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   <dc:title>RF-EMF exposure assessment with add-on uplink exposure sensor in different microenvironments in seven European countries</dc:title>
   <dc:creator>Van Bladel, Han</dc:creator>
   <dc:creator>Stroobandt, Bram</dc:creator>
   <dc:creator>Fernandes Veludo, Adriana</dc:creator>
   <dc:creator>Deprez, Kenneth</dc:creator>
   <dc:creator>Röösli, Martin</dc:creator>
   <dc:creator>Tognola, Gabriella</dc:creator>
   <dc:creator>Parazzini, Marta</dc:creator>
   <dc:creator>Thuróczy, György</dc:creator>
   <dc:creator>Polańska, Kinga</dc:creator>
   <dc:creator>Politanski, Piotr</dc:creator>
   <dc:creator>Wiart, Joe</dc:creator>
   <dc:creator>Guxens Junyent, Mònica</dc:creator>
   <dc:creator>Joseph, Wout</dc:creator>
   <dc:subject>5G</dc:subject>
   <dc:subject>Mobile telecommunications</dc:subject>
   <dc:subject>Non-ionizing radiation</dc:subject>
   <dc:subject>Personal exposure measurements</dc:subject>
   <dc:subject>Radiofrequency electromagnetic fields (RF-EMF)</dc:subject>
   <dcterms:abstract>Introduction: Several devices have been developed to assess exposure to radiofrequency electromagnetic field (RF-EMF). Since the existing solutions to measure the personal exposure induced by emerging 5G New Radio (NR) are expensive, complex, and bulky, a new cost efficient and low-complexity sensor is developed, that aims to measure RF-EMF exposure in different scenarios of data transmission within different areas. Methods: With this novel sensor, activity-based microenvironmental surveys were conducted across seven European countries: Belgium, Hungary, Italy, Poland, Switzerland, the Netherlands, and the United Kingdom. The device is attached to a smartphone to quantify the auto-induced uplink (a-UL) transmission component of the total exposure for a broadband frequency range from 100 MHz to 6000 MHz and is thus denoted as add-on sensor. In-situ measurements were performed for three usage scenarios, namely non-user (i.e., environmental exposure), maximum downlink (max DL), and maximum uplink (max UL) scenarios, in a large city, a secondary city, and three rural villages a priori selected within each country. Results: Power levels were lowest in non-user scenarios (median: -2.64 dBm or 0.54mW), increasing by a factor of 5.00 dB in maximum downlink scenarios and by a factor of 14.15 dB in maximum uplink scenarios. In the maximum uplink scenarios, the highest median a-UL power of 18.68dBm (= 73.79 mW) was recorded in The Netherlands, while the lowest median a-UL power of 4.77dBm (= 3 mW) was observed in the UK. The analysis of the measured data showed a prominent trend of a 2.72 dB lower power in the cities compared to the villages. Further comparisons were made based on microenvironment groups, where the lowest a-UL power levels (median: 12.35dBm) were measured in outdoor areas, with an increase of 1.78 dB and 1.91 dB in power was measured compared to public transport and public places, respectively. Conclusion: This study compares RF-EMF power levels between different countries, urbanization settings, and usage scenarios, which is important for future epidemiological studies.</dcterms:abstract>
   <dcterms:issued>2025-05-13T06:05:37Z</dcterms:issued>
   <dcterms:issued>2025-05-13T06:05:37Z</dcterms:issued>
   <dcterms:issued>2025</dcterms:issued>
   <dc:type>info:eu-repo/semantics/article</dc:type>
   <dc:type>info:eu-repo/semantics/publishedVersion</dc:type>
   <dc:relation>Environ Int. 2025 Mar;197:109368</dc:relation>
   <dc:relation>info:eu-repo/grantAgreement/EC/HE/101057262</dc:relation>
   <dc:rights>© 2025 The Authors. Published by Elsevier Ltd. This is an open access article under the CC BY license (http://creativecommons.org/licenses/by/4.0/).</dc:rights>
   <dc:rights>http://creativecommons.org/licenses/by/4.0/</dc:rights>
   <dc:rights>info:eu-repo/semantics/openAccess</dc:rights>
   <dc:publisher>Elsevier</dc:publisher>
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