Antenna Reconfigurability
Antenna Reconfigurability - Related Videos
12:33
Origami Inspired Self-assembly of Patterned and Reconfigurable Particles
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Cited by 25 •
2013
We describe experimental details of the synthesis of patterned and reconfigurable particles from two dimensional (2D) precursors. This methodology can be used to create particles in a variety of shapes including polyhedra and grasping devices at length scales ranging from the micro to centimeter scale.
05:21
Whole Mount Immunolabeling of Olfactory Receptor Neurons in the Drosophila Antenna
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Cited by 7 •
2014
Herein we describe the process of whole mount immunostaining of Drosophila antennae, which enables us to better understand the molecular mechanisms involved in the diversification of olfactory receptor neurons (ORN)s.
09:12
Colloidal Synthesis of Nanopatch Antennas for Applications in Plasmonics and Nanophotonics
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Cited by 14 •
2016
A protocol for the colloidal synthesis of silver nanocubes and fabrication of plasmonic nanoscale patch antennas with sub-10 nm gaps is presented.
01:15
The Antenna Complex
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2025
Plants and other photosynthetic organisms comprise pigments capable of absorption of direct sunlight. These pigments are present in the reaction center - the main site of photochemical reactions as well as in the antenna complex. Under average light conditions, the rate at which reaction center pigments absorb light is far below the electron transport chain's capacity. As a result, the reaction center alone cannot provide enough energy to drive photosynthesis. The photosynthetic efficiency can...
09:30
Localization of Odorant Receptor Genes in Locust Antennae by RNA In Situ Hybridization
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Cited by 5 •
2017
This paper describes a detailed and highly effective RNA in situ hybridization protocol particularly for low-level expressed Odorant Receptor (OR) genes, as well as other genes, in insect antennae using digoxigenin (DIG)-labeled or biotin-labeled probes.
FAQs
Antenna reconfigurability relies on controllable elements that alter the antenna’s electromagnetic behavior. Electronic switches, varactors, microelectromechanical systems, and tunable materials can change current distribution, resonant dimensions, or the matching network. These changes adjust how the antenna operates, allowing engineers to vary frequency, radiation pattern, polarization, or impedance without relying solely on separate fixed antennas.
The controllable property depends on the communication requirement. Operating-frequency changes support multiband operation, while radiation-pattern changes can alter coverage. Polarization changes address polarization requirements, and impedance changes concern how the antenna is matched. Treating these as separate reconfiguration dimensions helps engineers align antenna behavior with adaptive links, interference management, and other changing system needs.
Compared with deploying multiple fixed antennas, one reconfigurable design can provide hardware flexibility across changing requirements. Its adjustable properties can support multiband operation, coverage changes, interference management, and adaptive wireless links. This approach reduces the need for a separate permanent antenna for every operating condition while allowing the antenna system to respond to different communication demands.
The controllable element determines how the antenna is adjusted. Electronic switches, varactors, microelectromechanical systems, and tunable materials are implementation options identified for this purpose. These elements can modify current distribution, resonant dimensions, or a matching network, providing mechanisms for changing antenna behavior. The selected element therefore connects the antenna hardware with the property engineers want to control.
In cognitive radios and multiband systems, reconfigurable antennas can change operating frequency as communication requirements change. This capability helps a platform use one flexible antenna arrangement rather than depending exclusively on separate fixed antennas for each band. The result is hardware flexibility alongside support for spectral efficiency, which the engineering context identifies as an important benefit.
Applications extend across radar, satellite communications, and compact connected devices as well as adaptive wireless links. In these settings, adjustable frequency, radiation pattern, polarization, or impedance can help address changing coverage, interference, or communication requirements. The same design principle also supports reduced dependence on multiple fixed antennas, which is especially relevant when hardware flexibility or compactness matters.