most citedLessons learned after three years of SPIDER operation and the first MITICA integrated tests

30 citations · 60 across the 4 of their papers we have counts for

collaborators

5 papers

physics.plasm-ph20236 cited

Cs evaporation in a negative ion source and Cs cleaning tests by plasma sputtering

M. Barbisan, R. S. Delogu, A. Pimazzoni +3

The compact radio frequency negative ion source NIO1 (Negative Ion Optimization phase 1) has been designed, built and operated by Consorzio RFX and INFN-LNL in order to study and o…

physics.acc-ph2023

Direct current measurements of the SPIDER beam: a comparison to existing beam diagnostics

A. Shepherd, T. Patton, A. Pimazzoni +5

For negative ion beam sources there are several methods of measuring the accelerated beam current, most commonly electrical measurements at the power supply and calorimetric measur…

physics.plasm-ph202312 cited

First results from beam emission spectroscopy in SPIDER negative ion source

M. Barbisan, B. Zaniol, R. Pasqualotto +2

The SPIDER experiment, part of the Neutral Beam Test Facility (NBTF) at Consorzio RFX (Padua, Italy), is the prototype of the negative ion source for the ITER neutral beam injector…

physics.plasm-ph202312 cited

Overview on electrical issues faced during the SPIDER experimental campaigns

Alberto Maistrello, Matteo Agostini, Marco Bigi +39

SPIDER is the full-scale prototype of the ion source of the ITER Heating Neutral Beam Injector, where negative ions of Hydrogen or Deuterium are produced by a RF generated plasma a…

physics.plasm-ph202330 cited

Lessons learned after three years of SPIDER operation and the first MITICA integrated tests

D. Marcuzzi, V. Toigo, M. Boldrin +139

ITER envisages the use of two heating neutral beam injectors plus an optional one as part of the auxiliary heating and current drive system. The 16.5 MW expected neutral beam power…