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3 GHz and 30 GHz Conditioning Programs

Published byNathan Cools Modified over 5 years ago

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Presentation on theme: "3 GHz and 30 GHz Conditioning Programs"— Presentation transcript:

1 3 GHz and 30 GHz Conditioning Programs
by Dubrovskiy Alexey “If there is just one possible action a program should take it.” 5/6/2019 by Dubrovskiy Alexey

2 Contents Overview of the 3 GHz Conditioning
The principle schema of the programs The 3 GHz Conditioning Application The 30 GHz Conditioning Application Logging The End

3 Overview of the 3 GHz Conditioning

4 Overview of the 3 GHz Conditioning
Checks: Klystron Anomalous forward power Reflected power Vacuum levels Timing inhibit interlock Vacuum pumps Control: PFN Driver Amplifier

5 Overview of the 3 GHz Conditioning
Checks: Klystron Anomalous forward power Reflected power Vacuum levels Timing inhibit interlock Vacuum pumps Control: PFN Driver Amplifier Status and Mode

6 Overview of the 3 GHz Conditioning
Checking peaks of transmitted power Checks: Klystron Anomalous forward power Reflected power Vacuum levels Timing inhibit interlock Vacuum pumps Control: PFN Driver Amplifier Drv. Ampl. Value PFN Klystron Transmitted Power Driver amplifier power approximation Klystron transmitted power approximation amplVal – Driver Amplifier Value, amplW – Expected Transmitted Driver Amplifier Peak Power, tranW – Expected Transmitted Klystron Peak Power, maxW – Maximum Transmitted Driver Amplifier Power, PFN – Klystron PFN. a1,k1,k2,k3,a4,k4 - fitted parameters through the L-BFGS method

7 Overview of the 3 GHz Conditioning
Checking peaks of transmitted power Checks: Klystron Anomalous forward power Reflected power Vacuum levels Timing inhibit interlock Vacuum pumps Control: PFN Driver Amplifier One Section Incident Power Klystron Transmitted Power Transmitted Power One Section Incident Power ≈ Klystron Transmitted Power / 2 * Cavity Coefficient One Section Transmitted Power ≈ One Section Incident Power Cavity Coefficient = 1 (if the conditioning without cavity) Cavity Coefficient ≈ 1,8 (with cavity)

8 Overview of the 3 GHz Conditioning
Checks of transmitted power shapes Checks: Klystron Anomalous forward power Reflected power Vacuum levels Timing inhibit interlock Vacuum pumps Control: PFN Driver Amplifier With compressor Without compressor Normal Pulse Big variation Short length Anormal Pulse

9 Overview of the 3 GHz Conditioning
Checking peaks of reflected power Checks: Klystron Anomalous forward power Reflected power Vacuum levels Timing inhibit interlock Vacuum pumps Control: PFN Driver Amplifier Reflected power ranges: Normal Waiting Reduce the klystron incident power

10 Overview of the 3 GHz Conditioning
Checks: Klystron Anomalous forward power Reflected power Vacuum levels Timing inhibit interlock Vacuum pumps Control: PFN Driver Amplifier Up to 8 vacuum channels Vacuum level ranges: Normal Waiting Reduce the klystron incident power

11 Overview of the 3 GHz Conditioning
Checks: Klystron Anomalous forward power Reflected power Vacuum levels Timing inhibit interlock Vacuum pumps Control: PFN Driver Amplifier Timing inhibit interlock

12 Overview of the 3 GHz Conditioning
Checks: Klystron Anomalous forward power Reflected power Vacuum levels Timing inhibit interlock Vacuum pumps Control: PFN Driver Amplifier

13 Overview of the 3 GHz Conditioning
Checks: Klystron Anomalous forward power Reflected power Vacuum levels Timing inhibit interlock Vacuum pumps Control: PFN Driver Amplifier

14 Overview of the 30 GHz Conditioning
PETS TANK ATTENUATOR LOAD ACCELERATING STRUCTURE TANK Vacuum gauge GUN CTF3 CTF2 Faraday Cup (FC) BPM Reflected power Incident power Transmitted power

15 Overview of the 30 GHz Conditioning
Checks: Gun Missing energy Reflected energy FC signal Vacuums Gun inhibiter Control: Attenuator Pulse length PETS TANK ATTENUATOR LOAD ACCELERATING STRUCTURE TANK Vacuum gauge GUN CTF3 CTF2 FC BPM Reflected power Incident power Transmitted power

16 Overview of the 30 GHz Conditioning
Status / Mode Checks: Gun Missing energy Reflected energy FC signal Vacuums Gun inhibiter Control: Attenuator Pulse length PETS TANK ATTENUATOR LOAD ACCELERATING STRUCTURE TANK Vacuum gauge CTF3 CTF2 FC BPM Reflected power Incident power Transmitted power GUN

17 Overview of the 30 GHz Conditioning
Checks: Gun Missing energy Reflected energy FC signal Vacuums Gun inhibiter Control: Attenuator Pulse length PETS TANK ATTENUATOR LOAD ACCELERATING STRUCTURE TANK Vacuum gauge GUN CTF3 CTF2 FC BPM Reflected power Incident power Transmitted power

18 Overview of the 30 GHz Conditioning
Powers and Signals Checks: Gun Missing energy Reflected energy FC signal Vacuums Gun inhibiter Control: Attenuator Pulse length

19 Overview of the 30 GHz Conditioning
Checks: Gun Missing energy Reflected energy FC signal Vacuums Gun inhibiter Control: Attenuator Pulse length PETS TANK ATTENUATOR LOAD ACCELERATING STRUCTURE TANK Vacuum gauge GUN CTF3 CTF2 FC BPM Reflected power Incident power Transmitted power

20 Overview of the 30 GHz Conditioning
Checks: Gun Missing energy Reflected energy FC signal Vacuums Gun inhibiter Control: Attenuator Pulse length PETS TANK ATTENUATOR LOAD ACCELERATING STRUCTURE TANK Vacuum gauge GUN CTF3 CTF2 FC BPM Reflected power Incident power Transmitted power

21 Overview of the 30 GHz Conditioning
Checks: Gun Missing energy Reflected energy FC signal Vacuums Gun inhibiter Control: Attenuator Pulse length The Gun should be switched off, when: Missing energy Reflected energy FC GUN OFF The Gun should be switched on, when: Vacuum levels are OK Status of the gun inhibiter is OK If there was a breakdown, after changing pulse length and attenuator position GUN ON

22 Overview of the 30 GHz Conditioning
BREAKDOWN!!! Attenuator position Pulse length 1 2 3 4 Checks: Gun Missing energy Reflected energy FC signal Vacuums Gun inhibiter Control: Attenuator Pulse length Wait 3 sec Attenuator position -50% Pulse length -20% Switch ON the Gun Switch OFF the Gun GUI

23 Overview of the 30 GHz Conditioning
Interlock settings

24 The principle schema of the programs
FAST OPERATION SLOW OPERATION GUI LOGGING ACQUISITION PULSE SUMMARY FAST CONTROL MACHINE STATUS MACHINE CONTROL STORING DATA READING DATA SETTINGS ACQUISITION DATA

25 The 3 GHz Conditioning Application
MAKE CONNECTION STAND-BY SET MODULATOR RAISE POWER MAXIMUM POWER END OFF ON CHECK VACUUM CHECK POWERS CONTROL DRIVER STATUS FAST OPERATION SLOW OPERATION GUI LOGGING VME JAVA

26 The 30 GHz Conditioning Application
Pulse length Stepping motor ON CHECK GUN CHECK POWERS CHECK VACUUM CHECK GUN-INHIBIT EVENT NO YES INC. PULSE LENGTH INC. STEPPING MOTOR INTERLOCK GUN OFF DEC. PULSE LENGTH DEC. STEPPING MOTOR RESET GUN-INHIBITOR GUN ON STORE PULSE DATA FAST OPERATION SLOW OPERATION GUI LOGGING CRATE JAVA Powers

27 Logging GUI Logging System FESA Equipment Hard Driver Property
Storing System Property Property Memory Reading System Property Property Future Property Timber GUI Compute

28 Logging for 3 GHz Conditioning
Logging data for an action: Driver amplifier value Power shapes, peaks and statuses Vacuum levels Pulse length Conditioning status

29 Logging for 30 GHz Conditioning
Logging data: All settings Powers and signals shapes and vacuum levels, if there is an event Interlocks Pulse summery Conditioning acquisition

30 Thank you for your attention
The End XXX Thank you for your attention

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