National Institute for Nuclear Physics | INFN Accelerators

 
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Southern National Laboratories

Southern National Laboratories

 

Clinic with Conventional Accelerators:

  • Ion sources
  • W band metal accelerators and dielectric accelerators
  • Hadrotherapy
  • Acceleration from laser-matter interaction
  • Heavy ion accelerators

 

Ion sources:

Projects:

  • Development of high intensity (> 100 mA) sources of protons (and light single-charge ions), of the Microwave Discharge Ion Sources type, for power LINACs (PS-ESS project);
  • Development of ECR ​​type ion sources - Electron Cyclotron Resonance for light and heavy ions with a high state of charge (AISHa project - Advanced Ion Source for Hadrotherapy)
  • Development of plasma diagnostics for ion sources: microwave interferometers, microwave interferopolarimeters, X spectroscopy, spatially resolved X spectroscopy (pin-hole camera)
  • Modeling of magnetized plasmas using PIC-Particle in Cell techniques

Instrumentation:

  • High voltage platforms for ion source testing
  • Test-bench for plasma diagnostics consisting of a Simple Mirror magnetic trap called Flexible Plasma Trap (FPT) operating up to 7 + 14 GHz frequency, 400 W max.
  • RF generators up to 50 GHz and TWT and Klystron microwave amplifiers in the 4-7 GHz, 13.75-14.5 GHz, 8-18 GHz bands
  • Vectorial Network Analyzers operating up to 50 GHz
  • Spectrum Analyzers in the 10 kHz -30 GHz range
  • Microwave Interferopolarimeter (VESPRI) in the 16-28 GHz band
  • Langmuir probes for the resistive measurement of plasma parameters
  • Low energy operating BrF beam diagnostic viewers (10-200 keV)

Skills:

  • Design of permanent magnet, copper, or superconducting magnetic traps
  • Use of microwave instrumentation for RF cavity power injection lines
  • Electromagnetic characterization of microwave resonant cavities with the bead-pull technique
  • Spinning from slabs or pipes

 

 

W band metal accelerators and Dielectric accelerators (Torrisi, Sorbello)

Projects: 

  • DEMETRA (DiElectric and METallic Radiofrequency Accelerator (Dielectric Accelerator)

Skills: 

  • Design of W band cavities (~ 100 GHz) in "open" technology with high accelerating gradient for RF breakdown studies
  • Design of X-band mode Launcher (converter) from TE10 mode to TM01 Quadrupole-free acceleration mode for high brightness applications
  • Design of planar dielectric accelerators (2D) based on photonic crystal technology at optical frequencies
  • Design of (3D) photonic crystal waveguides in "woodpile" configuration for dielectric accelerators
  • Design of "Hollow Core" electromagnetic band gap (EBG) dielectric waveguides for power supply and DC-break in ion sources.
  • Electromagnetic characterization of dielectric waveguides with the bead-pull technique
  • Development of analytical and numerical methods for error control on resonant frequency and conductive losses in cylindrical cavities
  • Use of the CST MW Studio, Ansys HFSS electromagnetic simulators and the MIT Photonic − Bands (MPB) package, for the calculation of the dispersion relationship in optical systems

  

Clinical Hadrontherapy with Conventional Accelerators (Cirrone)

Projects:

Skills:

  • Simulation, design and construction of transport elements for passive proton therapy lines typical of ocular melanoma treatment.
  • Expertise in related dosimetric and safety systems.
  • On this front it should be noted the agreement that is currently being finalized with the Best Cyclotron Company to which we will provide the knowledge relating to these aspects.
  • Construction of 2D detectors for dose distributions of proton / ion beams for hadrontherapy and detectors for microdosimetry.
  • Simulation of transport systems for proton therapy lines, including active ones.

 

Acceleration from laser-matter interaction (Cirrone)

Projects:

  • ELIMED (laser acceleration and energy selection line and ion beam transport for oncological hadrotherapy)

Skills: 

  • Study and realization of specific plates and laser-plate interaction schemes for the initiation of the production of proton beams and alpha particle beams in plasmas
  • Simulation, design and implementation of magnetic systems dedicated to the transport of proton / energy ion beams up to 250 AMeV generated by laser-target interaction.
  • Development and realization of very high dose rate and pulsed dosimetry detectors such as those that can come from laser-target generation or from high intensity accelerators that are finding application in flash radiotherapy.
  • Monte Carlo simulation of ion beam transport systems for the construction of proton therapy lines, for the optimization of patient doses and for the study of radiation protection aspects

 

Heavy ion accelerators (Cosentino et al.)

Projects:

  • New ECR Sources for negative ions (in particular, from noble gases)
  • Development of ovens and vaporizers up to 1400 ° C for the production of metal beams from ECR sources
  • batch beams from radioactive elements
  • low energy / low intensity and RIBs beam diagnostics
  • radioactive beam diagnostics
  • solid state RF amplifiers
  • computer control accelerators and beam lines

Instrumentation:

  • characterization of RF power equipment
  • Vacuum and cryogenics
  • computer control
  • low frequency analog electronics
  • low energy / low intensity and RIBs beam diagnostics

 

 

Danilo Rifuggiato

 

Skills:

  • Dynamics of ion beams in cyclotrons
  • Axial injection of ion beams into cyclotrons
  • Extraction of ion beams by electrostatic deflector and by stripping in cyclotrons
  • Phase selection in cyclotrons
  • Measurements and analysis of magnetic fields in cyclotrons
  • Magnetic field shimming in cyclotrons
  • Production of ion beams in cyclotrons
  • Production of proton beams for proton therapy
  • Transport of ion beams in the beamlines to the measurement point
  • Production of radioactive beams in an ISOL system
  • Drawing of a mass separator for an ISOL system
  • Production of radioactive beams by in-flight fragmentation
  • High intensity cyclotrons design

Projects:

As part of the Upgrade of the Superconducting Cyclotron of LNS for beams of maximum power 10 kW:

  • Superconducting magnet supply (DC coils, nitrogen shield and cryostat)
  • Development of a system for handling and replacing graphite sheets (stripper)
  • Drawing of magnetic channels for extraction by stripping
  • Development of high intensity beam diagnostics systems
  • Development of security systems for MPS
  • Optimization of Source - Superconducting Cyclotron matching

Instrumentation:

  • High precision magnetic field measurement systems
  • Conventional beam diagnostics systems (FC and BPM)
  • Custom cyclotron beam diagnostics systems

  

Lorenzo Neri

Projects:

 

 

 

 

 

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infn pulsante 2017
 

tt infn 2017
asimmetrie pulsante blu3
traspsarenza

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