Design for a linear voltage‐controlled 360°‐analog phase shifter

Abstract

6(b). The three-dimensional (3D) image of the dynamic modulated Gaussian CW is as shown in Figure 7, whereas the maximum power within the nanoring of 120 mW is obtained. CONCLUSIONSWe have shown the dynamic behaviors of pulses propagation within the double PANDA ring resonators that can be performed by using two nanoring resonators incorporating into the add/ drop multiplexer. By using the OPTI-WAVE PROGRAMMING and the reasonable input parameters, the dynamic behaviors can be controlled and the required output pulses obtained. In this case, the dynamic behavior can be controlled and used for the desired applications. The maximum number of peaks (counts) of 18 is obtained, which is available for multi light source or wavelength enhancement application; moreover, the output amplification is also obtained where the maximum power within the nanoring of 120 mW is obtained. ABSTRACT: The article presents the design of a linear voltagecontrolled 360 analog phase shifter operating at 2.2 GHz. It is a reflection-type with a simple and compact structure, using a k/4-coupled-line coupler with the output ports terminated with identical parallel-tuned varactor-diode circuits for a full 360 -phase shift. Formulas are derived for making use of the dimensions of the transmission lines to linearize the phase shift against the control voltage. Simulation and measurement results on the linearity and insertion loss are presented.

Wideband log‐periodic phase shifters

“…Analog phase shifters, with most linear variable phase-shifting properties, have a fundamental impress on microwave beam-formers of phasedarray antenna systems, moving out intelligent antenna structures of broadband wireless mobile communication, and phase-modulation of communication systems. [21][22][23][24][25] The bandwidth of 10% for larger than 234 of relative phase shift and the better insertion loss variation of ±0.6 dB, 23 260 phase range through 36% fractional bandwidth and good results of S-parameters by using coupled structure in 22 and phase shift of 186 at 1.97 GHz 21 are some of the analog phase shifters results. The next phase shifters based on SIW technology, release linear phase shifts between 22.5 and 25.5 GHz, which is suitable for 24 GHz applications.…”

“…In this paper, we focus on main-line design because bandwidth and optimized configuration of phase shifters are related to it. In addition to linear phase shifter applications, [5][6][7][21][22][23][24][25][26] any specific differential phase shift could be obtained by the different design of reference line at main-line bandwidth. Three models of phase shifter are presented.…”

Broadband and wide range tunable phase shifter based on composite right/left handed transmission line

“…For different engineering applications, different kinds of tunable phase shifters were proposed using ferrite materials [1][2][3][4], p-i-n diodes [5][6][7], varactor diodes [8][9][10][11], etc. The phase shifters based on ferrite materials usually have large insertion loss and hard to be integrated, while p-i-n diodes are popular in designing digital phase shifters.…”