Diffractive Optical Elements For THz Frequencies - Alrad
Diffractive Optical Elements For THz Frequencies - Alrad
Diffractive Optical Elements For THz Frequencies - Alrad
Diffractive Optical Elements For THz Frequencies - Alrad
Diffractive Optical Elements For THz Frequencies - Alrad
Diffractive Optical Elements For THz Frequencies - Alrad
Diffractive Optical Elements For THz Frequencies - Alrad
Diffractive Optical Elements For THz Frequencies - Alrad
Diffractive Optical Elements For THz Frequencies - Alrad
Diffractive Optical Elements For THz Frequencies - Alrad

Diffractive Optical Elements For THz Frequencies

WOP offers diffractive optical elements for THz frequencies – various types of custom elements suitable for your specific THz wave manipulation applications.

The terahertz frequency range ranges from 0.1 THz to 10 THz in an emerging wide research field with multiple applications – from communication to optical imaging or spectroscopy.

Various materials such as semiconductors, metals, polymers, or plastics can be used as functional materials.

One of the key applications is THz optical imaging which enables seeing through transparent and opaque materials.

Ultra short pulse laser processing is used as a precise tool to manufacture diffractive and custom optical elements.

Features:

  • Prototype development
  • Ultra-high precision
  • High processing speed
  • Custom designed elements
  • Surface roughness below 2 µm
  • Various materials: metals, polymers, plastics, semiconductors

Precise material processing for THz applications

Structured light – electromagnetic waves with a strong spatial inhomogeneity of amplitude, phase, and polarization – has occupied far-reaching positions in both optical research and applications.

Terahertz (THz) waves, due to recent innovations in photonics and nanotechnology, became so robust that it was not only implemented in a wide variety of applications such as communications, spectroscopic analysis, and non-destructive imaging but also served as a low-cost and easily implementable experimental platform for novel concept illustration.

The structured THz illumination consistently outperforms the conventional one in resolution and contrast, thus opening new frontiers of structured light applications in imaging and inverse scattering problems, as it enables sophisticated estimates of the optical properties of the investigated structures