Explore more about: Cancer

NIBIB-funded biomedical engineers at the Ohio State University (OSU) have demonstrated a new method for delivering an anti-cancer drug in a study that tested the effect in animal models.

Painless skin patch collects fluid to monitor biomarkers to speed up and simplify routine diagnostic testing. 

Macrophages are white blood cells that accumulate in tumors, where they aid cancer progression. Now scientists have identified a surface protein found only on the macrophages residing in tumors, exposing a target for precise tumor treatments.

A new spectroscopic technique reveals that glucose use in live cells provides valuable information about the functional status of cells, tissues, and organs. Shifts in a cell’s use of glucose can signal changes in health and progress of disease.

A new deep learning technique constructs better macroscopic medical images of cells and tissues at ultra-fast speeds.

NIBIB-funded researchers used photoacoustic imaging for rapid measurement of metabolic rate of individual cells from breast tumors—information that can help guide treatment strategies.

NIBIB researchers have designed a nanoparticle that generates radiation-induced oxygen free radicals in the low-oxygen center of tumors, dramatically increasing tumor destruction.

NIBIB-funded researchers created a new 3D bioprinted tumor model in a laboratory dish to screen anticancer drugs and study the spread of cancer.

Photoacoustic microscopy technique allows researchers to analyze metabolic characteristics of cancer cells with laser light and high-frequency ultrasonic sensing.

An NIH-funded team at the University of Colorado (UC) has assembled a clearer picture of the molecular activity that occurs when nanoparticles injected into the body are marked for immune system attack.