Smartphone imaging system shows promise for early oral cancer detection in dental clinics
Peer-Reviewed Publication
Updates every hour. Last Updated: 22-Dec-2025 19:11 ET (23-Dec-2025 00:11 GMT/UTC)
Researchers at Rice University, UTHealth School of Dentistry, and The University of Texas M.D. Anderson Cancer Center have developed a smartphone-based imaging system, mDOC, to help dental professionals identify patients who may need referral for oral cancer evaluation. The device captures white light and autofluorescence images of the mouth and uses a machine learning algorithm to assess risk. In a study of 50 patients at community dental clinics, the system demonstrated 60 percent sensitivity and 88 percent specificity in identifying lesions requiring expert review—outperforming standard clinical exams. The technology offers a fast, low-cost tool to support early detection and timely referral in routine dental care settings.
A mysterious diffuse glow of gamma rays near the center of the Milky Way has stumped researchers for decades, as they’ve tried to discern whether the light comes from colliding particles of dark matter or quickly spinning neutron stars. Both theories are equally likely, according to new research. Maps generated by supercomputers confirm that the glow could come from dark matter.
A team of researchers at the Departments of Physical Chemistry and Organic Chemistry of the University of Malaga and The Biomimetic Dendrimers and Photonic Laboratory of the research institute IBIMA Plataforma BIONAND has achieved a breakthrough with Malaga signature that combines materials science and biomedicine. They have developed a new family of fluorescent molecules with promising applications in the study of living cells and the medicine of the future.
Single-photon sources are key components of quantum communication technologies. However, conventional designs use decoupled single-photon emitters and photon transmission methods, resulting in high transmission loss, limiting practical applicability. Now, researchers from Japan have developed a new method, where a single rare-earth ion is used to generate and guide single photons directly within an optical fiber at room temperature. It is low cost and can become a key component of upcoming quantum communication technologies.