Integrated Power Consumption Modeling for Low-Power Electronic Design

Abstract

Purpose: The purpose of this study is to analyze power consumption mechanisms in digital circuits and to broaden an integrated energy consumption model that captures dynamic, static (leakage), and short-circuit power dissipation. The study aims to evaluate the effectiveness of key low-electricity layout strategies in improving energy efficiency while maintaining acceptable performance in contemporary digital systems.

Design/Methodology/Approach: This study adopts an analytical and model-based research approach. Established theoretical fashions of dynamic, static, and brief-circuit electricity consumption are examined and incorporated right into a unified energy intake framework. The researcher similarly critiques and evaluates low-energy layout strategies, which include voltage scaling, electricity gating, clock gating, transistor-stage optimization, and the usage of electricity-efficient components, via comparative analysis and alertness-orientated evaluation.

Findings/Result: The findings imply that overall electricity consumption in electronic circuits is strongly influenced by supply voltage, switching activity, leakage currents, and signal transition traits. The integrated energy model demonstrates that coordinated application of more than one low-electricity techniques achieves more significant electricity reduction than isolated methods. The effects additionally screen that energy-efficient design is mainly critical in applications such as IoT structures, wearable and biomedical gadgets, renewable strength systems, and facts centers, where energy constraints and thermal boundaries are dominant.

Originality/value: This study contributes to the existing literature with the aid of providing a consolidated and integrated power consumption model alongside a dependent evaluation of low-power design strategies. It offers a clear conceptual framework for energy-aware digital design and offers practical insights for designers and researchers aiming to expand sustainable, high-performance, and power-efficient digital structures.

Paper Type: Conceptual and Analytical Research Paper