Analogue Computers For Vehicles TRIZ Cases

A vehicle control apparatus modifies reference inputs to maintain inverted stability within available motor power limits.

A navigation device uses a segmented speed trap database to provide distinct warnings when approaching or passing detection points.

High-frequency pulses create eddy currents in unlaminated circuits, heating viscous diesel fuel to ensure reliable engine cranking without external heaters.

Layered analysis models interdependent aircraft propulsion elements, resolving monitoring complexity while detecting defects.

A control module fixes the stator magnetic field direction to limit rotor movement during vehicle parking shifts.

A vehicle navigation system requests real-time traffic data from a remote server to calculate the optimal driving path.

Super-resolution algorithm enhances flash LIDAR range data accuracy for digital elevation map generation.

A driving intention estimation system calculates imaginary driver operations to maintain accurate lane-change detection.

A simulation-based control system predicts HCCI engine response to optimize fuel and air ratios.

Intermediary selection devices compare redundant air data sources to resolve measurement precision versus device complexity contradictions.

A control device adjusts engine restart sequences based on rotation speed thresholds to synchronize pinion and ring gears.

A fuel injection correction algorithm adjusts cylinder charge parameters to stabilize auto-ignition combustion in homogeneous charge compression ignition engines.

A vehicle guidance system converts measurement data into time-to-contact parameters to provide intuitive flight path control.

EM algorithm with Mahalanobis distance resolves local mode issues in cluster analysis for accurate vehicle type recognition.

Segmented control modules calculate pre-throttle pressure and manifold air flow to resolve slow response speed in traditional turbocharged engine systems.

A gas turbine prediction system generates prognostic indicators from raw operational data to detect impending gas control valve failures.

A control system limits engine torque based on exhaust gas pressure to protect components.

A distributed engine control system uses engine data concentrators linked by a high-integrity data bus to offload processing from specialized electronics.

Retarding injection timing based on manifold air temperature reduces nitrogen oxide emissions while maintaining engine power at higher notch settings.

Incorporating traffic signal timing patterns into route calculations resolves inaccurate arrival predictions caused by ignoring intersection wait times.

A motor vehicle control system simulates coasting by feeding a controlled fuel and air mixture to partially compensate engine drag torque.

A motor and gear system adjusts accelerator pedal spring length to dynamically vary pedal effort based on driver manipulation habits.

A knock determination device calculates vibration intensity and waveform correlation to distinguish engine noise from actual knocking events.

Transforming uncorrected acceleration measurements into an independent position reference frame enables accurate bias error estimation during GPS signal loss.

A closed-loop control system adjusts engine torque and throttle position to achieve a desired deceleration profile.

A vehicle fuelometer uses a control unit to manage stepping motor positioning during idling stop states.

An onboard monitor uses radio altitude measurements to bound vertical position errors, enabling safe Category 1 approaches at lower decision heights.

A control device computes condensed water mass in an exhaust pipe to determine air-fuel ratio sensor heating timing.

Redundant data acquisition units feed an evaluation device that verifies signal consistency to prevent unsafe operation from component failures.

A variable turbine geometry control system maximizes exhaust backpressure to rapidly decelerate engine speed during gear shifts.

Dynamic initial oil pressure adjustment resolves the trade-off between rapid piston stroke completion and shift shock suppression during coasting downshifts.

Controller overrides operator requests to lower engine speed before downshifting, preventing spikes caused by delayed fueling response.

A vehicle emissions monitoring system calculates real-time CO2 flow rates using pre-computed lookup tables and multi-sensor data.

Torque reserve module dynamically adjusts engine reserve based on speed error rate, reducing unnecessary torque output and improving fuel economy.

A control apparatus suspends engine stop processing after a vehicle fall to enable immediate restart.

An OBD-connected system correlates driving actions with fuel dips to resolve the contradiction between data accuracy and monitoring simplicity.

Analyzes historical traffic data to generate representative flow information, resolving sensor coverage gaps and improving prediction accuracy.

Controller reduces gas turbine acceleration when the exhaust temperature sensor fails to prevent overheating and extend engine life.

A calibration system uses unified tables with top and bottom rated torque curves to adjust engine components across varying horsepower ratings.

A parametric model estimates vibrational loads from in-situ response data without requiring mount stiffness parameters.

Variable valve timing mechanism selects fuel-off actuation arrangement to limit compression pulses, reducing pumping losses and optimizing energy recovery.

Computes landing delay margin from flight parameters to prevent runway departures caused by inaccurate safety assessments.

Model Predictive Control uses a virtual construct to predict future dynamics, adjusting operator commands to avoid collisions without restricting human control.

A removable electronic assembly manages engine start and stop functions via integrated connectors.