Organic π‐conjugated crystals with second‐order optical nonlinearity are considerably
attractive materials for diverse terahertz (THz) wave photonics. An overview of the research …

Understanding light interaction with metallic structures provides opportunities of
manipulation of light, and is at the core of various research areas including terahertz (THz) …

Extreme terahertz (THz) science and technologies, the next disruptive frontier in nonlinear
optics, provide multifaceted capabilities for exploring strong light‐matter interactions in a …

Extremely nonlinear terahertz (THz)-matter interactions and applications have positioned
themselves as the next frontier in quantum information, nonlinear optics, and particle …

Field-driven emission of electrons from metals is a technology that has had a large impact
on science and society over the past century, for instance, in early and contemporary …

Abstract Strong-field terahertz (THz)–matter interaction permits the investigation of
nonequilibrium behaviors in the nonperturbative zone. However, the unavailability of a high …

Recent technological advances in fabrication methods have allowed researchers to
manipulate light–matter interactions in the subwavelength region and develop a wide variety …

Probing the time evolution of the terahertz electric field within subwavelength dimensions
plays a crucial role in observing the nanoscale lightwave interactions with fundamental …

Tunneling is the most fundamental quantum mechanical phenomenon with wide-ranging
applications. Matter waves such as electrons in solids can tunnel through a one-dimensional …

Terahertz waves have gained attention owing to their potential for various bio-applications,
including broadband spectroscopy, imaging, and sensing. For development of practical …