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Multiway wideband power dividers

Published: 01 October 2015 Publication History

Abstract

In this article, we propose a new design methodology to broaden the bandwidth of a multiway Bagley power divider BPD. Single-frequency matching uniform quarter-wave-length microstrip lines in the conventional design are replaced with impedance-varying transmission lines of broadband matching characteristics. The equivalent transmission line model is used for profiling impedance variations, which are governed by a truncated Fourier series. Such variations are determined by finding the optimum series coefficients that result in a wideband matching nature. The proposed technique leads to flexible spectrum allocation and matching level. Furthermore, the resulting structures are compact and planar. First, analytical results of three 3-way BPDs of different fractional bandwidths are presented and discussed to validate the proposed approach. Then, two examples of 3- and 5-way BPDs with bandwidths of 4-10 GHz and 5-9 GHz, respectively, are simulated, fabricated, and measured. Simulated and measured results are in a good agreement, with input port matching of below -15 dB and -12.5 dB for the 3- and 5-way dividers, respectively, over the bands of interest. The obtained transmission parameters of the 3- and 5-way dividers are -4.77±1 dB and -7±1 dB, respectively, over the design bands. The proposed wideband dividers find many applications in microwave front-end circuitry, especially in only-transmitting antenna subsystems, such as broad- and multicast communication links. © 2015 Wiley Periodicals, Inc. Int J RF and Microwave CAE 25:730-738, 2015.

References

[1]
X.Ou and Q.Chu, A modified two-section UWB Wilkinson power divider, Proc Int Conf Microwave Millim Wave Technol, Nanjing, 2008, pp. pp.1258-1260.
[2]
M.Bialkowski and A.Abbosh, Design of a compact UWB out-of-phase power divider, IEEE Microwave Wireless Compon Lett Volume 17 2007, pp.289-291.
[3]
Y.S.Lin and J.H.Lee, Miniature ultra-wideband power divider using bridged T-coils, IEEE Microwave Wireless Compon Lett Volume 22 2012, pp.391-393.
[4]
C.T.Chiang and B.K.Chung, Ultra wideband power divider using tapered line, Prog Electromagn Res Volume 106 2010, pp.61-73.
[5]
R.P.Hecken, A near optimum matching section without discontinuities, IEEE Trans Microwave Theory Tech Volume 20 1972, pp.734-739.
[6]
K.Alshamaileh, N.Dib, and A.Abbosh, Analysis and design of ultra-wideband unequal-split Wilkinson power divider using tapered lines transformers, Electromagnetics Volume 32 2012, pp.426-437.
[7]
K.Alshamaileh, M.Almalkawi, V.Devabhaktuni, N.Dib, B.Henin, and A.Abbosh, Non-uniform transmission line ultra-wideband Wilkinson power divider, Prog Electromagn Res C Volume 44 2013, pp.1-11.
[8]
A.Abbosh, A compact UWB three-way power divider, IEEE Microwave Wireless Compon Lett Volume 17 2007, pp.598-600.
[9]
A.Qaroot and N.Dib, General design of N-way multi-frequency unequal split planar Wilkinson power divider, Prog Electromagn Research C Volume 14 2010, pp.115-129.
[10]
A.Qaroot, N.Dib, and A.Gheethan, Design methodology of multi-frequency unequal split Wilkinson power divider using transmission line transformers, Prog Electromagn Res B Volume 22 2010, pp.1-21.
[11]
Y.Wu, Y.Liu, Q.Xue, S.Li, and C.Yu, Analytical design method of multiway dual-band planar power dividers with arbitrary power division, IEEE Trans Microwave Theory Tech Volume 58 2010, pp.3832-3841.
[12]
U.Gysel, A new N-way power divider/combiner suitable for high-power applications, Proc IEEE MTT-S Int Microwave Symp, Palo Alton, CA, 1975, pp. pp.116-118.
[13]
F.Ardemagni, An optimized L-band eight-way gysel power divider-combiner, IEEE Trans Microwave Theory Tech Volume 31 1983, pp.491-495.
[14]
M.J.Park and B.Lee, A dual-band gysel power divider with the even-mode input extension/stub lines, Microwave Opt Technol Lett Volume 53 2011, pp.1213-1216.
[15]
F.Lin, Q.X.Chu, Z.Gong, and Z.Lin, Compact broadband gysel power divider with arbitrary power-dividing ratio using microstrip/slotline phase inverter, IEEE Trans Microwave Theory Tech Volume 60 2012, pp.1226-1234.
[16]
L.S.Wu, Y.X.Guo, and J.F.Mao, Balanced-to-balanced gysel power divider with bandpass filtering response, IEEE Trans Microwave Theory Tech Volume 61 2013, pp.4052-4062.
[17]
A.Abbosh, Planar out-of-phase power divider/combiner for wideband high power microwave applications, IEEE Trans Compon Pack Manuf Technol Volume 4 2013, pp.465-471.
[18]
T.Wuren, K.Taniya, I.Sakagami, and M.Tahara, Miniaturization of 3- and 5- way Bagley polygon power dividers, Proc Asia-Pacific Microwave Conf Volume 5 2005.
[19]
H.Oraizi and S.A.Ayati, Optimum design of a modified 3-way Bagley rectangular power divider, Proc. 10th Mediterranean Microwave Symp, Guzelyurt, 2010, pp. pp.25-28.
[20]
I.Sakagami, T.Wuren, M.Fujii, and M.Tahara, Compact multi-way power dividers similar to the Bagley polygon, Proc IEEE Int Microwave Symp, Honolulu, HI, 2007, pp. pp.419-422.
[21]
I.Sakagami, T.Wuren, M.Fujii, and Y.Tomoda, A new type of multi-way microwave power divider based on Bagley polygon power divider, Proc Asia-Pacific Microwave Conf, Yokohama, 2006, pp. pp.1353-1356.
[22]
D.S.Elles and Y.K.Yoon, Compact dual band three way Bagley polygon power divider using composite right/left handed CRLH transmission lines, Proc IEEE Int Microwave Symp, Boston, MA, 2009, pp. pp.485-488.
[23]
R.Gómez-García and M.Sánchez-Renedo, Application of generalized Bagley-polygon four-port power dividers to designing microwave dual-band bandpass planar filters, Proc IEEE Int Microwave Symp, Anaheim, CA, 2010, pp. pp.580-583.
[24]
I.Sakagami and T.Wuren, Compact multi-way power dividers for dual-band, wide-band and easy fabrication, Proc IEEE Int Microwave Symp, Boston, MA, 2009, pp. pp.489-492.
[25]
A.Qaroot, K.Alshamaileh, and N.Dib, Design and analysis of dual-frequency modified 3-way Bagley power dividers, Prog Electromagn Res C Volume 20 2011, pp.67-81.
[26]
L.Bei, S.Zhang, and K.Huang, A novel dual-band multi-way power divider using coupled lines, Prog Electromagn Res C Volume 37 2013, pp.41-51.
[27]
K.Alshamaileh, A.Qaroot, and N.Dib, Non-uniform transmission line transformers and their application in the design of compact multi-band Bagley power dividers with harmonics suppression, Prog Electromagn Res Volume 113 2011, pp.269-284.
[28]
O.Abu-Alnadi, N.Dib, K.Alshamaileh, and A.Sheta, Design and analysis of unequal split Bagley power dividers, Int J Electron Volume 102 2014, pp.500-513.
[29]
K.A.Alshamaileh, A.Qaroot, and N.Dib, Design of N-way power divider similar to the Bagley polygon divider with an even number of output ports, Prog Electromagn Res C Volume 20 2011, pp.83-93.
[30]
D.Pozar, Microwave Engineering, 3rd ed., Wiley, New York, 2005.
[31]
Y.Li, Centering, trust region, reflective techniques for nonlinear minimization subject to bound, Technical Report 93-1385, Cornell University, NY, September 1993.
[32]
ANSYS-High Frequency Structure Simulator HFSS, Ansys, Inc., Canonsburg, PA, 2011.
  1. Multiway wideband power dividers

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    Published In

    cover image International Journal of RF and Microwave Computer-Aided Engineering
    International Journal of RF and Microwave Computer-Aided Engineering  Volume 25, Issue 8
    October 2015
    92 pages

    Publisher

    John Wiley and Sons Ltd.

    United Kingdom

    Publication History

    Published: 01 October 2015

    Author Tags

    1. Bagley power divider
    2. Fourier series coefficients
    3. impedance matching
    4. impedance-variation
    5. microstrip
    6. multiway power divider
    7. wideband

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