In the past two decades, the development and steady improvement of terahertz technology
has motivated a wide range of scientific studies designed to discover and develop terahertz …

Thin-film sensing with a film thickness much less than a wavelength is an important
challenge in conventional transmission-mode terahertz time-domain spectroscopy (THz …

The last research frontier in high frequency electronics lies in the so-called terahertz (or
submillimeter wave) regime, between the traditional microwave and the infrared domains …

We experimentally show that terahertz (THz) waves confined in sub-10 nm metallic gaps can
detect refractive index changes caused by only a 1 nm thick (∼ λ/106) dielectric overlayer …

In recent years, the field of terahertz (THz) science and technology has entered a completely
new phase of unprecedented expansion that is generating ever growing levels of broad …

Broadband terahertz spectroscopy enables many promising applications in science and
industry alike. However, the complexity of existing terahertz systems has as yet prevented …

The terahertz (THz) band has very attractive characteristics for sensing and biosensing
applications, due to some interesting features such as being a non‐ionizing radiation, very …

Thin metal films alone or incorporated in a multilayer stack structure with dielectric films are
good candidates of terahertz absorbers necessary for achieving the maximum responsivity …

In the last decade, time-domain terahertz spectroscopy TDTS1 has become a powerful
means to study properties of various materials from dielectrics to semiconductors2 and …

The terahertz (THz)(0.3–10 THz) part of the electromagnetic spectrum encompasses
astonishing prospects for futuristic science and technology as it hosts many exciting and …