In-Field Recovery of RF Circuits from Wearout Based Performance Degradation

Performance failure due to aging is an increasing concern for RF circuits. While most aging studies are focused on the concept of mean-time-to-failure, for analog circuits, aging results in continuous degradation in performance before it causes catastrophic failures. In this paper, we present a meth...

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Veröffentlicht in:IEEE transactions on emerging topics in computing 2020-04, Vol.8 (2), p.442-452
Hauptverfasser: Chang, Doohwang, Kitchen, Jennifer N., Kiaei, Sayfe, Ozev, Sule
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creator Chang, Doohwang
Kitchen, Jennifer N.
Kiaei, Sayfe
Ozev, Sule
description Performance failure due to aging is an increasing concern for RF circuits. While most aging studies are focused on the concept of mean-time-to-failure, for analog circuits, aging results in continuous degradation in performance before it causes catastrophic failures. In this paper, we present a methodology for monitoring and recovering the performance of RF circuits in the field at little or no performance penalty. The proposed technique is based on two phases: During the design time, degradation profiles of the aged circuit are obtained through simulations. From these profiles, we identify reliability hotspots and focus on monitoring these components, and recovering from the effects of their aging. After deployment, an on-chip monitor circuit is periodically activated and its results are used to trigger the recovery mechanism if necessary. The recovery mechanism is designed to offset the degradation in the reliability hotspots to enhance the lifetime of the circuit. Lifetime is defined as the point where at least one specification of the circuit fails due to aging degradation. A Low noise amplifier (LNA) is fabricated as a case study to demonstrate that the lifetime can be enhanced by the proposed monitoring and recovery techniques.
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subjects Aging
Analog circuits
Catastrophic failure analysis
Circuit design
Circuit reliability
Circuits
Component reliability
Degradation
Hot-carrier injection (HCI)
Human computer interaction
in-field monitoring and recovery
Integrated circuit modeling
lifetime enhancement
Low noise
low-noise amplifier (LNA)
Mean time to failure
Monitoring
Performance degradation
Radio frequency
Recovery
Reliability
RF reliability
title In-Field Recovery of RF Circuits from Wearout Based Performance Degradation
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