Intense multi-octave supercontinuum pulses from an organic emitter covering the entire THz frequency gap
C. Vicario, B. Monoszlai, M. Jazbinsek, S.-H Lee, O.-P. Kwon, C.P., Hauri

TL;DR
This paper introduces a novel method for generating intense, broad-spectrum supercontinuum THz pulses covering 0.1-15 THz, enabling new applications in imaging, diagnostics, and matter control.
Contribution
The authors develop an all-in-one approach to produce stable, high-energy supercontinuum THz pulses spanning the entire 1-15 THz gap, surpassing previous limitations.
Findings
Achieved supercontinuum THz pulses covering 0.1-15 THz
Produced pulses with stable absolute phase
Expanded THz photonics to previously inaccessible frequencies
Abstract
In Terahertz (THz) technology, one of the long-standing challenges has been the formation of intense pulses covering the hard-to-access frequency range of 1-15 THz (so-called THz gap). This frequency band, lying between the electronically (<1 THz) and optically (>15 THz) accessible spectrum hosts a series of important collective modes and molecular fingerprints which cannot be fully accessed by present THz sources. While present high-energy THz sources are limited to 0.1-4 THz the accessibility to the entire THz gap with intense THz pulses would substantially broaden THz applications like live cell imaging at higher-resolution, cancer diagnosis, resonant and non-resonant control over matter and light, strong-field induced catalytic reactions, formation of field-induced transient states and contact-free detection of explosives. Here we present a new, all-in-one solution for producing and…
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Taxonomy
TopicsTerahertz technology and applications · Spectroscopy and Laser Applications · Gyrotron and Vacuum Electronics Research
