The robustness of wearable UHF-band planar inverted-F antennas (PIFAs), with respect to body-antenna separation and human tissue dispersion, is addressed through numerical investigations. The main goal is gaining physical insights into the relationship between the grounded antenna performance and the distribution of the electric and magnetic energy densities in the antenna near-field region close to the ground plane border. A criterion for choosing a proper shape of the antenna ground plane is suggested, which can improve the antenna robustness with respect to the random variations of the body-antenna coupling scenario, but with a minimal impact on the antenna size
A novel printed antenna is designed for wearable and RFID applications in the UHF band. The antenna ...
Antenna performance in terms of reflection coefficient, bandwidth, radiation pattern and efficiency ...
The effect of the human body on wearable off-body communication antennas is studied in the frequency...
The robustness of wearable UHF-band planar inverted-F antennas (PIFAs), with respect to body-antenna...
The robustness of wearable UHF-band grounded antennas with respect to body-coupling effects is addre...
The robustness of wearable UHF-band planar inverted-F antennas (PIFAs), with respect to body-antenna...
The robustness of wearable Ultra-High Frequency (UHF)-band planar inverted-F Antennas (PIFAs) with r...
Several wearable antennas suitable for implementation of UHF-RFID tags have been presented in the op...
The robustness of wearable UHF-band ungrounded antennas with respect to body-coupling effects is add...
The robustness of wearable UHF-band ungrounded antennas with respect to body-coupling effects is add...
Slotted PIFA on the textile substrate suitable for body-centric applications in the UHF band is prop...
The robustness of wearable antennas to the human body proximity can be improved by properly placing ...
A number of wearable antennas suitable for implementation of UHF-RFID tags have been presented in th...
The robustness of grounded wearable antennas for UHF-RFID (Radio Frequency Identification) transpond...
Main challenges while designing wearable antennas are related to the fact that the antenna platform,...
A novel printed antenna is designed for wearable and RFID applications in the UHF band. The antenna ...
Antenna performance in terms of reflection coefficient, bandwidth, radiation pattern and efficiency ...
The effect of the human body on wearable off-body communication antennas is studied in the frequency...
The robustness of wearable UHF-band planar inverted-F antennas (PIFAs), with respect to body-antenna...
The robustness of wearable UHF-band grounded antennas with respect to body-coupling effects is addre...
The robustness of wearable UHF-band planar inverted-F antennas (PIFAs), with respect to body-antenna...
The robustness of wearable Ultra-High Frequency (UHF)-band planar inverted-F Antennas (PIFAs) with r...
Several wearable antennas suitable for implementation of UHF-RFID tags have been presented in the op...
The robustness of wearable UHF-band ungrounded antennas with respect to body-coupling effects is add...
The robustness of wearable UHF-band ungrounded antennas with respect to body-coupling effects is add...
Slotted PIFA on the textile substrate suitable for body-centric applications in the UHF band is prop...
The robustness of wearable antennas to the human body proximity can be improved by properly placing ...
A number of wearable antennas suitable for implementation of UHF-RFID tags have been presented in th...
The robustness of grounded wearable antennas for UHF-RFID (Radio Frequency Identification) transpond...
Main challenges while designing wearable antennas are related to the fact that the antenna platform,...
A novel printed antenna is designed for wearable and RFID applications in the UHF band. The antenna ...
Antenna performance in terms of reflection coefficient, bandwidth, radiation pattern and efficiency ...
The effect of the human body on wearable off-body communication antennas is studied in the frequency...