CERN 29 Jan 2008 Power Converters for Linac 4 - Carlos A. Martins1 Power Converters for Linac 4 2 Hz) Carlos A. MARTINS Accelerators and Beams (AB)

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CERN 29 Jan 2008 Power Converters for Linac 4 - Carlos A. Martins1 Power Converters for Linac 4 2 Hz) Carlos A. MARTINS Accelerators and Beams (AB) department Power Converters (PO) group

CERN 29 Jan 2008 Power Converters for Linac 4 - Carlos A. Martins2 1.General characteristics and overview of power converters 2.Klystron Modulators 3.Power converters for Steering magnets 4.Power converters for Quadrupole magnets 5.Power converters for transfer line Bending magnets 6.Power converters for Booster Injection Septa magnets 7.Power converters for the 3 MeV front end (re-use of existing 3 MeV Test Stand converters) 8.Installation layout in the building 9.Conclusions Table of contents

CERN 29 Jan 2008 Power Converters for Linac 4 - Carlos A. Martins3 1. General characteristics Pulsed converters whenever possible: - Flat-top (precision):1.2 ms; - Pulse width:1.5 ms; - Repetition rate:2 Hz; - Cooling:Air (natural or forced) Power converter controls: - Standard PO local controller:FGC3 (Function Generator and Controller) - Remote controls:WorldFiP field bus based architecture Pulse width Rise timefall time time Flat-top Note: For the 3 MeV Front-End power converters: (Linac 4 as PS Booster injector operation only) - Flat-top:600 µs - Pulse width:800 µs;

CERN 29 Jan 2008 Power Converters for Linac 4 - Carlos A. Martins4 1. Power converters overview Three main sectors in the machine: - 3 MeV front end (0 -> 3MeV); - Linac4 machine (3MeV -> 180MeV); - Transfer line to PS Booster (PSB) and Booster Injection (BI) MeV Front End power converters: - HV DC, for H- source;(x4) - Klystron Modulator for RFQ;(x1) - Pulsed, for quadrupole magnet(x11) - DC for Steering magnets;(x7) - Pulsed, for solenoid magnets;(x2) Linac4 machine power converters: - Klystron Modulators; (x13) - Pulsed, for quadrupole magnets; (x23) - Pulsed, for Steering magnets;(x30) Transfer Line to PSB and BI power converters: - Pulsed, for Bending magnets;(x2) - Pulsed, for quadrupole magnets;(x17) - Pulsed, for Steering magnets;(x10) - Pulsed 20kA, for BI Septa;(x3) Total: 105 magnet power converters + 15 klystron modulators (x..) – quantities without spares

CERN 29 Jan 2008 Power Converters for Linac 4 - Carlos A. Martins5 2. Klystron modulators configurations Only one type of modulator for all the Linac 4 klystron configurations Modulator Cathode pulser Anode Mode Klystron B ACFACF Klystron A FCAFCA Anode Mode Filament heater Optional Modules (Confs 1 & 2) 4.8 MW 1. Single for LEP klystrons Cathode pulser Anode Mode Modulator Klystron A FCAFCA Filament heater 2. Double for LEP klystrons3. Single for “new” klystrons 2 MW Cathode pulser Anode Mode Modulator Klystron B ACFACF Klystron A FCAFCA Anode Mode Filament heater 2 MW Cathode pulser Modulator Klystron A FCFC Filament heater 4.8 MW

CERN 29 Jan 2008 Power Converters for Linac 4 - Carlos A. Martins6 2. Klystron modulators parameter table Cathodes power supply - Pulse width:1.5ms - Flat-top duration1.2 ms - Precision at flat-top:< 1% - HF ripple at flat-top:< 0.1% - Repetition rate:2 Hz - Nominal voltage:120kV (*) - Nominal current:2x20A (*) - Rise/fall times:150µs - Cooling:Air (natural or forced) - Maximum energy in case of arc:< 20 J Anode Mode polarization power supplies - Stability at flat-top:< 1% - HF ripple at flat-top:< 0.1% - Nominal voltage to cathode :60 kV (*) - Nominal current:5 mA (*) Filament heater power supplies - Stability and ripple:< 1% - Nominal voltage:30V (*) - Nominal current:35A (*) - Floating withstand voltage to ground: 180kVdc for 1 min. Pulse width Rise timefall time time Flat-top (*) to be confirmed, taking the new klystrons design into consideration

CERN 29 Jan 2008 Power Converters for Linac 4 - Carlos A. Martins7 Prototype (3 MeV Test Stand) Single LEP klystron configuration for RFQ Cathode ratings: 100 kV, 20A, pulsed 2 Hz, flat-top: 600  s A global klystron supply solution: (Cathode, Anode, Filament) in one system Cathode voltage With bouncer Without bouncer < 1% Cathode voltage (zoom at flat-top) Bouncer 600  s

CERN 29 Jan 2008 Power Converters for Linac 4 - Carlos A. Martins8 19”,3U 600V, +/-20A; pulsed 2Hz; flat-top duration: 1.2 ms; flat-top precision: ~1000 ppm; 7 ms 20A 3. Power converters for steering magnets Standard CERN design 6 units per rack

CERN 29 Jan 2008 Power Converters for Linac 4 - Carlos A. Martins9 Power crate 19”, 6U Electronics crate 19”, 3U 1 kV, 200A; pulsed 2 Hz; flat-top duration: 1.2 ms (Linac 4 machine+TL) 600  s (3 MeV Front End) flat-top precision: ~1000 ppm voltage current 1 ms 300A 500V 4. Power converters for quadrupole magnets 3 units per rack Standard CERN design

CERN 29 Jan 2008 Power Converters for Linac 4 - Carlos A. Martins10 250V, 1000A; pulsed 2 Hz; flat-top duration: ~100 ms; precision at flat-top: ~100 ppm 5. Power converters for Transfer Line Bending magnets Arbitrary current function generation Standard CERN design PS auxiliary converters: 400V, 800A

CERN 29 Jan 2008 Power Converters for Linac 4 - Carlos A. Martins11 300V, 20kA; pulsed 2 Hz; flat-top duration: 600µs; precision at flat-top: ~1000 ppm 6. Power converters for Booster Injection Septa magnets Septa current Traditional thyristor technology New topology under study, based on new semiconductor technology, more compact and less expensive for long pulses

CERN 29 Jan 2008 Power Converters for Linac 4 - Carlos A. Martins12 7. Power converters for the 3 MeV Front End - All the existing 3 MeV Test Stand converters will be re-used for the Linac 4 3-MeV Front End, except the RFQ klystron modulator - New universal controls system to be installed: FGC 3 + WorldFip - Flat-top is limited to 600µs Existing power converters at the 3 MeV Test Stand to be refurbished Power converters for Solenoids ( 2kV,2kA, 600  s / 2Hz ) Power converters for quadrupoles (MaxiDisCap) (1kV, 200A, 600  s/2Hz) + steerers / bendings (35V, 20A, DC) HV power converter for H- source RF amplifier (22 kV, 300mA, DC) HV power converter for H- source platform (60 kV, 2mA, DC)

CERN 29 Jan 2008 Power Converters for Linac 4 - Carlos A. Martins13 Power converters list

CERN 29 Jan 2008 Power Converters for Linac 4 - Carlos A. Martins14 8. Installation layout in the building Klystron Hall 3 MeV Front End converters Linac 4 - machine converters Transfer line converters PSB Transfer line 3 MeV Front End Klystron modulators

CERN 29 Jan 2008 Power Converters for Linac 4 - Carlos A. Martins15 9. Conclusions -A significant work has been carried out in the last decade at CERN, to develop pulsed power converters for magnets (quadrupoles, steerers, septa, bendings), however pulse flat-tops were always below ~600  s; -The klystron modulator prototype (3 MeV Front End RFQ) is also limited to 600  s flat-top, and the peak power is < 50% of the Linac 4 ones. -The 3 MeV Test Stand power converters will be re-used for the Linac 4 machine 3 MeV Front End, however operation is limited to 600  s flat-top; -The passage from the 600  s to 1.2ms flat-top is a main issue and requires re- engineering and new prototyping for a majority of systems; -Engineering review for the steering and quadrupole power converters needed: 1.Integration of the new FGC3 remote controller; 2.New dimensioning of components for operation at larger pulses (1.2 ms flat-top); -Call for tendering and contracting follow-up for industrial series production to be launched; -The great challenges will be: 1.Development of the new 20kA power converters for Booster Injection Septa; 2.Development of the long pulse klystron modulators (120kV, 40A, 1.2ms flat-top / 2Hz);