Nuclear Fusion with Polarized Fuel

Similar documents
Experiment POLFUSION

Introduction to Polarized Fusion

First experiments with the polarized internal gas target at ANKE/COSY

Laser in Fusion. Department of Electronics of TEI of Crete. Dr Petridis Kostantinos Lecturer Optoelectronics, Laser and Plasma Technologies Group

Ion Acceleration from the Interaction of Ultra-Intense Laser Pulse with a Thin Foil

Polarized Molecules: A new Option for Internal Storage-Cell Targets?

General Physics (PHY 2140)

A Virtual Reactor Model for Inertial Fusion Energy. Michel Decroisette Noël Fleurot Marc Novaro Guy Schurtz Jacques Duysens

Inertial Confinement Fusion DR KATE LANCASTER YORK PLASMA INSTITUTE

The PETAL+ project X-ray and particle diagnostics for plasma experiments at LMJ - PETAL

Materials for Future Fusion Reactors under Severe Stationary and Transient Thermal Loads

Integrated simulations of fast ignition of inertial fusion targets

Thomas Kuehl. GSI Helmholtz Center Darmstadt Helmholtz Institute Jena JoGu University Mainz. IZEST- Workshop Livermore July

References and Figures from: - Basdevant, Fundamentals in Nuclear Physics

Chapter IX: Nuclear fusion

Fukuoka, Japan. 23 August National Ignition Facility (NIF) Laboratory for Laser Energetics (OPERA)

Notes on fusion reactions and power balance of a thermonuclear plasma!

Status and Prospect of Laser Fusion Research at ILE Osaka University

What is. Inertial Confinement Fusion?

The MIT Accelerator for development of ICF diagnostics at OMEGA / OMEGA-EP and the NIF

PHY492: Nuclear & Particle Physics. Lecture 8 Fusion Nuclear Radiation: β decay

Unpressurized steam reactor. Controlled Fission Reactors. The Moderator. Global energy production 2000

Laser Inertial Confinement Fusion Advanced Ignition Techniques

Weibel instability and filamentary structures of a relativistic electron beam in plasma

Energetic neutral and negative ion beams accelerated from spray target irradiated with ultra-short, intense laser pulses

ULTRA-INTENSE LASER PLASMA INTERACTIONS RELATED TO FAST IGNITOR IN INERTIAL CONFINEMENT FUSION

Calibration and applications of modern track detectors CR-39/PM-355 in nuclear physics and high temperature plasma experiments

Introduction to Fusion Physics

Fast Ignition Experimental and Theoretical Researches toward Fast Ignition Realization Experiment (FIREX)

Ion Polarization in RHIC/eRHIC

Prospects for a Storage Ring EDM-Facility at COSY

D-D FUSION NEUTRONS FROM A STRONG SPHERICAL SHOCK WAVE FOCUSED ON A DEUTERIUM BUBBLE IN WATER. Dr. Michel Laberge General Fusion Inc.

Update on Fast Ignition Fusion Energy

Charged-Particle Spectra Using Particle Tracking on a Two-Dimensional Grid. P. B. Radha, J. A. Delettrez, R. Epstein, S. Skupsky, and J. M.

THE DOUBLE-POLARIZED DD-FUSION EXPERIMENT + DETECTOR SYSTEM

Multi-GeV electron acceleration using the Texas Petawatt laser

Monoenergetic Proton Beams from Laser Driven Shocks

ICF ignition and the Lawson criterion

SIMULATION OF LASER INDUCED NUCLEAR REACTIONS

Modeling Nonlinear Optics Of Plasmas (Relevant To IFE)

Development of a table top TW laser accelerator for medical imaging isotope production

Laser Ion Acceleration: Status and Perspectives for Fusion

Neutronic design of the ESS targetmoderatorreflector. Luca Zanini For the ESS target division and in-kind collaborators

Fast ion physics in the C-2U advanced, beam-driven FRC

The PAX experiment. Paolo Lenisa Università di Ferrara and INFN - Italy. Tbilisi, July 10 th PAX - Polarized Antiprotons

Integrated Modeling of Fast Ignition Experiments

Neutron Sources Fall, 2017 Kyoung-Jae Chung Department of Nuclear Engineering Seoul National University

Plasma Wall Interactions in Tokamak

How to Prepare an Experiment using the Gamma Beam System at ELI-NP

An Overview of Laser-Driven Magnetized Liner Inertial Fusion on OMEGA

Generation and application of ultra-short high-intensity laser pulses

The Magnetic Recoil Spectrometer (MRSt) for time-resolved measurements of the neutron spectrum at the National Ignition Facility (NIF)

Towards 100 MeV proton generation using ultrathin targets irradiated with petawatt laser pulses

Relevant spatial and time scale in tokamaks. F. Bombarda ENEA-Frascati, FSN-FUSPHY-SAD

TWO FUSION TYPES NEUTRONIC ANEUTRONIC

Ignition Regime and Burn Dynamics of D T-Seeded D 3 He Fuel for Fast Ignition Inertial Confinement Fusion

Inertial Confinement Fusion

First Results from Cryogenic-Target Implosions on OMEGA

PIC simulations of laser interactions with solid targets

X ray and XUV phase contrast diagnostics for ELI NP

Progress in Vlasov-Fokker- Planck simulations of laserplasma

High Energy Density Physics related to Inertial Fusion with Intense Ion and Laser Beams at GSI and FAIR in Darmstadt

Status and Perspectives of Hadron Physics in Europe. Forschungszentrum Jülich in der Helmholtz-Gemeinschaft

HiPER: a laser fusion facility for Europe

Scaling Hot-Electron Generation to High-Power, Kilojoule-Class Lasers

Aspects of Advanced Fuel FRC Fusion Reactors

Inertial Fusion Energy Technolgy

Storage Ring Based EDM Search Achievements and Goals

Measurements of Radiation Doses Induced by High Intensity Laser between and W/cm 2 onto Solid Targets in LCLS MEC Instrument

D-D NUCLEAR FUSION PROCESSES INDUCED IN POLYEHTYLENE BY TW LASER-GENERATED PLASMA

High-energy collision processes involving intense laser fields

University of Alberta And. Edmonton, November 4, 2017

Determination of Hot-Electron Conversion Efficiencies and Isochoric Heating of Low-Mass Targets Irradiated by the Multi-Terawatt Laser

Heavy ion fusion energy program in Russia

Numerical Modeling of Radiative Kinetic Plasmas

Application of Proton Radiography to High Energy Density Research

The MIT Nuclear Products Generator for development of ICF diagnostics at Omega / Omega EP and the NIF

Non-cryogenic ICF-target

The MEC endstation at LCLS New opportunities for high energy density science

High-Performance Inertial Confinement Fusion Target Implosions on OMEGA

Relativistic Laser self-focusing

Polar Direct-Drive Simulations for a Laser-Driven HYLIFE-II Fusion Reactor. Katherine Manfred

Nuclear Reactions A Z. Radioactivity, Spontaneous Decay: Nuclear Reaction, Induced Process: x + X Y + y + Q Q > 0. Exothermic Endothermic

Robust energy enhancement of ultra-short pulse laser accelerated protons from reduced mass targets

Magnetic Confinement Fusion and Tokamaks Chijin Xiao Department of Physics and Engineering Physics University of Saskatchewan

Magnetized High-Energy-Density Plasma

Magnetic Confinement Fusion-Status and Challenges

Axion dark matter search using the storage ring EDM method

Pellet Injector for Inertial Fusion

POLARIZED DEUTERONS AT THE NUCLOTRON 1

PONDEROMOTIVE ION ACCELERATION AND FAST ION IGNITION WITH ULTRAINTENSE LASER PULSES

Possibilities for a Bose-Einstein Condensed Positronium Annihilation Gamma Ray Laser

PolFusion: Polarized Fuel for Fusion Reactors

Laser trigged proton acceleration from ultrathin foil

Proton acceleration in thin foils with micro-structured surface

Progress in Direct-Drive Inertial Confinement Fusion Research

Laser-based proton sources for medical applications

Measurement of the plasma astrophysical S factor for the 3 He(D, p) 4 He reaction in exploding molecular clusters

Measurements of Radiation Doses Induced by High Intensity Laser between and W/cm 2 onto Solid Targets at LCLS MEC Instrument

Scientific Case for Ultra-intense Laser-Matter Interaction Physics in Solid-density Plasma

Transcription:

Mitglied der Helmholtz-Gemeinschaft Nuclear Fusion with Polarized Fuel -Some thoughts on the PREFER collaboration - Workshop on Nuclear Fusion with Polarized Fuel Ferrara 2/3 October 2017 Markus Büscher

Polarized Fusion Workshop: Warm-up 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 2

CO 2 Emissions and Global Warming *) *) for 4 global warming Source: O.Edenhofer(TU Berlin) Erkenntnisseausdem5. Sachstandsberichtdes IPCC KolloquiumFZJ Jülich, 14.01.2015 Alternative sources of energy (base load) w/o CO 2 emission? 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 3

Fusion Energy: What You Find on Google Binds resources that are needed for the fight against climate change The material and technical challenges are extreme The return on renewables has been very much higher. Because renewable technologies are newer, there might still be stones unturned in terms of research Nuclear fusion is 30 years away, and always will be. That's the refrain we've heard, again and again for decades. 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 4

Moore s Law 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 5

The Lawson Criterion Condition for a fusion reactor: E(Fusion) > E(Heating, ) n"τ $ > 12k )T E, σ, v n: ion density τ $ : confinement time T: ion temperature E, : Energy per fusion σ, : fusion cross section v: ion velocity Density and confinement time large 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 6

Magnetic Confinement Fusion Plasma density n= 10 14 cm 3 ; confinement time τ E = 100 s ITER (>2025) 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 7

Inertial Confinement Fusion Plasma density n= 10 26 cm 3 ; confinement time τ E = 10 10 s 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 8

National Ignition Facility (NIF) 192 Laser (Nd:Glass) 423 TW peak power 1.8 MJ energy Target chamber = 10 m https://lasers.llnl.gov 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 9

Laser-induced Production of Fusion-like Plasmas Target Particle beam µm-sized plasma Multi-TW Laser 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 10

Fusion Reactions in Laser-induced Plasmas Here: D + D 3 He + n Experiment @ Max-Planck-InstitutfürQuantenoptik(CD 2 foil target) 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 11

The Lawson Criterion Revisited n"τ $ > 12k )T E, σ, v n: ion density τ $ : confinement time T: ion temperature E, : Energy per fusion σ, : fusion cross section v: ion velocity External parameters : pressure, temperature, confinement time Intrinsic parameter : fusion cross sectionσ f can this be changed from outside???? 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 12

Fusion Reactions è è è D + D 3 He + n + 3,3 MeV D + D T + p + 4, 0 MeV D + T 4 He + n +17, 6 MeV D + 3 He 4 He + p +18,3 MeV 3 He + 3 He 4 He + 2 p +12, 9 MeV è è most promising candidates for fusion reactors no neutrons from a fusion reactor operated with pure 3 He fuel ( 4 He and protons only) 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 13

Polarized Fusion: First Ideas See also: The status of polarized fusion, H. Paetz gen. Schieck, Eur. Phys. J. A 44, 321 354 (2010) 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 14

Polarized Fusion: Increased Total Cross Section Helv. Phys. Acta 44, 141 (1971) E I He+d He+p total cross section enhancedby factor 1.5 @430 kev 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 15

Polarized Fusion: Increased Energy Yield Here: inertial fusion Energy yield Enhancement by factor 4 with polarized fuel Relative fusion cross section From: M. Temporal et al.; Priv. comm. 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 16

Polarized Fusion: Angular Distributions Measurements @Basel 1971: D + 3 He 4 He + p Helv. Phys. Acta 44, 141 (1971) Emitted Protons (Neutrons) can be guided (even if only Deuterons are polarized) 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 17

The PolFusionProject (2015 / ERC proposal) Measure the polarization dependence of fusion rates in laser-induced relativistic plasmas 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 18

2016: Approval of a DFG-RSF project 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 19

2017: The PREFER Collaboration Polarization Research for Fusion Experiments and Reactors 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 20

PREFER: Work Packages (1) Measurement of ddcross section / PolFusionexperiment (PNPI, Ferrara) Talk by Peter Kravtsov 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 21

PREFER: Work Packages (2) Theory / Scattering of two spin-1 particles (PNPI) Talk by Polina Kravchenko 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 22

PREFER: Work Packages (3) Polarized molecular beam source (BINP) Talk by DimitriiToporkov 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 23

PREFER: Work Packages (4) Construction & test of a Lamb-shift polarimeter (HHUD, FZJ, Ferrara) Talk by Ralf Engels 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 24

PREFER: Work Packages (5) Foils of frozen polarized Hydrogen (HHUD, FZJ, BINP) D 2 ice T= 3-10K Cold Head Production of 1 day (>10 21 molecules) is enough to feed a Tokamak for seconds!! 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 25

PREFER: Work Packages (6) Theory / Nuclear spins in Laser-induced plasmas (HHUD) Thomas-BMT equation Sokolov-Ternov effect Stern-Gerlacheffect PIC codes 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 26

PREFER: Work Packages (7) Nuclear Spins in Laser-induced Plasmas / Experiments (HHUD, FZJ) Multi-TW laser beam Fusion reactions (pol.) Target Does the fusion rate depend on the target polarization? Accelerated Ions µm-sized relativistic plasma Are the accelerated ions polarized? Angular dependence of fusion products? 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 27

Generation of Polarized Particle Beams Possible scenarios: Polarization is generated spin flip Stern-Gerlacheffect Polarization is preserved 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 28

Polarized 3 He Gas Glass vessels surrounded by permanent magnets (Univ. Mainz) / max. pressure 3 bar Talk by IlhanEngin 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 29

PHELIX @ GSI Darmstadt Petawatt High-Energy Laser for Heavy Ion EXperiments Flashlamp-pumped Nd:glasssystem Repetition rate: 1 shot per 1.5 hours Long pulse Short pulse Pulse duration 0.7 20 ns 0.4 20 ps Pulse energy 300 1000 J 250 J Max. intensity 10 16 W/cm 2 2 10 21 W/cm 2 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 30

Polarized Protons from Unpolarized Gas Targets SIOM/Shanghai: Planned measurements at a 10 PW laser Polarimeter for 3 He ions I.Engin et al., DOI: 10.1007/978-3-319-39471-8_5 Magnetic field distribution during bubble acceleration B.Shenet al., Phys.Rev. ST AB 12, 121301 (2009) 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 31

Proton Polarimetry (@3 MeV) 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 32

PREFER: Work Packages Who else?? 2 Oct 2017 Workshop on Nuclear Fusion with Polarized Fuel Markus Büscher 33