Millimeter-Wave Transmitarrays for Wavefront and Polarization Control

By Carl Pfeiffer, Anthony Grbic. IEEE transactions on microwave theory and techniques, 2013

332 citations recorded by the source corpus.

Subfields: Aerospace Engineering, Electronic, Optical and Magnetic Materials

View Paper: https://www.semanticscholar.org/paper/b1b38454e7cd038caf6ada12bd1f5c25822ca4ca

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Citations in the corpus

Ultrathin Dual-Band Metasurface Polarization Converter (2019, background): “They are widely used to manipulate the polarization states of the transmitted waves; examples can be found in both microwave and optical frequencies [12], [33]–[35].”
Arbitrary Power-Conserving Field Transformations With Passive Lossless Omega-Type Bianisotropic Metasurfaces (2016, background): “a general omega-type bianisotropic meta-atom can be realized by asymmetric three-layer stack of electric impedance sheets (a variation on [9] and [33]; Section II-B).”
Space-time gradient metasurfaces (2015, background): “However, this is not a fundamental constraint and it may be overcome if one uses an additional magnetic surface impedance as in ‎[5],‎[8], or stacks of metasurfaces ‎[2].”
Perfect control of reflection and refraction using spatially dispersive metasurfaces (2016, background): “It provided more efficient operation (more than 80% of transmitted power) and manipulation of polarization [16].”
Dual-Mode Transmissive Metasurface and Its Applications in Multibeam Transmitarray (2017, unknown): “advanced than existing transmitarrays [5]–[14].”
Photon Spin Hall Effect-Based Ultra-Thin Transmissive Metasurface for Efficient Generation of OAM Waves (2019, unknown): “Multilayer cascaded metasurfaces or transmit arrays [25]–[27]”
Ultrawideband Metasurface Lenses Based on Off-Shifted Opposite Layers (2016, methodology): “In the first case, metasurfaces are used in approaches similar to those of Fresnel lenses or reflectarrays to produce directive radiation patterns from a feeding source (such as a dipole, patch, or horn antenna) [2].”
Circularly-Polarized Reconfigurable Transmitarray in Ka-Band With Beam Scanning and Polarization Switching Capabilities (2017, methodology): “This value is comparable with alternative approaches used to generate a CP beam with higher phase resolutions [15], [25]–[27].”
Reflectionless Wide-Angle Refracting Metasurfaces (2016, methodology): “This we term the canonical approach [7], [8].”
Broadband Double-Layered Huygens’ Metasurface Lens Antenna for 5G Millimeter-Wave Systems (2020, background): “multifunctional device design [25]–[27], polarization control [28]–[30], and a variety of array antenna applications”
Multifunctional Microstrip Array Combining a Linear Polarizer and Focusing Metasurface (2016, methodology): “A set of functional devices [13]–[18] with wave bending, focusing, and even polarization control have been extensively studied from microwave [15]–[18] to terahertz regions [14], and even to IR/optical frequencies [12], [13], for their anomalous electromagnetic (EM) properties.”
Metantenna: When Metasurface Meets Antenna Again (2020, methodology): “Based on the first technique, several singleand dual-polarized metasurfaces were designed and demonstrated using multiple layers of loops [86], patches [87], [88], and dipoles [89] with different dimensions on each layer [see Fig.”
Metasurfaces and their applications (2018, background): “Optimizations of the number of layers versus efficiency and range of phase/polarization control have been found to have the best performances for three or four cascaded metasurface layers [138, 139].”