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Microwave pulse generation using the Bragg cutoff of a nonlinear transmission line

Nonlinear transmission lines (NLTL) have received considerable attention for their frequency conversion, fast pulse generation, and rise/falltime compression properties. Here we present a new mode of operation for the NLTL which uses falltime compression to generate short RF pulses near the Bragg cu...

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Main Authors: Lyon, Keith G., Kan, Edwin C.
Format: Conference Proceeding
Language:English
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description Nonlinear transmission lines (NLTL) have received considerable attention for their frequency conversion, fast pulse generation, and rise/falltime compression properties. Here we present a new mode of operation for the NLTL which uses falltime compression to generate short RF pulses near the Bragg cutoff frequency. While this phenomenon has been reported in circuit model simulations, we demonstrate, to our knowledge, its first experimental verification. We demonstrate control of the pulse center frequency using next-nearest neighbor coupling and examine the feasibility of MMIC implementation. Our resulting devices generate short microwave pulses suitable for short range wireless communication. The frequency conversion is non-harmonic and requires no active bias currents.
doi_str_mv 10.1109/MWSYM.2008.4633055
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subjects Artificial neural networks
Bragg Cutoff
Coplanar waveguides
Couplings
Impedance
Impulse Radio
Microwave filters
Microwave Frequency Conversion
NLTL
Nonlinear Circuits
Nonlinear Transmission Line
Power harmonic filters
Power transmission lines
Pulse Generation
Transmission Line Theory
UWB
title Microwave pulse generation using the Bragg cutoff of a nonlinear transmission line
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