
doi: 10.1093/rpd/ncv352
pmid: 26041476
During the past years, several smartphone applications have been developed for radiation detection. These applications measure radiation using the smartphone camera complementary metal-oxide-semiconductor sensor. They are potentially useful for data collection and personal dose assessment in case of a radiological incident. However, it is important to assess these applications. Six applications were tested by means of irradiations with calibrated X-ray and gamma sources. It was shown that the measurement stabilises only after at least 10-25 min. All applications exhibited a flat dose rate response in the studied ambient dose equivalent range from 2 to 1000 μSv h(-1). Most applications significantly over- or underestimate the dose rate or are not calibrated in terms of dose rate. A considerable energy dependence was observed below 100 keV but not for the higher energy range more relevant for incident scenarios. Photon impact angle variation gave a measured signal variation of only about 10 %.
Semiconductors, Metals, Humans, Oxides, Biosensing Techniques, Smartphone, Radiation Dosage, Radiometry, Monte Carlo Method
Semiconductors, Metals, Humans, Oxides, Biosensing Techniques, Smartphone, Radiation Dosage, Radiometry, Monte Carlo Method
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