Towards a low current Hall effect sensor

Sharon, Yossi; Khachatryan, Bagrat; Cheskis, Dima

doi:10.1016/j.sna.2018.06.027

Cited by 19 publications

(3 citation statements)

References 9 publications

Supporting

Mentioning

Contrasting

Unclassified

Order By: Relevance

“…Após esta etapa, envia por meio de pulsos informações ao microcontrolador para que o dispositivo realize o processamento e cálculo do volume de oxigênio gerado pelo respirador. A frequência dos pulsos geradosé proporcional a velocidade de rotação e esta por sua vezé compatível com o fluxo de ar que a impulsiona [Sharon et al 2018]. A escolha deste sensor foi pelo baixo custo e fácil integração para análise dos dados, contudo, sua baixa precisão para um fim médicoé um ponto de atenção.…”

Section: Arquitetura Da Aplicaçãounclassified

Monitoramento de Fluxo de Oxigênio para Bombas Respiratórias de Ventiladores Pulmonares

Batista

Kniess

2020

Anais Da XVIII Escola Regional De Redes De Computadores (ERRC 2020)

View full text Add to dashboard Cite

A Síndrome Respiratória Aguda Grave 2 (SARS-CoV-2) aumentou o número de pacientes com infecções respiratórias. Com isso, cresceu a demanda por ventiladores pulmonares. O monitoramento preciso do ﬂuxo e das trocas de volume de oxigênio é essencial para minimizar lesões pulmonares induzidas pelo ventilador. Sistemas para monitorar o ﬂuxo de oxigênio e gerar alertas são vitais para a qualificação do equipamento. Neste artigo, apresenta-se uma arquitetura de hardware e software que atua junto a um ventilador pulmonar. O sistema coleta o ﬂuxo de vazão de oxigênio gerado para um paciente e envia via protocolo MQTT as informações capturadas. Com base nos dados observados, o sistema também gera alertas sonoros e visuais para a equipe médica.

show abstract

Section: Arquitetura Da Aplicaçãounclassified

Monitoramento de Fluxo de Oxigênio para Bombas Respiratórias de Ventiladores Pulmonares

Batista

Kniess

2020

Anais Da XVIII Escola Regional De Redes De Computadores (ERRC 2020)

View full text Add to dashboard Cite

show abstract

“…These measurements included the current and voltage of the panels, ambient air temperature, and humidity of the site. The current was read using a noninvasive current Hall sensor [13]. Next, voltage was measured by the voltage drop across a known resistance.…”

Section: Test Equipment Figure 2 Test System With Monocrystalline Pvmentioning

confidence: 99%

Analyzing the Efficiency of Horizontal Photovoltaic Cells in Various Climate Regions

Hines¹

2019

JENR

View full text Add to dashboard Cite

This research presents the development of linear regression models to predict horizontal photovoltaic power output. We collected a dataset from 14 global Department of Defense (DoD) installations over a timeframe of one year using an experimental apparatus, resulting in 24,179 usable data points. We developed a linear model to predict power output, which incorporated site-specific weather and geographical characteristics, along with Köppen-Geiger climate classifications in order to determine the effect of adding climate to the model. After performing a Wald test between the full model and a reduced model without Köppen-Geiger climate variables, it was determined that including Köppen-Geiger climate variables improved the model's ability to account for horizontal photovoltaic power variation by 3%. Although adding Köppen-Geiger variables provided added value when modeling the training dataset, these variables were less effective in predicting the validation dataset. From the analysis, the ideal Köppen-Geiger region was determined to be a warm temperate main classification, a fully humid precipitation classification and a warm summer temperature classification. This region possessed a 30% greater average power production than the mean value of the base climate classification. We found that the cost-effectiveness of a photovoltaic array depends on Köppen-Geiger climate regions, in addition to weather characteristics and the orientation of the array.

show abstract

“…Traditional sensor structures (circuit substrates) often use subtractive manufacturing and produce circuits at the surface of the substrate by inkjet printing, optical printing, silkscreen printing, spraying, laser printing, and other methods [34][35][36]. However, such methods are time-consuming with long production periods, and are unsuitable for building customized structures [37,38]. Recently, additive manufacturing (AM) technology is being put into practice in automobiles, aeronautics and astronautics, printed electronics, and healthcare areas for its short production cycles and wide range of materials [39][40][41][42].…”

Section: Introductionmentioning

confidence: 99%

Biosensors Fabricated by Laser-Induced Metallization on DLP Composite Resin

et al. 2022

View full text Add to dashboard Cite

With the growing emphasis on medical testing, people are seeking more technologies to detect indexes of the human body quickly and at a low cost. The electrochemical biosensors became a research hotspot due to their excellent properties. In this study, dicopper hydroxide phosphate (Cu2(OH)PO4) was incorporated in resin, and the resin sheets were prepared by digital light processing (DLP). The copper base points were activated on the resin sheet surface by Nd: YAG laser and then covered by the electroless copper plating and the electroless silver plating. The laser could effectively activate copper base points on the resin surface. Furthermore, silver electrodes on the detection chips could distinguish glucose solutions of different concentrations well. Finally, a novel detection kit with a three-electrode chip was designed for rapid health testing at home or in medical institutions in the future.

show abstract

Towards a low current Hall effect sensor

Cited by 19 publications

References 9 publications

Monitoramento de Fluxo de Oxigênio para Bombas Respiratórias de Ventiladores Pulmonares

Monitoramento de Fluxo de Oxigênio para Bombas Respiratórias de Ventiladores Pulmonares

Analyzing the Efficiency of Horizontal Photovoltaic Cells in Various Climate Regions

Biosensors Fabricated by Laser-Induced Metallization on DLP Composite Resin

Contact Info

Product

Resources

About