Photonic microwave generation with high-power photodiodes
arXiv:1302.5927 · doi:10.1364/OL.38.001712
Abstract
We utilize and characterize high-power, high-linearity modified uni-traveling carrier (MUTC) photodiodes for low-phase-noise photonic microwave generation based on optical frequency division. When illuminated with picosecond pulses from a repetition-rate-multiplied gigahertz Ti:sapphire modelocked laser, the photodiodes can achieve 10 GHz signal power of +14 dBm. Using these diodes, a 10 GHz microwave tone is generated with less than 500 attoseconds absolute integrated timing jitter (1 Hz-10 MHz) and a phase noise floor of -177 dBc/Hz. We also characterize the electrical response, amplitude-to-phase conversion, saturation and residual noise of the MUTC photodiodes.
3 pages, 3 figures
References in corpus (2)
Cited by in corpus (14)
- Surface acoustic wave photonic devices in silicon on insulator
- Noise conversion in Kerr comb RF photonic oscillators
- A compact, thermal noise limited reference cavity for ultra-low noise microwave generation
- Optical amplification and pulse interleaving for low noise photonic microwave generation
- Suppression of amplitude-to-phase noise conversion in balanced optical-microwave phase detectors
- Ultra-low phase-noise microwave generation using a diode-pumped solid-state laser based frequency comb and a polarization-maintaining pulse interleaver
- 10 GHz Generation with Ultra-Low Phase Noise via the Transfer Oscillator Technique
- InGaAsP/InP uni-travelling-carrier photodiode at 1064nm wavelength
- Spectrally Pure RF Photonic Source Based on a Resonant Optical Hyper-Parametric Oscillator
- Digital-photonic synthesis of ultra-low noise tunable signals from RF to 100 GHz
- Large-scale photonic chip based pulse interleaver for low-noise microwave generation
- Characterization of Long-Term Stable Photonic Microwaves based on a Difference Frequency Comb
- Simple Formulas for Output Interception Power Estimation of Uni-Traveling Carrier Photodiodes
- Phase inversion and collapse of the cross-spectral function