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Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan and France-Korea Particle Physics Laboratories(TYL-FKPPL) Clermont-Ferrand May 29, 2012

Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

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Page 1: Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

Plasma Acceleration at IZEST:Large-Energy Laser and High-Average Power Laser

toward High Energy Physics

T. Tajima IZEST

Joint Workshop of the France-Japan and France-KoreaParticle Physics Laboratories(TYL-FKPPL)

Clermont-FerrandMay 29, 2012

Page 2: Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

2

1. Fundamental physics with intense lasers2. Laser acceleration to high energies (100GeV, TeV and beyond): need for large-energy laser (PETAL @ LMJ)3. Collider and Low Luminosity Paradigm4. High-average power lasers (ICAN Project)5. Low-energy new fields: Frontier of large number of coherent photons: Dark Matter and Dark Energy fields ‘Shake the vacuum’ by degenerate 4 (laser) wave mixing 6. Mission of IZEST: kJ [large photon number (=Avogadro number)] laser (PETAL) + high-average power laser (ICAN) toward fundamental physics in the international networking (with many willing labs to cover broad parameters)

Page 3: Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

20th Century, the Electron CenturyBasic Research Dominated by

Massive and Charged Particles (electronics)

J.J. ThompsonJ. J. Thomson

Page 4: Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

21st Century; the Photon CenturyCould basic research be driven

by the massless and chargeless particles; Photons (photonics)?

C. Townes ToCCwnes

Page 5: Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

IZEST’s Missions

• An international endeavor to unify the high Intensity laser and the high energy / fundamental physics communities to draw

“The Roadmap of Ultra High Intensity Laser”

and apply it to “Laser-Based Fundamental Physics”

・  To form an international team of scientists that can foster and facilitate scientific missions of EW/ZW class lasers and high average power lasers (ICAN) comprised from ICFA and ICUIL communities (in collab)

See more:www.int-zest.com/

Also: Tajima and Mourou PR STAB(2002)

Page 6: Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

IZEST

Laser intensity exponentiates over years

ELI :www.extreme-light-infrastructure.eu/

Tajima and Mourou (2002)revised

Page 7: Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

Laser Wakefield (LWFA): relativity regulates

Kelvin wake

Wave breaks at v < cNo wave breaks and wake peaks at v≈c

(The density cusps.Cusp singularity)(The density cusps.Cusp singularity)

(Plasma physics vs.superstring theory)

← relativity regularizes

Maldacena (string theory) method: QCD wake (Chesler/Yaffe 2008)

Hokusai

Maldacena

Page 8: Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

8

Density scalings of

LWFA

for collider

_______________________ _____

(Nakajima, PR STAB, 2011) 1017 /cc (conventional) → 1015 /cc

_________________________________________ _________

Page 9: Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

Nakajima, LeGarrec

First Workshop on100GeV IZEST Project: May 31-June 1, ’12 @ Bordeaux

Page 10: Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

Fiber vs. Bulk lasers

• High Gain fiber amplifiers allow ~ 50% total plug-to-optical output efficiency (reachable).

• Single mode fiber amplifier have reached multi-kW optical power.

• large bandwidth (100fs)

• immune against thermo-optical

problems

• excellent beam quality

• efficient, diode-pumped operation

• high single pass gain

• They can be mass-produced at low

cost. 10€/W today and 10C/W in15

years

Page 11: Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

FA AOM

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FA AOM

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FA AOM

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FA BPF

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Pump

LMA Double-clad Yb-fiber

Stage I(1 branch)

Stage II(128 branches)

Stage III(16384 branches)

Stage IV(1048576 branches)

Stage V(1048576 branches)

SM Fiber Amplifier LMA Fiber Amplifier

Isolator

Yb-fiber

WDM

Pumpdiode

~1-nJ ~100-nJ ~320-nJ ~1-μJ ~1-μJ ~1-mJ

+ ~20-dBGain

+ ~30-dB

Insertion- 25-dB

Insertion- 22-dB

1:128 splitter

1:128 splitter

1:64 splitter

Insertion- 25-dB Gain

+ ~30-dBGain

+ ~22-dBGain

+ ~30-dB

PC

CAN (Coherent AmplifyingNetwork): high average power high efficiency

(Mourou)

Page 12: Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

Dark Matter / Dark Energy (Quantum Gravity Vacuum)

• Weakly interacting particles like axion or axion-like, U(1) gauge bosons with low mass in the sub-electron volt?

• Nonlinear effect in large electromagnetic fields: light shinning through a wall much more sensitive new technique.• Ultralight ultraweak coupling fields of quantum gravity origin (Dark Energy

candidate) in ~ nano-electron volts?

Page 13: Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

13

Beyond QED Beyond QED photonphoton--photonphoton interaction interaction

√ g

√ gM-1

mass m

M-1

√ g

√ g

FFgM 1

FFgM

~1

Resonance in quasi-parallel collisions in low cms energy

If M~MPlanck, Dark Energy

QCD-instanton, Dark Matter

])~

(7)(4[360

1 222

4

FFFF

mLQED

Away from 4 : 7 = QCD , low-mass scalar , or pseudoscalar

FFFF

~

K.Homma, D.Habs, T.Tajima (20121, 2012)

Quantum anomaly

Page 14: Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

+z

w0

x

x

x

Degenerate Four-Degenerate Four-WaveWave Mixing (DFWM) Mixing (DFWM)

Decay into (4-x)ω can be induced by frequency-mixing

.

14

K.Homma, D.Habs, T.Tajima Appl. Phys. B (2012)

(4-x)ω=2+2-xresonance

Laser-induced nonlinear optics in vacuum (cf. Nonlinear optics in crystal)

Wirth et al. (Science 2011: synthesized light transients)

Sweep by arbitraryfrequency x

(signal) ~ N1 N2 N3 / τ

Page 15: Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

PhotonPhoton mixer to new fields: mixer to new fields:Dark Matter and Dark Energy Dark Matter and Dark Energy in a single shot (with rep-rate such as in a single shot (with rep-rate such as ICAN/IZESTICAN/IZEST, far lower detection limit possible) , far lower detection limit possible)

15 mass of coupling [eV]

Stre

ngth

of c

oupl

ing

[1/G

eV]

GravitationalCoupling ( Dark Energy)

SHG200J15fs

QCD axion (Dark matter)

DFWM200J 1.5ns

DFWM200J15fs.IZEST

K.Homma, D.Habs, T.Tajima (2012)

Page 16: Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

Log10(Energy Density) [g/cm3]

Log

10(S

yste

m S

ize)

[cm

]

Horizon

proton LCLHCRHIC

Co

sm

olo

gic

al

ob

serv

ati

on

High energycollider

Sun

Galaxy

Laser fits the gaping holein search of unknown fields:

dark matter/dark energy

16 Homma, Habs, Tajima (2012)

ESchwinger

ELI

Domains ofDomains of physical lawsphysical laws

Evading detections, Possible fields here

Page 17: Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

Conclusions•Frontier of fundamental high-energy physics high-intensity lasers •100GeV proof-of-principle experiment at PETAL(10kJ laser): ‘IZEST’s 100GeV Ascent Workshop’ (Bordeaux, May 31-June 1)•For future colliders: High Average-power lasers (fiber lasers) = Coherent Amplification Network (ICAN: funded by EU---CERN, KEK participants)•Search of Dark Matter(axion-like particles) and Dark Energy Degenerate 4 wave mixing method: started IZEST collaboration•High sensitivity of the coherent large photon number: Luminosity (per shot) N3/ τ [N the number of laser photons (~Avogadro number), τ the pulse length]: N3/ τ ~ 1070 (N3f/ τ when rep-rate f is applied, could be greater than 1080 per year)

Page 18: Plasma Acceleration at IZEST: Large-Energy Laser and High-Average Power Laser toward High Energy Physics T. Tajima IZEST Joint Workshop of the France-Japan

Merci Beaucoup!(Optical)

Cosmic PeV accelerating machineCrab nebula: opticsX-rays

Acknowledgments for Collaboration: G. Mourou, W. Leemans, K. Nakajima, K. Homma, P. Bolton, M. Kando, S. Bulanov, T. Esirkepov, J. Koga, F. Krausz, E. Goulielmakis, D. Habs, B. LeGarrec, C.. Barty, D. Payne, H. Videau, P. Martin, W. Sandner, A. Suzuki, M. Teshima, R. Assmann, R. Heuer, A. Caldwell, S. Karsch, F. Gruener, M. Somekh, J. Nilsson, W. Chou, F. Takasaki, M. Nozaki, D. Payne, A. Chao, J.P. Koutchouk, Y. Kato, X. Q. Yan, C. Robilliard, T. Ozaki, J. Kieffer, N. Fisch, D. Jaroszynski, A. Seryi, T. Kuehl, H. Ruhl, C. Klier, Y. Cao, B. Altschul, T. Seggebrock, K. Kondo, H. Azechi, K. Mima, M. Yoshida, T. Massard, A. Ipp