Session 1.2 Posters (Monday AM)

Session 1.2 Posters

Location (2nd floor of hotel):  Berkeley (Posters 1-10), Swannanoa (Posters 11-28), Victoria (Posters 29-46)

Posters Monday AM
EntryTitlePresenter First NamePresenter Last NameAffiliationAbstract
1.2.1
1.2.2
1.2.3Capsule Backlighter Optimization for the OMEGA Opacity ExperimentsAhmedElshafieyLANLhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_Elshafiey_Abstract.pdf
1.2.4Calibration and characterisation of optical and x-ray streak cameras using a Ti:Sapphire laser systemRoryPenmanAWEhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_RPenman_Abstract.pdf
1.2.5Implications of neutron-induced cable backgrounds for high-flux, Fusion Energy-relevant experimentsShaunKerrLawrence Livermore National Laboratoryhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_SK_Abstract.pdf
1.2.6Design of the Imaging Neutral Particle Analyzer (INPA) to enhance the Understanding of Fast Ion Confinement and Transport in the Large Helical Device (LHD)WorathatPaenthongThe Graduate University for Advanced Studies, SOKENDAIhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_Worathat_Abstract_-ML_KO.pdf
1.2.7First Result for X-ray Imaging Crystal Spectrometer (XICS) Diagnostic on HL-3 tokamakXiaolongZhangSouthwestern Institute of Physics, Chengdu, Chinahttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_XiaolongZhang_Abstract.pdf
1.2.8Primary Results of Scintillator-based Imaging Neutral Particle Analyzer in HL-2A and Design for HL-3 TokamakLimingYuSouthwestern Institute of Physicshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_LimingYU_Abstract.pdf
1.2.9Optimal Termination of a Maximum Likelihood Algorithm for Penumbral Image ReconstructionYuduoLiuLaboratory for Laser Energetics, University of Rochesterhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_Liu-1.pdf
1.2.10A compact D-T neutron spectrometer based on a single-crystal chemical vapor deposition diamond stack for fusion plasma diagnosticLongyongLiaoThe Graduate University for Advanced Studies, SOKENDAIhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_Abstract_Liao_v2.pdf
1.2.11Scintillating-Fiber Detector for High-Time-Resolved Secondary D-T Neutron Measurement in KSTARKunihiroOgawaNational Institute for Fusion Sciencehttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_Ogawa_Abstract_r2.pdf
1.2.12High-repetition-rate dual-channel x-ray spectrometer for high-intensity laser-plasma experimentsGhassanZeraouliColorado State Universityhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/Abstract-HTPD-GZ_V240105.pdf
1.2.13The motional Stark effect polarimeter in the HL-3 tokamakWen JinCHENSouthwestern Institute of Physicshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_Wen-Jin-CHEN_Abstract.pdf
1.2.14Calculation of heat flux as well as its distribution on lower divertor target using a high resolution infrared camera diagnostic in EASTDahuanZhuInstitute of Plasma Physics, HPFIPS, Chinese Academy of Scienceshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_Name_Abstract.pdf
1.2.15Development of an atomic spectra research platform based on medium-energy electron beam ion trapHuajianJiUniversity of Science and Technology of Chinahttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_JiHuajian_Abstract.pdf
1.2.16Collection optics of JT-60SA edge Thomson scattering diagnosticFederico AntonioD'IsaConsorzio RFX (CNR, ENEA, INFN, University of Padova, Acciaierie Venete SpA), C.so Stati Uniti 4, 35127 Padova, Italyhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/DIsa_HTPD_v2.pdf
1.2.17Developing a generalized NLTE spectral ML model for HED applicationsMarc-AndreSchaeubleSandia National Laboratorieshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_Schaeuble_Abstract.pdf
1.2.18Study of a Collective Thomson Scattering diagnostic for the Divertor Tokamak Test facilityWilliamBinConsiglio Nazionale delle Ricerche (CNR) - Italyhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/WBin_HTPD_CTS.pdf
1.2.19Variation of NIF Image Reconstruction Algorithms and FeaturesCabotCullenLos Alamos National Laboratoryhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/CullenHTPD24_Abstract.pdf
1.2.20DIII-D Thomson Scattering Horizontal Beam Path UpgradesFentonGlassGeneral Atomicshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_Glass_Abstract.pdf
1.2.212 μs linear frequency modulated continuous wave (FMCW) reflectometry for measuring plasma density profile fluctuationsSeong-HeonSeoKorea Institute of fusion energyhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/abstract.pdf
1.2.22Quantum Noise Correlation Analysis to Measure Ion TemperatureDanielDen HartogUniversity of Wisconsin-Madisonhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_Den-Hartog_Quantum-Correlation.pdf
1.2.23Millimeter-Wave, High-k Collective Scattering Diagnostic Development on the EAST TokamakXianziLiuUniversity of California Davishttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_EAST_Highk_Abstract.pdf
1.2.24Machine Learning-based Method to Unfold X-ray Spectra from Filter Stack SpectrometersMarianaAlvarado AlvarezLos Alamos National Laboratoryhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/Mariana_LA_UR_24-20591.pdf
1.2.25Progress towards absolute calibrations of DC x-ray sources from 1 keV to >30 keV for Z diagnostics applicationsTimothyWebbSandia National Laboratorieshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_TJWebb_Abstract.pdf
1.2.26Targeted Reflectivity Measurement at Specified Locations on SiC First Mirror for ITER divertor VUV spectrometerYoo KwanKimKorea Institute of Fusion Energyhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/abstract_YKKIM3.pdf
1.2.27PiMiX for ICF applicationsZhehuiWangLos Alamos National Laboratoryhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD24-Abstract2.pdf
1.2.28Improvement of DIII-D Divertor Thomson Scattering Measurement Through Stray Light ReductionFabioContiGeneral Atomicshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/2024HTPD_abstract_Conti.pdf
1.2.29EUROfusion Diagnostic Enhancements, R&D and scientific exploitation in support of ITER research plan prioritiesJoaoFigueiredoEUROfusionhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_Figueiredo_Abstract.pdf
1.2.30Validation of delay dispersion extrapolation for Coherence Imaging SpectroscopyValeriaPerseoMax Planck Institute for Plasma Physicshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_Perseo_Abstract.pdf
1.2.31Progress and challenges in the design of ITER's Polarimetric Thomson Scattering diagnostic systemFilippoBagnatoITER Organizationhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_Filippo_Bagnato_Abstract_v2.pdf
1.2.32Mechanical Design of the Proton Trajectory Assay - Recoil Telescope (PAJARITO) for Sandia Z Pulsed Power FacilityTanaMorrowLos Alamos National Laboratoryhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/Abstract-Mechanical-Design-of-a-Proton-Trajectory-Assay-Recoil-Telescope-PAJARITO-for-Sandia-Z-Pulsed-Power-Facility.pdf
1.2.33Determination of MeV x-ray spectra from filter stack spectrometer dataChun-ShangWongLos Alamos National Laboratoryhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_CS-Wong_Abstract.pdf
1.2.34
1.2.35Data Streaming Infra-Red Video Bolometer (IRVB) of Korea Superconducting Tokamak Advanced Research (KSTAR)SeungtaeOhKFEhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_Seungtae-Oh_Abstract_v2.pdf
1.2.36Measuring mix in ICF implosions using narrowband crystal imagingGarethHallLawrence Livermore National Laboratoryhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD-abstract-2024-G.-N.-Hall.pdf
1.2.37Experimental results from W diverter from X-ray Imaging Crystal Spectrometer on KSTARSang GonLeeKorea Institute of Fusion Energyhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024abtract_SGLee.pdf
1.2.38Towards a Multi-GHz Ionizing Particle Precision DiagnosticBruceSchummUniversity of California, Santa Cruzhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_Schumm_Abstract.pdf
1.2.39A Chlorine based scintillator (LaCl3) for 2.5 MeV neutron spectroscopy in deuterium nuclear fusion plasmasDavideRigamontiInstitute for Plasma Science and Technology, National Research Council of Italy, Milan, Italyhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_Rigamonti_Abstract_V2.pdf
1.2.40Development of Ultra-Short Pulse Reflectometry on the EAST TokamakXiaoliangLiuc davishttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_USPR.pdf
1.2.41Measuring electron density with a OpGaAs based high-power IR dispersion interferometerVincentCarratBertin Technologieshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_DIP.pdf
1.2.42Compact and remote automation of motional Stark effect in-vessel calibrationsJinseokKoKorea Institute of Fusion Energyhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_JSKo_Abstract.pdf
1.2.43Optimization of fast-ion diagnostic sets in tokamaks and stellarators using diagnostic weight functionsDmitryMoseevMax-Planck-Institut für Plasmaphysikhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_Moseev_Abstract.pdf
1.2.44Development of extreme ultraviolet detector for plasma spectroscopy diagnosticsSunBoInstitute of Plasma Physics, Chinese Academy of Sciences, Hefei, Chinahttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024-Abstract.pdf
1.2.45SPARC’s Approach to a Foil Activation System for Neutron Fluence MeasurementsIanHolmesCommonwealth Fusion Systemshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_Holmes_CFS-FOIL-Abstract.docx.pdf