Patents by Inventor STÉPHANE PAYEUR
STÉPHANE PAYEUR has filed for patents to protect the following inventions. This listing includes patent applications that are pending as well as patents that have already been granted by the United States Patent and Trademark Office (USPTO).
-
Patent number: 11981977Abstract: A method and a system, the system, comprising a laser source, a ionization and acceleration unit, a separation unit, and a collecting unit, wherein the laser source comprises a large bandwidth laser delivering successive pulses of fixed central wavelength and bandwidth to a surface of a target positioned inside the ionization and acceleration unit, surface atoms of the target being ionized by the pulses, accelerated from the surface of the target to a kinetic energy in the range between 100 eV and 10 KeV, and focused to the separation unit, the separation unit separating received atoms into different ions species, and the collecting unit separately collecting the different ion species.Type: GrantFiled: January 6, 2021Date of Patent: May 14, 2024Assignee: INSTITUT NATIONAL DE LA RECHERCHE SCIENTIFIQUEInventors: Stéphane Payeur, François Légaré, Jean-Claude Kieffer
-
Patent number: 11362474Abstract: In a general aspect, quantum electrodynamic (QED) interactions are generated using a parabolic transmission mirror. In some aspects, a system for generating a QED interaction includes an optical pulse generator and a vacuum chamber. The vacuum chamber includes a parabolic transmission mirror in an ultra-high vacuum region within the vacuum chamber. The parabolic transmission mirror is configured to produce the QED interaction in the ultra-high vacuum region based on an optical pulse from the optical pulse generator. The parabolic transmission mirror includes an optical inlet at a first end and an optical outlet at a second, opposite end. The parabolic transmission mirror also includes a parabolic reflective surface about an internal volume of the parabolic transmission mirror between the first and second ends. The parabolic reflective surface extends from the optical inlet to the optical outlet and defines a focal point outside the internal volume of the parabolic transmission mirror.Type: GrantFiled: July 10, 2018Date of Patent: June 14, 2022Assignee: Infinite Potential Laboratories LPInventors: Steve MacLean, Stephane Payeur, Francois Filion-Gourdeau, Sylvain Fourmaux, Joey Dumont
-
Publication number: 20210207242Abstract: A method and a system, the system, comprising a laser source, a ionization and acceleration unit, a separation unit, and a collecting unit, wherein the laser source comprises a large bandwidth laser delivering successive pulses of fixed central wavelength and bandwidth to a surface of a target positioned inside the ionization and acceleration unit, surface atoms of the target being ionized by the pulses, accelerated from the surface of the target to a kinetic energy in the range between 100 eV and 10 KeV, and focused to the separation unit, the separation unit separating received atoms into different ions species, and the collecting unit separately collecting the different ion species.Type: ApplicationFiled: January 6, 2021Publication date: July 8, 2021Inventors: Stéphane PAYEUR, François LÉGARÉ, Jean-Claude KIEFFER
-
Patent number: 10840667Abstract: A method and a system for laser pulse wavefront correction and focusing optimization for laser Wakefield interaction to accelerate electrons to high energy, and more generally for laser matter interaction where both far field and intermediate field optimization are important, allowing a robust wavefront correction and focusing optimization with a high-power laser system at its nominal laser pulse energy and laser pulse duration. The method comprises, after laser beam focusing by focusing optics, coupling an imaging unit to a wavefront sensor, thereby measuring the laser beam wavefront, and adjusting the measured laser beam wavefront to converge to a reference wavefront of the imaging unit using a spatial phase-modifying device.Type: GrantFiled: November 29, 2018Date of Patent: November 17, 2020Assignee: INSTITUT NATIONAL DE LA RECHERCHE SCIENTIFIQUEInventors: Sylvain Fourmaux, Stéphane Payeur, Jean-Claude Kieffer
-
Publication number: 20200133016Abstract: In a general aspect, quantum electrodynamic (QED) interactions are generated using a parabolic transmission mirror. In some aspects, a system for generating a QED interaction includes an optical pulse generator and a vacuum chamber. The vacuum chamber includes a parabolic transmission mirror in an ultra-high vacuum region within the vacuum chamber. The parabolic transmission mirror is configured to produce the QED interaction in the ultra-high vacuum region based on an optical pulse from the optical pulse generator. The parabolic transmission mirror includes an optical inlet at a first end and an optical outlet at a second, opposite end. The parabolic transmission mirror also includes a parabolic reflective surface about an internal volume of the parabolic transmission mirror between the first and second ends. The parabolic reflective surface extends from the optical inlet to the optical outlet and defines a focal point outside the internal volume of the parabolic transmission mirror.Type: ApplicationFiled: July 10, 2018Publication date: April 30, 2020Applicant: Infinite Potential Laboratories LPInventors: Steve MACLEAN, Stephane PAYEUR, Francois Filion-Gourdeau, Sylvain FOURMAUX, Joey Dumont
-
Patent number: 10396522Abstract: In a general aspect, a chirped optical pulse is compressed by operation of diffraction gratings and a dispersive mirror having a smooth reflective surface. In some aspects, a chirped pulse laser system includes a programmable optical dispersive filter (PODF) operable to modify a spectral phase of optical pulses and a pulse compressor that receives an optical pulse based on an output of the PODF. The pulse compressor includes optical elements in a vacuum chamber. The optical elements define an optical path through the pulse compressor, and are arranged to disperse the optical pulse in the optical path. The optical elements include diffraction gratings and a dispersive mirror, which has a smooth reflective surface that defines a portion of the optical path.Type: GrantFiled: December 15, 2016Date of Patent: August 27, 2019Assignee: Infinite Potential Laboratories LPInventors: Stephane Payeur, Sylvain Fourmaux, Jean Claude Kieffer, Steve MacLean
-
Publication number: 20190165538Abstract: A method and a system for laser pulse wavefront correction and focusing optimization for laser Wakefield interaction to accelerate electrons to high energy, and more generally for laser matter interaction where both far field and intermediate field optimization are important, allowing a robust wavefront correction and focusing optimization with a high-power laser system at its nominal laser pulse energy and laser pulse duration. The method comprises, after laser beam focusing by focusing optics, coupling an imaging unit to a wavefront sensor, thereby measuring the laser beam wavefront, and adjusting the measured laser beam wavefront to converge to a reference wavefront of the imaging unit using a spatial phase-modifying device.Type: ApplicationFiled: November 29, 2018Publication date: May 30, 2019Inventors: SYLVAIN FOURMAUX, STÉPHANE PAYEUR, JEAN-CLAUDE KIEFFER
-
Publication number: 20190115711Abstract: In a general aspect, a chirped optical pulse is compressed by operation of diffraction gratings and a dispersive mirror having a smooth reflective surface. In some aspects, a chirped pulse laser system includes a programmable optical dispersive filter (PODF) operable to modify a spectral phase of optical pulses and a pulse compressor that receives an optical pulse based on an output of the PODF. The pulse compressor includes optical elements in a vacuum chamber. The optical elements define an optical path through the pulse compressor, and are arranged to disperse the optical pulse in the optical path. The optical elements include diffraction gratings and a dispersive mirror, which has a smooth reflective surface that defines a portion of the optical path.Type: ApplicationFiled: December 15, 2016Publication date: April 18, 2019Applicants: Infinite Potential Laboratories LP, Institut National de la Recherche Scientifique (INRS)Inventors: Stephane PAYEUR, Sylvain FOURMAUX, Jean Claude KIEFFER, Steve MACLEAN
-
Patent number: 9484702Abstract: A method comprising using a pulse shaper in the spectral domain to generate multiple-color pulses directly at the output of the laser amplifier. The delay can thus be controlled directly in the spectral domain and there is no need for an optical delay line. The method allows reducing the number of optical components and insures insensitivity to alignment, vibrations and turbulence on long distance propagation and filamentation, particularly in air. The method allows programmable and tunable interaction, since the pulse shaper is able to control the laser spectral amplitude and phase.Type: GrantFiled: March 23, 2012Date of Patent: November 1, 2016Assignee: INSTITUT NATIONAL DE LA RECHERCHE SCIENTIFIQUEInventors: Stéphane Payeur, Philippe Lassonde, Jean-Claude Kieffer, Francis Théberge, Marc Chàteauneuf, Jacques Dubois
-
Patent number: 8558199Abstract: A method for generating an ultrashort charged particle beam, comprising creating a high intensity longitudinal E-field by shaping and tightly focusing, in an on-axis geometry, a substantially radially polarized laser beam, and using the high intensity longitudinal E-field for interaction with a medium to accelerate charged particles.Type: GrantFiled: December 21, 2012Date of Patent: October 15, 2013Assignee: Institut National de la Recherche Scientifique (INRS)Inventors: Stephane Payeur, Sylvain Fourmaux, Jean-Claude Kieffer, Michel Piche, Jean-Philippe MacLean, Christopher Tchervenkov
-
Publication number: 20120243564Abstract: A method comprising using a pulse shaper in the spectral domain to generate multiple-color pulses directly at the output of the laser amplifier. The delay can thus be controlled directly in the spectral domain and there is no need for an optical delay line. The method allows reducing the number of optical components and insures insensitivity to alignment, vibrations and turbulence on long distance propagation and filamentation, particularly in air. The method allows programmable and tunable interaction, since the pulse shaper is able to control the laser spectral amplitude and phase.Type: ApplicationFiled: March 23, 2012Publication date: September 27, 2012Inventors: STÉPHANE PAYEUR, PHILIPPE LASSONDE, JEAN-CLAUDE KIEFFER, FRANCIS THÉBERGE, MARC CHÂTEAUNEUF, JACQUES DUBOIS