Improving FPGA Based Impedance Spectroscopy Measurement Equipment by Means of HLS Described Neural Networks to Apply Edge AI

The artificial intelligence (AI) application in instruments such as impedance spectroscopy highlights the difficulty to choose an electronic technology that correctly solves the basic performance problems, adaptation to the context, flexibility, precision, autonomy, and speed of design. Present work...

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Main Authors: Jorge Fe, Rafael Gadea-Gironés, Jose M. Monzo, Ángel Tebar-Ruiz, Ricardo Colom-Palero
Format: Article
Language:English
Published: MDPI AG 2022-06-01
Series:Electronics
Subjects:
Online Access:https://www.mdpi.com/2079-9292/11/13/2064
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author Jorge Fe
Rafael Gadea-Gironés
Jose M. Monzo
Ángel Tebar-Ruiz
Ricardo Colom-Palero
author_facet Jorge Fe
Rafael Gadea-Gironés
Jose M. Monzo
Ángel Tebar-Ruiz
Ricardo Colom-Palero
author_sort Jorge Fe
collection DOAJ
description The artificial intelligence (AI) application in instruments such as impedance spectroscopy highlights the difficulty to choose an electronic technology that correctly solves the basic performance problems, adaptation to the context, flexibility, precision, autonomy, and speed of design. Present work demonstrates that FPGAs, in conjunction with an optimized high-level synthesis (HLS), allow us to have an efficient connection between the signals sensed by the instrument and the artificial neural network-based AI computing block that will analyze them. State-of-the-art comparisons and experimental results also demonstrate that our designed and developed architectures offer the best compromise between performance, efficiency, and system costs in terms of artificial neural networks implementation. In the present work, computational efficiency above 21 Mps/DSP and power efficiency below 1.24 mW/Mps are achieved. It is important to remark that these results are more relevant because the system can be implemented on a low-cost FPGA.
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spelling doaj.art-3119c1d930f84d428b9d2762f85968562023-11-23T19:52:15ZengMDPI AGElectronics2079-92922022-06-011113206410.3390/electronics11132064Improving FPGA Based Impedance Spectroscopy Measurement Equipment by Means of HLS Described Neural Networks to Apply Edge AIJorge Fe0Rafael Gadea-Gironés1Jose M. Monzo2Ángel Tebar-Ruiz3Ricardo Colom-Palero4Institute for Molecular Imaging Technologies (I3M), Universitat Politècnica de València, 46022 Valencia, SpainInstitute for Molecular Imaging Technologies (I3M), Universitat Politècnica de València, 46022 Valencia, SpainInstitute for Molecular Imaging Technologies (I3M), Universitat Politècnica de València, 46022 Valencia, SpainInstitute for Molecular Imaging Technologies (I3M), Universitat Politècnica de València, 46022 Valencia, SpainInstitute for Molecular Imaging Technologies (I3M), Universitat Politècnica de València, 46022 Valencia, SpainThe artificial intelligence (AI) application in instruments such as impedance spectroscopy highlights the difficulty to choose an electronic technology that correctly solves the basic performance problems, adaptation to the context, flexibility, precision, autonomy, and speed of design. Present work demonstrates that FPGAs, in conjunction with an optimized high-level synthesis (HLS), allow us to have an efficient connection between the signals sensed by the instrument and the artificial neural network-based AI computing block that will analyze them. State-of-the-art comparisons and experimental results also demonstrate that our designed and developed architectures offer the best compromise between performance, efficiency, and system costs in terms of artificial neural networks implementation. In the present work, computational efficiency above 21 Mps/DSP and power efficiency below 1.24 mW/Mps are achieved. It is important to remark that these results are more relevant because the system can be implemented on a low-cost FPGA.https://www.mdpi.com/2079-9292/11/13/2064FPGAimpedance spectroscopyartificial neural networkshigh-level synthesisAI edge computing
spellingShingle Jorge Fe
Rafael Gadea-Gironés
Jose M. Monzo
Ángel Tebar-Ruiz
Ricardo Colom-Palero
Improving FPGA Based Impedance Spectroscopy Measurement Equipment by Means of HLS Described Neural Networks to Apply Edge AI
Electronics
FPGA
impedance spectroscopy
artificial neural networks
high-level synthesis
AI edge computing
title Improving FPGA Based Impedance Spectroscopy Measurement Equipment by Means of HLS Described Neural Networks to Apply Edge AI
title_full Improving FPGA Based Impedance Spectroscopy Measurement Equipment by Means of HLS Described Neural Networks to Apply Edge AI
title_fullStr Improving FPGA Based Impedance Spectroscopy Measurement Equipment by Means of HLS Described Neural Networks to Apply Edge AI
title_full_unstemmed Improving FPGA Based Impedance Spectroscopy Measurement Equipment by Means of HLS Described Neural Networks to Apply Edge AI
title_short Improving FPGA Based Impedance Spectroscopy Measurement Equipment by Means of HLS Described Neural Networks to Apply Edge AI
title_sort improving fpga based impedance spectroscopy measurement equipment by means of hls described neural networks to apply edge ai
topic FPGA
impedance spectroscopy
artificial neural networks
high-level synthesis
AI edge computing
url https://www.mdpi.com/2079-9292/11/13/2064
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