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Researchers developed promising agents for prostate cancer imaging, with the best one showing high potential for clinical use.

Micro-Imager® helps see how drugs spread in human skin.

Scientists at the University of Michigan Medical School successfully created a special compound that can be used to improve imaging of prostate cancer.

Biomedical imaging has greatly improved understanding and treatment of solid tumors.

New imaging technologies help us see how stem cells work in living animals.

Microbeam Radiation Therapy is effective, but using a linear accelerator reduces its benefits.

Microbeam radiation therapy's dose distribution changes with depth.

Photoacoustic imaging can detect prostate brachytherapy seeds better with enhanced contrast methods, but depth limits remain.

Multiphoton microscopy can effectively assess breast cancer treatment responses without labels.

Combining Proton Minibeam with FLASH Radiotherapy may improve cancer treatment by reducing side effects and increasing effectiveness.

The method effectively images and correlates elements and metabolites in tissue samples at a micron scale.

A new compound was effective for imaging prostate cancer in rats.

Multiphoton excitation microscopy is a promising tool for deep tissue imaging and clinical applications.

The new device improves surgical accuracy by using a special dye and camera to see inside tissues.

Scientists created iodinated arylhydantoins and arylthiohydantoins that could potentially be used for imaging prostate cancer. Some versions with specific side-chains showed high potential for this use.

Immunofluorescence tomography is a cost-effective method for creating detailed 3-D images of tissues.

Multiphoton microscopy can effectively image live cells in cornea, skin, and hair follicles over time.

Advanced imaging methods have improved understanding of cancer cell interactions and treatment strategies.

X-ray microbeams can mimic cosmic rays' effects on tissue, aiding wound healing and hair growth.

Ultrasound-based radiomics and radiogenomics can improve ovarian cancer diagnosis and treatment, but need better standardization and AI tools.

MRI can effectively image skin structures noninvasively.

The study introduced a new imaging technology to track skin healing and bone marrow cell activity over time.

Fluorescent proteins help visualize and understand tumor blood vessel growth.

Researchers created a new light source that improves chemical imaging by removing background noise.

Fluorescent proteins in mouse models effectively visualize tumor blood vessel growth.

A new imaging technique can observe stem cells in living mice without harming them.

Endoscopic imaging can improve tracking of stem cells in the body.

Proton minibeam radiotherapy shows promise for sparing healthy tissue in cancer treatment but needs further research and technological development.

Hair stem cells were tracked in mice using a special imaging technique, showing that it's possible to monitor hair growth this way.

New laser particles can track thousands of cells in 3D models, improving single-cell analysis.