Particular Environment Based Services TRIZ Cases

Spatial maps of wireless signal strength let vehicle systems predict weak coverage, place repeaters, and adjust operations to keep links reliable.

Predicted communication quality and full maneuver-cycle fuel use guide platoon gap changes without unduly slowing convoy progress.

Mobile device triangulation links parked vehicle damage to the likely originator, enabling targeted camera evidence without broad recording.

A managed mobile unit travels to requested pickup or delivery points, cutting repeat visits and user travel in last-mile package handling.

Ad-hoc V2X localization fuses nearby vehicles, 5G links, and onboard sensors to keep delivery robots accurate without costly 3D sensors.

Dynamic wait timing and relocation to stronger cellular coverage keep autonomous ride-hailing vehicles connected without excessive curbside lingering.

Centralized user-data deletion and reload prevents prior-user access in shared vehicles while speeding secure handover between drivers.

Uses traffic sensing and local driving statistics to suggest safer intersection decisions when other drivers may ignore traffic rules.

Mapped obstruction data guides a nomadic device to unobstructed AR poses for easier, secure vehicle authentication in blocked surroundings.

Vehicles use dynamic map TTL data to send object updates only when entries are missing or near expiry, reducing redundant bandwidth use.

An in-line trailer harness connector integrates a wireless transceiver to bypass long video wiring, resist shielding interference, and simplify sensor installation.

Tunable reward coefficients balance speed, jerk, and handoff success so autonomous vehicles can adapt driving plans in driver-in-the-loop use.

Temporary contact sharing during device pairing enables voice command disambiguation and calling without manual contact setup.

When a crash disables the vehicle's mobile link, a wireless relay to a mobile terminal preserves emergency call reliability.

Infrastructure-guided valet parking assigns slots and routes vehicles autonomously to cut parking time, energy use, and collision risk.

Independent trailer V2X operating modes reduce latency and data conflicts while preserving consistent road-user communication.

A server-guided vehicle picks up and returns packages at user-selected times and locations, avoiding facility visits and wait time.

Mobile sensors and OS services capture driving activity passively, balancing behavior accuracy with lower battery use and no OBD hardware.

RFID or GPS beacons let portable traffic apparatus keep accurate location records without permanent infrastructure or heavy onboard processing.

A double plausibility check combines secure point-to-point authentication and distance verification to block unauthorized vehicle access.

Maximum V2V delay is set from kinematic targets and control parameters to keep close vehicle convoys stable at high speed.

Short-range tags and nearby mobile phones detect unauthorized vehicle movement and relay location data for faster, lower-cost theft recovery.

Map-based priority detection lets vehicles act sooner on narrow roads without communication, improving avoidance timing and safe passage.

A programmable TCU combines CAN bus control, BLE, and LEO satellite links to keep fleet access and operations working in low-connectivity areas.

Directional beacon emission with a radio wave absorber enables accurate indoor moving-object positioning using one array antenna.

Vehicles store road event data where no RSU exists, then relay it wirelessly so others can adjust traction and engine settings.

Predetermined switch-condition checks let parking-lot AVP change between vehicle, infrastructure, and shared modes without unsafe interruptions.

Driving parameters are adjusted from environment data and positioning precision so autonomous vehicles can handle changing road conditions more safely.

Iterative key checks let an autonomous vehicle verify and apply movement limits when control-center stop signals are disrupted.

Multiple PDU sessions and adaptive QoS keep tele-operated driving video, sensor, and control links synchronized under V2X latency limits.

Predicting road-reflection null positions lets a host vehicle adjust following distance and maintain reliable V2V links for downstream driving functions.

Metamaterial window reflect arrays relay and steer 5G millimeter-wave signals to extend coverage and reduce propagation loss in smart infrastructure.

Multiple UWB nodes use distance and signal strength thresholds to locate a phone near a vehicle and distinguish cabin from exterior.

Driving intention messages from the vehicle ahead let automatic start control cut accordion delays, improve throughput, and reduce fuel use.

BLE exchanges setup parameters before UWB ranging, enabling secure touch-free vehicle access between previously unpaired devices.

Cryptographic authentication lets autonomous vehicles verify emergency vehicle commands, preventing spoofing while enabling safe legal response.

Lead and following AVs share road-object data so commands can be updated around hazards, improving navigation safety and route efficiency.

Infrastructure-mounted sensors extend vehicle awareness beyond blocked views, helping AI detect obstacles and predict collisions earlier.

Combining BLE distance checks with Wi-Fi ranging and calibration data helps passive digital keys detect relay attacks and validate mobile devices.

State-based rule checking links CAN and Ethernet networks to block abnormal vehicle control commands before transfer.

Audio sound sequences let a remote unit trigger vehicle key functions beyond radio range while supporting secure challenge-response authentication.

Calibration readings are delayed around refractory periods so moving sensors align within short proximity windows for more reliable results.

Startup-time validation requests let vehicle features be disabled when payment checks fail, resisting signal jamming and shielding.

Vehicles expected to meet near an event compare app versions in advance, then upgrade, downgrade, or replicate software to avoid coordination errors.

Motion sensing replaces crowded key buttons with user-defined gestures, expanding vehicle functions while reducing memorization and dark-use difficulty.

Viewing zones and user location coaching keep remote park-assist parking visible and suspend navigation when the user moves into unsafe positions.

When phantom objects halt an autonomous vehicle, remote micro-authorization enables safe incremental movement by deactivating propulsion constraints.