Dual-Band Wearable Textile Antenna on an EBG Substrate

By Shaozhen Zhu, Richard J. Langley. IEEE Transactions on Antennas and Propagation, 2009

674 citations recorded by the source corpus.

Subfields: Aerospace Engineering, Electrical and Electronic Engineering

View Paper: https://www.semanticscholar.org/paper/14c2436623b185181b2954df56fb53b68a9331e6

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Citations in the corpus

Embroidery and related manufacturing techniques for wearable antennas: Challenges and opportunities (2014, background): “good agreement between the antenna design and manufacture [10].”
Radiation Pattern-Reconfigurable Wearable Antenna Based on Metamaterial Structure (2016, background): “nas [5], metasurface loaded antennas [6], [7], and antennas based on composite right/left-handed transmission lines [8], [9].”
A Flexible 2.45-GHz Power Harvesting Wristband With Net System Output From −24.3 dBm of RF Power (2018, background): “Furthermore, a ground plane results in a thinner overall system when compared to other shielding options, such as air or fabric spacing gaps [25], electromagnetic band gap [26], and artificial magnetic conductor [27].”
A Dual-Band Metasurface Antenna Using Characteristic Mode Analysis (2018, background): “The hybrid antennas can also be classified into multimode dual-band antennas as well if the antennas are closely placed and the resonant modes are not very distinguishing [5], [8], [13].”
Low-Profile Dual-Band Textile Antenna With Artificial Magnetic Conductor Plane (2014, methodology): “These methods typically reduce the bandwidth of the AMC, or result in a more complex optimization and fabrication process [12]–[15].”
A Wearable Dual-Band Low Profile High Gain Low SAR Antenna AMC-Backed for WBAN Applications (2019, background): “8 GHz, it is the other way around, as current flows more over the smaller inner square [9].”
Flexible and Compact AMC Based Antenna for Telemedicine Applications (2013, background): “Several techniques [5]–[8] have been reported to solve the aforementioned issues including the use of cavities, absorbers and shielding planes.”
Wideband and UWB Antennas for Wireless Applications: A Comprehensive Review (2017, background): “Besides, denim features durability, inelasticity (useful for keeping constant the dielectric permittivity under bending conditions [122]), cost-effectiveness, and low thickness (about 0.”
A Compact, Wideband Circularly Polarized Co-designed Filtering Antenna and Its Application for Wearable Devices With Low SAR (2015, methodology): “artificial magnetic conducting (AMC) surfaces [31]–[33] and strongly truncated anisotropic metasurfaces [34] have recently been employed to achieve a high degree of isolation between the antenna and human tissue while maintaining a small overall profile.”
Compact EBG-Backed Planar Monopole for BAN Wearable Applications (2017, background): “Overall, the proposed antenna performance has been shown to be robust to structural deformation along both the x- and y-axes and is compared favorably to several previously reported designs where degradation in impedance matching and/or significant band shifting were observed [24], [34]–[37].”
A review of wearable antenna (2009, methodology): “Measurement of the electromagnetic properties of textile substrate done in [ 2 ] using a transmission/reflection waveguide method.”
Dual-Band EBG Integrated Monopole Antenna Deploying Fractal Geometry for Wearable Applications (2015, methodology): “Bending and crumpling measurements have to be performed to validate the wearable antenna as in [4], [7], and [10].”
Dual-Band Textile MIMO Antenna Based on Substrate-Integrated Waveguide (SIW) Technology (2015, background): “, patch antennas [3]–[7] and reflector antennas [8]–[11].”
A Compact, Low-Profile Fractal Antenna for Wearable On-Body WBAN Applications (2019, background): “45 GHz have been reported in literature such as in [20]–[24].”
Investigation of SAR Reduction Using Flexible Antenna With Metamaterial Structure in Wireless Body Area Network (2018, background): “A dual-band coplanar patch textile antenna, with a square fabric electromagnetic band gap structure, was proposed [11],”
Wearable Flexible Reconfigurable Antenna Integrated With Artificial Magnetic Conductor (2017, methodology): “In [5], a dual-band textile antenna operating at 2.”