Beating spatio-temporal coupling: Implications for pulse shaping and coherent control experiments

Diffraction of finite sized laser beams imposes a limit on the control that can be exerted over ultrafast pulses. This limit manifests as spatio-temporal coupling induced in standard implementations of pulse shaping schemes. We demonstrate the influence this has on coherent control experiments that...

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Autores principales: Brinks, D., Hildner, R., Stefani, F.D., Van Hulst, N.F.
Formato: JOUR
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Acceso en línea:http://hdl.handle.net/20.500.12110/paper_10944087_v19_n27_p26486_Brinks
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spelling todo:paper_10944087_v19_n27_p26486_Brinks2023-10-03T16:05:11Z Beating spatio-temporal coupling: Implications for pulse shaping and coherent control experiments Brinks, D. Hildner, R. Stefani, F.D. Van Hulst, N.F. Diffraction Laser beams Coherent control Detection volume Diffraction limits Orders of magnitude Pulse stretching Single molecule Spatio temporal Ultrafast pulse Pulse shaping nanomaterial article chemical model chemistry computer simulation genetic procedures light radiation scattering signal processing Computer Simulation Light Models, Chemical Molecular Probe Techniques Nanostructures Scattering, Radiation Signal Processing, Computer-Assisted Diffraction of finite sized laser beams imposes a limit on the control that can be exerted over ultrafast pulses. This limit manifests as spatio-temporal coupling induced in standard implementations of pulse shaping schemes. We demonstrate the influence this has on coherent control experiments that depend on finite excitation, sample, and detection volumes. Based on solutions used in pulse stretching experiments, we introduce a double-pass scheme that reduces the errors produced through spatio-temporal coupling by at least one order of magnitude. Finally, employing single molecules as nanoscale probes, we prove that such a double pass scheme is capable of artifact-free pulse shaping at dimensions two orders of magnitude smaller than the diffraction limit. © 2011 Optical Society of America. JOUR info:eu-repo/semantics/openAccess http://creativecommons.org/licenses/by/2.5/ar http://hdl.handle.net/20.500.12110/paper_10944087_v19_n27_p26486_Brinks
institution Universidad de Buenos Aires
institution_str I-28
repository_str R-134
collection Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
topic Diffraction
Laser beams
Coherent control
Detection volume
Diffraction limits
Orders of magnitude
Pulse stretching
Single molecule
Spatio temporal
Ultrafast pulse
Pulse shaping
nanomaterial
article
chemical model
chemistry
computer simulation
genetic procedures
light
radiation scattering
signal processing
Computer Simulation
Light
Models, Chemical
Molecular Probe Techniques
Nanostructures
Scattering, Radiation
Signal Processing, Computer-Assisted
spellingShingle Diffraction
Laser beams
Coherent control
Detection volume
Diffraction limits
Orders of magnitude
Pulse stretching
Single molecule
Spatio temporal
Ultrafast pulse
Pulse shaping
nanomaterial
article
chemical model
chemistry
computer simulation
genetic procedures
light
radiation scattering
signal processing
Computer Simulation
Light
Models, Chemical
Molecular Probe Techniques
Nanostructures
Scattering, Radiation
Signal Processing, Computer-Assisted
Brinks, D.
Hildner, R.
Stefani, F.D.
Van Hulst, N.F.
Beating spatio-temporal coupling: Implications for pulse shaping and coherent control experiments
topic_facet Diffraction
Laser beams
Coherent control
Detection volume
Diffraction limits
Orders of magnitude
Pulse stretching
Single molecule
Spatio temporal
Ultrafast pulse
Pulse shaping
nanomaterial
article
chemical model
chemistry
computer simulation
genetic procedures
light
radiation scattering
signal processing
Computer Simulation
Light
Models, Chemical
Molecular Probe Techniques
Nanostructures
Scattering, Radiation
Signal Processing, Computer-Assisted
description Diffraction of finite sized laser beams imposes a limit on the control that can be exerted over ultrafast pulses. This limit manifests as spatio-temporal coupling induced in standard implementations of pulse shaping schemes. We demonstrate the influence this has on coherent control experiments that depend on finite excitation, sample, and detection volumes. Based on solutions used in pulse stretching experiments, we introduce a double-pass scheme that reduces the errors produced through spatio-temporal coupling by at least one order of magnitude. Finally, employing single molecules as nanoscale probes, we prove that such a double pass scheme is capable of artifact-free pulse shaping at dimensions two orders of magnitude smaller than the diffraction limit. © 2011 Optical Society of America.
format JOUR
author Brinks, D.
Hildner, R.
Stefani, F.D.
Van Hulst, N.F.
author_facet Brinks, D.
Hildner, R.
Stefani, F.D.
Van Hulst, N.F.
author_sort Brinks, D.
title Beating spatio-temporal coupling: Implications for pulse shaping and coherent control experiments
title_short Beating spatio-temporal coupling: Implications for pulse shaping and coherent control experiments
title_full Beating spatio-temporal coupling: Implications for pulse shaping and coherent control experiments
title_fullStr Beating spatio-temporal coupling: Implications for pulse shaping and coherent control experiments
title_full_unstemmed Beating spatio-temporal coupling: Implications for pulse shaping and coherent control experiments
title_sort beating spatio-temporal coupling: implications for pulse shaping and coherent control experiments
url http://hdl.handle.net/20.500.12110/paper_10944087_v19_n27_p26486_Brinks
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