Postdoctoral researcher
NSF Nanoscale Science and Engineering Center
University of California, Berkeley
Phone: (510) 643 - 4972 (Lab), (415) 533 - 9208 (Cell)
pengzhang.npu@gmail.com
Education:
Ph.D in Precise Instrument and Mechanics
2003-2009 Northwestern Polytechnical University, China
M.S. in Optical Engineering 2001-2004 Northwestern Polytechnical University, China
B.S. in Applied Physics 1997-2001 Northwestern Polytechnical University, China
Work Experience:
1/2011- present UC Berkeley, Postdoctoral scholar
5/2009- 12/2010 San Francisco State University, Postdoctoral scholar
5/2006-4/2009 Northwestern Polytechnical University, Lecturer
4/2004-4/2006 Northwestern Polytechnical University, Teaching assistant
Research Interest:
Nano-photonics, plasmonics and metamaterials
Optical manipulations
Nonlinear optics in periodic structures
Optical solitons
Selected Publications:
1. Peng Zhang, et al. Reconfigurable 3D photonic lattices by optical induction for optical control of beam propagation. Applied Physics B 2011, 104: 553-560. (Invited paper)
2. Peng Zhang, et al. Plasmonic Airy beams with dynamically controlled trajectories. Optics Letters 2011, 36: 3191-3193. (Featured in OSA Press Release, LBL News, OPN, and Laser Focus World)
3. Peng Zhang, et al. Trapping and guiding micro-particles with morphing auto-focusing Airy beams. Optics Letters 2011, 36: 2883-2885.
4. Peng Zhang, et al. Trapping and transporting aerosols with a single optical bottle beam generated by moiré techniques. Optics Letters 2011, 36: 1491-1493.
5. Peng Zhang, et al. Generation and nonlinear self-trapping of optical propelling beams. Optics Letters 2010, 35: 3129-3131. (Featured as cover story)
6. Peng Zhang, et al. Observation of coherent destruction of tunneling and unusual beam dynamics due to negative coupling in three-dimensional photonic lattices. Optics Letters 2010, 35: 3252-3254.
7. Peng Zhang, et al. Tuning of Bloch modes, diffraction and refraction by two-dimensional lattice reconfiguration. Optics Letters 2010, 35: 892-894.
8. Peng Zhang, et al. Incomplete Brillouin zone spectra and controlled Bragg reflection with ionic-type photonic lattices. Phys. Rev. A Rap. Commun. 2010, 81: 041801(R).
9. Peng Zhang, et al. Optical induction of three-dimensional photonic lattices and enhancement of discrete diffraction. Optics Express 2009, 17: 13151-13156.
10. Peng Zhang, et al. Hybrid nonlinearity supported by nonconventionally biased photorefractive crystal. Applied Physics B 2009, 95: 559-563.
11. Peng Zhang, et al. Band-gap engineering and light manipulation with reconfigurable egg-crate photonic lattices. December special issue Optics and Photonics News: Optics in 2008 2008, 19: 25.
12. Peng Zhang, et al. Optically induced transition between discrete and gap solitons in a nonconventionally biased photorefractive crystal. Optics Letters 2008, 33: 878-880.
13. Peng Zhang, et al. Elliptical discrete solitons supported by enhanced photorefractive anisotropy. Optics Express 2008, 16: 3865-3870.
14. Peng Zhang, et al. Elliptical solitons in nonconventionally biased photorefractive crystals, Optics Express 2007, 15: 536-544.
15. Peng Zhang, et al. One-dimensional spatial dark soliton-induced channel waveguides in lithium niobate crystal. Applied Optics 2006, 45: 2273-2278.
16. Peng Zhang, et al. Photo-written waveguides in iron-doped lithium niobate crystal employing binary optical masks. Optical Engineering 2006, 45: 074603.
17. Peng Zhang, et al. Refractive index changes induced by sheet beams with various intensity distributions in LiNbO3:Fe crystal. Science in China G 2005, 48: 399-412.
18. Peng Zhang, et al. Light-induced array of three-dimensional waveguides in lithium niobate employing two-beam interference field. Chinese Physics Letters 2004, 21: 1558-1561.
19. Peng Zhang, et al. Optical masks prepared by using liquid crystal light valve for light-induced photorefractive waveguides. Applied Optics 2003, 42: 4208-4211.
20. Peng Zhang, et al. Optically induced photorefractive waveguides in KNSBN:Ce crystal. Optical Materials 2003, 23: 299-303.
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