Design and simulation of wideband Microstrip patch antenna for RFID applications

Najeeb, Dana; Hassan, Diyari; Najeeb, Rozh; Ademgil, Hüseyin

doi:10.1109/honet.2016.7753425

Cited by 5 publications

(2 citation statements)

References 8 publications

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“…Plans of various types of techniques for the bandwidth improvement of microstrip topologies have been made: (I) patch modifications generating complex designs to mix various resonant frequency bands [73,75], (II) the addition of radiator patch slots [72,75,79], (III) the insertion to the radiator patch layer of parasitic components [72,79], and (IV) adjustments in the feeding technologies [72,82,83]. [75,76], square [77,78], and others [79][80][81]), as well as the feeding technique (position, type, and number of feeds). Plans of various types of techniques for the bandwidth improvement of microstrip topologies have been made: (I) patch modifications generating complex designs to mix various resonant frequency bands [73,75], (II) the addition of radiator patch slots [72,75,79], (III) the insertion to the radiator patch layer of parasitic components [72,79], and (IV) adjustments in the feeding technologies [72,82,83].…”

Section: Dipole Antennamentioning

confidence: 99%

“…The radiator patch dimensions thickness (h), width (W P ), and length (Lp) determine the bandwidth, resonant frequency, and efficiency of the microstrip antenna [ 71 ]. The polarization, frequency band number, antenna gain, and bandwidth are all determined by the shape of the radiator patch (rectangular [ 72 , 73 , 74 ], circular [ 75 , 76 ], square [ 77 , 78 ], and others [ 79 , 80 , 81 ]), as well as the feeding technique (position, type, and number of feeds). Plans of various types of techniques for the bandwidth improvement of microstrip topologies have been made: (I) patch modifications generating complex designs to mix various resonant frequency bands [ 73 , 75 ], (II) the addition of radiator patch slots [ 72 , 75 , 79 ], (III) the insertion to the radiator patch layer of parasitic components [ 72 , 79 ], and (IV) adjustments in the feeding technologies [ 72 , 82 , 83 ].…”

Section: Types Of Antennasmentioning

confidence: 99%

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Synthesis, Characterization and Development of Energy Harvesting Techniques Incorporated with Antennas: A Review Study

Ibrahim

Singh

Al‐Bawri

et al. 2020

Sensors

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The investigation into new sources of energy with the highest efficiency which are derived from existing energy sources is a significant research area and is attracting a great deal of interest. Radio frequency (RF) energy harvesting is a promising alternative for obtaining energy for wireless devices directly from RF energy sources in the environment. An overview of the energy harvesting concept will be discussed in detail in this paper. Energy harvesting is a very promising method for the development of self-powered electronics. Many applications, such as the Internet of Things (IoT), smart environments, the military or agricultural monitoring depend on the use of sensor networks which require a large variety of small and scattered devices. The low-power operation of such distributed devices requires wireless energy to be obtained from their surroundings in order to achieve safe, self-sufficient and maintenance-free systems. The energy harvesting circuit is known to be an interface between piezoelectric and electro-strictive loads. A modern view of circuitry for energy harvesting is based on power conditioning principles that also involve AC-to-DC conversion and voltage regulation. Throughout the field of energy conversion, energy harvesting circuits often impose electric boundaries for devices, which are important for maximizing the energy that is harvested. The power conversion efficiency (PCE) is described as the ratio between the rectifier’s output DC power and the antenna-based RF-input power (before its passage through the corresponding network).

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