PH Measurement IoT System for Precision Agriculture Applications

George Archbold Taylor; Hector Beltran Torres; Fredy Ruiz; Margarita Narducci Marin; DIego Mendez Chaves; Luis Trujillo Arboleda; Carlos Parra; Henry Carrillo; Abdul M. Mouazen

doi:10.1109/TLA.2019.8891951

PH Measurement IoT System for Precision Agriculture Applications

George Archbold Taylor
, Hector Beltran Torres
, Fredy Ruiz
, Margarita Narducci Marin
, DIego Mendez Chaves
, Luis Trujillo Arboleda
, Carlos Parra
, Henry Carrillo
, Abdul M. Mouazen

Universidad Javeriana
Ghent University
Genius Sports

Research output: Contribution to journal › Article › peer-review

26 Scopus citations

Abstract

This paper presents the design and validation of a pH measurement IoT system for Precision Agriculture applications. The system is based on an IoT architecture which consist on: data acquisition and processing, information, centralization and access to users. The design process of each module is reported as well as its experimental validation process. With a -0.058V slope for pH measurement and RMSE of 0.037 for the calibration model, we demonstrated the capability of the system to perform measurements at multiple points in large areas.

Original language	English
Article number	8891951
Pages (from-to)	823-832
Number of pages	10
Journal	IEEE Latin America Transactions
Volume	17
Issue number	5
DOIs	https://doi.org/10.1109/TLA.2019.8891951
State	Published - May 2019

Keywords

Drain-Source Follower
ISFET Sensor
IoT
Precision Agriculture

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10.1109/TLA.2019.8891951

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title = "PH Measurement IoT System for Precision Agriculture Applications",

abstract = "This paper presents the design and validation of a pH measurement IoT system for Precision Agriculture applications. The system is based on an IoT architecture which consist on: data acquisition and processing, information, centralization and access to users. The design process of each module is reported as well as its experimental validation process. With a -0.058V slope for pH measurement and RMSE of 0.037 for the calibration model, we demonstrated the capability of the system to perform measurements at multiple points in large areas.",

keywords = "Drain-Source Follower, ISFET Sensor, IoT, Precision Agriculture",

author = "\{Archbold Taylor\}, George and \{Beltran Torres\}, Hector and Fredy Ruiz and \{Narducci Marin\}, Margarita and \{Mendez Chaves\}, DIego and \{Trujillo Arboleda\}, Luis and Carlos Parra and Henry Carrillo and Mouazen, \{Abdul M.\}",

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AU - Archbold Taylor, George

AU - Beltran Torres, Hector

AU - Ruiz, Fredy

AU - Narducci Marin, Margarita

AU - Mendez Chaves, DIego

AU - Trujillo Arboleda, Luis

AU - Parra, Carlos

AU - Carrillo, Henry

AU - Mouazen, Abdul M.

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AB - This paper presents the design and validation of a pH measurement IoT system for Precision Agriculture applications. The system is based on an IoT architecture which consist on: data acquisition and processing, information, centralization and access to users. The design process of each module is reported as well as its experimental validation process. With a -0.058V slope for pH measurement and RMSE of 0.037 for the calibration model, we demonstrated the capability of the system to perform measurements at multiple points in large areas.

KW - Drain-Source Follower

KW - ISFET Sensor

KW - IoT

KW - Precision Agriculture

UR - https://www.scopus.com/pages/publications/85074986273

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JF - IEEE Latin America Transactions

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ER -

PH Measurement IoT System for Precision Agriculture Applications

Abstract

Keywords

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