Investigation of a 130nm CMOS Low Noise Amplifier's Performance Across Corner Conditions for WLAN Applications

Wireless communication systems depend on Low Noise Amplifiers (LNAs) to ensure smooth connectivity and high data throughput. However, manufacturing variability, encompassing slight fluctuations in process parameters, voltage, and temperature, can significantly impact LNA performance. This study scru...

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Published in:2024 IEEE 14TH SYMPOSIUM ON COMPUTER APPLICATIONS & INDUSTRIAL ELECTRONICS, ISCAIE 2024
Main Authors: Azman, Ahmad Hazim Nu'man; Muhamad, Maizan; Amin, Nabila Husna; Hussin, Hanim; Aziz, Anees Abdul; Ahmad, Norhawati
Format: Proceedings Paper
Language:English
Published: IEEE 2024
Subjects:
Online Access:https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001283898700039
author Azman
Ahmad Hazim Nu'man; Muhamad
Maizan; Amin
Nabila Husna; Hussin
Hanim; Aziz
Anees Abdul; Ahmad
Norhawati
spellingShingle Azman
Ahmad Hazim Nu'man; Muhamad
Maizan; Amin
Nabila Husna; Hussin
Hanim; Aziz
Anees Abdul; Ahmad
Norhawati
Investigation of a 130nm CMOS Low Noise Amplifier's Performance Across Corner Conditions for WLAN Applications
Computer Science; Engineering
author_facet Azman
Ahmad Hazim Nu'man; Muhamad
Maizan; Amin
Nabila Husna; Hussin
Hanim; Aziz
Anees Abdul; Ahmad
Norhawati
author_sort Azman
spelling Azman, Ahmad Hazim Nu'man; Muhamad, Maizan; Amin, Nabila Husna; Hussin, Hanim; Aziz, Anees Abdul; Ahmad, Norhawati
Investigation of a 130nm CMOS Low Noise Amplifier's Performance Across Corner Conditions for WLAN Applications
2024 IEEE 14TH SYMPOSIUM ON COMPUTER APPLICATIONS & INDUSTRIAL ELECTRONICS, ISCAIE 2024
English
Proceedings Paper
Wireless communication systems depend on Low Noise Amplifiers (LNAs) to ensure smooth connectivity and high data throughput. However, manufacturing variability, encompassing slight fluctuations in process parameters, voltage, and temperature, can significantly impact LNA performance. This study scrutinizes the performance of a 130nm CMOS LNA operating at 2.4GHz, intended for WLAN applications, under various corner conditions such as transistor speed, resistor, and capacitor variations. Leveraging Silterra's 0.13 mu m RFMOS process technology and Cadence software, the LNA was designed, with corner conditions drawn from the model library. Results at 2.4GHz reveal that the FF transistor condition demonstrates superior performance, boasting a 22.91% higher gain, 16.81% lower noise figure, and 44.68% lower Third Order Input Intercept Point compared to the LNA's SS conditions. During the resistor-capacitor study, the LNA exhibits commendable performance under Capacitance TT - Maximum Resistance and FF transistor settings but underperforms under Maximum Capacitance Minimum Resistance and SS transistor conditions. This thorough evaluation of the LNA's performance under various corner conditions provides valuable insights for optimizing its real-world manufacturing performance.
IEEE
2836-4864

2024


10.1109/ISCAIE61308.2024.10576348
Computer Science; Engineering

WOS:001283898700039
https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001283898700039
title Investigation of a 130nm CMOS Low Noise Amplifier's Performance Across Corner Conditions for WLAN Applications
title_short Investigation of a 130nm CMOS Low Noise Amplifier's Performance Across Corner Conditions for WLAN Applications
title_full Investigation of a 130nm CMOS Low Noise Amplifier's Performance Across Corner Conditions for WLAN Applications
title_fullStr Investigation of a 130nm CMOS Low Noise Amplifier's Performance Across Corner Conditions for WLAN Applications
title_full_unstemmed Investigation of a 130nm CMOS Low Noise Amplifier's Performance Across Corner Conditions for WLAN Applications
title_sort Investigation of a 130nm CMOS Low Noise Amplifier's Performance Across Corner Conditions for WLAN Applications
container_title 2024 IEEE 14TH SYMPOSIUM ON COMPUTER APPLICATIONS & INDUSTRIAL ELECTRONICS, ISCAIE 2024
language English
format Proceedings Paper
description Wireless communication systems depend on Low Noise Amplifiers (LNAs) to ensure smooth connectivity and high data throughput. However, manufacturing variability, encompassing slight fluctuations in process parameters, voltage, and temperature, can significantly impact LNA performance. This study scrutinizes the performance of a 130nm CMOS LNA operating at 2.4GHz, intended for WLAN applications, under various corner conditions such as transistor speed, resistor, and capacitor variations. Leveraging Silterra's 0.13 mu m RFMOS process technology and Cadence software, the LNA was designed, with corner conditions drawn from the model library. Results at 2.4GHz reveal that the FF transistor condition demonstrates superior performance, boasting a 22.91% higher gain, 16.81% lower noise figure, and 44.68% lower Third Order Input Intercept Point compared to the LNA's SS conditions. During the resistor-capacitor study, the LNA exhibits commendable performance under Capacitance TT - Maximum Resistance and FF transistor settings but underperforms under Maximum Capacitance Minimum Resistance and SS transistor conditions. This thorough evaluation of the LNA's performance under various corner conditions provides valuable insights for optimizing its real-world manufacturing performance.
publisher IEEE
issn 2836-4864

publishDate 2024
container_volume
container_issue
doi_str_mv 10.1109/ISCAIE61308.2024.10576348
topic Computer Science; Engineering
topic_facet Computer Science; Engineering
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url https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001283898700039
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