Development of Low Power Wireless Power Transfer System Using Resonance Principle With Security Features

Nataraj, Chandrasekharan; Khan, Sheroz; Habaebi, Mohamed Hadi; Muthalif, Asan G. A.; Lakshmanan, Ravi

doi:10.31436/iiumej.v18i2.651

Cited by 3 publications

(3 citation statements)

References 14 publications

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“…The power is transferred by magnetic resonance coupling between the two antennas at the resonance frequencies. Using the resonance principle, [38] described a low power Wireless Power Transfer (WPT) system. The resonance coupling between coils is assessed using a reflective impedance model.…”

Section: Review Of Related Workmentioning

confidence: 99%

Wireless Power Transfer: A Review of Existing Technologies

Nnamdi¹,

Asianuba²

2023

EJENG

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Wireless Power Transfer (WPT) can be described as the processing of transmitting electricity without the use of wires. It has been increasingly used in places where battery depletion and replacement are major issues. WPT Technology are being used in different sectors. They include wireless charging, Electric vehicles, consumer electronics, etc. The paper describes the various types of WPT technologies; Inductive Coupling, Magnetic Resonance and Radio Frequency (RF) technology. It also discusses the advantages and shortfalls of each type. An extensive survey of past works was discussed. Results from the research findings showed that distance and conversion efficiency were limiting factors in implementing wireless transfer technology.

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Section: Review Of Related Workmentioning

confidence: 99%

Wireless Power Transfer: A Review of Existing Technologies

Nnamdi¹,

Asianuba²

2023

EJENG

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“…Wireless charging system using spectral energy harvesting technique (Chandrasekharan Nataraj) 315 coupled inductive power transfer scheme is typically adopted for the Radio Frequency (RF) wireless power transfer applications such as biomedical implants, RFID tags and mobile phone charging [5][6][7]. WPT for mobile phones was achieved by the means of electro-magnetic induction that harvest the energy from a current source [8].…”

Section: Introductionmentioning

confidence: 99%

Wireless charging system using spectral energy harvesting technique

Nataraj¹,

Careem²,

Lakshmanan³

et al. 2019

IJEECS

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<p>This paper presented the energy harvester circuit to enable wireless charging method. The wireless RF spectrum is abundant and potent in the public locations, which can be used for energy harvesting purpose. This is supported by the fact that RF signals are ubiquitous and do not require propagation media of any sort. The system is developed using optimal antenna, matching circuit and charge pump circuit. The 2x2 array type patch antenna operated at 924 MHz is designed and simulated using High Frequency Simulator. The antenna works as a transducer to capture and measure the RF signals from freely available energy source. The field study was conducted at three different highly populated locations such as place of education, place of residence, and place of transport using Software Defined Radio (SDR). The respective acquired RF energy values are -10.45 dBFS (morning), -10.45 dBFS (noon), and -13.33 dBFS (night) at the place of transport for the demonstration purpose. The antenna parameters study also conducted and proved that the antenna gain is good which is greater than 6.6 dB and also return loss greater than -43dB. In addition, charge pump circuit is designed and shown to be capable of boosting the voltage more than 2.5 V easily at the different frequencies for wireless charging purpose.<em></em></p>

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“…ICWPT are proving the most used ones in charging traction batteries of electric vehicles in the automobile field and also domestic induction cooking appliances [7]. The applications involving solar cells, lasers, microwaves and resonance of electromagnetic waves have had the latest success in the field of WPT [8,9]. This technology finds realistically viable applications in the area of Distribution Generation (DG) system [10].…”

Section: Introductionmentioning

confidence: 99%

Coil geometry models for power loss analysis and hybrid inductive link for wireless power transfer applications

2018

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This paper presents a hybrid inductive link for Wireless Power Transfer (WPT) applications. Achieving better power transfer efficiency over a relatively wider distance across coils is the prime objective in most of the WPT systems, but often suffers from power loss in the near field area of inductively coupled coils. One of the reasons for this power loss is the pattern of the magnetic field produced by the source coil used in the WPT system. Mostly the nature of magnetic field produced by the source coil is distributed radially over the coil, in which the produced magnetic field is not fully utilized. Achieving better efficiency and load current by reducing power loss is the main driving force of this work. One of the viable methods to reduce the power loss is by increasing the field intensity thereby redirecting the flux lines flow to be directional. With this aim, three coils such as solenoid, spiral and conical are designed and simulated to determine the magnetic field strength using Finite Element Method. The conical coil produces the highest self-inductance of 8.63 lH and a field strength of 1.542 Wb with the coil thickness of 3.20 mm. Then, WPT system is demonstrated with the inclusion of Maximum Power Point Tracking algorithm for improving efficiency. The schematic of flux generation of both in the transmitter and receiver sections are demonstrated and analyzed graphically. The efficiency of both simulation and experimental measurements are matched well with similar progression. The effect of parameters (angle, distance, and load resistance) on the efficiency is explored. The outcomes conclude that the inductive coupling has achieved 73% (average case) power transfer wirelessly over a distance of 5 cm with an input voltage of 5 V and 5 MHz frequency.

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Development of Low Power Wireless Power Transfer System Using Resonance Principle With Security Features

Cited by 3 publications

References 14 publications

Wireless Power Transfer: A Review of Existing Technologies

Wireless Power Transfer: A Review of Existing Technologies

Wireless charging system using spectral energy harvesting technique

Coil geometry models for power loss analysis and hybrid inductive link for wireless power transfer applications

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