The following is a listing of presentations in the CLEO 2008 program involving members of Prof. Fejer's and Prof. Byer's groups
- CTuA6:
640 GHz Real-Time Recording Using Temporal Imaging
- CTuY1:
Synchronously Pumped Near-Degenerate Doubly Resonant Optical Parametric Oscillator
- CTuHH2:
Phase-Matched THz-Wave Generation in a Planar GaAs Waveguide
- CTuHH3:
Tunable THz Source Based on Intracavity Parametric Down-Conversion in Quasi-Phase-Matched GaAs
- CWN5:
Demonstration of a 1550-nm Photon-Counting Receiver with < 0.5 Detected Photon-Per-Bit Sensitivity at 187.5 Mb/s
- QFE1:
Hong-Ou-Mandel Dip Using Photon Pairs from a PPLN Waveguide
- CFS1:
10-Watt, Single-Mode, Single-Frequency, 1.03 μm Yb3+-Doped Phosphate Fiber Amplifier
The following is a listing of presentations in the CLEO 2007 program involving members of Prof. Fejer's group
- CMJ1 (Invited):
New Light from Gallium Arsenide: Micro-Structured GaAs for Mid-IR and THz-Wave Generation
- CMII4 (Invited):
Demonstration of a Wavelength-Converter-Based 1550-nm Photon-Counting Receiver with Better than 2 Incident Photon/Bit Sensitivity
- CMJ2:
GaAs Optical Parametric Oscillator with a Circularly Polarized Pump
- CTuK2:
Octave-Level Spectral Broadening in RPE PPLN Waveguides
- CWB1:
Variational and WKB Descriptions of Laterally Localized Eigenmodes in Non-Collinear Optical Parametric Amplifiers
- QWF4:
Photon Pair Generation in Reverse-Proton-Exchange Lithium Niobate Waveguides with Mode Demultiplexing at a Pump Repetition Rate of 10 GHz
- CThC2:
Gain Enhancement Due to Transverse Effects in Chirped Quasi-Phase-Matched Optical Parametric Amplifiers
- CThI6:
Intracavity Terahertz Generation in a Synchronously Pumped Optical Parametric Oscillator Using Quasi-Phasematched GaAs
- CFF1:
Guided-Wave Temporal Imaging Based Ultrafast Recorders
- CFF3:
Polarization-Insensitive Ultralow-Power Second-Harmonic Generation Frequency-Resolved Optical Gating
The following is a listing of presentations, short courses and posters in the CLEO 2006 program involving members of Prof. Fejer's group
- CPDB10:
Optical and Microwave Frequency Synthesis with an Integrated Fiber Frequency Comb
- CTuGG5:
Tunable 0.8-3.5 THz Source Based on Fiber-Laser Pumped Orientation-Patterned GaAs
- CTuGG6:
Quasi-Phasematched THz Generation in GaAs
- CTuH4:
170MHz Spaced, Self-Referenced Fiber-Frequency-Comb
- CTuH5:
Integrated Fiber-Frequency Comb Using a PPLN Waveguide for Spectral Broadening and CEO Phase Detection
- CTuR1:
Two-Spatial-Mode Parametric Amplifier in Lithium Niobate Waveguides with Asymmetric Y-Junctions
- JTuH2:
Fast and Long-Distance Differential-Phase-Shift Quantum Key
- CThE2:
Simultaneous Nonlinearity and Dispersion Compensation into an Embedded Link: Experimental Demonstration
- CThG2:
Generation of 10.5-W CW 532-nm Radiation by SHG in Vapor-Transport-Equilibrated, Periodically-Poled, Near-Stoichiometric Lithium Tantalate
- CThG4:
Broadband Continuum Generation in GaAs (invited)
- JThC45:
Amplitude Modulation of QPM Interactions and Tuning Curve Side-Lobe Suppression in PPLN Waveguides (poster)
- CThO2:
Broadband Optical Parametric Amplifier Using Chirped Quasi-Phase-Matched Gratings
- CThO5:
Waveguide Parametric Amplification of Eyesafe 1.6-micron Signal for Remote-Sensing Applications
- QThM3:
Multi-Photon Absorption and Nonlinear Refraction of GaAs in the Mid-Infrared
Professor Martin Fejer appointed senior associate dean for the natural sciences (by Dawn Levy)
Professor Martin M. Fejer, chair of the Applied Physics Department since 2002, has been appointed senior associate dean for the natural sciences in the School of Humanities and Sciences.
Fejer, whose appointment became effective Sept. 1, succeeds Iain Johnstone, who served two years in the position and who will be assuming the new position of vice dean for academic planning. (During Johnstone's tenure, the name of the position changed from "cognizant dean" to "senior associate dean" for the natural sciences.)
"I am grateful to Marty for agreeing to serve the school in this important leadership role," said Sharon Long, dean of the School of Humanities and Sciences. "I am confident that he will serve the natural sciences cluster—and the school—with genuine distinction."
Fejer received a bachelor's degree in physics in 1977 from Cornell University and both his master's degree in 1979 and his doctorate in 1986 in applied physics from Stanford, where he has served as an acting assistant professor (1986-1989), assistant professor (1989-1993), associate professor (research) (1994-2000) and professor of applied physics.
Since 2000 he served as co-director, with Professors Robert Byer and David A. B. Miller, of the Stanford Photonics Research Center. He also has served on the Faculty Senate and chaired the Ginzton Laboratory Safety Committee and the University Committee on Health and Safety.
Fejer's research interests focus on the physics of nonlinear optical materials and devices and their applications in sensing, communications and precision measurements. His expertise covers a wide range of topics, including micro- and nanostructured ferroelectrics and semiconductors, nonlinear interactions in solids, guided-wave and nonlinear optical devices, optical signal processing, ultrafast optics and precision optical measurements.
Author of 277 technical publications, Fejer is a fellow of the Optical Society of America and member of the Institute of Electrical and Electronics Engineers, the American Association for Crystal Growth and the International Society for Optical Engineering. One of Stanford's most prolific inventors, he holds 30 patents. With Byer, he was awarded the R. W. Wood Prize of the Optical Society of America in 1998.
The following is a listing of presentations, short courses and posters in the CLEO 2005 program involving members of Prof. Fejer's group
- CMC3:
Multi-Color Spatial Solitons through Seeded Optical Parametric Amplification Tailored with Chirped-Period Quasi-Phase-Matching Gratings
- CTuY6:
1.5 um Photon-Counting Optical Time Domain Reflectometry with a Single-Photon Detector Using up-Conversion in a PPLN Waveguide
- CTuFF3:
Experimental Demonstration of Code Translation in Spectrally Phase Coded O-CDMA
- CWE1:
Mid-IR Continuum from an Optical Parametric Generator based on Orientation-Patterned GaAs (OP-GaAs)
- CWE5:
Widely Tunable Difference Frequency Generation in a Multi-Grating Orientation-Patterned GaAs
- CWM1:
Terahertz-Wave Generation in Periodically-Inverted GaAs
- CThQ1:
Orientation-Patterned GaAs and Its Applications
- CThP7:
Ultra-Sensitive Second-Harmonic Generation Frequency-Resolved Optical Gating at 1.55um by Aperiodically Poled Lithium Niobate Waveguides
- QThJ1:
Highly Efficient Single-Photon Detection at Communication Wavelengths Using Upconversion in Reverse Proton Exchanged PPLN Waveguides
- CFK2:
Fully Dispersion Compensated ~500 fs Pulse Transmission Over 50 km SMF and Application to Ultrafast O-CDMA
Last week the Office of Technology Licensing held a reception to honor Stanford's most prolific inventors - specifically those with more than 7 revenue producing inventions that have yielded more than $500k in royalties. Of the 27 inventors honored from the whole University, 10 were from the Ginzton Lab, namely
Shinya Akamine, Ralph Bergh, Dave Bloom, Bob Byer, Michel Digonnet, Marty Fejer, Pierre Khuri-Yakub, Gordon Kino, Cal Quate, and John Shaw
This represents a remarkable set of achievements by these inventors. It is also a powerful endorsement of the creativity of an independent lab spanning Science and Engineering, and of the interactive culture fostered within it by these and the many other outstanding individuals in the Ginzton Lab. Please join me in congratulating them.
David Miller
Director, Ginzton Laboratory