Ultra-wideband radio-beam direction finder based on microwave photonics and all-optical processing

  • Mikhail E. Belkin  ,
  • Tatiana N. Bakhvalova  ,
  • Igor V. Gladyshev  , 
  • Alexander S. Sigov  
  • MIREA - Russian Technological University, Scientific and Technological Center “Integrated Microwave Photonics”,
    Moscow, Russian Federation
Cite as
Belkin M.E., Bakhvalova T.N., Gladyshev I.V., Sigov A.S. (2018). Ultra-wideband radio-beam direction finder based on microwave photonics andall-optical processing. Proceedings of the 30th European Modeling & Simulation Symposium (EMSS 2018), pp. 265-268. DOI: https://doi.org/10.46354/i3m.2018.emss.036

Abstract

We propose an upgrading design approach to an ultrawideband radio-beam direction finder based on microwave photonics and all-optical processing. The validity and accuracy of its operation principle are analyzed in detail and optimized by the simulation using a special photonic computer-aided design tool VPIphotonics Design Suite. As a result of the calculations it was obtained that the dynamic range of the measurement can exceed 10 dB even at a comparatively low power of the laser emitter and that accuracy at the level of units of degrees is provided without problems using the simplest method of determining the direction of arrival by scanning the delay in the optical path.

References

  1. Biernacki P. D., Ward A., Nichols L. T., and Esman R. D., 1998. Microwave phase detection for angle of
    arrival detection using a 4-channel optical downconverter. Proceedings of International pical Meeting on Microwave Photonics, pp. 137–140. October 12-14, Princeton (New Jersey, USA).
  2. Capmany J., Li G., Lim C., and Yao J., 2013. Microwave Photonics: Current challenges towards widespread
    application. Optics Express, 21 (19): 22862-22867. Ng W., 2015. Photonics for microwave systems and ultra-wideband signal processing. Optics Communications, 373: 1-13.
  3. Pan S. and Yao J., 2017. Photonics-Based Broadband Microwave Measurement. IEEE Journal of
    Lightwave Technology, 35 (16): 3498-3513.
  4. Tonda-Goldstein S., Dolfi D., Monsterleet A., Formont S., Chazelas J., and Huignard J. P., 2006. Optical
    signal processing in radar systems. IEEE Transactions on Microwave Theory and Techniques, 54 (2): 847–853.
  5. Urick V.J., McKinney J.D., Williams K.J., 2015. Fundamentals of Microwave Photonics. Hoboken
    (New Jersey, USA): John Wiley & Sons.
  6. VPIphotonics™. Available from:
    http://www.vpiphotonics.com/index.php Waterhouse R. and Novak D., 2015. Realizing 5G. IEEE Microwave Magazine, 16 (8): 84-92.
  7. Zou X., Li W., Pan W., Luo B., Yan L., and Yao J., 2012. Photonic approach to the measurement of timedifference-
    of-arrival and angle-of-arrival of a microwave signal. Optics Letters, 37 (4): 755-757.
  8. Zou X., Lu B., Pan W., Yan L., Stohr A., and Yao J., 2016. Photonics for microwave measuring. Lase
    Photonics Review, 10 (5): 711-734. Proceedings of the European Modeling and Simulation Symposium, 2018