Title :
On the Self-Generation of Electrical Soliton Pulses
Author :
Ricketts, David S. ; Li, Xiaofeng ; Sun, Nan ; Woo, Kyoungho ; Ham, Donhee
Author_Institution :
Carnegie Mellon Univ., Pittsburgh
Abstract :
The nonlinear transmission line is a structure where short-duration pulses called electrical solitons can be created and propagated. By combining, in a closed-loop topology, the nonlinear line and a special amplifier that provides not only gain but also mechanisms to tame inherently unruly soliton dynamics, we recently constructed the first electrical soliton oscillator that self-generates a stable, periodic train of electrical soliton pulses (Ricketts , IEEE Trans. MTT, 2006). This paper starts with a review of this recently introduced circuit concept, and then reports on new contributions, i.e., further experimental studies of the dynamics of the stable soliton oscillator and a CMOS prototype demonstrating the chip-scale operation of the stable soliton oscillator. Finally, we go to the opposite end of the spectrum and present a numerical study showing the possibilities that deliberate promotions of the unruly soliton dynamics in the closed-loop topology can produce chaotic signals.
Keywords :
CMOS integrated circuits; low-power electronics; network topology; oscillators; pulse amplifiers; pulse generators; solitons; CMOS prototype; closed-loop topology; electrical soliton oscillator; electrical soliton pulses; nonlinear transmission line; short-duration pulses; Chaotic communication; Oscillators; Power transmission lines; Pulse amplifiers; Pulse circuits; Pulse generation; Solitons; Sun; Topology; Vehicle dynamics; Electrical soliton oscillators; chaos; electrical solitons; integrated circuits; mode-locking; nonlinear transmission lines; oscillators; pulse generation; solitons;
Journal_Title :
Solid-State Circuits, IEEE Journal of
DOI :
10.1109/JSSC.2007.900291