Electromagnetic Wave Reradiation TRIZ Cases

Segments detection into separate transmitters to resolve signal dynamics limits and reduce windshield sensitivity.

Continuous rotation of the acceleration sensor suppresses drift errors, enabling accurate detection without additional tilt sensors.

A retractable laser radar mechanism hides within a vehicle fender cavity to protect the sensor and maintain aesthetic lines.

Segmenting optical paths with a concave mirror and separate reflectors expands detection area without increasing device complexity or cost.

A reflective optical sensor uses intersecting parabolic mirrors to direct light between emitting and receiving elements.

A distance measurement apparatus uses synchronous movable mirrors to project and receive pulsed light for spatial mapping.

A gated camera uses a micromirror array to redirect light toward or away from an image sensor for rapid temporal gating.

An optoelectronic sensor evaluates ambient radiation levels before triggering emission pulses to ensure signal integrity.

A quantum induced coherence detection method separates entangled probe and reference light beams to capture object information through interference fringe visibility.

A single sensor device merges time-of-flight and visible image pixels on one plane to capture depth and color data simultaneously.

A controller circuit directs interlaced light pulses to enhance scanning resolution within a baseline field of view.

A multi-layer laser scanner emits collimated beams to scan distinct spatial areas.

Processor section calculates ranges to target coordinates from disparate origin points.

Segmented emitters and beam adjustment expand light spots to reduce retinal energy exposure while maintaining high resolution.

A distance sensor test system uses a ground simulator to verify measurement accuracy before installation.

Multiple laser radars establish a 3D coordinate model to calibrate visual image algorithms, resolving limited measurement range and low accuracy issues.

Complex modulation and demodulation of coherent lidar beat signals using multiple frequency slopes.

Non-90 degree tilt angles on polygon mirror facets enable ultra-wide field-of-view scanning while maintaining compact device size.

A laser ranging device uses a beam splitter to direct reflected light for simultaneous distance measurement and target image display.

A two-dimensional photo element array determines distance vectors to form a coordinate image and outputs trigger signals for object detection.

Classifies LiDAR point clouds into distance-based clusters to remove dense noise that intensity filtering misses, improving ranging accuracy.

A non-mechanical optical radar uses a focusing element to project light onto an activation region of a distance sensor.

Curved mirror corners lower torque and energy loss during rapid rotation, enabling efficient environmental scanning.

Tilting and rotating scanning modules adjusts beam configurations without increasing device complexity.

Retroreflective surfaces on the sensor cap redirect unwanted optical noise toward its source, improving signal-to-noise ratio without complex filtering.

A continuous wave lidar scanner determines target range through received light displacement proportional to angular velocity.

A charge emitter outputs charges to a storage element over a time-varying potential barrier.

Segmented sensor channels process incoherent reflected beams to isolate Doppler components, resolving measurement errors from relative motion.

Time-periodic enabling of SPAD units reduces signal distortion from dead time while maintaining spatial coverage.

Optical resonator feedback stabilizes laser radar scan mirrors, resolving drift between high-speed scanning and distance calibration accuracy.

Feedforward control anticipates transient mirror dynamics to maintain resolution during rapid zoom operations.

A LiDAR processing unit analyzes echo data to detect occlusion without adding external sensors.

An image sensor generates multiple phase-shifted light signals to demodulate reflected waves and extract depth data.

A few-mode optical amplifier optically amplifies return light propagating along multiple spatial modes in a LIDAR receiver.

Cross-point electrode array modulates light phase via nano-antennas to replace bulky mechanical steering systems.

An optical scanning device uses a mode converter to steer light beams via wavelength changes.

A user equipment location estimation method uses eigenvalue analysis of distance matrices to identify non-line-of-sight paths.

Image sensing apparatus uses pixel array segmentation with varying integration times to extract distance information from reflected light signals.

Segmenting the measurement period prevents photodiode saturation, expanding dynamic range and improving depth value accuracy.

A vehicle sensor calibration system uses a rotatable turntable to position sensors relative to fiducial targets for precise data collection.

Segmented transmission units emit distinct light properties to enhance scanning speed and resolution while managing energy consumption.

Variable solid angle extension concentrates illumination intensity for distant object detection while maintaining broader coverage for closer ranges.

Segmented SPAD arrays evaluate independent sub-areas to resolve positioning accuracy against system complexity and interference noise.

A LiDAR detection channel segments reflection beams by polarization state to utilize both TE and TM modes for obstacle measurement.

A rotating sensor assembly uses vehicle motion to drive airflow through heat fins for cooling.

A distance measurement apparatus uses multiple photosensors to outnumber phototransmitters for higher intensity light emission.

A LIDAR device detects retroreflector reflections using pulse shape and magnitude analysis to identify hazardous optical targets within its field of view.

Fusion processor combines radar radial velocity and vision optical flow vectors to determine two-dimensional target motion.

A multi-beam measuring device uses a voice coil actuator to position transmission beams for precise 3D scanning.

Pilot line scanning dynamically adjusts chirp rates across field of view regions, resolving range precision artifacts at varying distances.