Design of UWB low noise amplifier using noise-canceling and current-reused techniques
M Hayati, S Cheraghaliei, S Zarghami - Integration, 2018 - Elsevier
In this paper, an ultra-wideband (UWB) low-noise amplifier (LNA) with low noise-figure (NF)
and high power gain (S 21) using 0.18-um CMOS technology is presented, which operates …
and high power gain (S 21) using 0.18-um CMOS technology is presented, which operates …
Blocker tolerant cascode LNA for Wifi & IoT applications
SM Das, KV Ramanaiah - International Journal of …, 2024 - Wiley Online Library
Within the domain of contemporary wireless communication systems, crafting Low‐Noise
Amplifiers (LNA) holds a pivotal significance in achieving heightened signal sensitivity and …
Amplifiers (LNA) holds a pivotal significance in achieving heightened signal sensitivity and …
Tunable active inductor-based second-order all-pass filter as a time delay cell for multi-GHz operation
SR Aghazadeh, H Martinez, A Saberkari… - Circuits, Systems, and …, 2019 - Springer
In this paper, a CMOS wideband second-order voltage-mode all-pass filter as a time delay
cell is proposed. The proposed all-pass filter is made up of solely two transistors as active …
cell is proposed. The proposed all-pass filter is made up of solely two transistors as active …
A wideband design analysis of LNA utilizing complimentary common gate stage with mutually coupled common source stage
This paper presents a wideband low noise amplifier (LNA) which consist cascade of two
stages. First stage, a complimentary common gate (CCG) stage is utilized to consume low …
stages. First stage, a complimentary common gate (CCG) stage is utilized to consume low …
A low‐noise current‐reused CMOS active inductor by exploiting Gm‐boosting technique
A Sabbaghi, E Ebrahimi - IET Microwaves, Antennas & …, 2021 - Wiley Online Library
This work introduces a new low‐noise current‐reused CMOS active inductor (AI) based on
Gyrator‐C configuration. In the proposed AI, a simple common‐source amplifier is utilised for …
Gyrator‐C configuration. In the proposed AI, a simple common‐source amplifier is utilised for …
A 0.3–1.4 GHz inductorless CMOS variable gain LNA based on the inverter cell and self-forward-body-bias technique
In this paper, a low noise amplifier with variable gain is proposed in the frequency range of
0.3–1.4 GHz. The proposed circuit is composed of two inverter cell stages in which a …
0.3–1.4 GHz. The proposed circuit is composed of two inverter cell stages in which a …
Design and analysis of a flat gain and linear low noise amplifier using modified current reused structure with feedforward structure
AH Kazemi, M Hayati - Integration, 2021 - Elsevier
In this paper, a Low Noise Amplifier (LNA) with the current reused topology is proposed for
wideband applications. To increase input impedance matching common source with …
wideband applications. To increase input impedance matching common source with …
A 3–14 GHz, self-body biased common-gate UWB LNA for wireless applications in 90 nm CMOS
Inspired from continuous growth in the field of low power and low noise wireless
communication devices, a low noise amplifier (LNA) using self-body biased common-gate …
communication devices, a low noise amplifier (LNA) using self-body biased common-gate …
High gain 0.18 μm-GaAs MMIC cascode-distributed low-noise amplifier for UWB application
M El Bakkali, NA Touhami, T Elhamadi, H Elftouh… - Microelectronics …, 2021 - Elsevier
This paper describes a design of 3 GHz–12 GHz MMIC distributed Low Noise Amplifiers
(LNAs) for Ultra Wideband communications systems. The proposed circuit is a common …
(LNAs) for Ultra Wideband communications systems. The proposed circuit is a common …
A common-gate cascaded with cascoded self-bias common source approach for 3.1–10.6 GHz UWB low noise amplifier
With the boom in demand of wireless devices operating in ultra-wideband (UWB), the
requirement latest low power design of low noise amplifier (LNA) has been increased. This …
requirement latest low power design of low noise amplifier (LNA) has been increased. This …