Location Information Based Service TRIZ Cases

Segmented pseudonymous certificates and revocation tokens allow a certification authority to exclude participants while preserving anonymity.

Collecting mobile context enables dynamic adjustment of enterprise security, resolving static policy rigidity and improving user productivity.

A visited network MPC coordinates positioning requests for roaming mobile stations, resolving service continuity issues at network boundaries.

An information processing apparatus acquires location data from multiple providers to register user-defined my-spots.

A mobile device system overlays personalized advertisements on captured images using biometric face recognition and proximity detection.

A device location manager maps physical location data to logical identifiers for multiple network slices.

Segmenting computing functions reduces latency and weight while maintaining wide field of view.

A global registry manages wireless device identifiers to enforce user-defined tracking permissions across networks.

A wireless system extracts gait features from channel information time series for human identity recognition.

Segmenting active primary coordinators from passive secondary tags lowers initial deployment costs while maintaining accurate asset location data.

A mobile device submits its current location to a server for validation before granting access to secure data.

Movement graphs link IP proxies to infer census block groups, resolving privacy constraints in location-based targeting.

User equipment derives encryption keys from a shared seed to produce encrypted ranging signals for device positioning.

A Tag Management Function sends inventory requests to access network devices to locate passive tags.

Server detects mobile phone position to determine active status, preventing incorrect call forwarding when user location changes.

A mobile device transfers its own location data to a fixed radio unit using short-range communication links.

Radar pulse signals track user equipment presence, enabling targeted beam sweeps that resolve high-frequency shadowing and maintain connection stability.

Aggregating local DNS-IP mappings into a global database eliminates roaming delays by enforcing domain ACLs without new transactions.

Logical address mapping decouples control logic from physical device locations, reducing setup complexity and reprogramming needs.

A quality of service optimizer predicts future network availability based on mobile device location to proactively cache content and adjust data rates.

A geofencing server manages location data and boundary checks to reduce mobile device memory usage.

A node retrieves parcel information to compare geodetic locations with parcel boundaries for civic address determination.

A user terminal decides message delivery using rough localization initially and activates precise means only when necessary.

A geofence composition architecture generates multiple correlated primitive boundaries with varying radii and polygonal shapes.

A UE transmits an uplink position signal carrying its identifier to a network side for direct addressing.

Tracking device transmits position data to server for behavior analysis, resolving static geo-fencing limitations.

LED indicators show real-time location status, eliminating manual checks and preserving sleep.

A dynamic meta geo-fence system generates a localized radius to monitor relevant geographic boundaries on user devices.

A dynamic geo-fence system modifies its geographic range based on real-time product popularity metrics to optimize customer throughput.

Encoding location data into resource assignment signals resolves GPS-denied accuracy issues while managing signal complexity.

A wireless device manages location privacy by advertising mapping policies in extended capabilities information elements.

Client security components collect user behavior attributes for web service requests to validate interactions.

A media content archive system generates unique tracking identifiers and records transaction descriptions to monitor file usage patterns.

A computer system verifies primary device location by comparing measured orientation against expected values derived from virtual astronomical reference objects.

A criteria-based location notification system processes GPS data to detect child geolocation against predefined safety thresholds.

A server mediates location-specific information transmission between user terminals and digital signage to reduce terminal processing load.

A mobile device initiates a scheduled scan of wireless access points to enable network-based location estimation.

A mobile device detects travel routes and identifies associated mobile networks to adjust media content streaming parameters.

Target node executes positioning measurement on user equipment after handover, avoiding repeated signaling overhead from the positioning server.

Authentication computer detects device connection patterns to grant automatic wireless network access without manual credentials.

User equipment dynamically allocates hardware capabilities between network subscriptions using measurement reports to resolve static allocation inefficiencies.

Server generates verification codes sent to trusted entities, then authenticates users and localizes them via audio signal comparison.

Dynamic state transitions balance tracking reliability with energy consumption across varying network conditions.

An assistant communication device relays ranging information to extend effective distance, resolving portability constraints in UAV swarm coordination.

A geolocation home range management system tracks user position to establish and modify geo-fenced regions based on travel patterns.

A learning system slices content files based on user travel distance and device storage capacity.

A postmark protocol embeds location metadata in packet headers to enable end-to-end geo-location identification across network devices.

A mobile terminal locates its position and calculates distances to recorded blind area boundaries to issue advance proximity prompts.

A wireless handover service predicts device mobility to pre-allocate radio resources along specific routes.