A spectrometer pulls skin into a chamber using vacuum pressure to enable precise near-infrared light transmission for biological analysis.
Integrated analyzing sensors in a bed pan assembly detect targeted stool and urine properties, eliminating delays from manual testing procedures.
A laser system integrates a spectrometer and comparison unit to measure tissue light spectra for disease detection.
A bio-optical measuring apparatus employs multiple optical receivers and signal averaging to generate low-noise detection signals.
An optical infant collar measures breast milk intake via light transmission, replacing imprecise weight checks to preserve maternal bonding.
A helmet captures eye images to extract microvascular characteristics and generate physiological state signals.
An implantable probe uses surface-enhanced Raman spectroscopy to detect trace chemicals in tissue via optical fibers.
Axial fiber positioning and rod lens mediation resolve calibration gaps in biological optical measurement probes.
Interspersed reference measurements calibrate excitation sources and detection devices during analyte analysis.
A parallel array detector system combines Raman and infrared spectroscopy with a light source tuned to molecular resonance frequencies.
An implantable analyte sensor uses a charge storage device to perform autonomous measurements, resolving data gaps during external power unavailability.
A non-contact diffuse optical sensing system measures glucose levels at stand-off distances using near-infrared light.
A variable spectroscopic element adjusts transmitted light wavelengths to match specific disease conditions.
A catheter uses fluorescence signals from intrinsic mitochondrial fluorophores to assess metabolic states.
A rehabilitation device induces kinesthetic illusion through synchronized visual and sensory stimulation to activate the brain motor area.
Near-infrared spectroscopy measures cerebral hemoglobin concentration changes to assess blood flow regulation performance.
Optical imaging captures eye images to extract microvascular characteristics, resolving hand measurement precision limits.
System merges eye tracking, EEG, and fNIRS data to distinguish sustained attention from fixation, reducing false positives in situation awareness monitoring.
An optical imaging system detects signal light from a fluorescent dye embedded in a catheter tube, confirming placement without radiation exposure.