Process Analyses of ITER Toroidal Field Structure Cooling Scheme

• Maekawa

Room: NW17-218 Conference Room

Cross comparison of thermo-hydraulic analysis of the ITER magnets using two code systems

• Gauthier

Room: NW17-218 Conference Room

“Transverse heat transfer coefficient in the dual channel ITER TF CICCs. Part II. Analysis of transient temperature responses observed during heat slug propagation tests

• Lewandowska

Room: NW17-218 Conference Room

Artificial Neural Network (ANN) Modeling of the Pulsed Heat Load during ITER CS Magnet Operation

• Savoldi - Richard

Room: NW17-218 Conference Room

Simplified dynamic model of the heat loads on the ITER magnet system

• Luongo

Room: NW17-218 Conference Room

Application of the 4C code to the thermal-hydraulic analysis of the CS superconducting magnets in EAST

• Zanino

Room: NW17-218 Conference Room

Investigations about Helium Mass Expulsion and Heat Exchange Coefficients in CICCS: Predictive Analysis on Possible Experiments in HELIOS

• Nicollet

Room: NW17-218 Conference Room

Zero Dimensional Approach to Investigate the Thermal Stability of Superconducting Cables

• Granieri

Room: NW17-218 Conference Room

Experiment Proposal to Quantify the Thermal Response of Superconducting Cable Stacks to Pulse Heat Loads

• Winkler

Room: NW17-218 Conference Room

Analysis of stability margins of four ITER Central Solenoid conductor designs during a 15 MA plasma scenario with JackPot-ACDC

• Nijhuis

Room: NW17-218 Conference Room

Advances in Numerical Coding of Two Fluid HeII Model

• Van Weelderen

Room: NW17-218 Conference Room

Modeling of radio frequency heating and current drive in tokamaks in the ion cyclotron and lower hybrid frequency ranges. Massively parallel programming, integrated multiscale, multiphysics modelling

• Wright

Room: NW17-218 Conference Room

Quench modeling in accelerator magnets using a general-purpose code system

• Bottura

Room: NW17-218 Conference Room

A computer code for comprehensive analysis of quench in pool-cooled and adiabatic superconducting multi-coil magnets

• Gravilin

Room: NW17-218 Conference Room

Thermal and flow processes in cryogenic systems following failure modes combined with superconducting magnets resistive transitions

• Chorowski

Room: NW17-218 Conference Room

Influence of HTS Wire and Coil Configuration on Quench Propagation

• Masson

Room: NW17-218 Conference Room

First Experience with the New Coupling Loss Induced Quench System

• Ravaioli

Room: NW17-218 Conference Room

Hot spot temperature experiment for a cable-in-conduit conductor with thick conduit

• Sedlak

Room: NW17-218 Conference Room

QXF protection challenges, current analysis and key parameters/assumptions being used Room: NW17-218 Conference Room

New approaches to heater design, comparison with existing ones, and plans for validation in model magnets Room: NW17-218 Conference Room

An approximate electromagnetic model for superconducting helically wound cables and cable-in-conduit conductors

• Rodriguez-Zermeno

Room: NW17-218 Conference Room

Effect of combination of twist pitches on distribution of strands appearing on cable surface in CICC

• Miyagi

Room: NW17-218 Conference Room

A novel modeling of the critical current degradation of Nb3Sn PIT strand under transverse load based on Finite Element Analysis and strain scaling laws

• Wang

Room: NW17-218 Conference Room

2G HTS Properties Beyond Critical Current

• Hazelton

Room: NW17-218 Conference Room

Numerical models of HTS for AC loss computation: how far do we need to go?

• Grilli

Room: NW17-218 Conference Room

Magnetization losses due to any combination of rotating and alternating fields in superconducting filaments driven by a power-law voltage-current behavior

• Masson

Room: NW17-218 Conference Room

Multi-pole components of magnetic field in small dipole magnets wound with coated conductors

• N. Amemiya

Room: NW17-218 Conference Room

Finite Element Investigation of HTS Tapes for Twisted Stacked-Tape Cabling Methods

• N. Allen

Room: NW17-218 Conference Room

Quench Protection for High Temperature Superconducting Magnets based on Fiber Optic Distributed Temperature Sensing

• Chan

Room: NW17-218 Conference Room