This paper proposes a novel approach to wireless power transmission using a Slayer exciter circuit that generates high-voltage AC signals. The primary goal of the proposed system is to transmit both power and information simultaneously without the need for any conduction. However, wireless power transmission is often subject to environmental noise, which can lead to data transmission errors. To overcome this challenge, a simple encoding scheme based on Hamming(7,4) is employed to enhance the system’s resilience to noise. The proposed system uses digital bits to transmit data, which are modified to include parity bits for error detection and correction. The addition of these parity bits ensures that any demodulator can accurately retrieve the transmitted data, even in the presence of noise. This paper shows that the proposed system is capable of both power transmission and data communication, making it a suitable candidate for various applications, including wireless charging, remote sensing, wireless communication, and Li-Fi. The paper also discusses the design and implementation of the proposed system, providing detailed information on the circuit components and their functions.

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Encoding Data Using Slayer Exciter Circuits with Simultaneous Power and Information Transmission

  • Eshaan Yadav,
  • Chaudhary Indra Kumar

摘要

This paper proposes a novel approach to wireless power transmission using a Slayer exciter circuit that generates high-voltage AC signals. The primary goal of the proposed system is to transmit both power and information simultaneously without the need for any conduction. However, wireless power transmission is often subject to environmental noise, which can lead to data transmission errors. To overcome this challenge, a simple encoding scheme based on Hamming(7,4) is employed to enhance the system’s resilience to noise. The proposed system uses digital bits to transmit data, which are modified to include parity bits for error detection and correction. The addition of these parity bits ensures that any demodulator can accurately retrieve the transmitted data, even in the presence of noise. This paper shows that the proposed system is capable of both power transmission and data communication, making it a suitable candidate for various applications, including wireless charging, remote sensing, wireless communication, and Li-Fi. The paper also discusses the design and implementation of the proposed system, providing detailed information on the circuit components and their functions.