Frequency Selective Surfaces: Theory and Design

By B. Munk. 2000

4,729 citations recorded by the source corpus.

View Paper: https://www.semanticscholar.org/paper/af497bb7a01d066e72a5b1fd9b150d0410caed79

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In Aerospace Engineering

Citations in the corpus

Extraordinary Transmission Through Arrays of Electrically Small Holes From a Circuit Theory Perspective (2008, background): “Moreover, enhanced transmission of electromagnetic waves has also been reported in periodically perforated perfect dielectric slabs [9], [10].”
Square Loop and Slot Frequency Selective Surfaces Study for Equivalent Circuit Model Optimization (2015, background): “In residential urban environments, one user may want to minimize the co-channel interference from neighbor Wi-Fi systems [1], [2].”
Design of Absorptive/Transmissive Frequency-Selective Surface Based on Parallel Resonance (2017, background): “The bandpass frequency-selective surface (FSS) is often applied in hybrid radomes [1] as a frequencyselective filter which transmits operating waves while reflecting the out-of-band waves; this prevents interference and reduces the radar cross section (RCS) [2]–[5].”
Capacitive Circuit Method for Fast and Efficient Design of Wideband Radar Absorbers (2009, methodology): “It can be done by utilizing the Smith chart [9] or a simulating software.”
A single-layer tuneable microwave absorber using an active FSS (2004, methodology): “A practical method of achieving a reactive impedance component is to incorporate a FSS into the layered structure of the absorber, either in addition to a resistive sheet or by replacing such a sheet with a FSS which contains loss [2], [3].”
RF barcodes using multiple frequency bands (2005, background): “Frequency selective surfaces are constructed as rows and columns of a particular resonant structure designed to perform a (or a combination of) lowpass, bandpass, highpass and bandstop filtering function(s) on the incident plane wave passing through, in a measurement known as ‘transmittance’ [10].”
Fabrication and electromagnetic characteristics of electromagnetic wave absorbing sandwich structures (2006, background): “There are also Jaumann absorbers of multilayer structures and Frequency Selective Surfaces (FSS) with reflection film as broadband absorbers in the broadband frequency [2, 6, 7].”
Frequency-Selective Rasorber Based on Square-Loop and Cross-Dipole Arrays (2014, background): “B ANDPASS frequency selective surface (FSS) has found wide applications in many military communication systems due to its spatial filtering characteristics [1].”
A New Class of Planar Ultrawideband Modular Antenna Arrays With Improved Bandwidth (2018, background): “The D-plane scans are omitted, but are close to the average of the E-/H-plane scans.”
A review on array mutual coupling analysis (2011, background): “case of frequency‐selective surfaces [Munk, 2000], as well as metamaterials (the Yagi antenna is sometimes regarded as the first metamaterial).”
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].”
A Frequency Selective Surface Based Reconfigurable Rasorber With Switchable Transmission/Reflection Band (2019, background): “C IRCUIT ANALOG ABSORBERS (CAAs) [1], [2] play the key role in stealth technology due to its capability to reduce antenna system radar cross section (RCS) significantly [2]–[4].”
Spacetime Metamaterials—Part II: Theory and Applications (2020, neutral): “filters [38], and multifunctional metasurfaces [39]–[41].”
Simple and Accurate Analytical Model of Planar Grids and High-Impedance Surfaces Comprising Metal Strips or Patches (2007, background): “Possible applications for these arrays include artificial dielectrics [1], antenna ra domes [2], other applications typical for frequency selective surfaces [3], and artificial high-impedance surf aces [4]–[8], where such arrays are located on a metal-backed dielectric layer (which may be perforated”