Biomedical Engineering

Tissue Engineering Cell Biology Materials Science Molecular Biology Biomedical Engineering Medical Research Experimental Methods Medical Devices Hydrogels Biomedical Engineering

4 ARTICLES

yesterday

Scientists Create Functional Blood Vessels and Liver Lobules on Microfluidic Chips

Laser-patterned microvascular networks in hydrogels are now modeling inflammation-induced leakiness together with liver lobule function on microphysiological platforms.

4 ARTICLES

last wk.

MIT Unveils High-Throughput Technique for Single-Cell Density Measurement

3 ARTICLES

last wk.

Boston University Study Pinpoints Key Domain Driving Melanoma Growth

4 ARTICLES

2w ago

Caltech-Led Team Develops Ultrasound-Guided In Vivo 3D Printing for Targeted Therapies

4 ARTICLES

4w ago

Innovative Injectable Polymer Shows Promise in Post-Heart Attack Tissue Repair

4 ARTICLES

4w ago

Carnegie Mellon Advances Collagen-Based Bioprinting for Vascularized Tissue Engineering

3 ARTICLES

last mo.

MIT Engineers Create Breakthrough Metamaterial Combining Strength and Stretchability

3 ARTICLES

2mo ago

Epithelial Cells Found to Generate Bioelectric Signals During Injury

3 ARTICLES

2mo ago

MIT Engineers Develop Artificial Muscles Capable of Multi-Directional Movement

3 ARTICLES

2mo ago

Scientists Develop Self-Healing Hydrogel with Skin-Like Strength and Flexibility

3 ARTICLES

2mo ago

Scientists Achieve Breakthrough with 3D Synthetic Active Matter Resembling Worms

Biomedical Engineering

Scientists Create Functional Blood Vessels and Liver Lobules on Microfluidic Chips

MIT Unveils High-Throughput Technique for Single-Cell Density Measurement

Boston University Study Pinpoints Key Domain Driving Melanoma Growth

Caltech-Led Team Develops Ultrasound-Guided In Vivo 3D Printing for Targeted Therapies

Innovative Injectable Polymer Shows Promise in Post-Heart Attack Tissue Repair

Carnegie Mellon Advances Collagen-Based Bioprinting for Vascularized Tissue Engineering

MIT Engineers Create Breakthrough Metamaterial Combining Strength and Stretchability

Epithelial Cells Found to Generate Bioelectric Signals During Injury

MIT Engineers Develop Artificial Muscles Capable of Multi-Directional Movement

Scientists Develop Self-Healing Hydrogel with Skin-Like Strength and Flexibility

Atom-Thick Semiconductors Enable Real-Time Cellular Electrical Signal Detection

Magnetic Fields Cut Flaws in 3D-Printed Metal Components by 80%

Engineers Develop Innovative Medical Adhesive Inspired by Mussels and Mucus

Scientists Achieve Breakthrough with 3D Synthetic Active Matter Resembling Worms