A Frequency Selective Radome With Wideband Absorbing Properties

By Filippo Costa, Agostino Monorchio. IEEE Transactions on Antennas and Propagation, 2012

678 citations recorded by the source corpus.

Subfields: Aerospace Engineering, Electronic, Optical and Magnetic Materials

View Paper: https://www.semanticscholar.org/paper/b23e737180e833f2442199964ad39dc2b3cc6a7d

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Aerospace Engineering

1. Zhongxiang Shen
2. Hao Huang
3. Qiang Chen
4. Yun-qi Fu
5. Min Guo
6. Di Sang
7. Ahmed Omar
8. Filippo Costa

In Electronic, Optical and Magnetic Materials

1. Zhongxiang Shen
2. Hao Huang
3. Yun-qi Fu
4. Qiang Chen
5. Min Guo
6. Di Sang
7. Ahmed Omar
8. Filippo Costa

Citations in the corpus

• 3-D Frequency Selective Rasorber: Concept, Analysis, and Design (2016, methodology): “In the past, an FSR was realized by cascading a lossy array of Jaumann or circuit analog absorber [8] and a lossless FSS [9], where the transmission characteristic was provided by the conventional FSSs, while the absorption is achieved by the lossy array, such as resistive cross dipoles [10], [11], ”
• Absorptive Frequency-Selective Reflection and Transmission Structures (2017, methodology): “A lossless layer of interdigitated Jerusalem cross element was utilized as a ground plane for a thin wideband absorber [14].”
• A Frequency Selective Surface Based Reconfigurable Rasorber With Switchable Transmission/Reflection Band (2019, background): “Rasorbers with dual [13] and wide absorption band [14], [15] are also reported in the literature, whereas transmission band characteristic has been investigated in [16].”
• Design of Frequency Selective Surface Structure With High Angular Stability for Radome Application (2018, background): “A frequency selective radome with wideband absorbing characteristic was proposed in [3].”
• Wideband Radar Cross Section Reduction of Slot Antennas Arrays (2014, background): “Recently, printed resistive periodic structures have been successfully explored to dissipate the energy impinging on an antenna array [16], [17] or radome [18], whereas other implementations involved tapered resistive sheets [19], [20].”
• Frequency-Selective Rasorber With Interabsorption Band Transparent Window and Interdigital Resonator (2018, background): “The resistive sheet can be realized using a high-impedance surface comprised of lossy film [7], [8] or by loading lumped resistors in metallic elements [9]–[18].”
• Design of Absorptive/Transmissive Frequency-Selective Surface Based on Parallel Resonance (2017, background): “2722875 Other researchers synthesized a resistive FSS and a metallic bandpass FSS to realize wideband absorptive properties and high in-band transmission [14].”
• A Miniaturized Absorptive Frequency Selective Surface (2015, background): “About 10 years later, a layered AFSS structure with a good absorptive/transmissive property was designed [7].”
• Miniaturized Frequency-Selective Rasorber With a Wide Transmission Band Using Circular Spiral Resonator (2019, background): “FSRs with a passband below the absorption band were first developed [5]–[7], which were usually constructed by placing a resistive sheet upon a bandpass FSS operating at the low frequency.”
• A Circuit-Based Model for the Interpretation of Perfect Metamaterial Absorbers (2012, methodology): “At microwaves they are employed as electrically thin layers to reduce the radar signature of targets [2]–[6], for power imaging purposes [7], to improve the electromagnetic compatibility of electronic devices [8], [9] or even as Chipless Radio Frequency Identification tags [10].”
• Wideband RCS Reduction of a Slot Array Antenna Using Polarization Conversion Metasurfaces (2016, methodology): “The other well-known technique for RCS control of antennas is to employ a band-pass frequency selective surface (FSS) radome [3],”
• An Overview of Equivalent Circuit Modeling Techniques of Frequency Selective Surfaces and Metasurfaces (2014, background): “Nowadays, FSSs [19], [20] are employed at microwave frequencies for designing frequency selective radomes [21], leaky wave/Fabry-Perot, low-profile and low-RCS antennas [22]-[24], reflectarays, trasmittarrays and lenses [25], [26], polarization converting surfaces [27], waveguide filters [28], elect”
• Frequency-Selective Rasorber Based on Square-Loop and Cross-Dipole Arrays (2014, methodology): “In order to alleviate the transmission loss caused by the lossy layer, a resistive single-square-loop array [8], [9] and a resistor-loaded double-square-loop array [10] were recently used as the lossy layer placed above the slot-type lossless FSS with a dielectric spacer between them.”
• Switchable Low-Profile Broadband Frequency-Selective Rasorber/Absorber Based on Slot Arrays (2017, methodology): “Based on the reported designs [13], [14], [16], [18], a rasorber generally consists of one lossy FSS layer placed above a lossless FSS, as shown in Fig.”
• Absorptive Frequency-Selective Transmission Structure With Square-Loop Hybrid Resonator (2017, background): “In the past, the transmission band and absorption band were chosen at two separate bands [6]–[8].”
• Metantenna: When Metasurface Meets Antenna Again (2020, methodology): “For example, as demonstrated in [134], FSS [135] comprising metallic Jerusalem cross”
• Polarization-Independent and Ultrawideband Metamaterial Absorber Using a Hexagonal Artificial Impedance Surface and a Resistor-Capacitor Layer (2014, background): “Another approach for a broadband absorber is a lossy pattern, which is created from a resistive ink [16], [18]–[20].”