About the possibility to build a 10-PW femtosecond laser for ELI-NP till 2015 Razvan Dabu National Institute for Lasers, Plasma and Radiation Physics Bucharest.

Slides:



Advertisements
Similar presentations
1 Journées Scientifiques de lEDOM March 8, fs laser chain based on optical parametric chirped pulse amplification Lourdes Patricia Ramirez Equipe.
Advertisements

Vulcan Front End OPCPA System
Rutherford Appleton Laboratory Three mechanisms interact to cause ion acceleration in PW laser interactions Relativistic electrons expelled by the ponderomotive.
Central Laser Facility
Development of a High-Energy Seed for Contrast Improvement of the Vulcan Laser Facility. Ian Musgrave, W. Shaikh, M. Galimberti, A. Boyle, K Lancaster,
1 LOA-ENSTA. 2 3 For PW class laser, a contrast better than is required I ASE has to be < W/cm² The ASE intensity is enough to generate.
Cavity preparation Hadi mohieldin. Conventional cavity preparation. Draw back”
Strecher, compressor and time structure manipulation
Components of ultrafast laser system
ELI-NP Conceptual Design Report
Investigations on Applicability of Dielectric Mirrors for ITER Orlovskiy, Konstantin Vukolov Ilya Orlovskiy, Konstantin Vukolov 10 th ITPA Meeting Group,
High energy, high repetition rate pump laser system for OPCPAs A.-L. Calendron 1,2,3, L. E. Zapata 1,4, H. Çankaya 1,2, H. Lin 4 and F. X. Kärtner 1,2,3,4.
THALES OptroniqueICUIL 2010, Watkins Glen Key enabling technologies for compact high repetition rate Petawatt laser systems based on Titanium Sapphire.
The Intensity-Pulse Duration Conjecture: ELI’s Lynchpin ELI-NP: The Way Ahead Bucharest March 10, 2011 Gérard Mourou, Institut de Lumière Extrême 28/02/11mourou.
Characteristic evaluation of new laser crystals Rui Zhang ACCL Division V, RF-Gun Group Feb 20, 2015 SuperKEKB Injector Laser RF Gun Review.
Dye lasers The gain medium in a dye lasers is a solution made with an organic dye molecule. The solution is intensely coloured owing to the very strong.
Large Multilayer Diffraction Gratings: Coating Uniformity Senior Student: Erik Krous Project Advisor: Dr. Carmen Menoni Collaborators: Dr. D. Patel, Dr.
Ultrafast Spectroscopy
J. Fils for the PHELIX team GSI Helmholtzzentrum für Schwerionenforschung, Darmstadt, Germany Sept Speyer EMMI Workshop The PHELIX High Energy.
Prof. Dr. Dr. h. c. R. Sauerbrey | Scientific Director | The HZDR Program towards a Helmholtz beamline at XFEL Roland Sauerbrey Helmholtz-Zentrum.
Random phase noise effect on the contrast of an ultra-high intensity laser Y.Mashiba 1, 2, H.Sasao 3, H.Kiriyama 1, M.R.Asakawa 2, K.Kondo 1, and P. R.
Ultrafast Experiments Hangwen Guo Solid State II Department of Physics & Astronomy, The University of Tennessee.
ILE OSAKA New Concept of DPSSL - Tuning laser parameters by controlling temperature - Junji Kawanaka ILE OSAKA US-Japan Workshop on Laser-IFE March.
30. Nov I.Will, G. Klemz, Max Born Institute: Optical sampling system Optical sampling system for detailed measurement of the longitudinal pulse.
Extracting During Pumping Ti: Sapphire Amplifiers for ELI Vladimir Chvykov 1, Mikhail Kalashnikov 1,2, Karoly Osvay 1 1 ELI-Hu Nkft., Dugonics ter 13,
Second ELI Nuclear Physics Workshop Bucharest – Magurele, 1-2 February 2010 ULTRASHORT PULSE, HIGH INTENSITY LASERS Dan C. Dumitras, Razvan Dabu Department.
DMP Product Portfolio Femtosecond Lasers Trestles Ti:Sapphire lasers …… fs; nm, mW Mavericks Cr:Forsterite lasers
High Harmonic Generation in Gases Muhammed Sayrac Texas A&M University.
Palaiseau - FRANCE Spatio-Temporal Chirped Pulse Amplification for Avoiding Spectral Modifications in Ultra-Short Petawatt Lasers C. Radier1,2, F. Giambruno1,3,
A 5 fs high average power OPCPA laser system for attosecond pulse production Philip Bates, Yunxin Tang, Emma Springate and Ian Ross Central Laser Facility,
30 Nov. 06 I.Will et al., Max Born Institute: Long trains of flat-top laser pulses Photocathode lasers generating long trains of flat-top pulses Ingo Will,
Multi-GeV laser driven proton acceleration in the high current regime Laser-driven acceleration is living a major revolution (PW era)… …but will ever be.
CLEO2004 K. L. Ishikawa No. 0 Enhancement in photoemission from He + by simultaneous irradiation of laser and soft x-ray pulses Kenichi L. Ishikawa Department.
M. Zamfirescu, M. Ulmeanu, F. Jipa, O. Cretu, A. Moldovan, G. Epurescu, M. Dinescu, R. Dabu National Institute for Laser Plasma and Radiation Physics,
Folienvorlagen für Seminarvortrag. Novel laser concepts HR-mirror out coupling mirror disc cooling diode laser focusing optic diode laser focusing optic.
Imperial College London Imperial College XUV Attosecond Beamline: progress and results to date Charles Haworth Laser Consortium Imperial College London.
EO sampling technique for femtosecond beam characterization
Development of High-efficiency Yb:YAG Regenerative Amplifier for Industry Isao Matsushima 1, Kazuyuki Akagawa² 1. National Institute of Advanced Industrial.
1.Stable radiation source 2.Wavelength selector 3.Transparent sample holder: cells/curvettes made of suitable material (Table 7- 2) 4.Radiation detector.
Yb:YAG Regenerative Amplifier for A1 Ground Laser Hut Rui Zhang ACCL Division V, RF-Gun Group Nov 20, 2015 SuperKEKB Injector Laser RF Gun Review.
Nonlinear optical effect in the soft x-ray region by two-photon ionization of He + Nonlinear optical effect in the soft x-ray region by two-photon ionization.
Laser System Upgrade Overview
ELI-NP: The Way Ahead, Bucharest, March 2011 Modeling propagation of femtosecond laser pulses in ionized gas media Valer TOSA National Intitute for.
TOWARD GENERATION OF HIGH POWER ULTRAFAST WHITE LIGHT LASER USING FEMTOSECOND TERAWATT LASER IN A GAS-FILLED HOLLOW-CORE FIBER Walid Tawfik Physics and.
Short pulse oscillator
Conclusions of the Workshop Nicolae – Victor Zamfir.
Extreme Light Infrastructure in Romania: progress Daniel URSESCU Technical contact point for ELI in Romania INFLPR, Magurele, Romania.
Workshop for advanced THz and Compton X-ray generation
Operated by the Southeastern Universities Research Association for the U.S. Dept. of Energy Thomas Jefferson National Accelerator Facility FEL Power Achieved.
Date of download: 6/25/2016 Copyright © 2016 SPIE. All rights reserved. (a) Schematic of the noncollinear optical parametric amplification (NOPA) geometry.
10fs laser pulse propagation in air Conclusion The properties of femtosecond laser pulse propagation over a long distance (up to 100m) were studied for.
Yb:YAG Regenerative Amplifier for A1 Ground Laser Hut Rui Zhang ACCL Division V, RF-Gun Group Nov 20, 2015 SuperKEKB Injector Laser RF Gun Review.
Status of the SPARC laser and “dazzler” experiments
WP4 – Laser Design and Optimization.
LASER SAFETY External EHS Expert Panel Workshop
Using a digital micromirror device for high-precision laser-based manufacturing on the microscale Please use the dd month yyyy format for the date for.
Current Situation of Yb:YAG Laser at A1 Ground Laser Hut
Laser System Upgrade Overview
ILC/ATF-2 Laser System Sudhir Dixit (JAI, Oxford)
Single and dual wavelength Er:Yb double clad fiber lasers
Date of download: 11/8/2017 Copyright © ASME. All rights reserved.
Nd:YAG Solid Laser 3-2 / A-1 on the ground
Two color FEL experiment
Business Development Manager, Bucarest 2011
Principle of Mode Locking
Kansas Light Source Upgrade
RF-Gun for Phase-II RF Gun 10, June, 2016.
Short focal length target area: X-ray & ion sources and applications
Kansas Light Source Laser System J. R. Macdonald Laboratory
LCLS Injector Laser System Paul R. Bolton, SLAC April 24, 2002
Presentation transcript:

About the possibility to build a 10-PW femtosecond laser for ELI-NP till 2015 Razvan Dabu National Institute for Lasers, Plasma and Radiation Physics Bucharest Workshop ELI-NP, Bucharest, March 11, 2011

A.Basic solution: High energy CPA in Ti:sapphire crystals. B. Back-up solution: CPA in mixed Nd doped glasses (silicate & phosphate glasses) Possible solutions for a 10-PW femtosecond laser system At present, both solutions involve technical difficulties and bottlenecks Workshop ELI-NP, Bucharest, March 11, 2011

Solution A – bottlenecks and technical difficulties: 1.Large size Ti:sapphire crystals. 2.Large size, high damage threshold compression gratings. 3.Broad bandwidth high damage threshold high reflection dielectric coatings. 4.Optically synchronized Front-End including high energy and high repetition rate Yb:YAG pump lasers for OPCPA. 5.High repetition rate pump lasers for power amplifiers (including technical solutions, large size LBO crystals for SHG, beam homogenizers). 6.Large size adaptive optics. Workshop ELI-NP, Bucharest, March 11, 2011

Solution B – bottlenecks and technical difficulties: 1. High energy short pulse amplification with sufficient bandwidth to generate pulses of ~ 100 fs pulse duration. 2. Pulse compression of high energy (>1 kJ) pulses (tiled system with high damage threshold multilayer dielectric gratings). 3. High intensity contrast (> 10^12) of the focused beams. 4. Thermal management of Nd:glass media for good repetition rate (1 pulse/min – 1 pulse/10 sec). 5. Large size mirrors. 6. Large size adaptive optics. Workshop ELI-NP, Bucharest, March 11, 2011

If we consider an optimistic probability of 80% for each of these 6 problems to be resolved in the next 2-3 years, the probability to overcome the whole system bottlenecks and technical difficulties is 26% until For 90% → 53% Moreover, there is an engineering question: it is possible to accomplish the laser system development in the remaining time till the end of 2015? It seems unlikely. Risk evaluation Workshop ELI-NP, Bucharest, March 11, 2011

I. There is an entity (Company, Research Institute, International Consortium, etc.) able to assume the risk to build till 2015 a laser system with the following specifications? Peak power ≥ 10 PW Central wavelength: in the range nm Pulse duration: < 150 fs Repetition rate: higher than 1 pulse/min (higher than 1 pulse/10 s?) Intensity contrast ≥ 10^12 Strehl ratio ≥ 0.6 Peak intensity of the focused beam ≥ 10^23 W/cm2. Delivery time ≤ 48 months under contract terms including: - milestones; - deliverables; - acceptance tests; - guarantee, penalties, repayment guarantee, etc. Workshop ELI-NP, Bucharest, March 11, 2011 Project implementation – version I

II. Two-stage project implementation (in the frame of an International Consortium managed by a Company with experience in femtosecond laser systems manufacturing?): First stage: contract for a 2- 4 PW (?) laser system development, based on already existing techniques at T 0 (project start moment), with the deadline on the end of middle of 2014 year. Second stage: In the meantime (till 2014) and after 2014, R&D to build a multi-PW laser with the target to reach 10 PW in 2015 or later. Workshop ELI-NP, Bucharest, March 11, 2011 Project implementation – version II

CONCLUSIONS 1.Without delay: discussions with the potential producers to find out if there is some entity able to assume the risk of building a 10-PW laser system under a contract based on well established conditions. 2.In case of a negative answer, to apply the two-stage project implementation. Workshop ELI-NP, Bucharest, March 11, 2011