Electromagnetic Wave Reradiation TRIZ Cases

Segmented support beams balance stiffness and flexibility to resolve the trade-off between mechanical tilt angle and vibration robustness.

Orthogonal codes prevent cross-correlation between multiple LIDAR systems, resolving interference that causes erroneous distance measurements.

A 3D laser scanner determines stray light parameters through independent and point cloud-dependent sequences to compensate measurement interference.

System segments dynamic target analysis into distinct phases using connected components-based graph processing and Kalman filters to track moving objects.

A time-of-flight sensor reconstructs reflected light pulse waveforms using staggered accumulation cycles to derive sample points from consecutive integration differences.

Shared readout circuits replace per-pixel counters and time integrators, reducing circuit size per pixel while improving signal-to-noise ratio.

A deflection unit generates spaced distance image points across scanning patterns to record electromagnetic radiation profiles.

A LiDAR processor varies the time window based on distance and illuminance to determine time of flight.

Segmenting pixel arrays into dedicated regions resolves the trade-off between ranging precision and visible light acquisition capability.

A co-aligned optical aiming system integrates a laser measurement beam with a visible pointer through a shared axis.

A light detector uses dynamic pixel region control to selectively activate sensors for distance measurement.

A stop control circuit halts detection operations in ToF distance measurement frames when signal conditions satisfy a predetermined accuracy threshold.

A LiDAR sensor testing system uses positioned bars to determine intersection points for operational parameter computation.

A LiDAR system uses independent analog and digital signal processing boards to reduce internal electromagnetic interference.

A light guide member amplifies speckle pattern changes to enhance displacement measurement sensitivity.

A sensor array divides receiving elements into regions to adjust light sensitivity for dynamic object detection.

A lidar system dynamically adjusts optical probe beam power using real-time scan rate monitoring and person detection sensors.

An analog processing circuit extracts Doppler components and performs encoding correlation before digitization, reducing ADC speeds and power consumption.

A laser radar device adjusts beam scanning rate and divergence to maintain image quality.

Occupancy array monitoring detects static sensor blockages to resolve reliability contradictions.

Rotating the second lens maintains symmetrical receiving aperture behavior, resolving distortion at large horizontal deflection angles.

Temporal indexing of laser scan point clouds preserves exact positions of embedded elements, resolving information loss over time.

Segmenting signals into orthogonal sub-bands improves angular resolution while reducing computational overhead.

A laser ranging sensor generates a synthetic wave ladder from multiple continuous-wave lasers to determine distance through heterodyne phase analysis.

An optoelectronic sensor uses an inclined image sensor to provide complementary depths of field across varying distances.

Single-detector capture of split optical signals determines distance and chirp rate, reducing computational effort.

Computes optical flow between non-adjacent frames to realign time-of-flight sensor data.

Segmenting illumination across multiple low-power beams extends detection range while maintaining eye safety standards and high target resolution.

Segmented receiver aperture gating blocks excess ambient light to increase dynamic range and signal-to-noise ratio for long-range detection.

A detection device extracts maximum and minimum signal values to determine target presence.

A method for synthetically generating radar or lidar point clouds using distribution functions to mimic stochastic measurement properties.

A birefringent prism separates optical transmit and receive paths in a monostatic LiDAR transceiver.

A LiDAR detection method uses pseudo-random number generators to determine variable laser emission times for distinct signal identification.

A proximity gesturing sensor system detects object position using coplanar capacitive, acoustic, and optical sensing elements.

A LIDAR system splits a collimated beam into reference and object paths, projecting the object beam at multiple diffraction angles for spatial scanning.

Asymmetric pyramidal probe tips minimize particle shattering and water accumulation, improving cloud microphysical parameter accuracy.

Adjusting LiDAR bias voltage via cancellation residues from reference sensors reduces glare noise and prevents temperature rise in SPAD systems.

A lidar transmission unit employs an optical homogenizer with lens arrays to shape electromagnetic beams into a flat intensity profile.

Frequency-selective combining merges spectral channels into one path to eliminate resolution mismatches and noise multiplication.

A LiDAR scanner dynamically adjusts its scanning pattern to generate equal-area density point clouds.

Sequencer circuitry dynamically selects register sets to generate defined frame sequences without host intervention.

A vehicle sensor axis misalignment determining apparatus compares present detection results with pre-stored normal case data to identify positional deviations.

A rotating optical reflector uses a transmissive layer to refract light onto an angled reflective surface, enabling dynamic and static balance.

A LIDAR system generates multiple optical signals with diverse wavelengths, polarizations, and incidence angles to reduce speckle noise.

A tunable waveguide redirects excess laser energy to a beam dump based on signal amplitude.

A Fresnel lens optoelectronic sensor uses an evaluation unit to correct distance measurements based on light transit time.

Phase adjustment element generates offset signals to cancel harmonic errors in time of flight camera measurements.

A variable gain integrator converts photodiode charge to voltage with dynamic amplification for accurate time of flight measurement.