DEVELOPMENT AND TESTING OF A LOW-COST PORTABLE APPARENT SOIL ELECTRICAL CONDUCTIVITY SENSOR USING A BEAGLEBONE BLACK

The adoption of apparent soil electrical conductivity (soil ECa) sensors has increased in precision agricultural systems, especially in systems pulled by vehicles. This work developed a portable soil sensor for measuring soil ECa that could be used without vehicles in mountainous areas and small far...

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Veröffentlicht in:Applied engineering in agriculture 2020-01, Vol.36 (3), p.341-355
Hauptverfasser: Queiroz, D. M., Sousa, E. D. T. S., Lee, W. S., Schueller, J. K.
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container_start_page 341
container_title Applied engineering in agriculture
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creator Queiroz, D. M.
Sousa, E. D. T. S.
Lee, W. S.
Schueller, J. K.
description The adoption of apparent soil electrical conductivity (soil ECa) sensors has increased in precision agricultural systems, especially in systems pulled by vehicles. This work developed a portable soil sensor for measuring soil ECa that could be used without vehicles in mountainous areas and small farms. The developed system was based on the elecfrical resistivity method. The system measured the elecfrical conductivity by applying a square wave signal atfrequencies defined by the user. The acquired data were georeferenced using a low-cost global navigation satellite system (GNSS) receiver. The sensor system was developed using a BeagleBone Black, a low-cost single-board computer. A user interface was developed in C++, and a touch screen with a resolution of 800x480 pixels was used to display the results. This interface performed statistical analysis, and the results were used to guide the user to identify more field locations to be sampled to increase mapping accuracy. The system was tested in a coffee plantation located in a mountainous area and in a sugarcane plantation in Minas Gerais, Brazil. The system worked well in mapping the soil ECa. The apparent soil electrical conductivities measured using frequencies of 10, 20, 30, and 40 Hz were highly correlated. In the sugarcane field that had more variation in soil texture, a greater number of soil properties presented a significant correlation with the soil ECa.
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subjects Agricultural Engineering
Agriculture
Conductivity
Data acquisition
Electrical resistivity
Global navigation satellite system
Life Sciences & Biomedicine
Low cost
Mountainous areas
Plantations
Science & Technology
Sensors
Soil mapping
Soil properties
Soils
Square waves
Statistical analysis
Sugarcane
Texture
Touch screens
title DEVELOPMENT AND TESTING OF A LOW-COST PORTABLE APPARENT SOIL ELECTRICAL CONDUCTIVITY SENSOR USING A BEAGLEBONE BLACK
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