Cancer

A 3D illustration of CAR T cells attacking solid tumors.
| 6 min read
A female doctor wearing gloves touches the neck of an older woman.
| 6 min read
: A photo taken from a microscope shows the process of chromosome segregation during cell division.
| 6 min read
A cross-sectional view of a mouse intestine shows TRIM28 localization in yellow.
| 2 min read
Two cells outlined in fluorescent green and purple exchange molecules while joined at their membranes.
| 2 min read
A woman sits on an examination table while chatting with her doctor.
| 4 min read
Blue cancer cells attached to a cellular surface against a bright blue background in a 3D rendering of a cancer infection.
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The uterus, ovaries, and fallopian tubes sit on top of a pink background.
| 3 min read
T cells attack cancer cells in this illustration.
| 3 min read
Mitochondria shown in green on a black background.
| 4 min read
Two hands holding grapefruits symbolizing breasts, with a pink ribbon for breast cancer in the background.
| 3 min read
A vector drawing shows one doctor standing on the left, pointing to a screen. On the right, another doctor sits and looks at a computer screen.
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A 3D illustration of two sphericaA 3D illustration of two spherical cells in close contact, with glowing blue nuclei and additional out-of-focus cells in the background.l cells in close contact, with glowing blue nuclei and additional out-of-focus cells in the background.
Imaging-enabled flow cytometry helps distinguish biologically relevant cell-cell interactions from coincident events to support immunotherapy research.
Illustration of multiple three-dimensional patient-derived organoids suspended against a dark blue background, representing tumor models used in precision oncology research.
By combining organoid biology with precision automation, researchers developed a miniaturized organoid screening platform that could help speed personalized cancer treatment testing.
Illustration of multiple three-dimensional patient-derived organoids suspended against a dark blue background, representing tumor models used in precision oncology research.
By combining organoid biology with precision automation, researchers developed a miniaturized organoid screening platform that could help speed personalized cancer treatment testing.