Search

everythinglearnresearchcommunity

for

Search:↓

3D bioprinted lung cancer models in a mouse-like structure offer a better way to study radiation effects without using live animals.

The new method provides more accurate vibrational frequencies for drug molecules than traditional models.

Bioengineered skin models aging well, useful for studying aging and testing treatments.

The platform effectively grows lung cancer cell spheroids for drug testing.

The study created a model to help design new inhibitors for steroidal 5α-reductase enzymes.

Simulations of hair keratin help improve disease treatment and cosmetic products.

A 3D skin model helps study wound healing better than traditional methods.

Microtechnology methods improve organoid production for medical research.

Microfluidic models improve testing for aging, wound healing, and oral tissue, reducing animal testing.

The new model mimics hair loss and helps test treatments.

Bioengineered skin models help reduce animal testing and advance research in cosmetics and skin disease.

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

Microfollicles can effectively model human hair follicles for research and testing.

EISA uses enzymes to create precise nanostructures in cells, offering new ways to design adaptive materials and therapies.

A new compound may treat benign prostatic hyperplasia better than finasteride.

The study created a mouse model to mimic degenerative diseases for testing tissue repair and new therapies.

Rational design strategies are crucial for developing effective nanozymes for anti-inflammatory uses.

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

A protocol was developed to create 3D skin models from adult diseased cells to study Small Fiber Neuropathy.

Magnetic fields help create complex 3D soft structures for biomedical use.

Reprogramming 3D environments can create hair follicles in the lab.

Scientists created a lab-grown hair follicle model that behaves like real hair and could improve hair loss treatment research.

Artificial hair fibers improve drug delivery accuracy through skin models.

A new method speeds up insulin amyloid fibril growth, useful for studying diseases.

Organoid technology is improving personalized medicine by better predicting drug responses and treatments.

Presurgical models can effectively and affordably screen cancer prevention agents.

Computational technology advances nanocatalysis by improving design, synthesis, and detection methods.

The research found a way to develop hair growth materials by targeting a specific signaling pathway.