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Main Authors: Wang, Yongge, Yao, Jingfeng, Wang, Ying, Yuan, Chengxun, Zhou, Zhongxiang
Format: Preprint
Published: 2026
Subjects:
Online Access:https://arxiv.org/abs/2603.21622
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author Wang, Yongge
Yao, Jingfeng
Wang, Ying
Yuan, Chengxun
Zhou, Zhongxiang
author_facet Wang, Yongge
Yao, Jingfeng
Wang, Ying
Yuan, Chengxun
Zhou, Zhongxiang
contents The conventional description of time-varying media assumes that electromagnetic fields evolve according to fixed continuity conditions during parameter jumps. Here we reveal that these conditions are not physical constraints but tunable design degrees of freedom. By developing a unified framework that treats continuity rules as engineerable parameters, we expand the scope of time-varying metamaterials and enable wave phenomena previously considered impossible. For instance, non-resonant, reflectionless wave amplification without momentum bandgaps, and reversible conversion between propagating waves and static fields for optical memory, etc. This work opens a new dimension for controlling light-matter interactions.
format Preprint
id arxiv_https___arxiv_org_abs_2603_21622
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Breaking the Limitations of Temporal Modulation via Mixed Continuity Conditions
Wang, Yongge
Yao, Jingfeng
Wang, Ying
Yuan, Chengxun
Zhou, Zhongxiang
Optics
The conventional description of time-varying media assumes that electromagnetic fields evolve according to fixed continuity conditions during parameter jumps. Here we reveal that these conditions are not physical constraints but tunable design degrees of freedom. By developing a unified framework that treats continuity rules as engineerable parameters, we expand the scope of time-varying metamaterials and enable wave phenomena previously considered impossible. For instance, non-resonant, reflectionless wave amplification without momentum bandgaps, and reversible conversion between propagating waves and static fields for optical memory, etc. This work opens a new dimension for controlling light-matter interactions.
title Breaking the Limitations of Temporal Modulation via Mixed Continuity Conditions
topic Optics
url https://arxiv.org/abs/2603.21622