1 04-December-2013 BE-RF-PM CLIC MODULE Procedure for the thermal and alignment testing of CLIC duty cycles Written by: Elena Daskalaki Checked by: Alexander.

Slides:



Advertisements
Similar presentations
Thermal Tests Analysis of transient response Elena Daskalaki Alex Vamvakas Athanasios Zelios.
Advertisements

Two Beam Module Thermo-mechanical tests Elena Daskalaki Alex Vamvakas Athanasios Zelios.
LCWS12, 25/10/ CLIC two-beam module development Status and future plans G. Riddone Outlook Short introduction CLIC Module Validation program Future.
Encapsulation of engine bay for active thermal control and lower noise emissions Abstract: The project aims to study the effect of encapsulating the engine.
TMM of the CLIC Two-Beam Module T0 in the LAB – Proceedings to structural FEA Riku Raatikainen
Influence of the Gravity, Vacuum and RF on CLIC Module T0 Behavior R. Raatikainen.
A. Wasem / TA1-GSTRT Meeting 20/02/20021 Results from Prototype CO 2 Cooling Gas System.
Vacuum system in the main Linacs C. Garion CERN/TE/VSC CLIC09 workshop, October.
ENERGY INSTITUTE Battery Research Group NiMH Battery Pack for HEV Cem Kaypmaz 2008 İstanbul.
N.P.Basse, M.Abrahamsson, M.Seeger and T.Votteler
Heat load study of cryomodule in STF
«BE-RF-PM» Updates on thermal tests for CLIC prototype module type 0 Ioannis Kossyvakis, Roberto Mondello, Fabrizio Rossi.
1 BROOKHAVEN SCIENCE ASSOCIATES CFAC Review – Chris Channing P.E. Sr Project Engineer NSLS-II Conventional Facilities - Thermal Stability May 8, 2007.
CTC, Two-beam module program (WP CTC-004) CLIC Modules (boundary conditions, technical system design and integration) CDR modules Prototypes.
Dmitry Gudkov BE/RF/PM CLIC Module Working Group PROTOTYPE TWO-BEAM MODULES (CLEX) Supporting and positioning system for CLEX modules main conclusions.
1/12 Sylvain GRIFFET, 17/10/2011 BE/ABP-SU/ Simulations of laser tracker AT401 measurements on TM0 CLIC girders EDMS Document No
Status of: CLIC Two-Beam Module Magnets R&D and Procurement 1 Michele Modena, CERN TE-MSC IWLC10, WG8, 21October 2010.
Transient Thermal Analysis Winter Semester
Hydrogen system R&D. R&D programme – general points Hydrogen absorber system incorporates 2 novel aspects Hydrogen storage using a hydride bed Hydrogen.
06-November-2013 Thermo-Mechanical Tests BE-RF-PM Review of the CLIC Two-Beam Module Program Thermo-Mechanical Tests L. Kortelainen, I. Kossyvakis, R.
1 Updates on thermal tests Updates on thermal tests F. Rossi September 5, 2012.
1 Status of the CLIC two-beam module program A. Samochkine, G. Riddone Acknowledgements to the Module WG members 4 February 2014 CLIC Workshop 2014 (3-7.
CLIC RF structure development meeting Structure cost study (introduction) G. Riddone,
ANSYS for MEMS by Manjula1 FEM of MEMS on ANSYS MEMS Summer 2007 Why FEM for MEMS? Features in ANSYS Basic Procedures Examples.
CLEX TBM T0 Cooling system Progress Report 1 V. Soldatov, A. Vamvakas, BE-RF
January 23, Inception of Liquid Loading Foam Flow Ayantayo Ajani The University of Tulsa.
CLIC Prototype Test Module 0 Super Accelerating Structure Thermal Simulation Introduction Theoretical background on water and air cooling FEA Model Conclusions.
Silesian University of Technology in Gliwice Inverse approach for identification of the shrinkage gap thermal resistance in continuous casting of metals.
CLIC08 workshop CLIC module layout and main requirements G. Riddone, on behalf of the CMWG Home page of the TBM WG:
1 Thermal tests planning for mock-up TM0 Thermal tests planning for CLIC prototype module type 0 May 30th,
CLIC Workshop th -17 th October 2008 Thomas Zickler AT/MCS/MNC 1 CLIC Main Linac Quadrupoles Preliminary design of a quadrupole for the stabilization.
«BE-RF-PM» CLIC prototype two-beam modules Thermal test planning G. Riddone, F. Rossi Introduction Thermal tests 1.Environment 2.Heating and.
1 05-March-2014 BE-RF-PM Calculations of the heat transfer coefficients for the TM0.
L. Serio COPING WITH TRANSIENTS L. SERIO CERN, Geneva (Switzerland)
Updated Thermo-Mechanical Model of the CLIC Two-Beam Module Riku Raatikainen
1 Thermal tests planning for mock-up TM0 Thermal tests planning for CLIC prototype module type 0 July 17,
«BE-RF-PM» CLIC prototype two-beam modules Thermal test planning Fabrizio Rossi.
1 BROOKHAVEN SCIENCE ASSOCIATES NSLS – II Stability Workshop Conventional Facilities Temperature Stability Chris Channing P.E. Sr. Project Engineer National.
CLIC Stabilisation Day’08 18 th March 2008 Thomas Zickler AT/MCS/MNC/tz 1 CLIC Quadrupoles Th. Zickler CERN.
CLIC module Experimental program for module array Module review, June 22 nd 2015Elena Daskalaki, BE-RF-MK.
CLIC requirements on Warm Magnets (for CLIC Modules mainly) 1 M. Modena, CERN TE-MSC 13 April 2011 CERN-UK Collaboration Kick-off Meeting.
Peak temperature rise specification for accelerating structures: a review and discussion CLIC meeting
CLIC activity of R.Raatikainen Feb 20121R.Raatikainen BE-RF-PM Main tasks  Thermo-mechanical modeling of the CLIC/LAB two-beam modules 
Risto Nousiainen, CLIC workshop ” Technical Issues, Integration & Cost ” working group Progress on Study of Module Cooling Risto Nousiainen.
CLEX TBM T0 Cooling system Design strategy 1 V. Soldatov, A. Vamvakas, BE-RF
1 [24-July-2013] [CMWG] «BE-RF-PM» CLIC TBM Prototypes Status EDMS №[Number] Dmitry Gudkov 1.
Calorimetric Power Measurements in Xbox-1 Xiaowei Wu.
1 Design and objectives of test accelerating structures Riccardo Zennaro.
AWAST final meeting - Brussels december 2003 Aid in the management and European comparison of Municipal Solid WASte Treatment methods for a global.
1 12-February-2014 BE-RF-PM CLIC MODULE Preparation for the duty cycles Written by: Elena Daskalaki Checked by: Alexander Samochkine Approved by: Germana.
Preparation procedure and RF processining of cERL-ML power coupler at KEK Hiroshi Sakai, Takaaki Furuya, Masato Sato, Kenji Shinoe, Kensei Umemori, Kazuhiro.
Summary of Presentation 1. Tolerances i. Vertical tolerances on BPMs (rf-BPM: ± 0.2μm, user BPMs: ±0.1μm, and X-BPMs: ± 0.1μm) ii. Tolerances on magnets’
19-SEP-2012 «BE-RF-PM» Modelling of hydraulic system of CLIC prototype module type 0 Shoaib Azhar.
Two-beam module layout
F. Audinet, C. Martel : Cern GS-SE-HE
Alignment methods developed for the validation of the thermal and mechanical behavior of the Two Beam Test Modules for the CLIC project Hélène MAINAUD.
Thermal-Structural Finite Element Analysis of CLIC module T0#2
Thermal-Structural Finite Element Analysis of CLIC module T0#2
Module roadmap to end of 2017
Thermal review of CLIC module
Date of download: 11/6/2017 Copyright © ASME. All rights reserved.
From: Robogami: A Fully Integrated Low-Profile Robotic Origami
LAT Requirements Verification in TVAC
TBM thermal modelling status
Installation plan for LAB modules
Date of download: 12/27/2017 Copyright © ASME. All rights reserved.
LCWS 2017 – 26th October C. Rossi
Experimental program for module array
Thermal test (lab modules)
Egyptian Atomic Energy Authority (EAEA), Egypt
Presentation transcript:

1 04-December-2013 BE-RF-PM CLIC MODULE Procedure for the thermal and alignment testing of CLIC duty cycles Written by: Elena Daskalaki Checked by: Alexander Samochkine Approved by: Germana Riddone EDMS №: [Number]

2 04-December-2013 BE-RF-PM Contents 2 1.Scope 2.Thermal tests setup 3.Thermal measurements 4.Operating conditions 5.Outcomes 6.Duty cycles 7.Nominal operation mode 8.Failure mode 9.Planning *Input and help from: N. Gazis, F. Rossi, I. Kossyvakis

3 04-December-2013 BE-RF-PM 3 Scope The aim of the thermal tests is to investigate the response of the CLIC module with respect to temperature and alignment when operation-equivalent thermal power is applied.

4 04-December-2013 BE-RF-PM 4 Thermal tests setup

5 04-December-2013 BE-RF-PM 5 Thermal measurements ParameterSensors Water input dataFlow, temperature, pressure Water temperature in structureTS0, TS1, TS7, TS8, TS10, TS11, TS13, TS14, TS16, TS17, TS22, TS29-33 E, TS37 SAS 1TS2-6 SAS 2TS9 SAS 3TS12 SAS 4TS15 PETS 1TS18, TS19 PETS 2TS20, TS21 WaveguidesTS23-26 DBQTS27-28 AS-LoadsTS29-32 (A-D) RFN-LoadsTS33-36 Air sections (crosses)TS38-52 HeatersTS-htAS, TS_htPETS, TS_htDBQ *Ref: I. Kossyvakis, R. Mondello. Thermal Test Program For Clic Prototype Module Type 0 (EDMS No: )

6 04-December-2013 BE-RF-PM 6 Operating conditions Parameters Sensor accuracy Value/rangeAccuracy Ambient temperature ± 0.5 o C20 o C ±1.5 o C ( gradient from floor to ceiling ) Air velocity± 0.08 m/s0.4 m/s± 0.1 m/s Water temperature ± 0.1 o C25 o C ± 0.5 o C Water flow rate± 0.01 m 3 /hour m 3 /hour ± m 3 /hour Thermal power DB-Quads - [0 150] W To be investigated PETS - [0 220] W To be investigated RFN-Loads - [0 178] W To be investigated SAS - [0 820] W To be investigated SAS-Loads - [0 178] W To be investigated

7 04-December-2013 BE-RF-PM 7 Outcomes 1.Thermal measurements DBQ PETS RFN-Loads AS AS-Loads 2.Alignment measurements DBQ PETS AS 3.Correlation of alignment to the temperature change ΔΤ 4.Time constant of DBQ, PETS, AS Steady state and transients Temperature stability condition: ± 0.3 o C

8 04-December-2013 BE-RF-PM Duty cycles 8 A.Nominal operation mode 1.Powering of the DB-Quads 2.Unloaded Conditions 3.Loaded Conditions B.Transient modes during nominal operation 1.Transition sequence 1  2 2.Transition sequence 2  3 3.Transition sequence 3  2 4.Transition sequence 2  1 5.Transition sequence 3  2  3 6.Transition sequence 3  1  2  3 B.Potential failure scenarios: 4 cases 1.Global CLIC failure a)MB is shutdown b)DB and MB are shutdown 2.Module failures a)Accelerating Structure breakdown b)PETS breakdown *Ref: N. Gazis. Thermal test simulation of the duty cycles (CMWG 18 Sep. 2013)

9 04-December-2013 BE-RF-PM 9 Nominal operation mode Power-up DB-Quads Unloaded Conditions Zero Position DBQ, PETS SAS DB-Quads: 100% PETS: 100% RFN-Loads: 100% SAS: 120% SAS-Load: 130% DB-Quads: 100% PETS: 100% RFN-Loads: 100% SAS: 100% SAS-Load: 100% Loaded conditions DBQ, PETS, SAS SAS Alignment measurements after temperature stabilization Alignment measurements during transient (every 1 o C) DBQ, PETS, SAS DBQ, PETS DB-Quads: 100% PETS: 0% RFN-Loads: 0% SAS: 0% SAS-Load: 0%

10 04-December-2013 BE-RF-PM 10 Nominal operation mode Power-up DB-Quads Unloaded conditions t1 t0 Zero position Loaded conditions t2 t3

11 04-December-2013 BE-RF-PM 11 Nominal operation mode StepComponentPower (W)Alignment measurementExpected measurement time 1. Zero position DB-Quads0SS 30 min PETS unit0SS RFN-Loads0 SAS0SS40 min SAS-Load0 2. Power-up DB-Quads DB-Quads150SS & T 30 min PETS unit0SS & T RFN-Loads0 SAS0 SAS-Load0 3. Unloaded conditions DB-Quads150SS & T PETS unit220SS & T RFN-Loads178 SAS820SS & T40 min SAS-Load Loaded conditions DB-Quads150 PETS unit220 RFN-Loads178 SAS683SS40 min SAS-Load137 SS: Steady state, T: Transient

12 04-December-2013 BE-RF-PM 12 Failure mode: SAS breakdown DB-Quads: 100% PETS: 100% RFN-Loads: 100% SAS: 100% SAS-Load: 100% Loaded conditions SAS breakdown Zero Position DBQ, PETS, SAS SAS DBQ, PETS DB-Quads: 100% PETS: 100% RFN-Loads: 100% SAS: 0% SAS-Load: 20% DB-Quads: 100% PETS: 25% RFN-Loads: 0% SAS: 0% SAS-Load: 0% DB-Quads: 100% PETS: 100% RFN-Loads: 100% SAS: 100% SAS-Load: 100 Loaded conditions SAS DBQ, PETS DBQ, PETS, SAS PETS off Alignment measurements after temperature stabilization Alignment measurements during transient (every 1 o C)

13 04-December-2013 BE-RF-PM 13 Failure mode: SAS breakdown Loaded conditions PETS off Loaded conditions t1 t2 SAS breakdown

14 04-December-2013 BE-RF-PM 14 Failure mode: SAS breakdown StepComponentPower (W)Alignment measurementExpected measurement time 1. Zero position DB-Quads0SS 30 min PETS unit0SS RFN-Loads0 SAS0SS40 min SAS-Load0 2. Loaded conditions DB-Quads150SS 30 min PETS unit220SS RFN-Loads178 SAS683SS40 min SAS-Load SAS breakdown DB-Quads min PETS unit220 RFN-Loads178 SAS0SS & T40 min SAS-Load PETS off DB-Quads150SS & T 30 min PETS unit55SS & T RFN-Loads0 SAS0 SAS-Load Loaded conditions DB-Quads150SS 30 min PETS unit220SS RFN-Loads178 SAS683SS40 min SAS-Load137 SS: Steady state, T: Transient

15 04-December-2013 BE-RF-PM 15 Failure mode: PETS breakdown DB-Quads: 100% PETS: 100% RFN-Loads: 100% SAS: 100% SAS-Load: 100% Loaded conditions PETS breakdown Zero Position DBQ, PETS, SAS DBQ, PETS SAS DB-Quads: 100% PETS: 25% RFN-Loads: 0% SAS: 0% SAS-Load: 20% DB-Quads: 100% PETS: 25% RFN-Loads: 0% SAS: 100% SAS-Load: 100% DB-Quads: 100% PETS: 100% RFN-Loads: 100% SAS: 100% SAS-Load: 100 Loaded conditions SAS DBQ, PETS DBQ, PETS, SAS SAS off Alignment measurements after temperature stabilization Alignment measurements during transient (every 1 o C)

16 04-December-2013 BE-RF-PM 16 Failure mode: PETS breakdown t1 Loaded conditions t1 t2 SAS off PETS breakdown Loaded conditions

17 04-December-2013 BE-RF-PM 17 Failure mode: PETS breakdown StepComponentPower (W)Alignment measurementExpected measurement time 1. Zero position DB-Quads0SS 30 min PETS unit0SS RFN-Loads0 SAS0SS40 min SAS-Load0 2. Loaded conditions DB-Quads150SS 30 min PETS unit220SS RFN-Loads178 SAS683SS40 min SAS-Load PETS breakdown DB-Quads150SS & T 30 min PETS unit55SS & T RFN-Loads0 SAS68340 min SAS-Load SAS off DB-Quads min PETS unit55 RFN-Loads0 SAS0SS & T SAS-Load Loaded conditions DB-Quads150SS 30 min PETS unit220SS RFN-Loads178 SAS683SS40 min SAS-Load137 SS: Steady state, T: Transient

18 04-December-2013 BE-RF-PM 18 Transients Transient Transient time (min)Temp start ( o C)Temp stop ( o C)Gradient ( o C/min) DB-Quads 0-> > PETS Water only >100 (first sensor) >100 (last sensor) >0 (first sensor) >0 (last sensor) SAS 0->120 (first sensor) >120 (last sensor) >100 (first sensor) >100 (last sensor) >0 (first sensor) >0 (last sensor)

19 04-December-2013 BE-RF-PM 19 Proposed planning TaskDates Pre-tests13/11 – 03/12 Testing procedure finalization and approval04/11 – 11/11 Duty cycles final tests12/12 – 08/01