Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target...

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Compact Photon Source Stage-2 modeling B. Wojtsekhowski for the collabora?on 9/26/17 1

Transcript of Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target...

Page 1: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

CompactPhotonSource

Stage-2modeling

B.Wojtsekhowskiforthecollabora?on

9/26/17 1

Page 2: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

γ-Source

29/26/17

1.2µA e- γ

e-

8.8 GeV

Beam Dump in the magnet

B ~ 1.5T

3cm NH3

Distance to target ~200 cm photon beam diameter on target ~0.9 mm

Initial MC simulation shows acceptable background rate on SBS and NPS Detailed analyses of radiation level are in progress

2mm hole

fromtheNovember2014talkattheNPSmee?ng

10%X0

B.Wojtsekhowski

Page 3: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

fromthetechnoteforthe2015WACSproposal

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Page 4: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

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Distance to target ~200 cm photon beam diameter on target ~0.9 mm

3 mm x 3 mm hole 2 mm x 2 mm raster

Current model of the γ-Source

W-powder

Radiator

Cu-core

2.7 µA e-

11 GeV

10%X0

B ~ 3.2 T

9/26/17 B.Wojtsekhowski

Page 5: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

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Distance to target ~200 cm photon beam diameter on target ~0.9 mm

3 mm x 3 mm hole

Current model of γ-Source

Cu-core

9/26/17 B.Wojtsekhowski

Page 6: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

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Distance to target ~200 cm photon beam diameter on target ~0.9 mm

3 mm x 3 mm hole

Current model of γ-Source

Cu-core

9/26/17 B.Wojtsekhowski

Page 7: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Newdevelopments

1.  Therasteris2mmx2mm(requirespol.targetrota?on)2.  ThemagnetpoleisshapedtoboostBfieldto3.2T->lengthreduc?on

whichallowslongerfrontshieldandawedgedabsorber.3.  CentralabsorberofCuhas1.9xbeVerheatconduc?vity,4.2xlonger

radia?onlengththanW-Cu(20%)alloy.4.  W-powderexternalshield(16g/cm3density)forbeVershield.5.  Gradual“stepped”openingofthebeamlineforrad.leakreduc?on6.  Shieldingrequirementlogic:theradia?onfromthesourceshouldbe

afew?meslowerthanfromthephotonbeaminterac?onwiththematerialofapolarizedtarget.

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Page 8: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

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Graphical view of changes in the source

W-powder

Cu-core

2.7 µA e- 11 GeV

9/26/17 B.Wojtsekhowski

Cufillerin100cmlongmagnet

Fe-shield

1.2 µA e- 8.8 GeV

W-Cufiller40cmlongmagnet

Concreteshell

W-Cu-core

2015model 2017model

Page 9: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

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Cu-core

9/26/17 B.Wojtsekhowski

Magnet3Dview

Viewofthemagnet

Page 10: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Viewofthemagnet

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Page 11: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Fieldprofilesalongxandz

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Bvs.XatdifferentZ Bvs.ZatX=Y=0

Page 12: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Tracks1GeVand11GeV

Rangeofthebeamentrance(for11GeV)totheCuabsorber

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Page 13: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Externalshield-1

M2_Box_A_1_W-powder.pngshowsalldimensionsandloca?onoftheouterTungstenshielding

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Page 14: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Externalshield-2

M2_Box_A_2_Exclusion_1_top_view.pngshowsalldimensionsandloca?onoftheexclusionfromBoxAneededforthemagnet.

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Page 15: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Externalshield-3

M2_Box_A_2_Exclusion_1.pngshows3Dandalldimensionsandloca?onoftheexclusionfromBoxAneededforthemagnet.

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Page 16: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Externalshield-4

M2_Box_A_3_Exit-1.pngshowsalldimensionsandloca?onoftheexclusionfromBoxAneededforthebeamline.

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Page 17: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Externalshield-5

M2_Box_A_4_Exit-2.pngshowsalldimensionsandloca?onofthesecondexclusionfromBoxAneededforthebeamline.

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Page 18: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Externalshield-6

M2_Box_A_5_Exclusions_3D.pngshowsallvolumeswhichneedtobeexcludedfromtheExternalshieldbox.

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Page 19: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Coreshielding-1

M2_Box_B_1_W-core.pngshowsalldimensionsandloca?onofthecoreshieldinglocatedinsidethemagnetandmadefromW-Cu(20%)alloy.Theexclusionsneedtobemadefor:a)coilsb)polesc)Cu-coreinsertd)beamopening(3mmx3mm).

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Page 20: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Coreshielding-2

M2_Box_B_2_W-core_3D-view.pngshowsallthatisleioftheW-core.

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Page 21: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Coreshielding-3

M2_Box_B_3_W-core_exclusions.pngshowslistofexclusionsfromasimplebox–thepoles,thecoppercoreandbeamopening.

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Page 22: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Beamopening-1

M2_Box_C_1_Beam_opening.pngshowsdimensionsofthebeamchannel–a3mmx3mmhole.

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Page 23: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Cu-core-1

M2_Box_D_1_Cu-core.pngshowsdimensionsoftheCubeamabsorber(ini?albox).

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Page 24: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Cu-core-2

M2_Box_D_2_Cu-core_exclusions.pngshowsthelistofexclusionsfromtheCu-coreini?albox–poles(Box_E)andBeamopening(Box_C).

9/26/17 24B.Wojtsekhowski

Page 25: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Cu-core-3

M2_Box_D_3_Cu-core_3D.pngshowsa3DviewoftheCucore.

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Page 26: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Pole-1

M2_Box_E_Pole_3D.pngshowsa3Dviewofthemagnetpole

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Page 27: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Pole-2

M2_Box_E_Pole_Side-view.pngshowsasideviewofthemagnetpole

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Page 28: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Pole-3

M2_Box_E_Pole_start.pngshowsdimensionsofthemagnetpoleini?albox

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Page 29: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Pole-4

M2_Box_E_Pole_Top-view.pngshowsdimensionsofthemagnetpole

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Page 30: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Pole-5

M2_Box_E_Pole_Trims.pngisshowingdimensionsofthemagnetpoletrimsandapole?p

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Page 31: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Pole-6

M2_Box_E_Pole_Z-view.pngshowsdimensionsofthepoleandapole?p

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Page 32: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Pole-7

M2_Box_E_Pole_Sweep_back.pngshowsdimensionsofthepolesweep-backcorrec?on

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Page 33: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Pole-8

M2_Box_E_Pole_Tip-plate.pngshowsdimensionsofthepole?pini?albox

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Page 34: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Pole-9

M2_Box_E_transla?on.pngshowsthesizeanddirec?on(x)ofthepoletransla?on

9/26/17 34B.Wojtsekhowski

Page 35: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Magnet-1

M2_Box_F_Side-plate.pngshowsthedimensionsofthemagnetsideplate

9/26/17 35B.Wojtsekhowski

Page 36: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Magnet-2

M2_Box_F_Top-plate.pngshowsthedimensionsofthemagnettopplate

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Page 37: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Coil-1

M2_Coil_dimensions.pngshowsthedimensionsofthemagnetcoil

9/26/17 37B.Wojtsekhowski

Page 38: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Drawings1

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Page 39: Compact Photon Source Stage-2 modeling · 1. The raster is 2 mm x 2 mm ( requires pol. target rotaon) 2. The magnet pole is shaped to boost B field to 3.2 T -> length reduc?on which

Drawings2

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Basic Raster Graphics Algorithms for Drawing 2D · PDF fileBasic Raster Graphics Algorithms for ... large gaps as x approaches R (the slope approaches infinity) • can avoid the gaps

Basic Raster Graphics Algorithms for Drawing 2D · PDF fileBasic Raster Graphics Algorithms for ... large gaps as x approaches R (the slope approaches infinity) • can avoid the gaps

Chemistry 103 Chapter 2 $ ₤ ¥ L m kg ml mm μg + - * / y x.

Chemistry 103 Chapter 2 $ ₤ ¥ L m kg ml mm μg + - * / y x.

41 Lo ela a SERIES41.31 - 1 Pole 12 A (3.5 mm pin pitch) 41.52 - 2 Pole 8 A (5 mm pin pitch) 41.61 - 1 Pole 16 A (5 mm pin pitch) PCB mount - direct or via PCB socket 35 mm rail mount

41 Lo ela a SERIES41.31 - 1 Pole 12 A (3.5 mm pin pitch) 41.52 - 2 Pole 8 A (5 mm pin pitch) 41.61 - 1 Pole 16 A (5 mm pin pitch) PCB mount - direct or via PCB socket 35 mm rail mount

Transistorradio, Schaltplan und Aufbau · PDF fileSi-Scheibendurchmesser 1970 50 mm 1980 100 mm 1990 150 mm 1995 200 mm 2001 300 mm ca. 2012 450 mm kleinere Strukturen - kleinere Schaltkreisflächen

Transistorradio, Schaltplan und Aufbau · PDF fileSi-Scheibendurchmesser 1970 50 mm 1980 100 mm 1990 150 mm 1995 200 mm 2001 300 mm ca. 2012 450 mm kleinere Strukturen - kleinere Schaltkreisflächen

DESIGN OPTIMIZATION STUDY ON AN ULTRAFAST ...ode.engin.umich.edu/me555reports/2009/ME555-09-02-Final...2 hs shaft length mm 3 lt shoulder length mm 4 bt shoulder breadth mm 5 ht shoulder

DESIGN OPTIMIZATION STUDY ON AN ULTRAFAST ...ode.engin.umich.edu/me555reports/2009/ME555-09-02-Final...2 hs shaft length mm 3 lt shoulder length mm 4 bt shoulder breadth mm 5 ht shoulder

Identification and Characterization of β-Sitosterol Target ... · PDF filecocktail, 1 mM β-glycerophosphate, 2.5 mM sodium pyrophosphate, 2 mM NaF, ... 111 – 121 1398.64 1397.64

Identification and Characterization of β-Sitosterol Target ... · PDF filecocktail, 1 mM β-glycerophosphate, 2.5 mM sodium pyrophosphate, 2 mM NaF, ... 111 – 121 1398.64 1397.64

HRLM part 2 (MM) - Wonnarua

HRLM part 2 (MM) - Wonnarua

mm - Patakis

mm - Patakis

Jlab-TN-06-001tnweb.jlab.org/tn/2006/06-002.doc · Web viewFWHM ~ 1 ~ 2 μs. The significant difference between kicker and target raster magnet is the inductance. The original 12

Jlab-TN-06-001tnweb.jlab.org/tn/2006/06-002.doc · Web viewFWHM ~ 1 ~ 2 μs. The significant difference between kicker and target raster magnet is the inductance. The original 12

New Development of a Two-Phase Mechanically Pumped Loop … · 2009. 8. 27. · tube17 1 2 1 tb1_tb3 subc1_tb1 1 2 tube8, 0.8 m, 1 4 mm tube5, 1.4 m, 9 mm 1 2 tube6, 1.4 m, 9 mm 2

New Development of a Two-Phase Mechanically Pumped Loop … · 2009. 8. 27. · tube17 1 2 1 tb1_tb3 subc1_tb1 1 2 tube8, 0.8 m, 1 4 mm tube5, 1.4 m, 9 mm 1 2 tube6, 1.4 m, 9 mm 2

SCARA ROBOTS - files.support.epson.com Cycle time based on round-trip arch motion (300 mm horizontal, 25 mm vertical; G1: 150 mm horizontal. 25 mm vertical). 2 Complies with ISO Class

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225 mm (κλειστό) 468.51 mm (ανοιχτό) 4ΧΡΩΜΙΑ 160 mm …€¦ · 02/2014 4ΧΡΩΜΙΑ 20301/0214 468.51 mm (ανοιχτό) 225 mm (κλειστό) 160 mm 212.755

225 mm (κλειστό) 468.51 mm (ανοιχτό) 4ΧΡΩΜΙΑ 160 mm …€¦ · 02/2014 4ΧΡΩΜΙΑ 20301/0214 468.51 mm (ανοιχτό) 225 mm (κλειστό) 160 mm 212.755

5 Lichtmikroskopie Zubehör für die · L4091 Mikroskop-Objektträger mit 2 Vertiefungen. Pack zu 10 Stück 26011 Quarzglas Objektträger 76,2 mm x 25,4 mm, 1 mm dick, 1 Stück ...

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k πε N ∙ m A) 3.0 mm B) 2.0 mm C) 4.0 mm D) 1.0 mm

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FIŞĂ TEHNICĂ PROIECTANȚI - Metigla...102.14 97.82 6064736 429534 59376 9959 3186 74.56 19.84 Denumire produs A eff (mm 2) Z g.1.eff (mm) Z g.2.eff (mm) l y.eff_min (mm 4) l z.eff_min

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7. Analisa Gaya Pembentukan (2) · Contoh Soal Suatu blok timbal (lead) berukuran 25 mm x 25 mm x 150 mm ditempa/ditekan di antara cetakan datar untuk membentuk pelat akhir berukuran

7. Analisa Gaya Pembentukan (2) · Contoh Soal Suatu blok timbal (lead) berukuran 25 mm x 25 mm x 150 mm ditempa/ditekan di antara cetakan datar untuk membentuk pelat akhir berukuran

Ø100 mm 3276000607052 3276000607083 Ø120 mm …

Ø100 mm 3276000607052 3276000607083 Ø120 mm …

SISTEMAS DE ELEVAÇÃO E AMARRAÇÃO DE CARGAS LINGAS DE ... · LINGAS DE CORRENTE, PONTOS DE IÇAMENTO E ACESSÓRIOS QUALIDADE GRAU 8 Edição 02. 6 mm 7 mm 8 mm 10 mm 13 mm 16 mm

SISTEMAS DE ELEVAÇÃO E AMARRAÇÃO DE CARGAS LINGAS DE ... · LINGAS DE CORRENTE, PONTOS DE IÇAMENTO E ACESSÓRIOS QUALIDADE GRAU 8 Edição 02. 6 mm 7 mm 8 mm 10 mm 13 mm 16 mm

9°- 60° · αbet focus 40° 360° 40° 360° 30° 360° 30° 360° 127 - 177 mm 120 - 170 mm 150 - 200 mm 600 - 2250 Llm 172 - 177 mm 165 - 170 mm 160 mm 420 - 2230 Llm

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SMART GUIDE - tsaprazis.gr · 6 7 4. ΔΙΑΣΤΑΣΕΙΣ ΕΜΦΥΤΕΥΜΑΤΩΝ & ΤΡΥΠΑΝΩΝ L L + 1 mm L 8 mm 10 mm 12 mm 15 mm ø 4 mm 1 2 3 4 5

SMART GUIDE - tsaprazis.gr · 6 7 4. ΔΙΑΣΤΑΣΕΙΣ ΕΜΦΥΤΕΥΜΑΤΩΝ & ΤΡΥΠΑΝΩΝ L L + 1 mm L 8 mm 10 mm 12 mm 15 mm ø 4 mm 1 2 3 4 5