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2024-08-18
A Compact Low-Loss Single-Layer Vialess Diplexer Based on Complementary Microstrip Spiral Resonators for Satellite Communications
By
Progress In Electromagnetics Research Letters, Vol. 122, 45-51, 2024
Abstract
The design of a compact low-loss diplexer based on complementary microstrip spiral resonators is described. The resonant elements are two: one is low-pass (channel A) and the other is passband (channel B). The low-pass element is composed of spirals departing from a circle, whereas the passband element is composed of spirals etched on a circle. The former element is novel and has been extensively analyzed here. These elements are connected using a star nonresonant Y-junction to form a single-layer vialess diplexer. As an example, a diplexer working at 0.87 and 2.0 GHz for satellite communications is manufactured and tested. The measured data show an insertion loss equal to 0.58 dB (0.66 dB) for channel A (B). The return loss exceeds 15 dB for both channels, and the dimensions are 0.129λ × 0.265λ ≈ 0.0343λ2.
Citation
Giacomo Giannetti, Stefano Maddio, and Stefano Selleri, "A Compact Low-Loss Single-Layer Vialess Diplexer Based on Complementary Microstrip Spiral Resonators for Satellite Communications," Progress In Electromagnetics Research Letters, Vol. 122, 45-51, 2024.
doi:10.2528/PIERL24061104
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