BU alumnus Dr. David Freedman is Co-Founder and CEO of NexGen Arrays,
Learn more about selected research topics (archived, present, and future plans) and capabilities of some of our Photonics faculty laboratories.
- Quantum Communication & Measurement (QCM) Laboratory
- Integrated Photonics Laboratory
- Optical Characterization and Nanophotonics (OCN) Laboratory
- Laboratory for Microsystems Technology (LMST)
- Precision Engineering Research Laboratory (PERL)
- Wide Bandgap Semiconductor Laboratory (WBSL)
- ECE Photonics Research
Research in the Quantum Communication & Measurement (QCM) Laboratory focus on fundamentals of quantum optics and quantum information processing with the purpose of developing quantum-optical communication networks and engineering novel ultra-precise measurement techniques in nano-photonics and life sciences that outperform conventional solutions. Experimental projects include quantum cryptography in metropolitan network, super-resolution phase sensors based on quantum dispersion cancellation effect, quantum imaging and microscopy with spatial aberration cancellation, quantum spectroscopic ellipsometry for characterizing nanoscale devices in semiconductor industry and proteomics, high-resolution fluorescent correlation spectroscopy and microscopy.
Research and development projects at QCM Laboratory concentrate on:
*Quantum optical device engineering using parametric amplification in specially designed periodically polled nonlinear structures, entanglement manipulation and processing on a chip, micro- and nano-photonics, ultra-fast quantum optics;
*High-performance single-photon detection and correlation measurement in a wide spectral range from ultraviolet to mid-infrared and terahertz;
*Quantum information processing, quantum communication and cryptography, linear-optical quantum computing, quantum networks;
* Quantum bio-photonics: characterization and diagnostic of biological materials and devices in life sciences, picosecond-resolution fluorescent correlation spectroscopy in the visible and in the infrared spectral range for early disease diagnostic.
The Quantum Communication & Measurement Laboratory is located in PHO B15(A/B)
Professor Alexander Sergienko, email@example.com
Research in the Integrated Photonics Laboratory focuses on the development of integrated photonic technologies for optical communications, microwave photonics, and sensing. Specific research areas include silicon photonics, lasers for silicon photonics, integrated nanophotonics based on 2D materials and novel plasmonics, ultrafast modulation and photodetection, photonics for microwave signal processing, transceivers for optical interconnects, photonic networks on chip for high-performance computing, electronic-photonics integration, and integrated optical signal processing based on nonlinear optics. Group members engage in simulation and design of nanophotonic devices and photonics integrated circuits, nanofabrication, packaging, and characterization.
The Integrated Photonics Laboratory is located in PHO 735.
Professor Jonathan Klamkin, firstname.lastname@example.org
The stated mission of the Optical Characterization and Nanophotonics (OCN) Laboratory focuses on developing and applying advanced optical characterization techniques to the study of solid-state and biological phenomena at the nanoscale.
Nanophotonics addresses a broad spectrum of optics on the nanometer scale covering technology and basic science. Compared to the behavior of isolated molecules or bulk materials, the behavior of nanostructures exhibit important physical properties not necessarily predictable from observations of either individual constituents or large ensembles.
The stated mission of the Laboratory for Microsystems Technology is to apply materials science, micro/nanomechanics, as well as micro/nanomanufacturing technologies to solve various engineering problems that are motivated by practical applications in MEMS/NEMS and emerging nanobiotechnologies.
This laboratory takes a quantitative approach to designing micro/nanosystems, using both analytical and numerical modeling to gain fundamental understanding of the technologies that are created. The designs are then taken through micro/nanomanufacturing to characterization and packaging and to testing.
Xin Zhang, email@example.com
The stated mission of the Precision Engineering Research Laboratory (PERL) is to study sensing, control, and fabrication at the limits of achievable precision.
Areas of interest include microelectromechanical systems (MEMS), nanometer-scale actuation, micromachining, design of optical arrays, and microfluidics. Analytical and numerical modeling analysis is completed prior to building new MEMs structures in an attempt to predict stress, strain, and uniform movement of optical arrays.
Thomas Bifano, firstname.lastname@example.org
The stated mission of the Wide Bandgap Semiconductor Laboratory (WBSL) is to study the growth, fundamental material properties, and fabrication of novel electronic and opto-electronic devices.
The lab specializes in III-nitride growth by Molecular Beam Epitaxy(MBE) and Hydride Vapor Phase Epitaxy(HVPE). It has a history in the development of LEDs and currently continues to focus on LEDs and semiconductor lasers in the blue-UV region of the electromagnetic spectrum.
Theodore Moustakas, email@example.com