Textile UWB antenna performance for healthcare monitoring system
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Parameswari Subbian
,
Chitra Chinnasamy
und
Kannadhasan Suriyan
Abstract
A unique metamaterial-based UWB band notched textile antenna for Body Area Network (BAN) is created in this paper, with an operational frequency range of 3–11 GHz, spanning the Ultra Wide Band (UWB) band (3.1–10.6 GHz). Using the textile material Jeans, which has a permittivity of 1.67, the antenna’s size is lowered. To enhance the impedance bandwidth, the ground plane is made of partially conductive material and is rectangular. The hexagonal slot is used to increase the electric field dispersion along the borders of the hexagonal slot, which improves bandwidth. The gain of the UWB of the antenna maximum is obtained at 7.52 dB and minimum is obtained at 5.25 dB. The VSWR of the UWB of the antenna maximum is obtained at 1.92 and minimum is obtained at 1.45. The fabrication uses a Denim substrate with a thickness of 1 mm and a microstrip feed. The designed antenna is investigated for its return loss and gain characteristics.
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Author contributions: All the authors have accepted responsibility for the entire content of this submitted manuscript and approved submission.
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Research funding: None declared.
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Conflict of interest statement: The authors declare no conflicts of interest regarding this article.
References
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© 2022 Walter de Gruyter GmbH, Berlin/Boston
Artikel in diesem Heft
- Frontmatter
- Research Articles
- Study of the substrate surface treatment of flexible polypyrrole-silver composite films on EMI shielding effectiveness: theoretical and experimental investigation
- A low-cost photonic band gap (PBG) microstrip line resonator for dielectric characterization of liquids
- A comprehensive study about low-cost and limited bandwidth FMCW bio-radar: detailed analyses on vital signs measurements
- Circular shape MIMO antenna sensor for breast tumor detection
- Textile UWB antenna performance for healthcare monitoring system
- A compact double-inverted Ω-shaped dual-band patch antenna for WLAN/WiMAX applications
- Asymmetric CPW-fed hexagonal monopole antenna with Boomerang-shaped Fractals for ultra-wideband applications
- Crescent shaped slot loaded antenna sensor with tri-band notched for cancer detection
- Performance enhancement of a circularly polarized printed monopole for wireless system application
- Equal/unequal half mode substrate integrated waveguide filtering power dividers using an ultra-compact metamaterial unit-cell
- A balanced dual-band BPF with quasi-independently tunable center frequency and bandwidth
- Efficient 6.5 dBm 55 GHz CMOS VCO with simultaneous phase noise and tuning range optimization
Artikel in diesem Heft
- Frontmatter
- Research Articles
- Study of the substrate surface treatment of flexible polypyrrole-silver composite films on EMI shielding effectiveness: theoretical and experimental investigation
- A low-cost photonic band gap (PBG) microstrip line resonator for dielectric characterization of liquids
- A comprehensive study about low-cost and limited bandwidth FMCW bio-radar: detailed analyses on vital signs measurements
- Circular shape MIMO antenna sensor for breast tumor detection
- Textile UWB antenna performance for healthcare monitoring system
- A compact double-inverted Ω-shaped dual-band patch antenna for WLAN/WiMAX applications
- Asymmetric CPW-fed hexagonal monopole antenna with Boomerang-shaped Fractals for ultra-wideband applications
- Crescent shaped slot loaded antenna sensor with tri-band notched for cancer detection
- Performance enhancement of a circularly polarized printed monopole for wireless system application
- Equal/unequal half mode substrate integrated waveguide filtering power dividers using an ultra-compact metamaterial unit-cell
- A balanced dual-band BPF with quasi-independently tunable center frequency and bandwidth
- Efficient 6.5 dBm 55 GHz CMOS VCO with simultaneous phase noise and tuning range optimization
