Towards the True Switching-ON of Transistors

Fuente: arXiv
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Autores principales: Ying, Wucheng, Qi, Jinwei, Zhao, Hui, Janabi, Ameer, Li, Hui, Zhao, Biao, Long, Teng
Formato: Preprint
Publicado: 2025
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author Ying, Wucheng
Qi, Jinwei
Zhao, Hui
Janabi, Ameer
Li, Hui
Zhao, Biao
Long, Teng
author_facet Ying, Wucheng
Qi, Jinwei
Zhao, Hui
Janabi, Ameer
Li, Hui
Zhao, Biao
Long, Teng
contents Transistors are core component across all domains of electrical and electronic engineering (EEE), such as data centers, electrified transportation, robotics, renewables and grid applications, etc. Transistors' switching behavior governs energy loss, carbon emissions, cooling demand, water use, lifetime, material use and cost etc. throughout EEE. Despite near a century since the transistor's invention, the understanding of transistor switching remains fragmented: switching is treated as a black box relying on observed waveforms, cannot be explained using physical laws alone, and is not integrated into circuit theory. This forms one of the most critical barriers to recognizing the true physical boundaries, prohibiting more sustainable solutions. For example, the conventional Eon prediction model, derived from the conventional switching analysis, exhibits significant prediction errors (ranging from 34.41% to 80.05%). Here we present a unified first-principles paradigm to explain the switching phenomena. Using this paradigm, we revealed the physical origins and mechanisms of switching-ON phenomena across scenarios, and derived the proposed Eon prediction model, with error ranging from 0.88% to 11.60%, achieving a 17-fold average improvement. These results demonstrate the unprecedented power of the proposed paradigm: textbook-level foundations are established, transforming the fundamental understanding of transistor switching from empirical to first-principles analysis, and simultaneously stimulating follow-up research and applications for sustainable development across disciplines.
format Preprint
id arxiv_https___arxiv_org_abs_2510_17815
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Towards the True Switching-ON of Transistors
Ying, Wucheng
Qi, Jinwei
Zhao, Hui
Janabi, Ameer
Li, Hui
Zhao, Biao
Long, Teng
Systems and Control
Transistors are core component across all domains of electrical and electronic engineering (EEE), such as data centers, electrified transportation, robotics, renewables and grid applications, etc. Transistors' switching behavior governs energy loss, carbon emissions, cooling demand, water use, lifetime, material use and cost etc. throughout EEE. Despite near a century since the transistor's invention, the understanding of transistor switching remains fragmented: switching is treated as a black box relying on observed waveforms, cannot be explained using physical laws alone, and is not integrated into circuit theory. This forms one of the most critical barriers to recognizing the true physical boundaries, prohibiting more sustainable solutions. For example, the conventional Eon prediction model, derived from the conventional switching analysis, exhibits significant prediction errors (ranging from 34.41% to 80.05%). Here we present a unified first-principles paradigm to explain the switching phenomena. Using this paradigm, we revealed the physical origins and mechanisms of switching-ON phenomena across scenarios, and derived the proposed Eon prediction model, with error ranging from 0.88% to 11.60%, achieving a 17-fold average improvement. These results demonstrate the unprecedented power of the proposed paradigm: textbook-level foundations are established, transforming the fundamental understanding of transistor switching from empirical to first-principles analysis, and simultaneously stimulating follow-up research and applications for sustainable development across disciplines.
title Towards the True Switching-ON of Transistors
topic Systems and Control
url https://arxiv.org/abs/2510.17815