Theoretical and experimental studies of metallic grids absorption: Application to the design of a bolometer

Research figure associated with Room temperature thermopile THz sensor

The study delivers a comprehensive, validated framework for designing metallic grid absorbers with precisely tailored electrical resistivity, enabling the creation of efficient, room‑temperature bolometers and other thermal detectors. By treating structured metal layers as equivalent homogeneous…

Coupling and Propagation of Sommerfeld Waves at 100 and 300 GHz

Terahertz research image associated with Continuous-wave scanning terahertz near-field microscope

The study demonstrates that millimetre‑wave guided modes—known as Sommerfeld waves—can be efficiently launched and transported along simple metallic wires at 100 GHz and 300 GHz. By inserting a straightforward differential phase plate in front of the wire, the researchers achieved a theoretical…

Tunable ultrafast infrared generation in a gas-filled hollow-core capillary by a four-wave mixing process

Research figure associated with Tunable ultrafast infrared generation in a gas-filled hollow-core capillary by a four-wave mixing process

An in-depth editorial guide to Tunable ultrafast infrared generation in a gas-filled hollow-core capillary by a four-wave mixing process, its scientific context, terahertz contribution, applications, and collaboration potential in Components & Antennas.

SubTHz Fully-Metallic Geodesic Luneburg Lens Antenna

Research figure associated with SubTHz Fully-Metallic Geodesic Luneburg Lens Antenna

Executive Summary A team of researchers from KTH Royal Institute of Technology, INSA Rennes, the University of Bordeaux, and ESA has developed and experimentally validated a fully metallic geodesic Luneburg lens antenna that operates in the sub‑terahertz (sub‑THz) frequency band between 128 and 132…

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