Particular Environment Based Services TRIZ Cases

Automated image processing replaces manual measurement to determine GNSS receiver location, resolving precision errors in vehicle tracking.

Hardware intrusion detection unit evaluates input signals against approval conditions to filter communication data.

A mean-field evolution model estimates agent behavior to pre-sort offloading requests, reducing network latency in dense vehicle areas.

Processor compares message frequency against stored models to detect attack frames, resolving the trade-off between detection capability and accuracy.

A User Equipment device merges deactivation and activation of Semi-Persistent Scheduling resources into one MAC Control Element, reducing signaling overhead.

Distance-limited sidelink ranging filters target UEs by threshold distance, reducing power consumption and computational overhead during positioning sessions.

A vehicle communication device generates and compares Message Authentication Codes to determine operational states.

A notification system tailoring delivery channels to user context and history.

A pet electronic ruler uses a displacement sensor module to convert physical length into electrical signals for precise digital measurement.

A wireless communication method adjusts transmission frequency based on user equipment activity information to optimize power utilization.

A vehicle cyber-attack detection system extracts features from system log data using natural language processing and deep learning.

A V2X communication control system adjusts transmission strength and direction based on vehicle proximity to prohibited zones.

Target user equipment transmits positioning reference signals to server devices, determining location without base station connectivity.

A two-stage locking system requires a local actuating signal alongside a remote command to unlock a building door.

A push server delivers messages to in-vehicle devices based on geographic location and user criteria.

A server distributes GNSS correction data from reference stations to vehicles for improved positioning accuracy.

In-vehicle gateway transmits software module lists to update servers using wireless communication modules, replacing slow wired diagnostic connections.

A sidelink connection setup method uses radio access network assistance to establish unicast links between user equipment.

Calibrates unstable atmospheric sensors by filtering outlier pressure measurements to improve mobile device altitude estimation accuracy.

Laser transmitters and pixel matrix receivers replace radio frequency links, eliminating GPS jamming risks while maintaining robust swarm tracking.

A relay device gradually reduces output radio wave intensity to trigger communication terminal handovers before shutting down its relay function.

A wireless tracking system uses Wi-Fi and Bluetooth beacons to detect customer and employee locations within retail environments.

A wireless router obtains a mobile device MAC address to determine location without GPS signals.

A mobile application dispatches elevator cars by detecting user proximity to a building entrance.

A power monitor circuit collects usage data to help controllers adjust device functions, reducing complexity trade-offs in IoT battery life.

A rail wireless communication system determines signal propagation profiles from message characteristics and vehicle positions.

A distributed query system executes program code on computing hubs to retrieve device-generated data for service provider environments.

SDK segments tracking into categories to resolve privacy control versus interface complexity on small screens.

A predictive audio system anticipates road noise using location data to prepare cancellation parameters before the vehicle enters noisy zones.

Segmenting base stations into geographic perimeters filters irrelevant traffic, reducing data processing time while maintaining comprehensive training datasets.

Automated IoT tracking eliminates manual fleet monitoring by evaluating location data against predefined geofences to report accurate job completion status.

A first node determines LTE or NR V2X time-frequency resources using reporting or autonomous modes.

MDT channel routes sensor data from cellular devices to the radio access network, bypassing higher-layer bandwidth competition.

A wireless positioning system computes asset location using dynamic anchor selection and time-of-flight ranging events.

A position information providing apparatus associates posted text with location data by analyzing vehicle travel history and user behavior patterns.

A shared vehicle database stores device security credentials to enable automatic pairing across a fleet of connected vehicles.

Network nodes coordinate helper UEs to retransmit data via sidelink channels, maintaining communication reliability when direct downlink connections degrade.

A dynamic wireless mesh network adjusts routing rules based on signal strength and vehicle velocity to maintain connectivity in off-road scenarios.

A location-based automation system filters Industrial Control System data on mobile devices using user position and role.

A Bayesian localization system aligns sensor signals from multiple anchors to determine real-time tag positions.

A forward-secure channel transmits encrypted messages through a persistent buffer to maintain stealthy communication.

Segmented addressing reduces power consumption by minimizing unnecessary wake-ups while maintaining precise targeting in large LPWAN networks.

Calculates autocorrelation and cross-correlation of selected parameters to determine if a subset is insufficient for identifying network-connected devices.

Land-based data devices transmit information between track-guided vehicle units via mobile radio networks, eliminating mechanical cabling complexity.

A user equipment generates sidelink control information to schedule physical sidelink shared channel transmissions.

Segmented receivers measure time differences of arrival to determine indoor device location despite multipath interference.

User equipment shares measured channel utilization via PC5-RRC signaling to mitigate hidden node interference in sidelink communication.