Victor Raposo Ravaglia de Oliveira

Mr. Victor Raposo Ravaglia de Oliveira

Programa de Engenharia Elétrica, Universidade Federal do Rio de Janeiro, Rio de Janeiro, Brazil
orcid

Research Focus & Metrics

Academic Career Length

6Years (2021-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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14 June 2021 in Analog Integrated Circuits and Signal Processing
Verified
Journal Article
Closed access
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Victor Raposo Ravaglia de OliveiraVictor Raposo Ravaglia de Oliveira
Victor Raposo Ravaglia de Oliveira
TLTiago Monnerat de Faria Lopes
Tiago Monnerat de Faria Lopes
FOFernanda Duarte Vilela Reis de Oliveira
Fernanda Duarte Vilela Reis de Oliveira
JGJosé Gabriel Rodriguez Carneiro Gomes
José Gabriel Rodriguez Carneiro Gomes
GSGenildo Nonato Santos
Genildo Nonato Santos

25 November 2022 in Technologies
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Journal Article
Open access
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MCMirella Carneiro
Mirella Carneiro
Victor Raposo Ravaglia de OliveiraVictor Raposo Ravaglia de Oliveira
Victor Raposo Ravaglia de Oliveira
FOFernanda Duarte Vilela Reis de Oliveira
Fernanda Duarte Vilela Reis de Oliveira
Marco Antonio Simoes TeixeiraMarco Antonio Simoes Teixeira
Marco Antonio Simoes Teixeira
Milena Faria PintoMilena Faria Pinto
Milena Faria Pinto
Electrical signals are generated and transmitted through plants in response to stimuli caused by external environment factors, such as touching, luminosity, and leaf burning. By analyzing a specific plant’s electrical responses, it is possible to interpret the impact of external aspects in the plasma membrane potential and, thus, determine the cause of the electrical signal. Moreover, these signals permit the whole plant structure to be informed almost instantaneously. This work presents a brief discussion of plants electrophysiology theory and low-cost signal conditioning circuits, which are necessary for the acquisition of plants’ electrical signals. Two signal conditioning circuits, which must be chosen depending on the signal to be measured, are explained in detail and electrical simulation results, performed in OrCAD Capture Software are presented. Furthermore, Monte Carlo simulations were performed to evaluate the impact of components variations on the accuracy and efficiency of the signal conditioning circuits. Those simulations showed that, even after possible component variations, the filters’ cut-off frequencies had at most 4% variation from the mean.