Wave Based Measurement Systems TRIZ Cases

Volume holograms diffract light through total internal reflection in a cover glass, measuring attenuation caused by dirt or water contamination.

Ultrasound applies oscillatory shear stress to measure tissue displacement for model-independent viscoelastic parameter extraction.

Dynamic mechanical index switching prevents cavitation during inflow while optimizing contrast agent collapse for tissue differentiation.

A testing method applies electromagnetic interference signals to a vehicle while simulating obstacles to verify blind spot detection system activation.

Segmenting monitoring plans into instantaneous analysis bands with optimized listening durations.

A coaxial photoelectric sensor uses a virtual source positioned at ninety degrees to align emission and reception paths on a single axis.

Segmented multimode transducers generate a cardioid beam pattern, resolving forward-aft directional ambiguity and increasing detection range by 73.7%.

A sonographic user interface overlays scaled catheter reference objects on medical images for precise size selection.

Dynamic feedback control adjusts light source pulse energy against safety limits, expanding detection range while maintaining eye safety.

Ultrasound imaging system determines complex wavenumber from displacement data to quantify tissue viscosity and stiffness.

An optoelectronic scanner uses frequency spread spectrum modulation to enhance signal quality.

Directional filters isolate reflected shear waves from stiff ablation lesions, enabling boundary detection despite electrode artifacts.

Local filler expansion ratios balance sound absorption against vibration damping, reducing ringing time in ultrasonic sensors.

Segmented optical paths in Schmidt-Pechan prisms minimize parallax between transmission and detection channels, ensuring measurement precision.

A light scanning device uses a multi-surface package to guide optical paths and exclude stray light from the drawing region.

Dynamic reconfigurable logic in a programmable wavelet tree accommodates diverse transducer shapes, reducing hardware overhead and improving data alignment.

An angled piezoelectric element fixed by a potting compound minimizes multiple reflections while simplifying assembly complexity.

Dynamic scan speed adjustment compensates for field-of-view obstructions, ensuring sufficient dwell time for accurate smoke particle detection.

Laser welding fuses sensor casing to bracket, eliminating screw hollows and improving design freedom.

Segmenting the accumulation period into multiple sub-frames enables rapid obstacle detection and reduces subject blur in moving vehicles.

Feedback control monitors replica currents to maintain constant drive signals, correcting waveform asymmetry caused by PMOS and NMOS process variations.

Computing gradient data from k-space resolves attenuation-induced inaccuracies in shear wave velocity estimation.

Segmented suspenders with piezoelectric actuators drive orthogonal oscillation in a two-axis MEMS mirror, eliminating complex frequency tuning.

Merging multiple electric signals into one composite optical stream reduces wire count, enabling thinner cables and better maneuverability.

A multifilament conductor transmits intensity patterns to enable three-dimensional imaging within a sub-millimeter endoscope.

A Venturi valve directs air and fluid through a nozzle to clean sensor windows.

Merging light beams via polarization avoids truncation losses and maintains intensity for distant object detection.

Movably mounted sensors reconfigure the scan region volume to accommodate objects of varying sizes without increasing scanner footprint or cost.

A resilient spring element connects sensor components to allow radial and axial displacement.

A cardiac device transmits waves to measure shear wave propagation speed for deriving active cardiac stress.

A partially annular tool fixes concentric gaps during sensor assembly.

Ultrasound shear wave detection uses phantom measurements to constrain search ranges for accurate tissue property estimation.

Singular value decomposition of raw MIMO radar data identifies damaged sensors and cover reflections to ensure accurate target detection.

Portable acoustically transparent vessel simulates deep-sea pressure using shallow water and an external pump.

Passive heat pipes replace mechanical fans in radar devices, reducing component temperatures by 10 degrees Celsius while eliminating moving part failure risks.

A substrate integrated signal processing apparatus separates incoming and outgoing high-frequency signals using a four-port ring coupler.

An indoor positioning system detects customer presence to authorize computing device functions, resolving manual service bottlenecks.

A beam steering apparatus uses a stepped wiring structure to electrically connect driving pixels to light modulators.

A recessed base positions the piezoelectric element to stabilize transmitting and receiving characteristics.

A generalized likelihood ratio test detects radar pulses by calculating signal estimation values from sampled RF data.

A switchable transmit receive module manages RF energy coupling for radar systems.

Segmented optical elements and subarrays overcome the trade-off between photon detection performance and sensor thickness.

A 3-axis accelerometer calibration method computes gain and zero-g offset values by equating output voltages to gravitational force vectors.

A dynamic beam steering antenna array directs wireless energy toward specific areas of interest in vehicular networks.

Physical quantity average unit compares calculated values against preset thresholds to detect lateral shift and ensure reliable correlation coefficients.

Spatial light modulator displays diffractive holograms to form scanning light feature arrays, resolving slow mechanical scanning and eye safety trade-offs.

Prestored gradation and image data enable uniform brightness adjustment across multiple regions of interest, eliminating manual per-image tuning.

A conformal phased-array antenna system determines operational data for each element to maximize coherent addition in a specific spatial direction.

Replacing mechanical mirrors with phase shifters and periodic block structures enables fast, vibration-resistant beam scanning.