Visualizing electric potential: mapping equipotential lines in a conductive water tray

The goal of this experiment was to study the distribution of electric potential around conducting wire configurations and identify the corresponding equipotential regions. Using a water tray with a saline solution as the conductive medium, we measured the potential difference at defined points on a coordinate grid by connecting the wires to a power supply and using a multimeter to record voltages at various locations. Our observations indicated that equipotential regions were centered somewhat equidistantly between the voltage sources, with a mostly consistent rate of potential change along paths parallel to the sources. Some discrepancies between expected and observed values were noted, likely due to limitations in the measurement equipment and procedural inconsistencies. Despite these challenges, the experiment successfully demonstrated the properties of electric potential and equipotential lines, providing a clear visual representation of their relationship with the electric field.

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Publication Details

Journal
Journal of Science & Engineering
Published
2024-12-13
DOI
https://doi.org/10.64804/8gy8pg59
Primary Topic
Computational Physics and Python Applications
Type
article
Field-Weighted Citation Impact
0.00
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article

Visualizing electric potential: mapping equipotential lines in a conductive water tray

Neal Patel, Ryan D. Cohen, D. R. Gandhi, Jürg Hammer et al.
Journal of Science & Engineering
Computational Physics and Python Applications
article

Visualizing electric potential: mapping equipotential lines in a conductive water tray

Neal Patel, Ryan D. Cohen, D. R. Gandhi, Jürg Hammer, Shreyas Musuku, Eshan Handique, Nathan Gershteyn
article en

Abstract

The goal of this experiment was to study the distribution of electric potential around conducting wire configurations and identify the corresponding equipotential regions. Using a water tray with a saline solution as the conductive medium, we measured the potential difference at defined points on a coordinate grid by connecting the wires to a power supply and using a multimeter to record voltages at various locations. Our observations indicated that equipotential regions were centered somewhat equidistantly between the voltage sources, with a mostly consistent rate of potential change along paths parallel to the sources. Some discrepancies between expected and observed values were noted, likely due to limitations in the measurement equipment and procedural inconsistencies. Despite these challenges, the experiment successfully demonstrated the properties of electric potential and equipotential lines, providing a clear visual representation of their relationship with the electric field.

Journal of Science & EngineeringVol. 1(2)
Engineering and Science University Magnet School (US)
Openalex Percentile: Top 71%
Computational Physics and Python Applications
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Visualizing electric potential: mapping equipotential lines in a conductive water tray — Neal Patel, Ryan D. Cohen, et al. · Journal of Science & Engineering (2024) | TGRS Research Map | TGRS