A control device dynamically assigns primary Ultra-Wideband anchors based on signal strength and collision maps.
A cockpit display system renders a synthetic perspective view of terrain alongside a graphical representation of beacon location data.
Spaced antennas measure signal strength deltas to determine mobile device direction, resolving accuracy versus complexity trade-offs.
Ground station aligns and merges beacon signals to resolve insufficient signal-to-noise ratios that prevent accurate Time of Arrival measurements.
A framework processes vehicle trajectory data from sparse sensor networks to generate tracking tables and identify specific travel behaviors.
Parallel plate waveguide model with lumped ports generates S-parameter data, reducing computational time and storage requirements for HIRF and EMP analysis.
Integrating GPS, modem, and RFID components reduces physical footprint while enabling automated location tracking and cargo status reporting.
Multi-angle detection calculates absolute distance using reception angles and inter-apparatus spacing, bypassing RSSI noise limitations.
Gateway device scans beacon signals to determine identifiers and output position reports, enabling accurate location tracking for low-capability devices.
A DVOR monitoring apparatus shifts subcarrier signal phase relative to the carrier signal before combining them for demodulation.
A single beacon system calculates distances from multiple mobile device sensors to determine precise indoor positioning.
Virtual timing markers embed precise navigation data within standard communication message streams.
A GPS application server provides assistant information to mobile terminals for precise location determination.
Extracting time and frequency metadata from radio signals enables spatial localization while reducing communication bandwidth and storage capacity requirements.
Access points filter received beacon frames to determine location, then self-label with geographic codes for accurate indoor positioning without GPS hardware.
Encoding data in pulse phases mitigates vulnerability to jamming and spoofing attacks while supporting efficient data transfer.