Search

everythinglearnresearchcommunity

for

Search:↓

Bioinspired conductive materials and advanced bioprinting can improve tissue regeneration by creating smart, adaptable scaffolds.

The hydrogels are strong, self-healing, and good for 3D printing and delivering treatments.

3D cell cultures produce extracellular vesicles similar to those in the body.

3D printed alginate-gelatin hydrogels are promising for drug delivery and testing treatments for diseases like Alzheimer's.

Technique creates 3D cell spheroids for hair-follicle regeneration.

3DEEP reveals early hair follicle stem cell formation and niche establishment before hair bulb development.

Cell growth improved the strength of 3D bioprinted structures.

3D printed microneedles are likely to become more common in cosmetics for better skin delivery.

A 3D model of Dupuytren’s disease was developed for better drug testing.

Combining DHT and EDC improves the strength and stability of PADM scaffolds for tissue engineering.

3D skin bioprinting has advanced but still faces challenges like safety and the need for better integration with sensors.

A small 3D skin model helps study how immune cells move in the skin.

Different levels of shear stress affect where cells move and gather in a 3D-printed model, helping to better understand cell behavior in blood vessels.

3D bioprinting advancements are improving skin regeneration for wound healing and personalized reconstruction.

Researchers created a 3D-printed skin model that grew human hair when grafted onto mice by improving blood supply to the grafts.

This new method makes checking for female infertility less painful, less invasive, and doesn't use radiation.

The new method improves bone repair by enhancing cell loading and stability in bioprinted scaffolds.

The model helps improve medical devices by showing how skin deforms under pressure.

3D-printed scaffolds help regenerate hair follicles in lab-grown skin.

The new algorithm accurately captures both facial hair and skin in 3D using a camera-based system.

3D high-frequency ultrasound can help diagnose skin and hair conditions without invasive biopsies.

3D-printed hair follicles could revolutionize hair loss treatments by providing unlimited hair grafts.

3D virtual planning can help in precise skull reconstruction for advanced skin cancer, but patient-specific factors must be considered.

Biomimetic scaffolds are better than traditional methods for growing cells and could help regenerate various tissues.

Researchers created a 3D hydrogel that mimics human hair follicles, which may help with hair loss treatments.

Virtual surgical planning improves efficiency, coordination, and precision in complex surgeries.

The new 3D system helps test hair growth treatments effectively.

Scientists created 3D hair-like structures that could help study hair growth and test treatments.

3D bioprinting can effectively regenerate hair follicles and skin tissue in wounds.

A new 3D-printed hydrogel scaffold helps regenerate corneas and prevent scarring.