DalyAndyy @pau_bernal1 @LindbergLabs @Khoonono @Tim_WoodfieldNZ @shrikezhang @JinahJang4 @juergengroll

Excited to share our work on integrating melt electrowritten tubular scaffolds into the volumetric printing process to fabricate multi-material living scaffolds with tunable architectures and mechanics!
#Biofab2023 @ISBioFab

Yesterday I had the pleasure of sharing my work on #volumetric #bioprinting of liver organoids at @Biofab2022! Such a great opportunity to discuss the potential of this amazing technique with our international #biofabrication community! @RicLevato @josmalda @RMUtrecht @ISBioFab

‼️Postdoc alert‼️ We are looking for an expert in #synbio for an ambitious project on new light-based #bioprinting techs, RegMed and Tissue Engineering 🧫🧪 Will you join our team?
careersatumcutrecht.com/vacancies/wete… Please RT and share @EUSynBioS @Syn_Biology @SyisEu @ENLIGHT_H2020

The elastomer polycarbonate urethane (PCU) is an amorphous polymer that exhibits enhanced resilience and elasticity. PCU was studied for its potential use in melt electrowriting to develop tissue engineering scaffolds with enhanced mechanical properties.
#Biofab2022 @ISBioFab

Printability of this polymer was evaluated by altering several printing parameters such as collector speed and pressure, and different fiber architectures were successfully printed for mechanical evaluation.

MEW-PCU demonstrated non-linear extension with superior dynamic recovery upon deformation, compared to polycaprolactone (PCL). The introduction of a solvent-free amorphous polymer to MEW opens great prospects for creating highly flexible load-bearing tissue analogues.