Millimeter wave coarse beamforming using outband sub-6GHz reconfigurable antennas

PAGE TITLE

Overview

 

PAGE SUMMARY

This technology is a technique to address the challenges of millimeter wave (mmWave) communication in the context of high-speed mobile networks, with a focus to reduce the overhead of analog beamforming. The novel approach utilizes reconfigurable antennas operating in the sub-6GHz frequency band to aid codebook-based beam selection in the mmWave band. By exploiting the spatial correlation between signal propagation at both frequency bands, an antenna system designed with this technique would significantly reduce the complexity of beam selection, making it more practical for real-world deployment. This approach has shown promising simulation results.

 

 

ADVANTAGES

TITLE:Key Advantages

 

Low Complexity Beamforming: Our approach employs a single RF chain in the sub-6GHz subsystem, making it less complex compared to methods requiring multiple RF chains at sub-6GHz frequencies

Reduced Beam Search Overhead: By leveraging spatial correlations between mmWave and sub-6GHz signals, the system achieves a substantial reduction in mmWave beam search overhead, up to 70% on average and 80% with a modest average gain loss of 3dB

Expanded network benefits and reduced infrastructure costs: Our approach would provide better coverage and fewer dropouts while being applicable in both indoor and outdoor environments

rss.advantage3>

 

 

Problem Solved

TITLE:Problems Solved

 

High mmWave Beamforming Overhead: The technique addresses the challenge of high beamforming overhead in mmWave communication, which is crucial for achieving high data rates

Latency in Dynamic Mobile Environments: The system helps alleviate latency issues by efficiently selecting optimal beams, essential in dynamic mobile environments where users frequently change location or orientation, thus improving communication reliability

 

APPLICATIONS

TITLE: Market Applications

 

mmWave and 5G Wireless Communication Companies: Companies involved in mmWave and 5G wireless communication can benefit from this approach to improve the efficiency and performance of their networks

Mobile Network Operators: Mobile network operators can utilize this technology to enhance the deployment of mmWave-based mobile networks with reduced latency and complexity

IoT and Autonomous Vehicles: Applications requiring high-speed wireless communication, such as IoT devices and autonomous vehicles, can benefit from the improved reliability and reduced overhead of mmWave beamforming

 

 ---------------------------------

IP STATUS

Intellectual Property

United States Issued Patent- Millimeter wave coarse beamforming using outband sub-6GHz reconfigurable antennas

PUBLICATIONS

References

 

Pubinfo should be the citation for your publication. Publink is the full url linking to the publication online or a pdf.

O. Bshara, V. Pano, M. A. S. Tajin, K. R. Dandekar,  "Millimetre wave coarse beamforming using outband sub-6 GHz reconfigurable antennas", IET Communications, 2021.

 

A. Stroh, M. Sigda, K. Carbone, D. Baun, M. A. S. Tajin, O. Bshara, V. Pano, K. R. Dandekar, "A Pattern Reconfigurable Conformal mmWave Antenna for 5G Applications", In 2021 IEEE International Symposium on Antennas and Propagation and USNC-URSI Radio Science Meeting (APS/URSI), pp. 1059-1060, 2021.

 

O. Bshara,  "mmWave Beamforming Techniques for Future Wireless Communication Applications", PhD thesis, Drexel University, Philadelphia, PA, 2021.

----------------------------------------------

 

 Contact Information      

 

 

 

For Intellectual Property and Licensing inquiries

 

Tanvi Muni, PhD

Licensing Manager

Drexel Applied Innovation

Office of Research and Innovation

3250 Chestnut Street, Ste. 3010
Philadelphia, PA 19104

Phone:267-359-5640

Email:tanvi.muni@drexel.edu

 

Inventor information

Kapil R. Dandekar, Ph.D.

Director, Drexel Wireless Systems Laboratory

E. Warren Colehower Chair Professor

Associate Dean for Enrollment Management and Graduate Education

Electrical and Computer Engineering

Office of the Dean

3101 Market St 232A; CAT 170

Philadelphia, PA 19104, USA

Phone: 1-215-895-2004

Email: dandekar@drexel.edu

Inventor Webpage

Drexel Wireless Systems Laboratory

 

Patent Information: