Maxim Abashin
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Maxim Abashin has a total of 17 co-authors. Here are the top co-authors by number of shared publications:
- Kazuhiro Ikeda
National Institute of Advanced Industrial Science and Technology (AIST)
4 shared publications - Yeshaiahu Fainman
Univ Calif San Diego, Dept Elect & Comp Engn, La Jolla, CA 92093 USA
3 shared publications - Uriel Levy
Institute of Applied Physics The Faculty of Science The Center for Nanoscience and Nanotechnology The Hebrew University of Jerusalem Jerusalem Israel
2 shared publications Yeshaiahu Fainman
University of California
2 shared publications- Anna Devor
Boston University
1 shared publication Ashok Krishnamoorthy
Sun Microsystems, San Diego, CA
1 shared publication
Latest Publications
- 1 January 2015
- Published by Optica Publishing Group
Non-degenerate multiphoton microscopy for deep brain imaging
- 1 January 2015
- Published by Optica Publishing Group
Non-degenerate multiphoton microscopy for deep brain imaging
- 20 April 2009
- Published by Optica Publishing Group in Optics Letters
- Vol. 34 (9) , 1327-1329
Heterodyne near-field scanning optical microscopy with spectrally broad sources
We propose to use low-coherence-length cw optical sources with a broad spectrum in heterodyne near-field scanning microscopy in order to imitate optical pulse propagation and to obtain information about spectrally variant properties of nanophotonic components. The dispersion difference in the interferometer arms for a symmetric acousto-optic modulator arrangement is shown to be negligible over appreciable bandwidths. Demonstration of the principle of operation and viability of this approach is provided by measurement of the group refractive index of a silicon channel waveguide.
- 20 April 2009
- Published by Optica Publishing Group in Optics Letters
- Vol. 34 (9) , 1327-1329
Heterodyne near-field scanning optical microscopy with spectrally broad sources
We propose to use low-coherence-length cw optical sources with a broad spectrum in heterodyne near-field scanning microscopy in order to imitate optical pulse propagation and to obtain information about spectrally variant properties of nanophotonic components. The dispersion difference in the interferometer arms for a symmetric acousto-optic modulator arrangement is shown to be negligible over appreciable bandwidths. Demonstration of the principle of operation and viability of this approach is provided by measurement of the group refractive index of a silicon channel waveguide.
- 1 January 2009
- Published by Optica Publishing Group
- p. IMD6
Nanoscale Optical Field Localization by Resonantly Focused Plasmons
A plasmonic resonant nano-focusing-antenna has been experimentally integrated with a Si waveguide to effectively convert an incoming waveguide mode to a localized plasmon mode and focus light in an ultra-small volume in all 3 dimensions.
- 1 January 2009
- Published by Optica Publishing Group
- p. IMD6
Nanoscale Optical Field Localization by Resonantly Focused Plasmons
A plasmonic resonant nano-focusing-antenna has been experimentally integrated with a Si waveguide to effectively convert an incoming waveguide mode to a localized plasmon mode and focus light in an ultra-small volume in all 3 dimensions.
- 24 August 2007
- Published by Optica Publishing Group in Optics Letters
- Vol. 32 (17) , 2602-2604
Effects produced by metal-coated near-field probes on the performance of silicon waveguides and resonators
We study the effects of metal-coated fiber near-field probes on the performance of nanophotonic devices. Employing a heterodyne near-field scanning optical microscope and analyzing transmission characteristics, we find that a metal-coated probe can typically introduce a intensity loss and a phase shift during characterization of a straight waveguide made in a silicon-on-insulator system. In resonant nanophotonic structures such as a radius microring resonator, we demonstrate that the probe induces a shift in resonant wavelength and decreases the resonator quality factor, Q, from 1100 to 480.- 24 August 2007
- Published by Optica Publishing Group in Optics Letters
- Vol. 32 (17) , 2602-2604
Effects produced by metal-coated near-field probes on the performance of silicon waveguides and resonators
We study the effects of metal-coated fiber near-field probes on the performance of nanophotonic devices. Employing a heterodyne near-field scanning optical microscope and analyzing transmission characteristics, we find that a metal-coated probe can typically introduce a intensity loss and a phase shift during characterization of a straight waveguide made in a silicon-on-insulator system. In resonant nanophotonic structures such as a radius microring resonator, we demonstrate that the probe induces a shift in resonant wavelength and decreases the resonator quality factor, Q, from 1100 to 480.- 1 October 2006
- Published by Institute of Electrical and Electronics Engineers (IEEE)
- p. 645-646
Devices Utilizing Free-space Optics on a Chip
In this paper we generalize this concept further by locally modulating the effective refractive index to engineer various optical device functionalities on a chip and demonstrate experimentally example devices validating this approach
- 1 October 2006
- Published by Institute of Electrical and Electronics Engineers (IEEE)
- p. 645-646
Devices Utilizing Free-space Optics on a Chip
In this paper we generalize this concept further by locally modulating the effective refractive index to engineer various optical device functionalities on a chip and demonstrate experimentally example devices validating this approach
- 1 January 2006
- Published by Optica Publishing Group
- p. FWI1
Subwavelength Optics: From Expanding Scalar Optics Limits to On-Chip Integration
We demonstrate novel optical devices for controlling vector optical fields in free space, as well as new concept for "free space on a chip" using subwavelength structures etched into a slab waveguide.
- 1 January 2006
- Published by Optica Publishing Group
- p. FWI1
Subwavelength Optics: From Expanding Scalar Optics Limits to On-Chip Integration
We demonstrate novel optical devices for controlling vector optical fields in free space, as well as new concept for "free space on a chip" using subwavelength structures etched into a slab waveguide.