Abstract
The advancement of THz science and technology is desirable to
facilitate the application of THz technologies in many sectors.
Specialized THz photonic elements for these applications require
desirable absorption and refractive characteristics in the THz regime.
THz photonic elements can be created with additive manufacturing, and
specifically 3D printing, forgoing the need for complex fabrication
procedures and methodologies. Such THz photonic elements include
periodic Bragg structures, which are capable of filtering specific THz
frequencies. The authors present a THz Bragg structure fabricated with
3D printing via fused filament fabrication. The THz Bragg structure is
made from high-impact polystyrene filament material, which is
characterized in this paper with THz time-domain spectroscopy. The
geometry and theoretical operation of the THz Bragg structure is
investigated with finite-difference time-domain electromagnetic
simulations. The THz Bragg structure is evaluated using a THz
experimental test bed. There is agreement between the theoretical and
the experimental filtering placement within the frequency domain for
the THz Bragg structure. The capability of tunable frequency filtering
of the presented THz Bragg structure, fabricated with 3D printing, is
established and facilitates future advancements in applications of THz
science and technology.
Funder
Canada Foundation for
Innovation
Natural Sciences and Engineering Research
Council of Canada
Subject
Atomic and Molecular Physics, and Optics,Engineering (miscellaneous),Electrical and Electronic Engineering
Cited by
4 articles.
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