Research on Low-Power Digital Integrated Circuit Technology
DOI:
https://doi.org/10.61173/83zccg77Keywords:
Low-power consumption, Passive tag chip, Dual-powe, crossed-zero clocking technologyAbstract
In today’s diverse and rapidly developing field of low-power technologies, various industries are actively applying these advanced technologies to practical production in order to reduce energy consumption and mitigate environmental pollution. Based on this core concept, this article delves into and compares the principles, advantages, and disadvantages of the low-power technology of passive tag chips with the representative low-power technologies of dual-power and crossed-zero clocking, as well as their respective application areas. Specifically, the article conducts a detailed comparative analysis of the low-power technology of passive tag chips versus dual-power and crossed-zero clocking technologies from three perspectives: power consumption, design approach, and practical application. Through in-depth research, it was found that the low-power technology of passive tag chips holds significant advantages in the logistics industry, making it particularly well-suited for this field; meanwhile, dual-power and crossed-zero clocking technologies perform better in high-performance computing, making them more appropriate for such an application environment.
References
[1] Guo Yanshu. Research on key technologies of low-power short-distance wireless transceiver [D]. Tsinghua University, 2017.
[2] City Low-Carbon Building Performance Design Evaluation and Optimization Research Group. Discussion on the key technologies of low-carbon building performance design evaluation and optimization. 2024.
[3] HEMING Technology. Technological breakthroughs in advanced packaging and introduction of advanced cleaning agents for packaging. September 2024.
[4] China Urban Planning Network. Key technologies for green low-carbon block planning and design. April 2023.
[5] Institute of Microelectronics, Chinese Academy of Sciences. Research progress in low-power integrated circuit design. June 2021.
[6] Davidovitz, J., Zogg, L., & Haldi, A. Energy-Efficient Building Design. *Energy and Buildings*, 45 (2012): 15-27.
[7] Lou Shiping, Ma Ying, Kou Xinzhong, et al. Analysis of factors affecting the recognition distance of UHF RFID systems [J]. *Telecommunication Engineering Technology and Standardization*, 2024, 37(08): 79-85. DOI: 10.13992/j.cnki. tetas.2024.08.007.
[8] Chen Zhicheng. Automatic switching transformation of dual power supplies based on PLC [J]. *Electrical Engineering Technology*, 2024, (12): 7-9+12.
[9] Curty, Jari-Pascal, et al. Passive UHF RFID system design and optimization. *Beijing: Science Press*, 2008, 43-45.
[10] Li Gui. Design and implementation of UHF RFID tag chip encoding and decoding circuits [Master’s thesis]. University of Electronic Science and Technology, 2009, 22-42.
[11] Oppenheim, A., Schafer, R., & Buck, J. *Discrete-time signal processing* chap. 2. Prentice Hall, 1998.
[12] Tao, W. Double Power Supplies and Cross-zero Clocks Lead to Low Noises and High Efficiency in Digital Integrated Circuits [J]. *Journal of Physics: Conference Series*, 2021, 2095(1).
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