A novel rectangular-corrugated waveguide is pro- posed for submillimeter and terahertz vacuum devices. Two par- allel corrugations that are enclosed in a rectangular waveguide create a beam channel that supports an interaction with a cylindri- cal electron beam. A notable advantage of the double-corrugated rectangular waveguide slow-wave structure (SWS) is the exten- sion of well-established cylindrical beam technology to corrugated waveguide SWSs. The structure is also fully realizable with the most recent microfabrication techniques and is easily assembled. A detailed study to describe the electromagnetic behavior of the presented SWS is performed by 3-D electromagnetic simulation. A 650-GHz backward-wave oscillator and a 227-GHz traveling-wave tube are designed and simulated, by 3-D particle-in-cell code, to highlight the great potential of the double-corrugated rectangular waveguide for submillimeter frequency vacuum devices.
Mineo, M., Paoloni, C. (2010). Double-corrugated rectangular waveguide slow-wave structure for terahertz vacuum devices. IEEE TRANSACTIONS ON ELECTRON DEVICES, 57(11), 3169-3175 [10.1109/TED.2010.2071876].
Double-corrugated rectangular waveguide slow-wave structure for terahertz vacuum devices
PAOLONI, CLAUDIO
2010-11-01
Abstract
A novel rectangular-corrugated waveguide is pro- posed for submillimeter and terahertz vacuum devices. Two par- allel corrugations that are enclosed in a rectangular waveguide create a beam channel that supports an interaction with a cylindri- cal electron beam. A notable advantage of the double-corrugated rectangular waveguide slow-wave structure (SWS) is the exten- sion of well-established cylindrical beam technology to corrugated waveguide SWSs. The structure is also fully realizable with the most recent microfabrication techniques and is easily assembled. A detailed study to describe the electromagnetic behavior of the presented SWS is performed by 3-D electromagnetic simulation. A 650-GHz backward-wave oscillator and a 227-GHz traveling-wave tube are designed and simulated, by 3-D particle-in-cell code, to highlight the great potential of the double-corrugated rectangular waveguide for submillimeter frequency vacuum devices.I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.