Presentation List
| Paper No. | Author | Title |
| KN1 | Yosiaki Kato | Laser Fusion and High Field Science in Japan and in Asia |
| KN2 | Keith Matzen | Status and Plans in the United States Inertial Confinement Fusion Program |
| KN3 | Yves Caristan | INERTIAL FUSION SCIENCE IN EUROPE |
| F1 | Hiroshi Azechi | The FIREX Program on the Way o Inertial Fusion Energy |
| F2 | Edward Moses | Ignition on the national Ignition Facility |
| F3 | Didier Besnard | The Megajoule Laser Program : Fusion at hand |
| TuPl1 | David Harding | Cryogenic Target-Implosion Experiments on OMEGA |
| TuPl2 | Jie Zhang | Emerging applications of ultraintense lasers in science |
| TuPl3 | Jeffrey Atherton | Targets for the National Ignition Campaign |
| TuPl4 | Yasukazu Izawa | EUV Light Source by Laser-Produced Plasma |
| WPl1 | Larry Suter | Developing an optimal ignition hohlraum for the National Ignition Facility (NIF) |
| WPl2 | Wey Yang Zhang | Recent Progress and Future Prospects for IFE in China |
| WPl3 | Patrick rené Aude | Space and time resolved X-ray absorption spectroscopy of well characterize warm dense plasma produced |
| WPl4 | Katsumi Midorikawa | Nonlinear Interaction of Intense XUV Pulses with Atoms and Molecules Dawn of Attosecond Nonlinear Op |
| ThPl1 | Kenichi Ueda | Ceramic Lasers for IFE Driver |
| ThPl2 | Raymond Jeanloz | Laser-Shocks and High-Density Condensed-Matter Equations of State |
| ThPl3 | Victor Malka | Laser plasma accelerator: towards a high quality electron beam |
| ThPl4 | Nigel Woolsey | Laboratory plasma astrophysics simulation experiments using lasers |
| FPl1 | John Lindl | NIF Ignition Capsule Design, Requirements, Margins, and Uncertainties |
| FPl2 | boris Sharkov | Heavy-Ion Beam Drivers |
| FPl3 | Noriaki Miyanaga | 10-kJ PW Laser LFEX: Technological Challenges and Construction Update |
| FPl4 | Mike Dunne | HiPER : The European path to laser fusion and related plasma science |
| MO1.1 | Debra A Callahan | Optimization of the NIF Ignition Point Design Hohlraum |
| MO1.2 | Nathan B. Meezan | Target designs for energetics experiments on the National Ignition Facility |
| MO1.3 | Catherine H. Cherfils | New designs of LMJ targets for early ignition experiments |
| MO1.4 | Nelson M. Hoffman | Tuning NIF Drive Symmetry with Ignition Replicas and Symmetry Benchmarks |
| MO1.5 | Marc Vandenboomga | Rugby-shaped hohlraum for inertial confinement fusion |
| MO2.1 | Peter Andrew Norreys | Fast electron transport in solid density plasmas for focused intensities up to 5×10^20 Wcm^-2 |
| MO2.2 | Hiroaki Nishimura | X-ray polarization spectroscopy to study energy transport in ultra-high intensity laser produced plasmas |
| MO2.3 | Alexander P.L. Robins | Artificial Collimation of Fast Electrons with Two Laser Pulses |
| MO2.4 | Yutong Li | Fast electron transport in high-intensity laser-plasma interactions diagnosed by optical and ion emission |
| MO2.5 | Laurent Gremillet | An exact linear kinetic model of the fully relativistic current filamentation instability with smooth distribution functions |
| MO3.1 | Chris Haynam | The National Ignition Facility 2007 Laser Performance Status |
| MO3.2 | Jacques EBRARDT | LMJ laser facility status |
| MO3.3 | Junji Kawanaka | 2.9-kJ Chirped-Pulse Power Amplification in the LFEX laser |
| MO3.4 | Drew N. Maywar | OMEGA EP High-Energy Petawatt Laser: Progress and Prospects |
| MO3.5 | John Collier | The Astra Gemini Project: A High Repetition Rate Dual Beam Petawatt Laser Facility |
| MO3.6 | William H. Goldstein | Lawrence Livermore National Laboratory's Jupiter Laser Facility |
| TuO1.1 | Valeri Goncharov | Modeling High-Compression, Direct-Drive, ICF Experiments |
| TuO1.2 | Brian K. Spears | Influence and measurement of mass ablation in ICF implosions |
| TuO1.3 | Otto L. Landen | Experimental Studies of ICF Indirect-Drive Be and High Density Carbon Candidate Ablators |
| TuO1.4 | Rick E. Olson | Ablation Rate Measurements for ICF Capsule Materials |
| TuO2.1 | Ryosuke Kodama | High Energy Density Plasma Photonics |
| TuO2.2 | julien soulya fuchs | Laser-acceleration of high-energy protons in small-scale gradients |
| TuO2.3 | Kirk A Flippo (Hegelich | Efficiency Increase of Short-pulse Laser Generated Proton Beams Using Novel Flat-Top Cone Targets |
| TuO2.4 | Zheng-Ming Sheng | Investigation on novel particle beams and radiation sources in relativistic laser-plasma interactions at IoP, CAS, Beijing |
| TuO3.1 | Brian J. MacGowan | Commissioning the National Ignition Facility for Experiments |
| TuO3.2 | Chris PJ Barty | Advanced Petawatt Laser Capabilities on the National Ignition Facility |
| TuO3.3 | Jitsuno | Development of 92 cm size gratings and mirrors for LEFX laser system |
| TuO3.4 | Zhiyi WEI | A compact 355TW femtosecod Ti:sapphire laser facility and trend to high contrast ratio |
| TuO4.1 | Stanley Skupsky | Nonlocal Ion-Heat Transport in ICF Implosions |
| TuO4.2 | DOV SHVARTS | The Role of Fast Electron Preheating in Low-Adiabat Cryogenic and Plastic (CH) Shell Implosions on Omega |
| TuO4.3 | Mark C. Herrmann | Fill tube radiation hydrodynamics experiments on ignition scale capsules |
| TuO4.4 | Vladislav B. Rozanov | Analysis of the foam-absorber capsules symmetry compression under the irradiation conditions of “Iskra-5” laser facility |
| TuO5.1 | Nakatsutsumi | Observation of coupling between single hot spots in low-density plasmas |
| TuO5.2 | Kazuo A. Tanaka | Study of hot electron behaviors relevant to fast ignition |
| TuO5.3 | Ravindra Kumar G. | Spatial and temporal profiling of megagauss magnetic fields and implications for intense, ultrashort laser interaction with mat |
| TuO5.4 | Richard P J Town | Integrated Modeling of Short-Pulse Laser-Plasma Experiments. |
| TuO6.1 | Hui-Chun Wu (Sheng) | Powerful (MV/cm-GV/cm) single-cycle terahertz pulses generation |
| TuO6.2 | Markus Roth | Plasma Physics Experiments at GSI |
| TuO6.3 | Juergen Biener | Diamond Inertial Confinement Fusion targets |
| TuO6.4 | Jinghong Li | High Temperature Opacity Experiment Design and Analysis |
| TuO7.1 | Bruce A Hammel | Simulations of high-mode Rayleigh-Taylor growth in NIF ignition capsules |
| TuO7.2 | Antonio Roberto Piriz | Hydrodynamic instabilities in elastic-plastic solids |
| TuO7.3 | Kazuo Takeda | Observing the non-local electron transport effect by using a phase zone plate |
| TuO7.4 | Hiroyuki Shiraga | Implosion and heating experiment of shell target with cone for Fast Ignition at ILE, Osaka |
| TuO7.5 | andrew james mackin | Status of Fast Ignition Research at LLNL |
| TuO7.6 | Yasuhiko Sentoku | Hot electron energy coupling in cone-guiding fast ignition |
| TuO8.1 | John L. Kline | Mitigation of Stimulated Raman Scattering in Hohlraum Plasmas |
| TuO8.2 | Marcus D. Knudson | Hugoniot and Melt Properties of Beryllium and Diamond for ICF Capsule Physics |
| TuO8.3 | Dirk O. Gericke | Temperature Equilibration in Rapidly Heated Plasmas at Solid Density |
| TuO8.4 | Gianluca Gregori | Measurement of the microscopic properties of dense Li plasma using x-ray scattering |
| TuO8.5 | Ludovic Hallo | Focusing the
intense laser beam in transparent dielectrics: formation of
nano-cavities |
| TuO8.6 | Riccardo Betti | Shock Ignition of Thermonuclear Fuel with High Areal Density |
| TuO9.1 | Atsushi Sunahara | Two Dimensional Radiation Hydrodynamic Simulation for Extreme Ultra Violet Emission from Laser-produced Tin Plasmas |
| TuO9.2 | Shinsuke Fujioka | Optimum Laser-Produced Plasma for Extreme Ultraviolet
Light Source |
| TuO9.3 | Alexander S. Pirozhkov | Demonstration of light reflection from the relativistic mirror |
| TuO9.4 | stephane sebban | High quality soft x-ray laser beam at 32.8 nm |
| TuO9.5 | michel D. primout | Recent progress in metal-lined cylindrical hohlraum as efficient X-ray sources. |
| WO1.1 | Sophie D. Baton | Recent experiment on fast electron transport with cone targets |
| WO1.2 | Tatsufumi Nakamura | Optimization of cone target for fast ignition |
| WO1.3 | Jennifer M Rassuchin | Enhanced Energy Localization and Heating in High Contrast Ultra-Intense Laser Produced Plasmas via Novel Conical Micro- |
| WO1.4 | Ljubomir Nikolic | Particle Simulations of High-Intensity Laser Interaction with Cone Targets |
| WO2.1 | Stefan Hüller | Towards predictive modeling of parametric scattering instabilities in expanding plasmas |
| WO2.2 | Christophe Roussea | First LPI measurements obtained in the interaction of a 3w, 15 kJ laser beam with gas-filled hohlraum targets at the LIL facility |
| WO2.3 | laurent divol | Benchmarking pF3D vs Omega Experiments |
| WO2.4 | Christine Labaune | Laser plasma smoothing studies with the LIL facility |
| WO3.1 | Siegfried H Glenzer | X-ray Thomson scattering measurements from dense plasmas |
| WO3.2 | Roberto C Mancini | An overview of methods for the analysis of spatial structure in inertial confinement fusion implosion cores |
| WO3.3 | Alice E. Koniges | Experiments for the Validation of Debris and Shrapnel Calculations |
| WO3.4 | Motonobu Tampo | High Density Plasma Probing with Ultra-Intense Laser
Created MeV Proton Beam |
| ThO1.1 | Bjorn Manuel Hegelich | Ion stopping in hot dense plasmas: Proof-of-principle experiments for code validation in the context of ion-driven fast ignition (I |
| ThO1.2 | Juan C. Fernandez | Progress on Ion-Based Fast Ignition |
| ThO1.3 | Peter Mulser | Coronal fast ignition by laser: Constraints on energy fluxes and maximum laser wavelength |
| ThO1.4 | Sergey Yurievich Gus'k | Cumulative phenomena due to the collision of laser-driven projectiles related to fast ignition and astrophysics applications |
| ThO2.1 | Bruce A. Remington | Frontier HED Science accessible on NIF |
| ThO2.2 | R Paul Drake | Experiments to Explore Structure in Radiative Shocks |
| ThO2.3 | Sergey Lebedev | Modeling Astrophysical Jets in a Laboratory Experiment |
| ThO2.4 | Pedro Velarde | Simulations of jet formation and blast wave collision in laboratory plasmas |
| ThO3.1 | Stefan A. Karsch | Towards laser-driven undulator sources: 0.5 GeV electron acceleration in a capillary discharge waveguide |
| ThO3.2 | Hideyuki Kotaki | Counter-Crossing Injection for Stable High-Quality Electron Beam Generation by Laser-Plasma Interaction |
| ThO3.3 | Min Chen | Collisionless electrostatic shock generation and ion acceleration in the interaction of ultraintense laser pulses with overdens |
| ThO3.4 | Xian tu He | Energetic Proton Beams Accelerated from High-Density Thin Targets Irradiated by Intense Laser Pulse |
| ThO4.1 | Chikang Li | Observation of Megagauss Field Topology Changes due to Magnetic Reconnection in Laser-Produced Plasmas |
| ThO4.2 | Yuri Petrovich Zakharo | New Type of Laser-Plasma Experiments to Simulate an Extreme and Global Impact of Giant Coronal Mass Ejections onto Ear |
| ThO4.3 | Keisuke Shigemori | Multiple Shock Compression of Diamond Foils Over 1 TPa with a Shaped Laser Pulse |
| ThO4.4 | Hye-Sook Park | Quasi-isentropic material property studies at extreme pressures: from Omega to NIF |
| ThO5.1 | J. Manuel Perlado | Molecular dynamics study of hydrogen isotopes migration in optics. |
| ThO5.2 | Daniel T. Goodin | Progress in Demonstrating Feasibility of the Target Supply for Laser Fusion |
| ThO5.3 | Yuichi Ogawa | Conceptual Design of a Fast-Ignition Laser Fusion Reactor based on a Dry Wall Chamber |
| ThO5.4 | Boris Yu. Sharkov | Reactor chamber response in heavy ion fusion energy concept |
| ThO6.1 | Patrick Mora | Electron kinetic effects in the plasma expansion into a vacuum and ion acceleration |
| ThO6.2 | Alexander Alexeevich A | Acceleration of a mass limited target by ultra high intensity laser pulse |
| ThO6.3 | Jiri Limpouch | Laser acceleration of ions in mass-limited multi-species targets |
| ThO6.4 | Akifumi Yogo | Energetic proton generation from a fs-laser-driven
insulator target observed by online time-of-flight technique |
| ThO7.1 | Norimasa Ozaki | Laser-driven plasma pressure loader; from shock to quasi-isentropic compression |
| ThO7.2 | Naeem Ahmad Tahir | Studies of High Energy Density States in Matter Using Intense Heavy Ion Beams: The HEDgeHOB Collaboration |
| ThO7.3 | Michel KOENIG | Isochoric heating from fast electrons using mass limited targets |
| ThO7.4 | Andrew Ng | Broadband Dielectric Function of Non-equilibrium Warm Dense Gold |
| ThO8.1 | Hong Jin Kong | Proposal of the practical laser fusion driver operating at high repetition rate over 10Hz by a beam combination technique usin |
| ThO8.2 | Gerard MOUROU | New amplifying laser concept for Inertial Fusion Driver |
| ThO8.3 | Andy J Bayramian | The Mercury Project: A Diode-Pumped Solid-State Laser
Driver for Inertial Fusion Energy Development |
| ThO8.4 | Frank Hegeler | The Electra KrF Laser System |
| FO1.1 | Patrick W McKenty | Multidimensional Numerical Investigation of NIF PDD Designs with Full Beam Smoothing |
| FO1.3 | Masakatsu Murakami | From Physics Understanding of the Ablative Rayleigh-Taylor Instability to Impact Fast Ignition |
| FO1.4 | Peter A. Amendt | Status of indirect-drive double-shell ignition research at LLNL |
| FO2.1 | Keiji Nagai | Control of Nanostructure and Thickness of Foam Capsule for FIREX-I using Phase-Transfer Catalyst and Tailored Polymers |
| FO2.2 | Heather L. Wilkens | Recent Success in Fabrication of Depleted Uranium and Cocktail Hohlraums for the National Ignition Facility |
| FO2.3 | Abbas Nikroo | Progress towards fabrication and metrology of graded copper doped beryllium capsules for the National Ignition Facility |
| FO2.4 | John D. Moody | Status of cryogenic layering for NIF ignition targets |
| FO3.1 | Shigeo KAWATA | Direct-Indirect Hybrid Mode Implosion in Heavy Ion Inertial Fusion |
| FO3.2 | B. Grant Logan | Heavy Ion Fusion Science Research for High Energy Density Physics and Fusion Applications |
| FO3.3 | John L. Porter | The ICF and High-Energy-Density Science Program on the Upgraded Z and Z-Beamlet Facilities |
| FO3.4 | Jeremy P Chittenden | Inertial Confinement Fusion in a Deuterium-Tritium Z-pinch |
| FO4.1 | Hideo Nagatomo | Target Design for High-density Non-spherical Implosion for Fast Ignition |
| FO4.2 | Tomoyuki Johzaki | Simulation Studies for Core Heating Properties in FIREX-I |
| FO4.3 | J. Javier Honrubia | Ignition of pre-compressed targets by fast electrons |
| FO4.4 | Michael H Key | The status and value of point designs for high gain fast ignition and the scientific issues that they bring out |
| FO5.1 | Chiyoe Yamanaka | Progress of Laser Fusion in the last 40 years and Expected Prosperous Applications |
| FO5.2 | Erik Storm | Inertial Fusion Energy: A Path Forward |
| FO5.3 | Y. C. Francis Thio | An Overview of the U. S. Program in High Energy Density Laboratory Plasmas |
| FO5.4 | Sadao Nakai | Development of Integrated IFE System and its Industrial Application as Intense Neutron |
| FO6.1 | Thomas A Mehlhorn | Fusion-Fission Hybrids for Nuclear Waste Transmutation: An Intermediate Step Towards IFE? |
| FO6.2 | Kazuo Imasaki | Laser Induced Nuclear Reactions in Magnetically Confined Plasma |
| FO6.3 | Behgol Bagheri | Experimental Study of Solar Pumped Laser for Magnesium-Hydrogen Energy Cycle |
| FO6.4 | Zhiyi WEI | Generation of sub-6fs laser pulse with octave-spanning spectrum at 160MHz repetition rate |
| MPo1 | Minoru Tanabe | Supersonic heat wave propagation in laser-produced
underdense plasma for efficient x-ray generation |
| MPo2 | Francoise WAGON | X-ray conversion on spherical gold spheres at OMEGA. Experiments interpretation. |
| MPo3 | Sean P. Regan | Hohlraum Energetics and Implosion Symmetry with Elliptical Phase Plates Using a Multicone Beam Geometry on OMEGA |
| MPo4 | Stephen A Slutz | Ablator doping of inertial fusion capsules to compensate for time-dependent radiation drive asymmetries |
| MPo5 | Roger A. Vesey | Mode-selective shields as a target design technique for radiation symmetry control in hohlraums* |
| MPo6 | Harry F. Robey | An assessment of the accuracy, precision, and geometric surrogacy of shock timing diagnostic techniques for tuning experim |
| MPo7 | Zhan Jin | Estimation of Smith-Purcell Radiation in Laser-plasmas Interaction |
| MPo8 | Vladimir T. Tikhonchuk | Transport of a relativistic electron beam through a dielectric solid target: propagation and stability analysis |
| MPo9 | Joao Jorge Santos | Fast Electron Transport and Induced Heating in Aluminium Foils |
| MPo10 | Zhanjun Liu | Comparison of the analytical and simulation results of the equilibrium beam profile |
| MPo11 | Anle LEI | Guiding and confining energetic electron and proton beams generated in intense interactions |
| MPo12 | Peiyong Ye | High energy electron transport in dense plasma in fast ignition scenario |
| MPo13 | Tomoyuki Johzaki | Integrated Simulations for Transport of Laser-Produced Relativistic Electrons in Solid Targets |
| MPo14 | Yutong Li | Effect of target shapes on fast electron emission in
intense laser-plasma interactions |
| MPo15 | chunyang Zheng | The propagation feature and electron acceleration of intense laser in plasma channel |
| MPo16 | Toshinori Yabuuchi | Hot electron emission limited by self-excited fieldsfrom targets irradiated by ultra-intense laser pulses |
| MPo17 | Mark x Sherlock | Non-Classical Return Currents in Intense Laser-Plasma Interactions |
| MPo18 | Xiao Xuan Lin | Study of Cu Ka emission from frequency doubled intense femtosecond laser-plasma interactions |
| MPo19 | Tsuyoshi Tanimoto | Hot Electron Spatial Distribution in Presence of Laser Light Self-focusing in Over-dense Plasmas |
| MPo20 | Ondrej Klimo | High-current fast electron beam propagation in a gas |
| MPo21 | Toru Kawamura | Study on anisotropic fast electron transport by polarized K-shell radiation in ultra-short intense laser produced plasmas |
| MPo22 | Mingsheng Wei | Benchmarking the Modeling of Energetic Electron Beam Transport in “Nail” and Wire Targets |
| MPo23 | John R Pasley | Experiments investigating high-current relativistic electron beam transport in warm-dense plasma |
| MPo24 | Arie Zigler | The fine structure of laser-plasma filament in air |
| MPo25 | Suman Bagchi | Energetic ion emission from periodically modulated metallic surface under intense femtosecond laser irradiation |
| MPo26 | julien soulya fuchs | Space- and time-resolved dynamics of fast electrons and of the energy partition into cold electrons |
| MPo27 | Richard P J Town | Proton Deflectometry of Electric and Magnetic Fields |
| MPo28 | Wei Yu | Hole-boring into dense plasmas with a series of short, intense laser pulses |
| MPo29 | Alexei G Zhidkov | Propagation of l3 Laser Pulses in Underdense Plasma |
| MPo30 | Yasuaki Okano | X-ray polarization measurement for fast electrons in intense-laser-produced plasma under oblique incidence |
| MPo31 | Subhendu Kahaly | Highly efficient absorption of high intensity femtosecond laser light in plasma generated on sub-lambda gratings and generat |
| MPo32 | Subhendu Kahaly | Micronscale spatially resolved and femtosecond time resolved megagauss magnetic pulse in hot, dense plasmas |
| MPo33 | Takeshi Kai | Integral cross sections with magnetic sublevels of He-like ions by electron impact excitation for x-ray polarization spectroscopi |
| MPo34 | Yuichi Inubushi | Diagnostics of anisotropic hot electron velocity distribution using x-ray polarization spectroscopy |
| MPo35 | Toma Toncian | Properties of Laser Triggered Micro Lens for Energy
Selection and Focusing of MeV protons |
| MPo36 | Nathan John Sircomb | Energy deposition models for short-pulse laser-solid interaction experiments |
| MPo39 | Ricardo Ondarza | Modulation of harmonic emission spectra in relativistic laser interactions with overdense plasma |
| MPo40 | Max Tabak | Suprathermal pressure in low mass short-pulse laser irradiated targets |
| MPo41 | Emmanuel d'Humiere | Ultra-fast ionization modeling in laser-plasma interaction |
| MPo43 | NISHIDA | Study of novel plasma devices generated by high power lasers coupled with a micro-pulse power technology |
| MPo44 | Jingqin Su | The TIL Commissioning and Performance |
| MPo45 | Jingqin Su | Status of the SG-III Solid-state Laser Facility |
| MPo46 | Xiaofeng Wei | SILEX-I: 330-TW, 30-fs Ti:Sapphire Laser Facility |
| MPo47 | Xiaofeng Wei | Recent progress and future prospects of high-energy peta-watt laser in LFRC, CAEP |
| MPo48 | Changhwan Lim | Construction of the 1 kJ Nd:Glass Laser Facility at KAERI |
| MPo49 | Yasushi Fujimoto | Development of High-Average-Power Laser Based on Silica Glass |
| MPo50 | Nathalie S. BLANCHO | Overview of PETAL, the multi-Petawatt project on the LIL facility |
| MPo51 | Herve Bercegol | Laser damage phenomena relevant to the operation of an ICF laser driver |
| MPo52 | Hisetsugu Yoshida | Front-end system used in PM-Yb fiber laser for high-peak power laser system |
| MPo53 | Bjorn Manuel Hegelich | The Enhanced Trident Laser Facility at Los Alamos National Laboratory: A new tool for ICF, HEDP, Dynamic Materials and Ultr |
| MPo54 | Cristina Hernandez-G | Development of 10 PW OPCPA Capability on the Vulcan Laser |
| MPo55 | Seong Ku Lee | Petawatt Ti:sapphire Laser Development in APRI |
| MPo56 | Jean-Paul GOOSSEN | Smoothing by spectral dispersion on the ALISE laser facility |
| MPo57 | Bin Luo | Amplifying Modeling for Broad Bandwidth Pulse in Nd:glass Based on Hybrid-broaden Mechanism |
| MPo58 | Briggs Walker Atherton | Z-Beamlet: a multi-kJ, TW-class laser for x-radiography
applications on Sandia’s ZR accelerator, and fundamental laser-plas |
| MPo59 | Steve Hocquet | Amplitude modulation filtering of FM-to-AM conversion due to the focusing grating of the LMJ |
| MPo60 | Yong Woo Lee | Measurement of amplified spontaneous emission in a 10-TW Ti:sapphire laser |
| MPo61 | hideaki habara | Pulse compression using segmented grating in Gekko MII system, ILE |
| MPo62 | Keiichi Sueda | Pulse shape control on LFEX PW laser for fast ignition of laser fusion |
| MPo63 | Bruno Jean Le Garrec | The design of LMJ focal spots for indirect drive experiments |
| MPo64 | Bruno Jean Le Garrec | Laser Performance Operation Model and its application to LIL energy and power balance |
| MPo65 | Jae Sung Shin | Dependence of the reflectivity of the confocal type stimulated Brillouin scattering mirror on the overlapping degree of the focal |
| MPo66 | Jin Woo Yoon | Phase stabilization of the beam combination laser with stimulated Brillouin scattering phase conjugate mirrors |
| MPo67 | Du Hyun Beak | The cross-type optical isolator with symmetric SBS-PCMs at which the prepulse injection is introduced |
| MPo68 | Guy R Bennett | Activation of the Z-Petawatt Laser at Sandia National Laboratories |
| MPo69 | Ji-ping ZOU | Recent progresses on LULI high power laser facilities |
| MPo70 | Kiminori Kondo | Pulse compression on LEFX PW laser system |
| MPo71 | Michael Shaw | Laser Performance Operations Model (LPOM): A computational system that automates the setup and performance analysis o |
| MPo72 | David C. Eder | Debris and Shrapnel Mitigation Procedures for NIF Experiments |
| MPo73 | Richard Sacks | Laser energetics and propagation modeling for the NIF |
| MPo74 | Charles Gordon Brow | Electromagnetic Pulses at Short-Pulse Laser Facilities |
| MPo75 | Young-Seok Seo | Closed-loop control with coupling factor using an AO system |
| TuPo1 | Nobuhiko Nakanii | Absolute Calibration of Imaging Plate for Electron Spectrometer measuring GeV-class electrons |
| TuPo2 | Laurent P. Disdier | 14-MeV neutron images with 12-μm resolution |
| TuPo3 | Anna Tauschwitz | X-ray scattering diagnostics of ion beam heated targets at GSI and FAIR - The WDM collaboration |
| TuPo4 | Vladimir G. Smirnov | Electro-physical and Optical Problems in Creating Lasers for Diagnosing Plasma with a LIDAR Thomson Scattering System |
| TuPo5 | R. Marmoret | Development of laser produced plasma diagnostics for the Megajoule Laser facility and metrology associated |
| TuPo6 | Ramon J Leeper | ZR Neutron Diagnostic Suite |
| TuPo7 | Kathrin Wuensch | Probing Dense Fusion Plasmas by X-Ray Thomson Scattering |
| TuPo8 | Briggs Walker Atherton | Experiments on Laser Generated X-Rays and Ion Beams in the Context of Sandia’s HEDP Mission |
| TuPo9 | Mark David Wilke | Neutron Imaging Development for MegaJoule Scale Inertial
Confinement Fusion Experiments |
| TuPo10 | Hirokazu Hosoda | Development of TOF Neutron Spectrometer for measurement of degenerated plasma in Fast Ignition experiment |
| TuPo11 | Naoki Senmyo | On Degenerate Plasma Diagnostics Based on γ-Ray Measurement |
| TuPo12 | Osamu Maegawa | Application of Bubble Detector to FIREX |
| TuPo13 | Kiyomi Takato | Fabrication of Radiation-Detecting Devices Using Polysaccharide Solids |
| TuPo14 | Yasunobu Arikawa | Fast response neutron scintillation detector |
| TuPo15 | Peter Song | Studies of Background Levels for the NIF Yield Diagnostics from Neutron and Gamma Radiation |
| TuPo16 | Alexander Saunders | Electron Radiography: A tool for imaging NIF experiments |
| TuPo17 | Hans W Herrmann | Improved Gamma Bang Time Measurements on Omega and Implications for the National Ignition Facility |
| TuPo18 | Lucile S. Dauffy | Gamma Background Calculation for the HEXRI diagnostic at
the National Ignition Facility |
| TuPo20 | Gianluca Gregori | High specification 3-D backlighter target component
manufacture trials for micromachining-based mass production |
| TuPo21 | Gary P Grim | Inertial Confinement Fusion Burn Diagnostics at Los
Alamos National Laboratory |
| TuPo22 | Gary P Grim | Diagnosing Mix in Inertial Confinement Fusion Experiments |
| TuPo23 | Wenbing Pei | Recent Theory Researches on Laser Fusion at IAPCM |
| TuPo25 | Richard Liska | Selected Laser Plasma Simulations by ALE Method |
| TuPo26 | Vladislav B. Rozanov | Energy transfer in low-density porous targets doped by heavy elements |
| TuPo27 | Rafael A. Yakhin | The model of turbulent mixing zone evolution, which accounts for the deviation from spherical symmetry of laser thermonuclea |
| TuPo29 | Kazuto Otani | Preheat Measurement of Planar-Cryogenic Targets |
| TuPo30 | Berenice Loupias | Density measurement of low Z shocked material from monochromatic x-ray 2D image |
| TuPo31 | Valeri Vasilevich Gavril | Microheterogeneous plasma from polymer aerogel and foam at powerful laser interaction |
| TuPo32 | Taisuke Nagayama | Extraction of Quasi-3D Electron Temperature and Density Distributions of ICF Implosion Cores from Argon K-shell Line Imag |
| TuPo33 | Douglas Carl Wilson | The Effects of High Z Pre-Mix on Burn in ICF Capsules |
| TuPo34 | Warren J Garbett | Constraining fundamental plasma physics processes using doped capsule implosions |
| TuPo35 | Nathan D Masters | Interface Reconstruction in Two- and Three-Dimensional Arbitrary Lagrangian-Eulerian Adaptive Mesh Refinement Simulation |
| TuPo36 | Ivan Germanovich Leb | A laser shock tube: experimental and numerical study of mixing zone development of of the accelerated thin layer in Air. |
| TuPo37 | Ivan Germanovich Leb | On the new approach to the experimental study of hydrodynamic instability development in compressed laser targets. |
| TuPo38 | Marc Vandenboomga | Planar hydrodynamic instability computations and experiments with rugby-shaped hohlraums at the Omega laser facility |
| TuPo39 | Takayoshi Sano | The Effects of a Magnetic Field on the Richtmyer-Meshkov Instability |
| TuPo40 | Serge E. Bouquet | Rayleigh-Taylor Instabilities and the Drag Buoyancy Equation |
| TuPo41 | Chihiro Matsuoka | Multi-mode character of the nonlinear dynamics of a vortex sheet in the Richtmyer-Meshkov instability |
| TuPo42 | Sanz | Linear Rayleigh-Taylor instability analysis in ablation fronts dominated by radiation |
| TuPo43 | Jean-Luc A. Feugeas | Modelling of hydrodynamics instabilities including the non local heat transport |
| TuPo44 | Jean-Luc A. Feugeas | Multidimensional, non local and magnetic effects in hot spot relaxation in laser-produced plasmas |
| TuPo45 | Lin Yin | Kinetic Simulations of Stimulated Raman and Brillouin
Scattering of Trident Short-Pulse Laser in a Single-Hot-Spot |
| TuPo46 | Stefan Hüller | Revisiting the Stimulated Raman Scattering process in the weakly damped regime |
| TuPo47 | Robert L. Singleton | Dimensional Continuation: A New Way to Calculate the Stopping Power Exactly to Leading and Next-to-Leading Order in the N |
| TuPo48 | Jerome Breil | Modelling of the Magnetic Field Effects in Hydrodynamic Codes Using a Second Order Tensorial Diffusion Scheme |
| TuPo49 | Tara Desai | Laser non-uniformity smoothing using gas jets and phase plates. |
| TuPo51 | Bin Zhao | A Fokker-Planck Code for Laser-Produced Plasmas |
| TuPo52 | Olivier Morice | Nanosecond laser-plasma interaction studies in the context of the LIL facility |
| TuPo53 | Olivier Morice | Nanosecond Raman scattering computation in large plasmas |
| TuPo54 | Shalom Eliezer | How to measure very high magnetic fields in expanding plasmas |
| TuPo55 | Suming Weng | Inverse bremsstrahlung absorption with full
electron-electron collisions operator |
| TuPo56 | Jian Zheng | Influence of target geometry on ion temperature of laser-produced plasmas |
| TuPo57 | Sylvie Depierreux | Laser plasma interaction experiments at 526 and 351 nm |
| TuPo58 | John L. Kline | Investigation of Stimulated Raman Scattering Using a Short-Pulse Single-Hot-Spot at the Trident Laser Facility |
| TuPo59 | Andre Richard | Laser-plasma experiments on CEA facilities at CESTA in Aquitaine |
| TuPo60 | Nathan John Sircomb | On the role of electron acoustic waves and beam acoustic modes in laser backscatter from plasmas |
| TuPo61 | Richard D. Petrasso | Observation of the Decay Dynamics and Instabilities of
Megagauss Field Structures in Laser-Produced Plasmas |
| TuPo62 | Mo Chen | Fokker-Planck simulation of non-local thermal smoothing
due to non-uniform laser heating |
| TuPo63 | Rafael Rodriguez | Detailed-level-accounting approach calculation of radiative properties of aluminum plasmas in a wide range of density and te |
| TuPo64 | Vadim Yu. Politov | Model of opacity and emissivity of non-equilibrium plasma |
| TuPo65 | Feilu Wang | Calculation of photoionized plasmas and comparisons with X-ray photoionized plasma |
| TuPo66 | Yi Zhang | Opacity measurements of the x-ray photoionized SiO2 aerogel plasma in “dog-bone” target irradiated by high power laser pul |
| TuPo67 | Jesus G. Rubiano | Analytical opacity formulas for low Z plasmas |
| TuPo68 | Juan Miguel Gil | Multifrequential and mean opacity calculation of carbon plasmas in a wide range of density and temperature |
| TuPo69 | Ricardo Florido | ABAKO, a new code for population kinetics and radiative properties of plasmas under NLTE conditions |
| TuPo70 | Michiyoshi Yuyama | Time-dependent atomic processes of discharge produced low Z plasma |
| TuPo71 | Kei Takano | High energy electron generation by the 15 mJ ultrashort pulse laser |
| TuPo72 | jing zhao | High gain inner-shell x-ray lasers pumped by X-ray Free-electron laser system FLASH in DESY |
| TuPo73 | Sergey Lebedev | 1 MA RADIAL WIRE ARRAY Z-PINCHES AS A COMPACT X-RAY RADIATION SOURCE |
| TuPo74 | SHOUJUN WANG | Numerical study of Ni-like Mo x-ray lasers at 18.9 nm driven by a grazing incidence pumping scheme |
| TuPo75 | Jiri Limpouch | Applications of low-density foams for X-ray source studies and laser beam smoothing |
| TuPo76 | Fida Y. Khattak | Development of birght short-pulse x-ray line sources |
| TuPo77 | Shinichi Namba | Photoionized Xeon Cluster Plasmas Generated by a Soft X-ray Laser Pulse |
| TuPo78 | Keiji Nagai | Low-density and nanostructured metals and metal oxides as laser targets to generate extreme ultraviolet (EUV), x-ray, and hot |
| TuPo79 | Marilou M Cadatal | Wide-gap semiconductors as fast EUV scintillators |
| TuPo80 | Tatsuo Okada | Comparative Study on EUV and Debris Emission from CO2 and Nd:YAG Laser-Produced Tin Plasmas |
| TuPo81 | Mark S. Tillack | EUV Emissions in Spherical vs. Planar Targets |
| TuPo82 | Masanori Nunami | 3D PIC simulation of ion debris mitigation by B-field for LPP-EUV source |
| TuPo83 | Akira Sasaki | Detailed atomic modeling of Sn plasmas for the EUV source |
| TuPo84 | Yoshinori Shimada | Fundamental study of new target supplying system (punch-out target) for extreme ultra violet (EUV) light source |
| TuPo85 | Nozomu Kishi | Development of Z pinch discharge EUV light sources |
| TuPo86 | Tatsuya AOTA | Study of tin- droplet target EUV source |
| TuPo87 | Katsunobu Nishihara | Radiation Hydrodynamics in LPP-EUV Source and Theoretical
Guidelines for Practical Use |
| TuPo88 | Takeshi Nishikawa | EUV Source Design Flexibility for Lithography |
| TuPo89 | Koji Tsubakimoto | Development of High-peak, High-average-power LD Pumped Solid-State Laser System for EUV Generation |
| TuPo90 | Nataliya G. Borisenko | UNDERDENSE PLASMA DYNAMICS AND COOLING REGISTERED IN MONOCHROMATIC PLASMA SELF-EMITTED EXTREM |
| ThPo1 | Wayne R Meier | Systems Modeling for a Laser-Driven IFE Power Plant using Direct Conversion |
| ThPo2 | Youji SOMEYA | Maintenance Method and its Critical Issues for a Fast-Ignition Laser Fusion Reactor based on a Dry Wall Chamber |
| ThPoIAEA3 | Heinrich Hora | Single-Shot Laser Driven Inertial Confinement Fusion Based on Nanosecond or Picosecond Laser Pulses |
| ThPo4 | Takuya Goto | Analysis of a core plasma dynamics and dry wall chamber for fast-ignition IFE power plant |
| ThPo5 | Hiroki Yoshida | Coil Gun for IFE Target Injector |
| ThPo6 | Neil B. Alexander | A target insertion and positioning system for high-power rep-rated lasers |
| ThPo８ | Lane C Carlson | Glint System Integration into an IFE Target Tracking and Engagement Demonstration |
| ThPoIAEA9 | Rajabbay Khaydarov | Investigation of interaction of laser radiation with of two elements Sc2O3, Ce2O3, Lu2O3 targets |
| ThPo10 | Takashi Ohshige | Experimental Studies on Formation of Aerosol in Laser Fusion Reactor Chamber by discharge method |
| ThPo11 | Hiroyuki Furukawa | Study on dynamics of ablation plums produced by fusion products in laser fusion liquid wall chamber |
| ThPoIAEA | Diego Diaz | Effect of Magnetism in Radiation Damage of Ferritic Steels in KOYO-F |
| ThPoIAEA | Yuri Herreras Yamba | 3D Neutronic Calculations: CAD-MCNP Methodology applied
to Vessel Activation in KOYO-F |
| ThPo15 | Linarejos Gamez | He and H production and induced Swelling in KOYO-F |
| ThPo16 | Marta Velarde | Evaluation of Permeable and Non-Permeable Tritium in
Normal Condition in a Fusion Reactor |
| ThPo17 | Oscar Cabellos | Effect of activation cross-section uncertainties in the assessment of primary damage for MFE/IFE structural materials |
| ThPo19 | Alberto Abanades | Application of Computational Fluid Dynamics (CFD) codes
as design tools for Inertial Confinement Fusion reactors |
| ThPoIAEA | Alexander D. Fertman | Experimental investigation of the induced radioactivity in elements of heavy ion accelerators |
| ThPoIAEA10 | Shmatov, M. | Advantages of the fast ignition, direct compression targets with two cones from the viewpoint of IFE reactor chamber p |
| ThPoIAEA10 | Rudraiah | The Effects of Electrical Field, Laser Radiation and Roughness at the Ablative Surface of IFE Target to Control the Ray |
| ThPoIAEA10 | Kasai | Analysis of Trajectory Adjusting System using Magnetic Lens for Superconducting IFE Target |
| ThPoIAEA10 | Saruta | Application of Target Tracking Method Using Arago Spot and Divergent Beam to In-chamber Measurement |
| ThPoIAEA10 | Sakae, S. | Experiments on gas gun with rifling for IFE-target injection |
| ThPoIAEA10 | Kunugi, T | Proof-Of-Principle Study on Cascade-typed Falling Liquid Film Flow along First Wall of Laser-Fusion Reactor |
| ThPoIAEA10 | Fukada, S. | Tritium Recovery System for Li-Pb Loop of Inertial Fusion Reacto |
| ThPoIAEA10 | Kajimura, Y | Numerical study for beam port protection by magnetic
fields in the Laser Fusion Reactor KOYO-F |
| ThPoIAEA10 | Hiroki Yoshida | Experimental Study of a Coil Gun for Injection and Tracking |
| ThPoIAEA11 | Kalal, M. | SBS PCM Technique and its potential role in achieving laser fusion objectives |
| ThPoIAEA11 | Kasuya | Applications of Laser and Particle Beam Apparatuses to IFE Reactor Chamber Wall Research Wlorks |
| ThPoIAEA11 | Kong, H. J. | Much improved long-term stabilized beam combined laser system for a laser fusion driver using phase controlled stimu |
| ThPoIAEA11 | Dhareshwar | Inertial confinement fusion targets and dirivers, the Indian scenario |
| ThPo35 | Sofiane Bahbah | High power Yb:YAG diodes pumped LUCIA front-end
oscillator (250 mJ, 50 ns, 2 Hz). |
| ThPo36 | Gilbert L. Bourdet | Performances of cryogenic cooled laser based on Ytterbium doped sesquioxide ceramics |
| ThPo37 | Vladimir D. Zvorykin | Quests for Inertial Fusion Energy conducted at GARPUN KrF laser facility |
| ThPo38 | Jean-Christophe Fran | Wavelength tunable, 264 J Laser Diode Array for 10Hz/1ms Yb:YAG pumping |
| ThPo39 | Daniel Albach | A key issue for next generation Diode Pumped Solid State Laser Drivers for IFE: Amplified Spontaneous Emission in large siz |
| ThPo40 | Junji Kawanaka | New Concept of Laser Fusion Energy Driver by Using
Cryogenically-Cooled Yb:YAG Ceramics |
| ThPo41 | Ryo Yasuhara | Development of cryogenic TGG ceramic based Faraday rotator for inertial fusion driver |
| ThPo42 | Takashi Sekine | High order wavefront correction for a 1 Joule class Nd:YLF rod amplifier by phase conjugate plate |
| ThPo43 | Yasuki Takeuchi | New design of the temperature controlled pockels cell for IFE driver |
| ThPo44 | Akira Yoshida | Numerical laser gain estimation of cryogenic Yb:YAG ceramics for IFE reactor driver |
| ThPo46 | John A. Caird | Advanced Diode-Pumped Solid-State Lasers (DPSSLs) for Inertial Fusion Energy (IFE) |
| ThPo51 | Toru Sasaki | A Comparative Study of Equation of State and Condutivity for Warm Dense Matter using Pulsed-power Wire Discharges in Wa |
| ThPo52 | Toru Sasaki | Tamped Target for Warm Dense Matter Experiments using Intense Heavy Ion Beam |
| ThPo53 | Sheng-Nian Luo | Applications of Laser-Driven Stress Waves to Investigating Dynamic Response of Condensed Matter |
| ThPo54 | Patrick Renaudin | Comparison of the Ziman and Kubo-Greenwood electrical resistivities in the warm dense regime |
| ThPo55 | stephane mazevet | Ab initio calculations of the X-ray absorption spectra of shocked compressed aluminuum |
| ThPo56 | Takayoshi Sano | Equation-of-State Measurements of Liquid Hydrogen by Laser-Induced Shock Compression and Its Application to Interior Stru |
| ThPo57 | Kotaro Kondo | Relaxation Layer in Electro-magnetically Driven Strong Shocks |
| ThPo58 | Tomoaki Kimura | Off-Hugoniot investigation using high power laser and precompressed target at Osaka University |
| ThPo59 | John J. Barnard | Simulations of Ion Beam Heated Targets for Warm Dense Matter Physics and IFE-Related Hydrodynamic Studies |
| ThPo60 | Tommaso Vinci | Laboratory Astrophysics using High Energy Lasers: simulations of plasma jets |
| ThPo61 | Claire Michaut | Link between Laboratory and Astrophysical Radiative Shocks |
| ThPo62 | Claire Michaut | Radiative Cooling and Kelvin-Helmholtz Instability in Astrophysical and Laboratory Jets |
| ThPo63 | Xavier Ribeyre | Rayleigh-Taylor instability in spherical non-stationnary expansion : application in Pulsar Wind Nebulae |
| ThPo64 | Brent E. Blue | Astrophysical Jet Experiments on Inertial Confinement Fusion Machines |
| ThPo65 | Toshihiko Kadono | Impact vaporization of rocks using a high-power laser |
| ThPo66 | Emeric M. Falize | Analytical and Numerical Modeling of Jets Expansion and Radiative Collimation. Comparaison with Laser Facilities Experime |
| ThPo67 | Emeric M. Falize | Scaling Laws in Hydrodynamics with Radiation in the context of High-Density Energy Physics and Laboratory Astrophysics |
| ThPo68 | Naofumi Ohnishi | Numerical analysis of nanograin collision by classical molecular dynamics |
| ThPo69 | Naofumi Ohnishi | Standing accretion shock instability: numerical simulations of core-collapse supernova and its laboratory experiment |
| ThPo70 | Yousuke Ogino | Numerical Study of Laser-Induced Blast Wave Coupled with Unsteady Ionization Processes |
| ThPo71 | Youichi Sakawa | Laboratory Experiments to Study Astrophysical Shock and Jets |
| ThPo72 | Wakana IWAKAMI | Three-Dimensional Simulations of Standing Accretion Shock Instability in Supernova Cores |
| ThPo73 | Berenice Loupias | Supersonic jet experiments using high energy laser |
| ThPo74 | Jun Zheng | Spectral control in quasi-monoenergetic proton generation with double foil target |
| ThPo75 | Mamiko Nishiuchi | Laser-driven proton sources and their applications |
| ThPo76 | Reiji Sugaya | Relativistic Electron Beam Acceleration by Extraordinary Beat Wave |
| ThPo77 | Reiji Sugaya | Acceleration of Relativistic Electron Beam Trapped in Extraordinary Beat Wave |
| ThPo78 | Kazuhiro Akimoto | Nonlinear mechanisms for cyclotron-resonance accelerations by an an Alfven-wave pulse |
| ThPo79 | Jan Badziak | Ultrahigh-current proton beams from short-pulse laser-solid interactions |
| ThPo80 | Nobuhiko Nakanii | Electron acceleration in imploded hollow cylinder |
| ThPo81 | Liming Chen | Electron acceleration from the discharged capillary
irradiated by 100 TW laser pulses |
| ThPo82 | Shinichi Masuda | Measurement of Stability of Electron Beam Generated by Laser-driven Plasma-based Accelerator |
| ThPo83 | Toshio Okada | Energetic proton acceleration in the interaction of ultraintense laser pulses with thin plasma targets |
| ThPo84 | Kitae Lee | Generation of MeV proton beams by irradiating an ultra-short, intense laser pulse on thick plastic targets |
| ThPo85 | Carmela Strangio | Generation of fast-ion sources by focusing short laser pulses on ultra-thin causally isolated targets and a possible IFE applic |
| ThPo86 | Shigeo KAWATA | Collimated Ion Beam by a Tailored Target Illuminated by an Intense Short Pulse Laser |
| ThPo87 | Zheng-Ming Sheng | Stochastic heating and acceleration of electrons by high intensity lasers in inhomogeneous plasmas |
| ThPo88 | Min Qing He | Acceleration dynamics of ions in shock and solitary waves driven by ultrashort intense lasers |
| ThPo90 | Dimitri Batani | Laser non-uniformity smoothing using gas jets |
| FPo1 | Maxim N. Chizhkov | Simulation of strongly deformable flows in ISKRA-6 indirectly driven thermonuclear targets |
| FPo3 | Jerome Breil | CHIC a 2D code for direct drive ICF |
| FPo4 | James H Cooley | Effects of Final Laser Pulse Shape on the National Ignition Facility Laser Coupling and Capsule Energetics and Margin |
| FPo5 | Aaron C. Fisher | Hierarchical Material Models for Fragmentation Modeling in NIF-ALE-AMR |
| FPo7 | Heinrich Hora | Plasma mirror for high contrast picosecond laser pulses for fast ignition fusion |
| FPo8 | Brian J. Albright | New Particle-In-Cell Modeling Capability for Large-Scale Kinetic Simulation of Inertial Confinement Fusion and Fast Ignition R |
| FPo9 | Brian J. Albright | Studies in Capsule Design for Mid-Z Ion-Driven Fast Ignition |
| FPo10 | Xiaohui Yuan | Emissions of fast electrons along the target surfaces irradiated by ultrashort laser pulses |
| FPo11 | Hirotaka Nakamura | Energetic Electron Spectra Dependent on PW Laser Interactions with an Entrant Cone Wall |
| FPo12 | Dirk O. Gericke | On Fast Igniton by Laser-produced Ion Beams |
| FPo13 | Masakatsu Murakami | Optimization of impactor shell acceleration for Impact Fast Ignition |
| FPo14 | Sergey Yurievich Gus'k | Perculiarities of laser-driven acceleration of a flat projectile up to |
| FPo15 | Min Chen | Focusing of relativistic electron beams by a solid cone |
| FPo16 | Mikhail L. Shmatov | Factors determining the choice of the laser-accelerated ions for heating the hot spot |
| FPo17 | J. Javier Honrubia | Fast ignitor target studies for HiPER |
| FPo18 | Motoaki Nakatsutsumi | Heating of solid target in electron refluxing dominated regime with ultra-intense laser |
| FPo19 | Jia Yong Zhong | Imploded core dynamics of shell-cone targets observed with 1D+McMIXS |
| FPo20 | Takeshi Watari | Neutron Generation from Impact Fast Ignition |
| FPo21 | Hideaki Matsuura | Distortion of Bulk-Electron Distribution Function and Its Effect on Core Heating in Fast Ignition Plasmas |
| FPo22 | Roland Duclous | Maxwell Fokker-Planck code for kinetic simulations of the ICF-Fast Ignition physics |
| FPo23 | Xavier Ribeyre | Numerical simulations of the compression stage of the HiPER baseline target |
| FPo24 | Richard B. Stephens | Proton focusing in a FI target compatible configuration |
| FPo25 | Takaki Ohmura | Ignition and Burn Characteristics of D-3H-Fueled Fast Ignition Targets |
| FPo26 | Mayuko Koga | Measurement of PW Laser Injection Time to Imploded Core
Plasma by Using X-ray Framing Camera |
| FPo27 | Hitoshi Sakagami | Scaling Law for Fast Electron Beam Intensity in Fast Ignition |
| FPo28 | David R Farley | Non-dimensional Scaling of Impact Fast Ignition Experiments |
| FPo29 | Pedro Velarde | Fast ignition jet impact scheme |
| FPo30 | Jerzy Wolowski | Application of laser-induced double ablation of plasma for enhanced macroparticle acceleration |
| FPo31 | Max Tabak | Hydrodynamic assembly for Fast Ignition |
| FPo32 | linchun wu | Nonlinear Force Driven Skin Layer Acceleration of Plasma Blocks |
| FPo33 | linchun wu | MULTI-ELECTRON IONIZATION AND CHARGE EXCHANGE CROSS SECTIONS FOR HEAVY ION FUSION |
| FPo34 | Alexander A. Golubev | Measurement of the energy deposition profile for heavy ions with specific energy up to 1 GeV/u in solid targets. |
| FPo35 | B. Grant Logan | Heavy-ion direct-drive T-lean targets for self-T breeding and plasma MHD direct conversion |
| FPo36 | Noriyosu Hayashizaki | Multi-channel RFQ Linac for Intense Heavy Ion Driver |
| FPo37 | Gueorgi M. Oleinik | Investigation into the processes of plasma production on the surface of electrodes made from different materials on Angara-5 |
| FPo38 | Christina A. Back | Innovative Targets for Pulsed-Power Experiments |
| FPo39 | FARHAT Nadeem Beg | Supersonic Jet Formation using a Compact Pulsed Driven X-pinch |
| FPo40 | Simon Bott | Experimental observations of mass ablation rates in cylindrical wire arrays |
| FPo43 | Liqin Ge | The fabrication of the tin dioxide on multilayered capsules |
| FPo44 | Takeshi Fujimura | Development of characterization of the foam shell target
for Fast Ignition Realization Experiment- I (FIREX-I) |
| FPo45 | Akifumi Iwamoto | Study on a fuel layering sequence of the foam target for the FIREX project |
| FPo46 | Andrew C. Forsman | The Drilling of Counterbored Fill Holes in Beryllium Shells and Fundamental Limits on the Maximum Aspect Ratios of Laser |
| FPo47 | Mitsuo Nakai | Fabrication and Characterization of Planar Cryogenic Target for GEKKO-XII |
| FPo48 | Han Yang | The investigation on the mechanism of phloroglucinolcarboxylic acid/formaldehyde gelation process and obvious density incr |
| FPo49 | Toshiyuki Abe | Exploration and Evaluation of Organic Target Material for
Laser Fusion by Means of Photoelectrochemistry |
| FPo51 | Marilou M. Cadatal | CYTOP planar terahertz waveguide: A highly transparent
plastic for hybrid optics applications |
| FPo52 | Marilou M. Cadatal | Fourfold symmetry in the azimuthal angle dependence of
the terahertz radiation of (100) p-InAs under magnetic field |
| FPo53 | Marilou M Cadatal | Nd3+: (La1-x,Bax)F3-x Grown by Micro-PD Method as New Vacuum Ultraviolet Scintillator and Potential Laser Material |
| FPo54 | Marilou Cadatal | Transparent Ceramics Optics Mid-infrared Imaging of Gas-phase Samples |
| FPo55 | Marilou Cadatal | Experimental and calculated terahertz spectra of naphthalene and 1,4-dihydroxynaphthalene in the 0.5- to 6 terahertz region |
| FPo56 | Masakatsu Murakami | Coulomb explosion driven by thermal explosion of hot electrons |
| FPo57 | Mohamed Salah Mah | Experiments on Laser Induced Production of Magnesium Towards Fossil -Fuel-Free Energy Cycle |
| FPo58 | Dazhi Li | Experiment on Iodine transmutation by laser Compton scattering gamma ray |
| FPo59 | Masayuki Fujita | Ultrafast Phase Transition of Si by Femtosecond Laser Pulse Irradiation |
| FPo60 | Irina N. Zavestovskaya | Ultrashort Laser Pulse Ablation of Metals: Threshold characteristics |
| FPo61 | Zhi-Yuan Zheng | Application of laser plasma in propulsion |
| FPo62 | Ayumi Oguchi | Parametric injection for monoenergetic electron acceleration |
| FPo63 | Yuri Petrovich Zakharo | Advanced study of ICF-energy direct conversion for Laser Fusion Rocket with quasi-dipole field in the laser-plasma experime |
| FPo64 | Nobuo Matsuda | Improvement of Thrust Efficiency of Laser Fusion Rocket with Shaped Target |
| FPo65 | Vasilii V. Zhakhovskii | Laser Ablation of Crystalline Aluminum Simulated by Molecular Dynamics |
| FPo66 | Kazunori Shibata | The possibility for superconductor fusion in metallic hydrogen |
| FPo67 | Peijun CAI | One Controlled Approach to Nano-sized Carbon Spheres |
| FPo68 | Ryo Kawabuchi | Numerical Simulation of Plasma detachment from a Magnetic Nozzle by using Fully Particle-In-Cell Code |
| FPo69 | Taku Saiki | Oscillation Property of Rod-Type Nd/Cr:YAG Ceramic Lasers with Arc-Metal-Halide-Lamp Pumping |
| FPo70 | Tetsuo Harimoto | Numerical analysis of near and far field patterns of second-harmonic generation with tiling nonlinear optical crystals |
| FPo71 | Y. C. Francis Thio | Magneto-Inertial Fusion: An Emerging Concept for Inertial Fusion and Dense Plasmas in Ultrahigh Magnetic Fields |
| FPo72 | Baimbetov | Ionization cross section and coefficient of partially ionized hydrogen plasma |
| FPo73 | Baimbetov | About one model of interaction between structure elements of dusty plasma |
| FPo76 | Ezaki | Development of Segmented Grating Mount System for FIREX-1 |
| FPo77 | Monteil | Symmetry experiments on Omega connected to new LMJ designs |
| FPo78 | MIAO | Investigation on Diagnostics for Capsule Fuel-Shell Interface in SG-II Indirect-Drive Implosions |
| FPo79 | Kasperczuk | Influence of the focal point position of a focusing lens on a character of an ablative plasma expansion |
| FPo80 | Rhee | Nuclear fusion reactions in the D2 clusters and deuterated polymers |
| FPo81 | SHCHEBELINA | The possibility to improve the systems for control of target debris parameters and electrostatic plasma confinement |
| FPo82 | Shu | Laser driven shock wave stability and planarity |
| FPo83 | Lin Zhang | Detecting the uniformity of polymer foams by β-ray technology |
| FPo84 | Oliva | Study of the impact of small-scale modulations and size of the plasma on seeded soft x-ray laser homogeneity |
| FPo85 | Norimasa Yamamoto | Constructions of an ionization non-equilibrium plasma model for applications to laboratory and solar plasmas |
| FPo86 | Gilles Riazuelo | Model for Forward Stimulated Brillouin Scattering |
| FPo87 | H. Nakajima | Ground penetrating radar using a microwave radiated laser induced plasma |
| FPo88 | Amita Das | Stability of one - dimensional relativistic laser plasma envelope solitons |
| FPo89 | Iwamae | Time-dependent spectroscopic measurements of electron temperature and ion abundance ratios of helium- and lithium- |