A review of key development areas in low-cost packaging and integration of future E-band mm-wave transceivers

Stander, Tinus

doi:10.1109/afrcon.2015.7331937

Cited by 9 publications

(3 citation statements)

References 52 publications

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“…For a transceiver communication system, maximum achievable data rate requires minimum distortion of its Radio Frequency (RF) transfer characteristics [7]. The E-band offers reasonable wideband frequency capability to reach the high gigabit rate required in wireless transmission systems [8].…”

Section: Introductionmentioning

confidence: 99%

Design of Chebyshev Bandpass Waveguide Filter for E-band Based on CSRR Metamaterial

M¹,

Ugur²

2021

Int J Electron Device Phys

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A new design of bandpass waveguide filter with Chebyshev response which operates in the E-band for downlink channel [71 GHz-76 GHz] at 73.5 GHz center frequency. The new design used a complementary split ring resonators (CSRRs) upper and lower rings that are placed on the same transverse plane. A simple model of lumped elements circuit (RLC) model is shown. The model of the proposed bandpass waveguide filter is synthesized and designed by using EM full-wave simulator CST. By selecting proper physical dimensions of CSRR design, a shortened physical length, a flat and lossless passband with better return loss over the conventional waveguide filter are obtained. As a result, the proposed filter is compared with the conventional bandpass waveguide filter coupled by inductive H-plane irises at the same resonant frequency 73.5 GHz. The proposed filter reduces the overall physical length by 37.5% and enhances the return loss up to 6.7%.

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Section: Introductionmentioning

confidence: 99%

Design of Chebyshev Bandpass Waveguide Filter for E-band Based on CSRR Metamaterial

M¹,

Ugur²

2021

Int J Electron Device Phys

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“…The millimeter-wave spectrum (30 -300 GHz), and in particular the lightly licensed E-band (60 -90 GHz), offers significant unused spectrum for automotive RADAR and communications backhaul applications [1]. Although the development of deep submicron nodes in CMOS and SiGe BiCMOS [2] have led to commercially feasible mm-wave front-ends suitable for system-on-chip (SoC) integration [3], there is still no compact, low-loss solution to effective channelization on-chip.…”

Section: Introductionmentioning

confidence: 99%

E-Band Active Q-Enhanced Pseudo-combline Resonator in 130 nm SiGe BiCMOS

Singh

Stander

2018

J Infrared Milli Terahz Waves

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We present an active Q-enhanced pseudo-combline resonator integrated in 130nm SiGe BiCMOS. It is shown that the resonator Q 0 can be enhanced, controllably, from 15 to 1578 at 78.8 GHz through application of a SiGe HBT-based negative resistance circuit. This is the first time that resonator Q-enhancement is demonstrated experimentally in silicon above 40 GHz, and the first time negative enhancement with single-ended pseudo-combline loading is used.

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“…E-band (60 -90 GHz) transceivers are expected to play a key role in future 5G communication networks [1] . Folded waveguide traveling wave tube (FWTWT) [2] is excellent candidate for applications in millimeter wave regimes.…”

Section: Introductionmentioning

confidence: 99%

Nonlinear Investigation of Beam-wave Interaction in E Band Folded Waveguide TWT

He¹,

Zhu²,

Huang³

2017

dtetr

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Abstract.A E-band folded waveguide traveling-wave tube (FWTWT) is modelled, and the nonlinear interaction between the electron beam and electromagnetic field is investigated by utilizing a 3-D particle-in-cell (PIC) code, MAGIC3D. The process of the interaction for millimeter wave TWT are presented, including the longitudinal momentum of the electron, the averaged radiation power, and the influence of input power on output power. The radiation power and gain of the FWTWT at 85GHz are 88.5W and 27.5dB.The output power of the FWTWT changes only 1 dB across the 6-GHz bandwidth ranging from 82GHz to 88GHz, which is attractive for many applications, e.g. 5G communication networks , satellite communication, electronic counter measures.

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A review of key development areas in low-cost packaging and integration of future E-band mm-wave transceivers

Cited by 9 publications

References 52 publications

Design of Chebyshev Bandpass Waveguide Filter for E-band Based on CSRR Metamaterial

Design of Chebyshev Bandpass Waveguide Filter for E-band Based on CSRR Metamaterial

E-Band Active Q-Enhanced Pseudo-combline Resonator in 130 nm SiGe BiCMOS

Nonlinear Investigation of Beam-wave Interaction in E Band Folded Waveguide TWT

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