pp. 2631-2639
S&M2289 Research Paper of Special Issue (Dr. Niitsu) https://doi.org/10.18494/SAM.2020.2558 Published: August 10, 2020 Design and Theoretical Analysis of Bit Error Rate (BER)-modulated Inductive-coupling Transceiver Using Dynamic Intermediate Interference Control Technique for Low-power Communication [PDF] Ge Xu, Kenya Hayashi, Shigeki Arata, Shunya Murakami, Dang Cong Bui, Atsuki Kobayashi, and Kiichi Niitsu (Received August 20, 2019; Accepted July 17, 2020) Keywords: low power, low cost, CMOS, IoT, inductive coupling, communication, transceiver
In this paper, we present a bit error rate (BER)-modulated inductive-coupling transceiver using a dynamic intermediate interference control technique for the first time. By controlling interference from the intermediate writer, the BER can be modulated. A simulation with Simulation Program with Integrated Circuit Emphasis (SPICE) is performed for a proposal of 65 nm CMOS. The simulation results show that the proposed approach is effective for the power and cost reduction of the writer. The layout area without an I/O pad is approximately 0.015 mm2 and the communication distance is 20 μm. The power consumption of the transmitter is reduced to 0.3 μW.
Corresponding author: Kiichi NiitsuThis work is licensed under a Creative Commons Attribution 4.0 International License. Cite this article Ge Xu, Kenya Hayashi, Shigeki Arata, Shunya Murakami, Dang Cong Bui, Atsuki Kobayashi, and Kiichi Niitsu, Design and Theoretical Analysis of Bit Error Rate (BER)-modulated Inductive-coupling Transceiver Using Dynamic Intermediate Interference Control Technique for Low-power Communication, Sens. Mater., Vol. 32, No. 8, 2020, p. 2631-2639. |