2011
DOI: 10.1049/iet-map.2010.0362
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Low insertion loss substrate integrated waveguide quasi-elliptic filters for V-band wireless personal area network applications

Abstract: Novel V-band substrate integrated waveguide (SIW) filters have been presented. Design procedures for the filters synthesis and mechanisms providing quasi-elliptic response have been explained. The insertion loss of the filters has been measured below 2 dB with microstrip-to-SIW transitions being included.

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Cited by 29 publications
(32 citation statements)
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“…Typical unloaded quality factors (Qfactors) for on-chip resonators at E-band frequencies have been demonstrated only up to 83 [28] for compound transmission line resonators, 43 for shielded transmission line resonators [29], 25 for single transmission line resonators [30] and below 15 for LC tank resonators [31]. This compares poorly with achievable unloaded Q-factors at mm-wave frequencies of over 200 in SIW [32], over 3,000 for ceramic dielectric resonators [30] and Q-factors in excess of 75,000 for machined waveguide resonators [33]. E-band system integration with off-the-shelf components traditionally makes use of pre-packaged components in WR-12 rectangular waveguide [34] [35].…”
Section: Approachesmentioning
confidence: 95%
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“…Typical unloaded quality factors (Qfactors) for on-chip resonators at E-band frequencies have been demonstrated only up to 83 [28] for compound transmission line resonators, 43 for shielded transmission line resonators [29], 25 for single transmission line resonators [30] and below 15 for LC tank resonators [31]. This compares poorly with achievable unloaded Q-factors at mm-wave frequencies of over 200 in SIW [32], over 3,000 for ceramic dielectric resonators [30] and Q-factors in excess of 75,000 for machined waveguide resonators [33]. E-band system integration with off-the-shelf components traditionally makes use of pre-packaged components in WR-12 rectangular waveguide [34] [35].…”
Section: Approachesmentioning
confidence: 95%
“…More experimental packaging technologies such as waveguide apertures, micro-coax and through-wafer vias have also been proposed [50] but not yet commercially adopted. With the availability of commercial RF substrates that perform well at E-band and W-band frequencies [32], it should come as no surprise that board-level E-band transceiver developments are performing amicably [49][41][53] [54]. There are, however, still shortcomings in the state-of-the-art, and addressing these shortcomings may lead to improved overall system performances through, amongst others, minimizing interconnect attenuation and reducing the number of on-chip low Q-factor passives.…”
Section: Approachesmentioning
confidence: 99%
“…By building frequency-dependent coupling, the SIW filters with inline resonators [1,2,3] are gained considerable attention and many novel structures have been proposed. On the one hand, compared with the cross-coupled filters [4,5], the inline filters can avoid isolation problems between the input and output.…”
Section: Introductionmentioning
confidence: 99%
“…One method is implemented via open and short stubs [1,8]. Although the stub can generate new transmission zeros, its circuit sizes are very large.…”
Section: Introductionmentioning
confidence: 99%
“…It is therefore tempting to use the simplest in-line topology and increase the selectivity by using similar frequency-dependent couplings as in waveguides. Especially shorted stubs proposed in [17,18] are particularly attractive and simple to implement in SIW. Unfortunately, unless a filter is narrowband, in which case on may use the technique proposed in [7], there is no established way of designing in-line filters with frequency-dependent couplings other than through numerical simulations and full-wave optimization.…”
Section: Introductionmentioning
confidence: 99%