A non-invasive sensor measures body fluid density via mechanical pulse propagation through the skin membrane.
A handheld diagnostic transducer uses near-infrared spectral imaging to quantify tissue perfusion impairment.
Unbalanced motor vibration in active pulse sensors induces pulsatile blood flow, resolving weak signal issues from low perfusion.
Cantilevered drive elements transmit vibrations via flexible rods, eliminating image artifacts from conductive coils near the subject.
Segmenting CT data by excitation phase reduces ionizing radiation exposure while maintaining quantitative elasticity measurement precision.
Electro-mechanical transducer drives skin displacement to alter optical scattering for spectrometer detection.
A microfluidic device delivers uniform sonication energy to multiple test subjects simultaneously.
A compact vibrational system with a graphical user interface adjusts frequency and amplitude parameters.
A curved passive acoustic driver converts oscillating energy into focused shear waves for magnetic resonance elastography.
A trained artificial neural network transforms magnetic resonance elastography displacement data into derivatives for tissue stiffness estimation.
Real-time optical feedback compensates angular velocity drift in scanning fibers, eliminating periodic calibration needs.
A morphology determining system measures corneal contour displacement under external pressure to generate vibrational modes for topography assessment.