Body Temperature Measurement TRIZ Cases

See how a toilet integrates infrared thermometry into armrests and backrest to enable convenien

Different monitoring modes and time-based temperature thresholds improve wearable fever alarms by reducing false alerts from environment and user state.

Dual heating at the front and rear of the infrared sensor reduces thermal gradients, fogging, and cold-start measurement errors.

Multiple infrared sensors and matched optical channels expand detection coverage and let MCU compensation improve body temperature accuracy.

An inclined sensor surface and same-side button help align forehead temperature readings without awkward wrist posture or subject discomfort.

Multiple catheter sensors track esophageal temperature distribution and lumen narrowing, enabling safer liquid cooling during ablation.

A one-piece molded ear tag removes shell gaps to improve waterproofing, dustproofing, shock resistance, and temperature sensing reliability.

Radar sensing corrects reflectance and distance variation to capture animal vital signs remotely with less stress and safer handling.

Optical fiber sensing and controlled esophageal displacement improve temperature accuracy during ablation while reducing thermal injury risk.

Foot temperature sensing and normalization track PDN or PAD progression early, supporting routine monitoring and timely intervention.

A deep ear insertion portion combines optical and temperature sensors to improve core temperature and vital-parameter detection accuracy.

A door access control device integrates body temperature detection with ultraviolet disinfection to manage entry.

A thermoresponsive polymer solution changes turbidity with temperature to enable precise optical detection via fiber optics.

A reflecting shell with hollow guide unit focuses heat radiation onto a detecting part for precise temperature measurement.

An infrared sensor measures flexible dielectric membrane temperature for non-invasive medical examinations.

A processor adjusts temperature measurements using a circadian filter to determine time-dependent fever thresholds.

Spatially offset Raman spectroscopy measures subcutaneous temperature profiles without thermal contact.

A fiber optic sensor with a linearly chirped Bragg grating enables distributed temperature sensing.

A face recognition apparatus calculates body temperature using simultaneous video and thermal imaging to detect the face area and measure infrared intensity.

A temperature sensor uses a thermochromic resin layer to modulate light transmittance for a solar cell.

A hybrid thermometer merges contact and non-contact sensors to estimate patient core temperature.

A flexible temperature sensing device uses an array of sensors on a substrate to track body heat continuously.

Serial infrared sensors locate arterial heat peaks while a microprocessor converts surface readings to core body temperature.

An infrared temperature sensor detects skin or housing temperature to correct analyte values without contact complexity.

Solid-state Hall-effect sensor detects probe magnet to automatically switch electronic thermometer power states.

Dual thermopile sensor elements on a single chip detect external and internal infrared radiation to correct measurement errors.

A temperature sensing device uses a detection unit to switch modes upon movement.

Stationary thermometer device uses an infrared sensor array to detect temporal artery temperature, resolving accuracy issues caused by sweeping motion.

Environmental sensor data validates physiological measurements through control system analysis, flagging invalid readings caused by temperature fluctuations.

Segmented sensors and multi-channel networks reduce position-dependent errors in real-time heart rate and oxygen saturation readings.

A flexible thermal patch uses distributed sensors and machine learning to predict core body temperature.

A handheld mobile medical diagnostic device measures and wirelessly communicates multiple physiologic parameters.

Annular heat diffusing members uniformize temperature distribution, resolving positional accuracy trade-offs in metabolic monitoring.

A wearable patch uses multiple temperature sensors and an insulative layer to measure skin surface temperatures accurately.

A flexible heat transfer unit conforms to curved skin surfaces, eliminating air gaps that cause measurement errors in rigid sensors.

A noninvasive glucose monitoring apparatus uses near-infrared spectroscopy with a temperature probe to measure internal body heat.

Shared electrodes measure electrical impedance to identify the measurement site, correcting temperature readings for environmental effects.

A thermochromic liquid crystal wristband detects fever through color changes triggered by body heat.

Segmented probe modules eliminate cross-infection risks while maintaining precision across varying measurement distances.

A smartwatch system converts body temperature data into personalized metrics using age and gender variables for accurate health tracking.

RF antennas transmit radio waves below skin to detect blood glucose levels, eliminating invasive sampling and contamination risks.

A temperature probe integrates a capacitance sensor to measure body cavity heat directly.

Liquid crystal sensing compositions in voids between a substrate and cover layer enable rapid temperature detection, reducing dwell time below 60 seconds.

A temperature sensor uses a detection unit to automatically power on when picked up, eliminating manual button presses.

Electrical detection between two contact surfaces verifies skin attachment, preventing unreliable measurements from device detachment.

A detachable forehead cover with a thermistor automatically switches an infrared thermometer between ear and forehead measurement modes.

A light guide directs infrared radiation from the tympanic membrane to a thermopile sensor positioned outside the ear canal.