An overview of fractal antenna engineering research

By Douglas H. Werner, Suman Gangul. 2003

1,218 citations recorded by the source corpus.

View Paper: https://www.semanticscholar.org/paper/5747c407f11b2176e60d29b271191ce8d98880c3

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In Aerospace Engineering

Citations in the corpus

Miniaturization of Microstrip Antennas by the Novel Application of the Giuseppe Peano Fractal Geometries (2012, methodology): “The property of self-similarity of fractal geometries is used to achieve multiband operations from fractal antennas and their space-filling property is used for the antenna miniaturization [4], [6].”
Miniaturized UWB Monopole Microstrip Antenna Design by the Combination of Giusepe Peano and Sierpinski Carpet Fractals (2011, background): “It is shown that if the angular variations define the antenna geometry, then its performance is independent of frequency because no particular size may be attributable to it [5].”
A Wideband Minkowski Fractal Dielectric Resonator Antenna (2013, background): “Recently, the possibility of developing antenna designs that exploit the properties of fractals like compactness and multiband characteristics has attracted a lot of attention [18], [19].”
Compact Circularly Polarized Antennas Combining Meta-Surfaces and Strong Space-Filling Meta-Resonators (2013, background): “2 shows the initial and utilized crossbar fractal tree (CFT) structures of different iteration orders (IO) which were engineered for multi-frequency frequency selective surface in [24].”
CPW-Fed Circular Fractal Slot Antenna Design for Dual-Band Applications (2008, methodology): “Using a self-similar iteration design, a practical fractal antenna could be developed for multiband and broadband applications [15], [16], [26].”
Metamaterial-based efficient electrically small antennas (2006, background): “There have been a wide variety of recent approaches to achieve this goal including clever packing of resonant antenna elements into this small volume using natural geometrical configurations [12]–[15], fractal curve antennas [20]–[23] and”
Antenna Miniaturization Techniques: A Review of Topology- and Material-Based Methods (2018, background): “This underlying concept, together with fractals’ self-similarity feature, has been effectively implemented by antenna engineers who incorporated fractal geometry into their designs to create a new class of antennas that contrasts with traditional Euclidean geometry-based antennas [13].”
Frequency Selective Surfaces: A Review (2018, methodology): “IFS is an effective design tool in fractal antenna engineering and fundamentally offers a generic structure for the characterizing and manipulating the fractals.”
Design of Broadband Planar Arrays Based on the Optimization of Aperiodic Tilings (2008, background): “broadband radiation characteristics and relatively low sidelobe levels [4]–[10].”
RF MEMS Sequentially Reconfigurable Sierpinski Antenna on a Flexible Organic Substrate With Novel DC-Biasing Technique (2007, background): “Three different switch geometries were integrated into a Sierpinski antenna with different actuation voltages.”