Kendall tau (rank correlation) for module 1 (single layer 1 / h13), module 2 (single layer 2 / h14),  module 6 (standard sensor 2 / h12)

Preliminary strip correlation (Kendalls Tau) for threshold = 3*stripnoise.

Most probable S/N, Single Metal Layer, 2D histogram fitted with langau in 5 bin (strips) slices.

Belle DUT, HV=80V,  31.8 MHz, 120 GeV
6 samples, transparent mode
w cooling, chiller set to 13 deg, 2900 rpm
after realignement of modules
new beam spot:

Belle DUT, HV=80V,  40 MHz, 120 GeV
6 samples, transparent mode
w cooling, chiller set to 13 deg, 2900 rpm
after realignement of modules
new beam spot:

Belle DUT, HV=80V,  40 MHz, 120 GeV
6 samples, transparent mode
no cooling
after realignement of modules
new beam spot:

Pt: 40 Grad, HV=200V, 36.9% (start run) to xx% (end run) RH, beam on, 120GeV

Pt: 17 Grad, HV=200V, 36.5% (start run) to xx.1% (end run) RH, beam on, 120GeV

Pt: 12 Grad, HV=200V, 34.4% (start run) to 36.1% (end run) RH, beam on, 120GeV

Pt: 10 Grad, HV=200V, 31.7% (start run) to 33.8% (end run) RH, beam on, 120GeV

Pt: 8 Grad, HV=200V, 28% (start run) to 31% (end run) RH, beam on, 120GeV

Pt: 6 Grad, HV=200V, 20% (start run) to % (end run) RH, beam on, 120GeV

MOEGLICHERWEISE WAR EIN MODUL AUF 8 GRAD

Pt: 4 Grad, HV=200V, 0% (start run) to 14% (end run) RH, beam on, 120GeV

Pt: 2 Grad, HV=200V, 0% RH, beam on, 120GeV

manually changed TRIM3, TRIM4 and TRIM6

Pt: 0 Grad, HV=200V, 0% RH, beam on, 120GeV

Pt: 15 Grad, HV=200V, 0% RH, beam on, 120GeV

Pt: 13 Grad, HV=200V, 0% RH, beam on, 120GeV

Pt: 11 Grad, HV=200V, 0% RH, beam on, 120GeV

Pt: 9 Grad, HV=200V, 0% RH, beam on, 120GeV

Pt: 7 Grad, HV=200V, 0% RH, beam on, 120GeV

Pt: 5 Grad, HV=200V, 0% RH, beam on, 120GeV

Pt: 3 Grad, HV=200V, 0% RH, beam on, 120GeV

Pt: 1 Grad, HV=200V, 0% RH, beam on, 120GeV

 Georg #70

Wolfgang - Building: 41, Room: 204, Tel: ?

Manfred: Building 38, Room 522, Tel: 70522

Chrisu: B39, room 309, Tel: 79309

Bergi: Tel Zimmer: 79112, Handy: 16-2471

Maks: Tel Zimmer: 79117

Pt: 1 Grad, HV=200V, 0% RH, intcal, beam off
ITE512: HV=70V,
X-Y-Table: x=99.6, y=36

Pt: 1 Grad, HV=200V, 0% RH, intcal, beam off
ITE512: HV=70V,
X-Y-Table: x=99.6, y=36

Pt: 1 Grad, HV=200V, 0% RH
ITE512: HV=70V
X-Y-Table: x=99.6, y=36
Telescope: run7316

Current of Pt modules during first run

Data of the run was dicarded.

Compressed air flow was at ~2 bars during run. Graph shows RH rise after switching of CA flow. Restarted at around 7% with very low pressure.

Timescales for RH and I graph are different!!!

after 3 hours first bottle of compressed air (dewpoint -170 degree C) is gone and sensor Pt-h01 starts to fluctuate again

Current of ITE512 plus 2 SiLC08 modules

HV=70V, Current: 25uA first, 29uA then, 35uA latest. now stable

ITE128

HV = 70V, 40MHz, 120 GeV

TLU trigger w telescope 

XY-Table: x=48, y=111.31

ITE128

HV = 70V, 40MHz, 120 GeV

TLU trigger w telescope 

XY-Table: x=48, y=112.31

ITE128

HV = 70V, 40MHz, 120 GeV

TLU trigger w telescope 

XY-Table: x=48, y=115.31

new beam position (used TRIM4 magnet at 7A): y down by 2mm. see attached picture

Belle DUT, HV=80V, 40 MHz, beam off
1 sample, transparent mode
pedestal correction

chiller set to 13 deg, 2900 rpm

Belle DUT, intcal
HV=80V, 40 MHz, beam off
1 sample, transparent mode
external clock
cooling
chiller set to 13 deg.

Bypass removed to achieve better watter flow at the module!
Chiller pump is set to 2800 rpm

Belle DUT, HV=80V, 40 MHz, 120 GeV
6 samples, transparent mode
chiller set to 13 deg,  2900 rpm

water flow checked befor start of run

Belle DUT, HV=80V, 31.8 MHz, 120 GeV
6 samples, transparent mode
chiller set to 13 deg,  2900 rpm

water flow checked befor start of run

Belle DUT, HV=80V, 31.8 MHz, beam off
1 sample, transparent mode
pedestal correction

chiller set to 13 deg, 2900 rpm

playing with TRIM4 in vertical plane (setting to 20A current) shifted beamspot back to center position

Beam configuration:
Beam configuration file: H6b.802 (FM HAD (P0 off, H8=+180) PARLALLEL IN H6B SILC 2008

Rate: 3.35E5 particles/spill (measured with SCINT8 in beamline)

Particle Production Applet
Calculator applet

For +120 Gev/c beam:

Belle DUT, intcal
HV=80V, 31.8 MHz, beam off
1 sample, transparent mode
cooling
chiller set to 13 deg.

Since there was no (or to less) water flow through the small pipe of the origami module, all previous runs with cooling must be repeated.

Bypass removed to achieve better watter flow at the module!
Chiller pump is set to 2800 rpm

Belle DUT, intcal
HV=80V, 31.8 MHz, beam off
1 sample, transparent mode
chiller set to 13 deg.

external 31.8 MHz clock

there was probably no water flow throught the pipe of the origami module during this run --> must be repeated!

Belle DUT, intcal
HV=80V, 31.8 MHz, beam off
1 sample, transparent mode
chiller set to 13 deg.

external 31.8 MHz clock

there was probably no water flow throught the pipe of the origami module during this run --> must be repeated

Preliminary run list for pt-modules + ite512 + silc1, silc2, silc5, silc6

Belle DUT, intcal
HV=80V, 40 MHz, beam off
1 sample, transparent mode
chiller set to 13 deg.

external 40 MHz clock

there was probably no water flow throught the pipe of the origami module during this run --> must be repeated

beam shifted a bit in vertical direction downwards since 21. August 09 evening

Beam configuration:

Beam configuration file: H6b.802 (FM HAD (P0 off, H8=+180) PARLALLEL IN H6B SILC 2008

 HV=80V, 40 MHz, beam on, 120 GeV

 HV=80V, 40 MHz, beam on, 120 GeV

 HV=80V, 31.8 MHz, beam on, 120 GeV

 HV=80V, 31.8 MHz, beam on, 120 GeV

 HV=80V, 31.8 MHz, beam on, 120 GeV

Belle DUT, tranparent mode
HV=80V, 40 MHz, beam on, 120 GeV
6 samples
chiller set to 13 deg.

beam position:  p-side: APV2 of Origami, n-side: between APV1 and 2 of Origami (center of sensors), beam spot: 9x9 mm
JP-module is hit at APV3, module seems to be on a higher position than in past beam test (eventuelly flipped)

APVDAQ and telescope runs are not synchronized

trigger rate: about 300 - 500 ev / spill

there was probably no water flow throught the pipe of the origami module during this run --> must be repeated

 
Used until Friday, 21.08.09:


 
AndMask = 0xf # 4x4 mm scintillator for trigger 

Used since Friday, 21.08.09: 

AndMask = 0xc # 9x9 mm scintillator for trigger 

Local trigger using TLU only: ALWAYS WITH 9x9mm scintillator

4 Belle DUTs
HV=80V, 31.8 MHz, 6 sample, 120 GeV
external clock source
transparent mode
beam position:  p-side: APV2 of Origami, n-side: between APV1 and 2 of Origami (center of sensors), beam spot: 9x9 mm

JP-module is hit at APV3, module seems to be on a higher position than in past beam test (eventuelly flipped)

APVDAQ and telescope runs are not synchronized

4 Belle DUTs
HV=80V, 31.8 MHz
pedestal correction
transparent mode
beam on
 

Belle DUT, intcal
HV=80V, 40 MHz, no beam
hit mode

switched back to internal 40 MHz clock

Belle DUT, intcal
HV=80V, 31.8 MHz, no beam
hit mode

Origami p-side APV 2&3 with reverse readout order

Belle DUT, intcal
HV=80V, 31.8 MHz, no beam
transparent mode

Origami p-side APV 2&3 with reverse readout order

4 Belle DUTs
HV=80V, 31.8 MHz, 6 sample, 120 GeV
external clock source
processed mode, hit cut = 5
beam position:  p-side: APV2 of Origami, n-side: between APV1 and 2 of Origami (center of sensors)

JP-module is hit at APV3, module seems to be on a higher position than in past beam test (eventuelly flipped)

4 Belle DUTs
HV=80V, 31.8 MHz, 6 sample, 120 GeV
switched to external clock source
processed mode, hit cut = 4
beam position:  p-side: APV2 of Origami, n-side: between APV1 and 2 of Origami (center of sensors)

JP-module is hit at APV3, module seems to be on a higher position than in past beam test (eventuelly flipped)

4 Belle DUTs
HV=80V, 40 MHz
pedestal correction
beam position:  p-side: APV2 of Origami, n-side: between APV1 and 2 of Origami (center of sensors)
 

4 Belle DUTs
HV=80V, 40 MHz, 6 sample, 120 GeV
 
beam position:  p-side: APV2 of Origami, n-side: between APV1 and 2 of Origami (center of sensors)

JP-module is hit at APV3, module seems to be on a higher position than in past beam test (eventuelly flipped)

same as run6873, but w improved timing  --> peak is now at sample 2 or 3

since eudetmac was not reachable by VNC, the telescope has not been restarted !

zero supressed w bad strip definition of origami module, but natural readout order of APV 2 and 3 on p-side

hit cut = 5

4 Belle DUTs
HV=80V, 40 MHz, 6 sample, 120 GeV
 
beam position:  p-side: APV2 of Origami, n-side: between APV1 and 2 of Origami (center of sensors)

JP-module is hit at APV3, module seems to be on a higher position than in past beam test (eventuelly flipped)

same as run6873, but w improved timing  --> peak is now at sample 2 or 3

since eudetmac was not reachable by VNC, the telescope has not been restarted !

zero supressed w bad strip definition of origami module, but natural readout order of APV 2 and 3 on p-side

hit cut = 4

4 Belle DUTs
HV=80V, 40 MHz, 6 sample, 120 GeV
 
beam position:  p-side: APV2 of Origami, n-side: between APV1 and 2 of Origami (center of sensors)

JP-module is hit at APV3, module seems to be on a higher position than in past beam test (eventuelly flipped)

zero supressed w bad strip definition of origami module, but reverse readout order of APV 2 and 3 on p-side

4 Belle DUTs
HV=80V, 40 MHz, 6 sample, 120 GeV
 
beam position:  p-side: APV2 of Origami, n-side: between APV1 and 2 of Origami (center of sensors)
table position y (height):  94.3

zero supressed w/o bad strip definition of origami module

JP-module is hit at APV3, module seems to be on a higher position than in past beam test (eventuelly flipped)

was originally  run004, renamed after run was stopped to avoid duplicate names
4 Belle DUTs
HV=80V, 40 MHz, 6 sample, 120 GeV
beam position:  p-side: APV2 of Origami, n-side: between APV1 and 2 of Origami (center of sensors)
table position y (height):  94.3

JP-module is hit at APV3, module seems to be on a higher position than in past beam test (eventuelly flipped)

same as run6873, but w improved timing  --> peak is now at sample 2 or 3

since eudetmac was not reachable by VNC, the telescope has not been restarted !

4 Belle DUTs
HV=80V, 40 MHz, 6 sample, 120 GeV
 
beam position:  p-side: APV2 of Origami, n-side: between APV1 and 2 of Origami (center of sensors)

JP-module is hit at APV3, module seems to be on a higher position than in past beam test (eventuelly flipped)

run interrupted after 80173 --> bad timing, peak was at 4 th or 5 th sample

4 Belle DUTs
HV=80V, 40 MHz, 6 sample, 120 GeV
 

beam alignement
Origami is hit between in center of sensor (APV 1 and 2 on both sides)

Belle DUT, intcal
HV=80V, 40 MHz, no beam

transparent mode

HV=70V, 40MHz, 6 samples, beam off, far sensor in 2nd position
5ns trigger pulse width, 1 kHz trigger,
current_laser=10mA,
Photodiode: pulse_width=15ns, amplitude=7mV

far sensor in 2nd position; laser at high intensity (saturation on near sensor, good signal on far sensor)

HV=70V, 40MHz, 6 samples, beam off, far sensor in 2nd position
5ns trigger pulse width, 1 kHz trigger,
current_laser=10mA,
Photodiode: pulse_width=50ns, amplitude=45mV

HV=70V, 40MHz, 6 samples, beam off
5ns trigger pulse width, 1 kHz trigger,
current_laser=10mA,
Photodiode: pulse_width=50ns, amplitude=45mV

laser at high intensity (saturation on near sensor, good signal on far sensor)

attached picture shows profile of laser on far sensor creating interferences

HV=70V, 40MHz, 6 samples, beam off
5ns trigger pulse width, 1 kHz trigger,
current_laser=10mA,
Photodiode: pulse_width=15ns, amplitude=7mV

same settings as run laser001

2 alignment modules
location in beam direction: h04-h03
laser is shooting on h03 (opposite to the beam)
 

HV=70V, 40MHz, 6 samples
beam off
module 1 (h03) is used w inverter off
since the signal off the second sensor is only 10 percent, the base line of h03 was increased again (now @ 260 ADC).

5ns trigger pulse width, 1 kHz trigger, 
current_laser=10mA,
Photodiode: pulse_width=15ns, amplitude=7mV

bad strips: APV5: 115, APV6: 1

position: underneath telescope. dewpoint ~ 15 degree

test with chiller: running 4 hours at 15 degress: NO condensation on alu pipe

blue graph: h03

white graph: h04

2 alignment modules

location in beam direction: h04-h03

beam in center of sensor

HV=70V, 40MHz, 6 samples

beam on, 120 GeV

module 1 (h03) is used w inverter off and higher base line

XY coordinates: X:50 y:155 (bottom center on sensor in beam direction)

2 alignment modules

location in beam direction: h04-h03

beam in center of sensor

HV=70V, 40MHz, 6 samples

beam on, 120 GeV

module 1 (h03) is used w inverter off and higher base line

XY coordinates: X:57 y:155 (bottom left on sensor in beam direction)

2 alignement modules

location in beam direction: h04-h03

beam in center of sensor

HV=70V, 40MHz, 6 samples

beam on, 120 GeV

module 1 (h03) is used w inverter off and higher base line

XY coordinates: X:43 y:155 (bottom right on sensor in beam direction)

2 alignement modules

location in beam direction: h04-h03

beam in center of sensor

HV=70V, 40MHz, 6 samples

beam on, 120 GeV

module 1 (h03) is used w inverter off and higher base line

XY coordinates: X:43 y:121.3 (top right on sensor in beam direction)

2 alignement modules

location in beam direction: h04-h03

beam in center of sensor

HV=70V, 40MHz, 6 samples

beam on, 120 GeV

module 1 (h03) is used w inverter off and higher base line

XY coordinates: X:57 y:121.3 (top left on sensor in beam direction)

2 alignement modules

location in beam direction: h04-h03

beam in center of sensor

HV=70V, 40MHz, 6 samples

beam on, 120 GeV

module 1 (h03) is used w inverter off and higher base line

XY coordinates: X:50 y:121.3 (top center, point 7)

2 alignement modules

location in beam direction: h04-h03

beam in center of sensor

HV=70V, 40MHz, 6 samples

beam on, 120 GeV

module 1 (h03) is used w inverter off and higher base line

XY coordinates: X:50 y:141.3 (center- center, point 1)

2 alignement modules

location in beam direction: h04-h03

HV=70V, 40MHz, 1 sample

beam on

module 1 (h03) is used w inverter off and higher base line

2 alignement modules

location in beam direction: h04-h03

HV=70V, 40MHz, 1 sample
no beam

module 1 (h03) is used w inverter off and higher base line

DUT: SiLC 08_1, 6 x ITE128, SiLC 08_2
HV = 70V, 40MHz, 120 GeV
TLU trigger, w/o telescope
9x9 mm beam spot

height (y) = 139.3100

ITE128 shooting into strips w pitch adapter, upper edge of sensor

DUT: SiLC 08_1, 6 x ITE128, SiLC 08_2
HV = 70V, 40MHz

pedestal correction

beam on

TLU (run from DAQPCHEPHY):

ssh eudet@eudetmac001.cern.ch
ssh tlupc
~\eudaq\bin\TLUControl.exe -d1 -a12

-t100 internal trigger
-aXX Mask for Szintis:
1   4 mm (front)
2   4 mm (front)
4   9 mm (back)
8   9 mm (back)

DAQ:

Hostname: DAQPCHEPHY.CERN.CH

XY Table PC:

Hostname: XYPCEUDET.CERN.CH

Beam Control:

Hostname: cwo-hna453-h6b1.cern.ch
137.138.61.206

Eudet DAQ:

vnc eudetmac001.cern.ch
Cycle Run:
o) stop DAQ
o) kill eudaq Run Control
o) restart: ./STARTRUN.FORTIS.1
o) load config: testfortis_with_eudrb_beam_backpressure_WITH_SILC
o) press: Config (wait ~1 min.)
o) press: Start

DUT: SiLC 08_1, 6 x ITE128, SiLC 08_2
HV = 70V, 40MHz, 120 GeV
TLU trigger, w/o telescope
9x9 mm beam spot

height (y) = 144.3099

ITE128 shooting into strips w pitch adapter, upper position

DUT: SiLC 08_1, 6 x ITE128, SiLC 08_2
HV = 70V, 40MHz, 120 GeV
TLU trigger, w/o telescope
9x9 mm beam spot

height (y) = 154.0979

ITE128 shooting into strips w/o pitch adapter, low position

Linie am rechten Seitenrand (in der Vorschau unten leider nicht gut zu sehen) sollte mit dem rechten Rand der Basisplatte abschließen (bezogen auf die Beam Richtung).

8 modules, HV=70V, 40MHz, 1 sample
no beam

APV 4,5: inverter off, higher baseline = PAD modules

Status of config files as of Friday 14 August 2009 late evening

HV=100V except h05-ITE-512 and h06-ITE-512 (runaway, HV off)

h01-Pt: 10uA

h02-Pt: 1.6uA

3 SiLC DUTs mit je ca. 38nA

h07-ITE-512: 3.77uA

h05-ITE-512: breakthrough

h06-ITE-512: breakthrough

• 5mm Inbus-Schlüssel
• 3mm Inbus Schlüssel
• 6- 2(1) x 30 Pt-Pins
• beim 5mm-Sockel müssen die 2 Löcher über die das optische Modul h03 verschraubt wird noch ausgeweitet werden (Thomas)
• bei Pt-Deckel oben einzeichnen welche Balkenstellung welchem Winkel entspricht

(SK) ... SenkKopf

(ZK) ... ZylinderKopf

Beam Positions  (alle mit 5mm-Sockel)

OPTISCHER SETUP -  Setup-alignment-modules

upstream - BEAM VON UNTEN - APV-Nummerierung in Beamrichtung von links anfangend

1) Collimator

• Alu-Spacer (neuer = höheren verwenden) + 4- M6 x 15 (ZK)
• schwarzer-Spanier-x-y-z-Tisch - Schreuben dabei -> Plastikschrauben abschneiden ?!?

2) 5mm Spacer + h03 - backplane richtung Collimator -  APV3210

• 2- M4 x 15 (SK) - 5mm Spacer durch Alignment-Boden mit h03 verschrauben
• 3- M4 x 15 (SK) - Alignment-Boden auf Drehteller verschrauben

3) h04 - backplane richtung Collimator -  APV3210

• 2 Positionen
• 2- M4 x 10 (SK)

Pt + ITE-512-Stack + 3 SiLC08-Module

• Photo: ITE512+3SiLC08-1
• Photo: ITE512+3SiLC08-2

upstream - BEAM VON UNTEN - APV-Nummerierung in Beamrichtung von links anfangend

1) h06-ITE-512 - APV0123 (allerdings nur eineinhalb APVs gebondet!)

2) h05-ITE-512 - APV0123

3) h07-ITE-512 - APV3210 !!!

4) SiLC08-2 - APV12 - 90° gedreht

5) SiLC08-1 - APV12 - 90° gedreht

6) SiLC08-0 - APV12 - 90° gedreht

Stack 1) bis 6)

• schwarzer Sockel +4- M4 x 35 (ZK) -> verschraubt in h06 und h07
• 2 Gewindestangen M6 x 80 + 4 Scheiben + 4 Muttern M6 -> die 3 ITE-512er zusammen
• 3 Gewindestangen M6 x 160 + 6 Scheiben + 5 Flügelmuttern M6 + 1 Mutter M6 -> 3- SiLC08-Module VORSICHTIG dazu

7) h02-Pt - APV0123 - überprüfen - kann rotieren ;-)

• Schrauben gehen von oben (ausserhalb der Box): Balken - Box-Deckel - Beilagscheibe - Pt-Modul
• Balken + 4- 2(1) x 30 Pins + 2- Scheiben + 2- M4 x 20

8) h01-Pt - APV0123 - überprüfen - kann rotieren;-)

• Schrauben gehen von oben (ausserhalb der Box): Balken - Box-Deckel - Beilagscheibe - Pt-Modul
• Balken + 4- 2(1) x 30 Pins + 2- Scheiben + 2- M4 x 20

ITE128-Stack

upstream - BEAM VON UNTEN - APV-Nummerierung in Beamrichtung von links anfangend

1) h21_alignment-TS05 - APV12 - 90°gedreht

2) h13_ITE-PAS - APV1

3) h14_ITE-PAS - APV1

4) h15_ITE-PAD - APV1

5) h16_ITE-PAD - APV1

6) h11_ITE-STD - APV1

7) h12_ITE-STD - APV1

8) h22-alignment-TS07 - APV12 - 90°gedreht

Schrauben verwenden je nach Sockel und Spacer

SiLC08-Stack

upstream - BEAM VON UNTEN - APV-Nummerierung in Beamrichtung von links anfangend

1) SiLC08-7 - APV12 - Überprüfen

2) SiLC08-6 - APV12 - Überprüfen

3) SiLC08-5 - APV12 - Überprüfen

4) SiLC08-4 - APV12 - Überprüfen

5) SiLC08-3 - APV12 - Überprüfen

6) SiLC08-2 - APV12 - Überprüfen

7) SiLC08-1 - APV12 - Überprüfen

8) SiLC08-0 - APV12 - Überprüfen 

Schrauben verwenden je nach Sockel und Spacer

Screenshots

HEPHY Gallery

GDS File Viewer

 KLayout Website

 Layer Properties File Warsaw.lyp in den Attachments.

Origami

Testbeam08 Module

- Anglescan

Pt Modules (2Stück - je 2 Sensoren):

Anglescan

- einzelne module (auch als "stub" (fixer Abstand zwischen ihnen) ?)

wichtig: brauchen wir 2 Testbeam08 module um 90° verdreht für höheninformation??? (sensoren in den Pt-modulen sind nicht 100%ig parallel - MESSEN!)

Optical Modules:(DAUER ca 18 Stunden)

- tests in box mit laserbeam (laser auf anderer Höhe al beam?!? - sonst geht der beam durch den Laser)

ITE Modules:

- 8 ter stack: (2 Testbeam08 module quer + 2 x 1stmetal128 + 2 x 2nd metal 128 + 2 x normal128)

- 2ndmetal512 module 3 stück bauen und im beam versetzt einbauen parasitär bei den spanier-modulen)

zusätliche ideen:

- CMS-Tracker slice (2Pt + 2 optische + 3 2ndmetal512 hintereinander in unterschiedlichen winkeln um einen tracker-slice zu simulieren - CMS-layout !?!)

Pt Modules:

- Sensoren sind Luftfeuhtigkeitsempfindlich

- die Sensoren brauchen einige Zeit unter Spannung bis sie sich bei einem akzeptablen Strom stabilisieren 

Hybrids + bottom sensor:
• hybrid 01 + bottom sensor 30210331516116
  • IV-h01+30210331516116
  • Noise -h01+30210331516116
• hybrid 02 + bottom sensor 30210331415917
  • IV-h02+30210331415917
  • Noise-h02+30210331415917

finished Pt-Modules:
• 1st Pt-Module
• 2nd Pt-Module

small Problems:

• 30210314845402 _HV-bonds touch sensor edge
• 30210314845402 _HV-bonds touch sensor edge-zoom

Optical Modules:

modules with AC-Test-Sensors:
• h21+TS-SPL-6687-05
  • IV-h21+TS-SPL-6687-05
  • Noise-h21+TS-SPL-6687-05
• h22+TS-SPL-6687-07
  • IV-h22+TS-SPL-6687-07
  • Noise-h22+TS-SPL-6687-07

modules with SiLC alignment sensors:
h03 + PA + HPK-SPL-6686-03 :
• breakthrough
  • breakthrough
h04 + PA + HPK-SPL-6686-07 :
• h04 + PA + HPK-SPL-6686-07
  • IV - h04 + PA + HPK-SPL-6686-07
  • 3 open channels

small Problems with h03-Module:

• (1)
• breakthrough of h03 - PA to Sensor bonds touch sensor edge
• breakthrough of h03 - PA to Sensor bonds touch sensor edge (tilted)
• (2)
• complete rebond of all PA-Se bonds - old bondfoots were not removed
• Measurment: a lot of shorted channels due to old bond-foots
• (3)
•  

ITE Modules:

Pt Modules:

Pt-1:
hybrid: h01-4APV
bottom sensor: 30210331516116
top sensor: 30210332911309

Pt-2:
hybrid: h02-4APV
bottom sensor: 30210331415917
top sensor: 30210314845402

Optical Modules:

Opt_AC-Test-1:
hybrid: h21-2APV
sensor: HPK-ILC-TS-SPL-6687-05

Opt_AC-Test-2:
hybrid: h22-2APV
sensor: HPK-ILC-TS-SPL-6687-07

modules with SiLC alignment sensors:
Opt-1:
hybrid: h03
sensor: HPK-SPL-6686-03

Opt-2:
hybrid: h04
sensor: HPK-SPL-6686-07

ITE Modules:

Pt Modules:

OB1-Sensors:
• 30210331516116
• 30210331415917
• 30210314845402
• 30210332911309

Optical Modules:

AC-Test-Sensors:
• HPK-ILC-TS-SPL-6687-05
• HPK-ILC-TS-SPL-6687-07
Sensors:
• HPK-SPL-6686-03
• HPK-SPL-6686-07

ITE Modules:

• I
• ITE09W4PAS  - IV - full stripscan: 11pinholes
•  

Pt Modules:

CMS OB1 Sensors:

• CMS OB1 Dimensions

Optical Modules:

Sensors:

• SiLC Wafer Layout
• Sensor (HPK)

ITE Modules:

• Wafer.gds
• Wafer-Screenshot.png

Pt Modules:

• 3D-View
technical drawings:
• support
• support (screws)
• support (bottom HV)
• Spacer
• Deckel
• Deckel (screws)

Optical Modules:

• 3D-View
technical drawings:
• support
• support (screws)
• support (bottom HV)
• top cover
• top cover (screws)

ITE Modules: :

ITE_normal128:
• IB1.1 PA used for the two normal128 modules
• h11 support 1
• h11 support 2
• h11 top cover
• h12 support 1
• h12 support 2
• h12 top cover
ITE_1stmetal128:
• support 1
• support 2
• top cover
ITE_2ndmetal128:
• support 1
• support 2
• top cover
ITE_2ndmetal512A:
• support 1
• support 2
• top cover
ITE_2ndmetal512B:
• support 1
• support 2
• top cover

Pt Modules:

Hybrids with 4 APVs:
• h01-4APV
• h02-4APV

Optical Modules:

Hybrids with 2 APVs:
• h21-2APV
• h22-2APV
Hybrids with 4 APVs:
• h03-4APV
• h04-4APV
Hybrids with 4 APVs & PA:
• h03-4APV & PA
• h04-4APV & PA

ITE Modules:

Hybrids with 1 APV:
• h11-1APV
• h12-1APV
• h13-1APV
• h14-1APV
• h15-1APV
• h16-1APV
Hybrids with 1 APV + PA (for normal128-sensors):
• h11 + "half" TIB1.1-PA
• h12 + "half" TIB1.1-PA
Hybrids with 4 APV:
• h05-4APV
• h06-4APV