Broadband design of three-layer printed reflectarrays
By José A. Encinar, J. A. Zornoza. 2003
354 citations recorded by the source corpus.
Subfields: Aerospace Engineering, Mechanical Engineering
View Paper: https://www.semanticscholar.org/paper/a6408a4ab19bac210f0a98061e7f04c8324abe3b
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
- Julien Perruisseau-Carrier
- Sean Victor Hum
- Jafar Shaker
- M. R. Chaharmir
- Eduardo Carrasco
- José A. Encinar
- J. A. Zornoza
- Mariano Barba
In Mechanical Engineering
- Jafar Shaker
- M. R. Chaharmir
- J. A. Zornoza
- Hervé Legay
- Eduardo Carrasco
- Julien Perruisseau-Carrier
- Nicolas Gagnon
- David Lee
Citations in the corpus
- Reconfigurable Reflectarrays and Array Lenses for Dynamic Antenna Beam Control: A Review (2013, background): “[12] realized two fixed-beam X-band amplifying reflectarrays,”
- Metantenna: When Metasurface Meets Antenna Again (2020, background): “As the number of layer increases, a wider bandwidth can be achieved [74].”
- Dual-Polarization Dual-Coverage Reflectarray for Space Applications (2006, methodology): “For the design of the reflectarray in a frequency band by compensating the phase delay as described in [5], the appropriate phase delay distribution for the contoured beam is required not only at central, but also at extreme frequencies.”
- Reflectarray Element Based on Aperture-Coupled Patches With Slots and Lines of Variable Length (2007, background): “For the design of a reflectarray, it is necessary to obtain any phase-shift value within a range of at least 360 but it has been demonstrated that a larger phase delay (several times 360 ) is useful to improve the antenna bandwidth [4].”
- Reflectarray Antenna at Terahertz Using Graphene (2013, background): “If needed, the range could be increased while preserving the bandwidth and improving the loss by using multiresonant elements in single- [15], [16] or multilayer [17] configuration.”
- Design of Broadband, Single Layer Dual-Band Large Reflectarray Using Multi Open Loop Elements (2010, methodology): “It has to be noted that the optimization technique, presented in this paper is different from the one introduced in [10] in the type of objective function that is used and constraints that were implemented in the optimization process in order to control frequency dispersion.”
- Reflectarray Antennas for Dual Polarization and Broadband Telecom Satellite Applications (2015, methodology): “To compare the capabilities between the reflectarray proposed here and a reflectarray based on elements with three stacked patches, we have optimized a reflectarray antenna made of the cells proposed in [29] with the same dimensions and in the same frequency bands.”
- Broadband Design of a Single Layer Large Reflectarray Using Multi Cross Loop Elements (2009, methodology): “It is to be noted that our optimization technique, presented in this communication is different from the one introduced in [6] in the type of objective function that is used and restrictions that were implemented on the optimization process in order to comply with the frequency dispersion that is ph”
- The Phoenix Cell: A New Reflectarray Cell With Large Bandwidth and Rebirth Capabilities (2011, background): “Several studies have been carried out to overcome the bandwidth limitation [6], [7].”
- Three-layer printed reflectarrays for contoured beam space applications (2004, methodology): “A three-layer reflectarray allows a more effective optimization in a frequency band as shown in [7].”