Donna Strickland

• Intense laser-matter interactions
• Nonlinear optics
• Short-pulse, intense laser systems

Ultrashort pulse generation through multi-frequency Raman generation

We are investigating the nonlinear optical technique of multi-frequency Raman generation, (MRG).  In MRG, a large number of Raman orders spanning from infrared to ultraviolet are generated by pumping a molecular gas with two strong pumps having a frequency separation matching the vibrational or rotational frequency.  Waterloo's ultrafast laser group has developed a high intensity, two-colour, Ti:sapphire laser, which is an ideal source for studying MRG. This coherent nonlinear interaction allows the Raman orders to be phased together to generate a train of very short pulses, approaching single femtosecond durations, which can be used to make "freeze frame" movies of molecular motion.

Two-colour fiber laser system for mid-infrared generation

The spectral region from 6 to 25µm is known as the "molecular fingerprint region" because almost every molecule has a distinctive signature in its absorption spectra at these wavelengths.  Along with applications in environmental monitoring and medical applications, this spectral region is becoming increasingly important for trace gas detection of explosives. At Waterloo, we are developing a two-colour, short pulse fiber laser system to generate mid-infrared wavelengths across the fingerprint region by difference frequency mixing the two laser outputs in a nonlinear crystal. Currently we have generated sub-picosecond mid-infrared pulses with over 1mW of average power with wavelengths tunable from 16 to 20 µm.

Self-focusing in the crystalline lens

In a collaborative project with Prof. Melanie Campbell and Prof. Joe Sanderson, we are studying the role of self-focusing and multi-photon ionization on micro-cavity bubble formation within the crystalline lens. Micromachining of the crystalline lens of the eye has become an active area of research to determine if the elasticity of the lens can be improved by creating microbubbles within the lens to possible cure the condition of Presbyopia.

• PHYS 115, Mechanics 

"A tunable mid-infrared source (16-20 μm) from an ultrafast two-color", M. Hajialamdari, D. Strickland, Opt. Lett. 37,3570-3572, (2012)

"Two-color fiber amplifier for short-pulse mid-infrared Generation", R. Romero-Alvarez, R. Pettus, Z. Wu and D. Strickland Opt. Lett. 33, 1065-1067 (2008)

"Anti-Stokes Enhancement of Multi-Frequency Raman Generation in a Dispersion-Matched Hollow Fibre" F.C. Turner and D. Strickland Opt. Lett. 33, 405-407 (2008)

"Multi-frequency parametric IR Raman generation in KGd(WO₄)₂ crystal with biharmonic ultrashort pulse pumping",
 L. L. Losev, J. Song, J. F. Xia, Z. and D. Strickland, V. V. Brukhanov, Opt. Lett. 27, 2100-2102 (2002)

"Development of a dual-wavelength Ti:sapphire multi-pass amplifier and its application to intense mid-infrared generation",
 J. F. Xia , J. Song, and D. Strickland, Opt. Commun. 206, 149-157 (2002)

"Dual wavelength chirped pulse amplification system",
 Z. Zhang, A. M. Deslauriers and D. Strickland, Opt. Lett. 25, 581 (2000)

Please see Google Scholar for a complete list of Dr. Strickland's publications.

• 2018 Nobel Prize in Physics “for groundbreaking inventions in the field of laser physics” for the "method of generating high-intensity, ultra-short optical pulses.”
• 2008 Fellow of the Optical Society of America
• 2000 Cottrell Scholars Award from Research Corporation
• 1999 Premier’s Research Excellence Award
• 1998 Alfred P. Sloan Research Fellowship

• Education Program for Photonics Professionals

• 2014 OSA Board of Directors
• 2013 President, OSA
• ​2011 Vice-President, OSA
• 2008-2011 OSA-appointed representative to the International Commission for Optics (ICO) Board
• 2005-2007 Director at Large, OSA Board of Directors
• 2004-2010 topical editor, Optics Letters

The following news stories have featured Dr. Strickland's research:

• December 4, 2011: Packing a laser punch
• November 18, 2010: University of Waterloo marks 50th anniversary of the laser with public lecture

1989 PhD Physics (optics), University of Rochester, Rochester, NY

1981 B.Eng Engineering Physics, McMaster University, Hamilton, Ontario