Full Duplex Beam Direction Selection via Local Feedback

The patent implements feedback mechanisms where wireless communication devices transmit information about local conditions and channel conditions to each other. This feedback enables dynamic beam direction selection that adapts to changing environmental conditions, thereby improving spectral efficiency without requiring complex centralized control. The devices use the exchanged information to independently determine optimal beam directions, maintaining low device complexity while achieving high spectral efficiency through distributed intelligence.

The patent applies preliminary action by having wireless communication devices exchange information about local conditions and channel conditions before performing beam direction selection. This preparatory step ensures that devices have the necessary information to make informed decisions about beam directions, thereby reducing error rates. The information exchange and condition assessment are performed in advance, allowing devices to select optimal beam directions that account for environmental factors, thus improving reliability without adding significant complexity during the actual communication process.

The patent implements self-service by enabling wireless communication devices to autonomously perform beam direction selection based on locally available information about conditions and channel state. Each device independently processes the exchanged information and determines optimal beam directions without requiring extensive centralized computing resources. This distributed self-service approach maintains low computing resource consumption while achieving high spectral efficiency through local intelligence and real-time adaptation to environmental conditions.

The patent applies parameter changes by dynamically adjusting beam directions based on real-time local conditions and channel conditions. Instead of using fixed beam configurations, the system modifies beam parameters (directions, angles, orientations) in response to changing environmental factors. This dynamic parameter adjustment improves spectral efficiency by optimizing beam alignment with receiving devices and environmental conditions, while the changes are computed efficiently to avoid excessive power consumption. The system balances power usage with performance by making targeted parameter adjustments only when conditions warrant changes.