Pelusi, MarkVo, Trung D.Luan, FMadden, SteveBulla, DouglasLuther-Davies, BarryEggleton, Benjamin JChoi, Duk-Yong2015-12-10June 28-Ju9781424448265http://hdl.handle.net/1885/55599We review results on the recently developed dispersion-shifted, Chalcogenide waveguides demonstrating nonlinear signal processing on a compact monolithic platform with ultra-broadband capability and moderate launch powers of around 100 mW. Highlight results include broadband wavelength conversion of high-bit rate optical signals, time division multiplexing of 320 Gb/s signals and characterization of 320 Gb/s signals using a photonic chip based RF spectrum analyzer with terahertz bandwidth. The performance advantages stem from the waveguide's design for high nonlinearity and a near zero dispersion at the 1550 nm wavelength. These features are shown to enhance the efficiency of the nonlinear processes underpinning many all-optical signal processing functions.Keywords: 1550 nm; All-optical signal processing; Bit rates; High nonlinearity; Near-zero dispersions; Non-linear signal processing; Nonlinear optical signal processing nonlinear waveguide devices; Nonlinear process; Optical signals; Photonic chips; RF-spectrum; Te Nonlinear optical signal processing; nonlinear waveguide devices; Spectrum analysis; Ultrafast demultiplexing; Wavelength conversionUltrafast Nonlinear Optics on a Chip: Application to Signal Processing200910.1109/ICTON.2009.51853152016-02-24