Angle Measurement TRIZ Cases

A laser profile scanner detects vertical hull positions to locate safe mooring robot attachment zones.

A mobile laser transmitter and receiver array determine robot coordinates through photoelectric scanning, eliminating the need for multiple base stations.

A rotary encoder control method resets count values using lookup tables to minimize angular errors between assumed and actual slit positions.

A collimated light source mounted on a fixture projects a visible beam to indicate the aiming axis.

Three laser emitter-receiver components at fixed angles enable non-contact measurement of distances, angles, arc lengths, and radii within a compact housing.

A ground speed calculator selects a wheel radius based on detected bank angle to compute vehicle velocity during cornering maneuvers.

A geographical data collecting device uses image matching to identify measuring points on a reference image for real-time confirmation.

Magnetic bearing support reduces friction in a two-axis mirror assembly, enabling high-speed radiation beam deflection without diffraction degradation.

Optical detection replaces mechanical supports that add inertial mass, enabling precise contact angle measurement in compact bearings.

Sensor segmentation calculates lid orientation from pre-collected data, resolving power consumption issues in upright positions.

A scanning apparatus detects mirror tilt via a dedicated detector and processor to adjust rotation angles.

A gyro sensor detects angular velocity to determine brushing site coordinates on a dental arch curve.

A video total station calculates three-dimensional coordinates from two image positions, eliminating separate position determination instruments.

Reconstructs sinusoidal signals using delayed portions to resolve measurement inaccuracies caused by time variations between pulses.

Radio photodetection devices transmit measurement data to a central unit, eliminating skilled operator requirements.

A scanning polarized RF reference source enables precise angular orientation detection for mobile platforms.

A telemeter method detects suspended filamentary objects by calculating terrestrial coordinates of echo points and identifying catenary parameters in vertical planes.

Segmented enclosure with adjustable mounting resolves calibration access conflicts while shielding lasers from sawmill debris.

A multi-spectral sensor system uses a motion controller to translate an image detector array across stationary optics for precise spectral scanning.

An electronic device uses an environmental-parameter database to calibrate inertial sensor data for improved pose estimation accuracy.

Independent wavefront correction in transmit and receive directions eliminates reliance on dim target images for aberration sensing.

An optical sensor determines shaft rotation using a reflector and laser beam, avoiding measurement errors from dust and debris.

A surveillance system embeds GPS coordinates into video frames to pinpoint hostile missile launch sites using hyper-hemisphere lens imagery.

A stationary optical measurement system projects discrete patterns onto rotating vehicle wheels to determine dimensional parameters.

A vehicle controller monitors travel context to communicate driving suggestions that extend range.

Adaptive truncation orders in rigorous coupled wave algorithms reduce computation time for conical diffraction cases while maintaining precision.

A surface-mounted laser level fixture measures wheel alignment angles without clamping hardware.

A submerged probe transmits sensor data via sound waves to a receiver.

A device narrows its angular tracking range after an initial scan to conserve processing resources.

A planetary seismometer processes three-channel time sequences to identify active source azimuth automatically.

A terminal calculates object angles by aligning a static measurement line with an edge on the display interface.

A heading reference system blends gyro and magnetometer data using a Kalman filter to maintain accurate magnetic heading calculations.

Laser scanning captures wheel and chassis surface profiles to determine spatial positions without external markers.

A total station optical axis deflector scans distance measuring light two-dimensionally to locate a target instrument.

Segmented reticles and extraction principles resolve glare and complexity trade-offs for accurate artistic angle duplication.

A portable optical device measures bearings relative to vehicle heading and determines position on electronic charts.

A matched filter processes multi-segment detector signals to estimate target angle in wide field-of-view semi-active laser seekers.

A dual laser system directs a scanning beam to detect target reflections while maintaining primary energy delivery.

An optical head tracking system detects yaw and pitch angles by monitoring light spot displacement on a rectangular sensor for accurate virtual surround sound.

A laser lead designator projects a spot ahead of moving targets to guide weapons.

Computes corrected aircraft incidence using inertial and aerodynamic parameters alongside measured probe data.

A laser beam detection device determines rotational position using satellite-emitted optical signals.

An automated calibration system uses a fixed rig with known-position markers to replace manual procedures, reducing crane setup time from hours to minutes.

A head-up display system projects 3D and 2D symbols to indicate landing points on unprepared surfaces.

Optical proximity sensors replace mechanical limit switches to detect gimbal orientation, preventing housing contact and damage during excessive movement.

A sensor alignment monitoring system tracks pitch, roll, and yaw values to detect misalignment in real time.

A geographic data collecting system uses a touch panel to specify measuring points on displayed images for rapid coordinate acquisition.

Automatic calibration method constructs a data model using multi-axis acceleration signals to determine precise sensor angles.

Optical inclinometers calibrate inertial sensors to eliminate drift in high electromagnetic environments.

Tiltable substrate holder enables dynamic positioning to correct systematic errors from topology and geometry.