With the rapid development of digital chip technology, the functions have become increasingly powerful, and processing speeds continue to rise. However, this progress comes at a cost, particularly with the significant increase in chip power consumption. The rise in power consumption directly leads to a continuous growth in chip heat generation, which not only affects the performance stability of the chip but also poses a severe challenge to the battery life and user experience of mobile consumer electronics. Especially in todays context, where consumer reliance on mobile devices is deepening, the demand for low power consumption in digital chips is becoming increasingly stringent. If chip power consumption is too high, its performance will be severely compromised, potentially failing to meet practical application needs. Therefore, optimizing the power consumption of digital integrated circuits has become a hot topic in the industry. While various optimization strategies for digital integrated circuits are emerging, there is a lack of a clear and systematic classification. Based on a thorough analysis of existing optimization strategies, this paper innovatively proposes a new classification framework. This classification framework not only facilitates a more comprehensive understanding of the characteristics and applicable scenarios of various optimization techniques but also provides strong theoretical support and practical guidance for future power optimization research. The article will then provide a detailed introduction to this classification method and discuss its application prospects in the field of power optimization for digital integrated circuits.
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