See how humidity sensors on a mattress detect sleeper location and movement to automatically ad
See how a bed system estimates core body temperature non-invasively by combining skin temperatu
See how integrated dehumidification assemblies remove skin moisture before impedance measuremen
See how a bed system estimates core body temperature non-invasively using skin sensors and card
See how a dehumidification assembly removes skin moisture before impedance measurement to impro
See how a sheet-shaped sensor apparatus with pressure and temperature detection enables real-ti
Sensors track pressure, shear, and temperature so the support surface can adjust inflation and reduce pressure ulcer and lesion risk.
Sensor feedback adjusts mattress pressure, shear, and temperature using EMR risk data to help prevent pressure ulcers and superficial lesions.
Feedback-controlled airflow and modular channels improve smell timing and intensity while limiting cross-contamination and external air needs.
Controlled breath flow and humidity handling enable portable analysis of low-concentration gases in humid breath without sample degradation.
Sensor data and context are used to predict ostomy base plate adhesive condition, helping time replacement before leakage and skin damage.
A biophysical model combines thermal images with ambient temperature and humidity to estimate core body temperature quickly and accurately.
Sensor-based motion and eye artifact detection prompts real-time visual, audio, or tactile feedback to improve EEG recording accuracy.
Moisture sensors and electrodes track adhesive-layer changes to predict ostomy wear time and prevent leakage or skin damage.
A thin probe tip and rigid joint circuit board ease insertion into narrow oral cavities while limiting deformation and measurement dispersion.
Electromagnetic blood sensing paired with subject parameters improves non-invasive glucose accuracy while avoiding painful blood withdrawal.
Midline neck sensing and posture detection reduce posture-related pulse transit errors for more stable blood pressure estimation.
Magnetic sensors track elevator orientation at the distal tip, improving endoscopic instrument alignment and reducing cannulation trauma.
A sealed wearable sensor separates ambient and bio sensing to avoid sweat interference while enabling continuous wireless monitoring.
Localized heating boosts sweat at the sensor site, improving alcohol detection in low-sweat users while limiting energy use and skin risk.
A skin-mounted sensor uses thermal contact, ambient compensation, and wireless readout to track body temperature continuously with user alerts.
Radar, microphone, and thermal sensing combine with AI embeddings to predict sleep stages continuously without contact sensors.
Transient and steady-state calibration compensates CO breath sensor drift, preserving accuracy and sensitivity in portable use.
Multiple body, water-loss, and lifestyle measurements are combined with personal baselines to trigger more suitable dehydration alerts.
An asymmetric open-bottom chamber stabilizes airflow and reduces convection, improving skin water loss measurement accuracy with fewer sensors.
RFID sensors in absorbent articles track moisture and motion energy patterns to predict incontinence events and enable faster care.
A reconfigurable airflow channel and integrated sensors combine spirometry and impulse oscillometry in one portable unit with guided operation.
Transdermal alcohol sensing paired with biometric ID improves multi-user screening accuracy while avoiding breath-test infection risks.
Infrared sensing and humidification in a wearable eye mask enable extended eye tracking during sleep without corneal drying or manual eyelid opening.
Moisture and optical sensing in an ostomy base plate tracks adhesive degradation to time replacement before leakage or skin damage.
Flexible sock and insole sensors combine pressure, temperature, moisture, and optical monitoring for early diabetic foot risk detection.
Integrated force sensors and pogo-pin connections help compression garments measure and maintain a precise ankle-to-knee pressure gradient.
A 3-axis accelerometer tracks sensor rotation and moisture patterns to alert ostomy users to leakage and skin damage before adhesive failure worsens.
A shielded capacitive strip senses impedance through the diaper outer surface, improving excretion detection accuracy without skin contact.
Integrated wetness, humidity, ionic, and physiological sensing enables real-time diaper alerts with simpler caregiver response.
Speech commands let users adjust radiation treatment settings during operation without looking at a display, reducing eye exposure.
Combining bioimpedance, skin and flow signals, this case shows early noninvasive detection of 10-20% blood loss before shock.
Individually adjustable mattress cells detect biomarkers and reposition prone patients quickly enough to reduce SUDEP risk without supervision.
Sensor feedback tracks ostomy base plate adhesion and wear time, helping prevent skin damage, adhesive failure, and unnecessary changes.
Fabric pressure and moisture sensors detect ulcer risk early and trigger targeted caregiver or automated intervention.
Real-time hydration sensing keeps lubricious coatings wet on flexible medical devices, reducing friction, stick-slip, and navigation risk.
Sequential graphene oxide and silk fibroin dip-coating creates a low-cost wearable sensor with improved durability and temperature-humidity resistance sensing.
Sweat can degrade sensor accuracy; a sealed housing separates bioelectrodes from exposed temperature and humidity sensing for continuous monitoring.
Electrode moisture sensing and three-axis orientation data help an ostomy monitor identify leakage patterns and alert users before skin damage.
Moisture sensors and location data track ostomy base-plate state to time replacement before adhesive failure, leakage, or skin damage.
Current-density lithium intercalation followed by sonication enables controlled 2H or 1T′ TMD nanosheet production for humidity sensing.
Adhesive moisture sensing tracks base-plate condition to estimate ostomy appliance wear time and support timely replacement.
Multisensor wearable monitoring compares pediatric health data with personal baselines to predict lung disease exacerbation and alert caregivers.
A dual-layer housing seals intraoral electronics against water while its outer layer adapts to denture geometry and adds mechanical protection.
A sensor-grid support device uses AI to predict pressure injuries and falls, prompting timely patient repositioning.
Implanted neural probes and external sensors are compared in real time to flag perception errors and support corrective intervention.
A flexible pipe and hydrophobic barrier route bowel gases to a pod sensor while limiting urine contamination and false alarms.
Continuous fabric sensing predicts pressure-ulcer risk at the body-surface interface and prompts manual or automated intervention.
Skin-contact checks help wearable vapor sensors reject blocked or tampered readings.
This case combines sensors and filters with atmospheric feedback to promote wound closure and limit microbial invasion.
Embedded pressure sensors and AI predict injury and fall risks, helping clinicians target repositioning instead of rigid turn schedules.
An integrated wearable platform uses pressure, IMU, temperature, and humidity data to quantify air resistance and muscle power in real time.
A smart mask and wireless headset improve temperature accuracy while server-based biometrics enable QR-free access authentication.
Corrugated sidewalls prevent diaphragm collapse in large-area sensors, enabling high-resolution pressure measurement.