An Integrated 360° Reflective Analog Phase Shifter
A reflective and phase shifter technology, which is applied in the field of phased array radar, can solve the problems of long switching time and large volume, and achieve the effects of reduced processing difficulty, reasonable structural design, and flexible signal control
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Embodiment 1
[0033] An integrated 360° reflective analog phase shifter, such as figure 1 As shown, it includes a ferrite substrate 9 with gyromagnetism and a signal circulation network integrated on a surface of the ferrite substrate 9, a reflection reactance network, a reverse signal isolation network, a DC voltage bias network and a DC blocking network;
[0034] The center frequency of the 360° reflective analog phase shifter based on ferrite material provided by the present invention works at 10GHz. As a preferred embodiment, the material of the ferrite substrate 9 of the present invention should be nickel ferrite with gyromagnetism Materials, specifically, the electromagnetic parameters of the ferrite substrate 9 in this embodiment are as follows: the saturation magnetization is 2500 Gauss, the ferromagnetic resonance linewidth is 240 Oersted, the relative permittivity is 12.6, and the loss tangent is less than 0.0005; To make the phase shifter suitable for integration with other compo...
Embodiment 2
[0052] combine Figure 6 The illustrated embodiment provides a specific implementation of the ground plane 2, and specifically describes a specific implementation of the present invention integrating the phase shifter formed by various functional networks on the surface of the ferrite substrate 9 and the external circuit substrate 21. installation method:
[0053] In order to enable the circuit part of the present invention to be effectively connected to other working circuits on the external circuit board 21, an accommodating groove 23 is provided at a specific position of the external circuit substrate 21, and the bottom surface of the accommodating groove 23 is metallized to form a uniform metal layer; Then embed the ferrite substrate 9 in the accommodating groove 23, so that the side of the ferrite substrate 9 facing away from the printed circuit is in close contact with the metal bottom surface 22 of the accommodating groove 23, wherein the The groove size of the accommo...
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