Telecommunications

Advanced Photonic Materials and Devices Lab

Dr. Nasser Peyghambarian. The Laboratory for Advanced Photonic Materials and Devices develops materials and devices for photonics and telecommunication applications. One current research project is the development of next generation eye glasses using adaptive optics and electroactive polymers. Another project involves fabrication of organic photorefractive polymers and injection molding technology for holographic optical storage application. Study of hybrid structures are also being conducted in which sol-gel optics are designed and tested for applications in micro-optical elements, waveguides, pixel arrays, DWDM components, combiners and routers, and high speed modulators. Another project involves the study of polymer and molecular structures in which molecular and polymeric light emitting devices are developed with transport, fluorescent and phosphorescent materials. An application under development is a hybrid device involving micro-pixel CMOS driven OLED.  This research is partially supported by TRIF, Arizona’s Technology & Research Initiative Funding enterprise:  http://www.optics.arizona.edu/TRIF.

Integrated Optics

Dr. Seppo Honkanen. This lab houses equipment for characterization of integrated optical waveguides and devices. Students and faculty members work on a variety of projects in which planar waveguides are developed for telecommunication and sensor applications.  This research is partially supported by TRIF, Arizona’s Technology & Research Initiative Funding enterprise:  http://www.optics.arizona.edu/TRIF.

Photonics Systems Laboratory

Dr. Raymond Kostuk. Research includes ion-exchange waveguide design and fabrication for telecom and sensor application, high performance grating design and fabrication for optical filters, fiber optics system design, and photonic bandgap device design. Instrumentation includes high speed fiber optic test and measurement equipment, grating fabrication capability, a fiber optic systems simulator, BPM and FTDT design tools, tunable lasers for telecom wavelengths, optical amplifiers, and fiber optic components.

Photonic Telecommunication Systems

Dr.-Ing. Franko Kueppers. Research includes Ultra-high-speed Fiber-optic Transmission (from data rates of 10 Gbit/s/l and conventional non-return-to-zero NRZ modulation format to 160 Gbit/s optical time division multiplexing OTDM with return-to-zero RZ modulation), Photonic Telecommunication Systems (link design, dispersion management, non-linear effects and solitons) and Optical Networks (adaptive compensation technologies for chromatic dispersion, polarization mode dispersion etc. in transparent and dynamic WDM networks). The corresponding laboratory (Photonic Telecommunication Systems Laboratory) is equipped with design and simulation software and a state-of-the-art fiber-optic testbed which includes transmission (standard mono-mode fiber SMF plus dispersion compensating fiber DCF, cw and picosecond pulse laser sources covering the S-, C- and L-band) as well as measurement capabilities (space resolved attenuation OTDR, chromatic dispersion, polarization mode dispersion, bit error rate and eye analysis, standard and high-resolution instruments for both, time and frequency domain).This research is partially supported by TRIF, Arizona’s Technology & Research Initiative Funding enterprise:  http://www.optics.arizona.edu/TRIF.