The technology aids in synchronizing a receiver and transmitter in a wireless communication system by using multiple reception antennas and factors like resolvable delay spread and interference signals.

The wireless communication industry has been continually evolving, necessitating robust and accurate synchronization between transmitters and receivers for seamless information exchange. Reliable synchronization is vital to maintain the signal integrity, reduce data errors, and ensure optimal system performance. However, achieving this synchronization, especially in a multi-antenna system, poses a significant challenge because of factors like signal disturbances and interference. In conventional approaches, synchronization is often limited to single-antenna models and fails to handle multiple antennas' dynamics effectively. The existing methods rarely consider parameters like received signal's resolvable delay spread which can affect synchronization. Moreover, they do not effectively utilize known signal components and fail to incorporate interference signals, leading to higher synchronization errors and compromised system performance.

Technology Description

This technology pertains to synchronization techniques for aligning a receiver and transmitter in a wireless communication system. Its innovative design utilizes multiple receiving antennas to indulge in communication. The receiver and transmitter are synchronized on  the basis of a signal received through a channel and a channel model that integrates these multiple receiving antennas. In addition, this channel model incorporates a resolvable delay spread of the received signal concerning each antenna, further enhancing synchronization precision. The distinguishing attribute of this advanced technology is its usage of a known component of the received signal, like a cyclic prefix or a pilot sequence as in orthogonal frequency division multiplexing (OFDM), to aid in synchronization. The technology also factors in a channel model that contains these multiple receiving antennas and an interfering signal to attain precise synchronization. This multipronged approach contributes to superior receiver-transmitter synchronization in complex wireless communication scenarios.

Benefits

  • Improved signal synchronization for more accurate data transmission
  • Application to multi-antenna systems, providing a broader usage scope
  • Efficient handling of interfering signals to maintain signal integrity
  • Utilization of known signal components for better precision
  • Less susceptibility to errors because of integrated channel model and resolvable delay spread

Potential Use Cases

  • Applications in 5G and beyond communication systems
  • Application to Internet of things (IoT) devices
  • Use in satellite communication to overcome lag and interference
  • Autonomous vehicle wireless communication for real-time connection
  • Wireless broadband service providers