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Filling the Gap: Silicon Terahertz Integrated Circuits Offer Our Best Bet
58
Citations
39
References
2019
Year
Thz PhotonicsTerahertz TechnologyEngineeringTerahertz FrequencyIntegrated CircuitsTerahertz Wave VariesTerahertz PhotonicsTerahertz PhysicsTerahertz Material PropertiesRadiometer VaneNanoelectronicsInstrumentationElectronic CircuitElectrical EngineeringTerahertz SpectroscopyPhysicsComputer EngineeringTerahertz ScienceBest BetTerahertz SpintronicsMicroelectronicsMillimeter Wave TechnologySubmillimeter Wave TechnologyTerahertz DevicesNatural SciencesSpectroscopyTerahertz TechniqueOptoelectronicsTerahertz Applications
Terahertz frequencies are inconsistently defined, ranging from 100 GHz to 10 THz or 300 GHz to 3 THz, with early experiments dating back to 1923. Nichols and Tear produced a 0.17‑THz signal with a spark‑gap oscillator, detected it with a radiometer vane, and analyzed the spectrum using a Boltzmann interferometer.
The definition for the frequency range of a terahertz wave varies in the literature. Some refer to terahertz as the spectrum between 300 GHz (λ = 1 mm) and 3 THz (λ = 0.1 mm) to distinguish it from its millimeter-wave counterpart (30-300 GHz). Others adopt a decimal pattern and a loosely defined frequency range from 100 GHz to 10 THz. Based on the latter definition, probably the earliest documented endeavor to reach terahertz frequency was published in a paper in Physical Review in 1923 [1]. In this nearly century-old work, authors Nichols and Tear generated a 0.17-THz signal using a spark-gap oscillator, detected it with a radiometer vane, and analyzed the spectrum through a Boltzmann interferometer.
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