Session 2.2 Posters (Tuesday AM)

Session 2.2 Posters

Session Chair:  TBD

Location (2nd floor of hotel):  Berkeley (Posters 1-15), Swannanoa (Posters 16-30), Victoria (Posters 31-45)

Posters Tuesday AM
EntryTitlePresenter First NamePresenter Last NameAffiliationAbstract
2.2.1A correlation-ECE system in D-band emission on LHD for measuring electron temperature fluctuationMingzhengGongthe University of Tokyohttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_MG_Abstract_revRY.pdf
2.2.2Development of a Full Aperture Backscatter System for the Orion LaserPhillipThomasAWE plchttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_PThomas_Abstract.pdf
2.2.3Reducing uncertainties of Thomson scattering measurements based on multi-passband polychromator optical filtersWayneGoodmanUniversity of Wisconsin - Madisonhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/HTPD2024_WayneGoodman_Abstract.pdf
2.2.4Neutronics Simulations supporting the Design of Neutron Flux Monitors in SPARCXinyanWangMassachusetts Institute of Technologyhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/01/Design-of-Neutron-Flux-Monitor-Fleet-in-SPARC-Abstract-Xinyan.pdf
2.2.5Design of a multi-pulse Thomson scattering system for the SMART tokamakManjitKaurPrinceton Plasma Physics Laboratoryhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_Mkaur_Abstract_ver2.pdf
2.2.6Fast-ion D-alpha diagnostic with a tangential view on HL-2A tokamakHangyuZHOUSouthwestern Institute of Physicshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/abstrct-HTPD2024-zhouhy-M1.pdf
2.2.73D-track extraction from fluorescent nuclear track detector by machine learning and application for diagnostics of laser-driven ionFukaNikaidoGraduate School of Engineering, Osaka Universityhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_Fuka_Nikaido_Abstract.pdf
2.2.8Self-radiometric calibration solution for tokamak's optical diagnosticsDavidAnthoineBertin Technologieshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_CXRS_calibration.pdf
2.2.9ECE calibration with Thomson scattering using a wide scan of toroidal magnetic field of KSTARKyu-DongLeeKorea Institute of Fusion Energyhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_KDLee_Abstract.pdf
2.2.10High Speed and High-Resolution Visible Spectroscopy for SPARCAaronRosenthalCommonwealth Fusion Systemshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_ARosenthal_Abstract.pdf
2.2.11Design solutions for the hodoscope of the magnetic proton recoil neutron spectrometer of the SPARC tokamakMarcoDalla RosaUniversity of Milano-Bicoccahttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_Dalla_Rosa.pdf
2.2.12Role of radiation re-absorption in the Thermal Helium Beam diagnosticMargheritaUgolettiISTP-CNRhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_MUgoletti_Abstract.pdf
2.2.13Development of a measuring technique based on JET DTE2 experience for assessing fusion power at ITER during DT operation using the radial gamma-ray spectrometerGiuliaMarcerUniversity of Milano-Bicoccahttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD_2024_Marcer_abstract_submitted.pdf
2.2.14Feasibility Study for a Vertical Viewing Electron Cyclotron Emission Diagnostic for the JT-60SA TokamakTokihikoTokuzawaNational Institute for Fusion Sciencehttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_Tokuzawa_Abstract_v2.pdf
2.2.15Design of a 60GHz Collective Thomson Scattering diagnostic systemJinlinXieDepartment of Plasma Physics and Fusion Engineering, University of Science and Technology of Chinahttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/Development-of-the-collective-Thomson-scattering-diagnostic-system-at-EAST-v1.pdf
2.2.16A terahertz solid-state diode source Interferometer-Polarimeter designed for long pulse discharges on EASTSHOUXINWANGInstitute of plasma physics, Chinese Academy of Scienceshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_S.X.-Wang_Abstract.pdf
2.2.17A fast spectral decomposition procedure for collective Thomson scattering based on Artificial Neural NetworksJingshuoZhangUniversity of Science and Technology of Chinahttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/A-fast-analysis-method-for-collective-Thomson-scattering-spectra-based-on-Artificial-Neural-Networks.pdf
2.2.18An octahedral Mach-Bdot probe for 3D flows in the edge of RFPsConstanceRoudaUniversity of Wisconsinhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/Sellner-2023-HTPD-abstract.pdf
2.2.19Development of Synthetic Diagnostics for SPARCIvanaAbramovicCommonwealth Fusion Systemshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_IAbramovic_Abstract.pdf
2.2.20Performance Validation of the ITER XRCS-Core using Prototype Laboratory TestsLanGaoPrinceton Plasma Physics Laboratoryhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD_2024_Gao.pdf
2.2.21Characterization of plasma parameters and neutral particles in Microwave and Radio Frequency discharges in the TOMAS deviceLuis DanielLópez RodríguezLaboratory for Plasma Physics of the Ecole Royale Militaire / Koninklijke Militaire School (LPP-ERM/KMS)https://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_Lopez-Rodriguez_Abstract.pdf
2.2.22Opto-mechanical design and performance evaluation of collection optics in 2D beam emission spectroscopy on Wendelstein 7-XXiangHanUniversity of Wisconsin-Madisonhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/Abstract_HTPD2024_Xiang_V1.pdf
2.2.23Edge Scanning Reflectometry for Density Profile Measurement on SPARCYijunLinMIT Plasma Science and Fusion Centerhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_LIN_yijun_Abstract.pdf
2.2.24SPARC X-ray diagnostics: technical and functional overviewDidierVEZINETCommonWealth Fusion Systemshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_Vezinet_Abstract_v2.pdf
2.2.25Design and development of the magnetic diagnostic systems for the first operational phase of the SMART tokamak.FernandoPuentes-del PozoPlasma Science and Fusion Technology group, University of Seville, Spainhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/F-Puentes-del-Pozo_Abstract_HTPD2024.pdf
2.2.26A Tensioned 2D Wire Calorimeter for Neutral Beam Profile Measurements on LTX-βWilliamCapecchiUniversity of Wisconsin- Madisonhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_Capecchi_Abstract.pdf
2.2.27Design of NSTX-U Radial Interferometer-PolarimeterJieChenUCLAhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_NSTX-U-polarimeter_abstract_v1.pdf
2.2.28
2.2.29Sensitivity of motional Stark effect on different beam energy components for radial electric field measurements in tokamak plasmasJuyoungKoKorea Institute of Fusion Energyhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_Juyoung-Ko_Abstract.pdf
2.2.30Electrical Design of FIDDLE at the NIF – Requirements, Design, and PerformancePeterNyholmLawrence Livermore National Laboratoryhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_NyholmPeter_Abstract_Released.pdf
2.2.31Initial Tests utilizing the Z-Petawatt laser for Performing nTOF Impulse Response MeasurementsGordonChandlerSandia National Laboratorieshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_Chandler_Abstract_v1.pdf
2.2.32Design of a Multichannel Vacuum Ultraviolet Spectroscopy System for SPARCInwooSongCommonwealth Fusion Systemshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_ISong_abstract_v1.pdf
2.2.33HRXS - a new High Resolution X-ray Spectrometer for LMJBenjaminVauzourCEAhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_Vauzour_Abstract.pdf
2.2.34
2.2.35Soft X-Ray Tomography on the High Field Spherical Tokamak ST40CaryColganTokamak Energy Ltdhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_Cary_Colgan_Abstract.pdf
2.2.36Validation of Predictive Performance Models for Ultrafast, Supersonic Gas Jets at the LLEKyleMcMillenUniversity of Rochester's Laboratory for Laser Energeticshttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_McMillen_Kyle_Abstract.pdf
2.2.37Design of a spectrometric detector unit for the SPARC neutron cameraJohnBallMIT Plasma Science and Fusion Centerhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_Ball_Abstract.pdf
2.2.38A New Synthetic Correlation ECE Diagnostic for Validating Nonlinear Gyrokinetic Simulations of Electron Temperature Turbulence on DIII-DGuidingWangUCLAhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/GWang_HTPD2024_abstract_submit.pdf
2.2.39Simulation of Neutron Spectra from Volume Ignition TargetsZoranPesicFirst Light Fusion Ltdhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_Zoran_Pesic_Abstract.pdf
2.2.40Source Reconstruction via Neutron Imaging and Machine LearningGarySaavedraLos Alamos National Laboratoryhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_SaavedraGary_Abstract.pdf
2.2.41First Measurements of Energetic Protons in MAST-UpgradeAshganAboutalebFlorida International Universityhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_First-Measurements-of-Energetic-Protons-in-MAST-Upgrade.pdf
2.2.42Interpretation of Impurity Collector Probes in DIII-D is Enhanced by the Utilization of Synthetic Diagnostics and Boundary Plasma ModelingDavidDonovanUniversity of Tennessee-Knoxvillehttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_Donovan_Abstract-Final.pdf
2.2.43Applicability of Alkali Beam Emission Spectroscopy on NSTX-UMateLampertPrinceton Plasma Physics Laboratoryhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/Abstract.pdf
2.2.44Measurements of the Thomson scattered spectrum for low-temperature plasmas in the presence of high background visible laser lightTheodoreBiewerOak Ridge National Laboratoryhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_Biewer_Abstract_v1.pdf
2.2.45Power Broadening Effects in Pulsed Laser-Induced FluorescenceKateyStevensonWest Virginia Universityhttps://htpd2024.ornl.gov/wp-content/uploads/gravity_forms/2-d1fd45ef97b357f18b8cdc3868a2b437/2024/02/HTPD2024_Abstract_Stevenson.pdf