This paper describes the design and performance of a GaAs monolithic Low Noise Amplifier and Mixer designed for use in communication systems in the 1.5 - 2.5 GHz frequency band. The low noise amplifier uses a reactive serial feedback configuration and has a measured noise figure of 1.8 dB at room temperature and an associated gain of 20 dB over the full bandwidth. The mixer IC uses an active adder and a FET Mixer, including also an IF output buffer. It provides 9 dB conversion gain without need of external bias networks. This was the first design step towards the integration of the two circuit functions on a single chip
[[abstract]]This article describes a monolithic receiver front end comprising a low-noise amplifier ...
In recent years, there have been growing demands for bandwidth, for both voice and data communicatio...
In this dissertation, the design and optimisation of a monolithic two-stage low noise amplifier spec...
The two basic parts of a receiver operating in K band: a low noise amplifier and a mixer, have been ...
The design of a Gilbert Cell Mixer and a low noise amplifier (LNA), using GaAs PHEMT technology is p...
The design of a Gilbert Cell Mixer and a low noise amplifier (LNA), using GaAs PHEMT technology is p...
In this project, the design of receiver front-ends (RFEs) were investigated at microwave frequency o...
The technology, design procedure and measurements of an E-band (71-86 GHz) high performance gallium ...
Recent advances in printed circuit and packaging technology of microwave and millimeter wave circuit...
A variable-gain low noise amplifier MMIC for an S-band AESA receiver front-end has been designed. Th...
In the communication system, Low noise amplifier, oscillator and Mixer are the key components at the...
International Telemetering Conference Proceedings / October 24-27, 1983 / Sheraton-Harbor Island Hot...
This paper presents a comparative performance analysis of a single-stage GaAs Low-Noise Power Amplif...
In this letter, we present the design of a V-band low-noise amplifier for intersatellite crosslink r...
Abstract: Problem statement: Low-Noise Amplifiers (LNA) are very indispensable components in the des...
[[abstract]]This article describes a monolithic receiver front end comprising a low-noise amplifier ...
In recent years, there have been growing demands for bandwidth, for both voice and data communicatio...
In this dissertation, the design and optimisation of a monolithic two-stage low noise amplifier spec...
The two basic parts of a receiver operating in K band: a low noise amplifier and a mixer, have been ...
The design of a Gilbert Cell Mixer and a low noise amplifier (LNA), using GaAs PHEMT technology is p...
The design of a Gilbert Cell Mixer and a low noise amplifier (LNA), using GaAs PHEMT technology is p...
In this project, the design of receiver front-ends (RFEs) were investigated at microwave frequency o...
The technology, design procedure and measurements of an E-band (71-86 GHz) high performance gallium ...
Recent advances in printed circuit and packaging technology of microwave and millimeter wave circuit...
A variable-gain low noise amplifier MMIC for an S-band AESA receiver front-end has been designed. Th...
In the communication system, Low noise amplifier, oscillator and Mixer are the key components at the...
International Telemetering Conference Proceedings / October 24-27, 1983 / Sheraton-Harbor Island Hot...
This paper presents a comparative performance analysis of a single-stage GaAs Low-Noise Power Amplif...
In this letter, we present the design of a V-band low-noise amplifier for intersatellite crosslink r...
Abstract: Problem statement: Low-Noise Amplifiers (LNA) are very indispensable components in the des...
[[abstract]]This article describes a monolithic receiver front end comprising a low-noise amplifier ...
In recent years, there have been growing demands for bandwidth, for both voice and data communicatio...
In this dissertation, the design and optimisation of a monolithic two-stage low noise amplifier spec...