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This preprint presents the design, construction, and preliminary evaluation of a novel, passive cylindrical concrete sensor incorporating two metallic mesh electrodes separated by 8 cm. Acting as a distributed capacitive system, the sensor detects ultra-low-level variations in electric fields, dielectric permittivity, and transient charge effects. While not a conventional particle detector, it demonstrates sensitivity to electrical anomalies potentially correlated with ionizing events, cosmic muon flux, and environmental electromagnetic fluctuations.
The proposed architecture emphasizes low cost, robustness, and long-term outdoor deployment, suggesting applications in environmental radiation monitoring, geophysical precursor studies, and unconventional sensing approaches. The study includes preliminary observations of transient anomalies, a simplified electrical model, and a high-impedance data acquisition system using Arduino-based logging. Data supporting these findings are available upon request.
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Title An Experimental Capacitive Concrete-Based Sensor for Detecting Electromagnetic and Ionization Anomalies Potentially Correlated with Cosmic Muons
This preprint presents the design, construction, and preliminary evaluation of a novel, passive cylindrical concrete sensor incorporating two metallic mesh electrodes separated by 8 cm. Acting as a distributed capacitive system, the sensor detects ultra-low-level variations in electric fields, dielectric permittivity, and transient charge effects. While not a conventional particle detector, it demonstrates sensitivity to electrical anomalies potentially correlated with ionizing events, cosmic muon flux, and environmental electromagnetic fluctuations.
The proposed architecture emphasizes low cost, robustness, and long-term outdoor deployment, suggesting applications in environmental radiation monitoring, geophysical precursor studies, and unconventional sensing approaches. The study includes preliminary observations of transient anomalies, a simplified electrical model, and a high-impedance data acquisition system using Arduino-based logging. Data supporting these findings are available upon request.
Work type Research papers, Thesis, Lecture notes
Tags capacitive sensors, cosmic muons, ionization anomalies, concrete dielectric, experimental detector, electromagnetic monitoring
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Registry info in Safe Creative
Identifier 2512214083871
Entry date Dec 21, 2025, 2:00 PM UTC
License Creative Commons Attribution-NonCommercial-ShareAlike 4.0
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Author. Holder Raymond Rosa Avila. Date Dec 21, 2025.
Information available at https://www.safecreative.org/work/2512214083871-an-experimental-capacitive-concrete-based-sensor-for-detecting-electromagnetic-and-ionization-anomalies-potentially-correlated-with-cosmic-muons