Informacje ogólne wiązka Magnes Detektory p 0 Traker FGD TPC SMRD W spillu Poza spillem

Maria H Szeptycka ND280 - Guided TourKRAKOacuteW październik 2007

1 Informacje ogoacutelne

2 wiązka

3 Magnes

4 Detektory

b) Traker

ii TPC

c) SMRD

i W spillu

ii Poza spillem

iii SMRD a sprawa polska

5 Detektory fotonoacutew

6 Informacja z detektoroacutew fotonoacutew

7 Kalendarz prac

ND280 ndash guided tour ndash

The neutrino spectrum at the far detector is estimated by correcting the neutrino spectrum measured at the near detector by an extrapolation function obtained from the beam Monte Carlo simulation(farnear ratio)

The goal of the ND280 detector is to measure the neutrino ( and e) spectra and to study the neutrino cross sections to predict the response at the far detector

Podstawowe wiadomości

SuperK e background lt 10

νμ event normalisation lt 5

Energy scale lt2

non-QECCQE at 5-10

Beam linear distortion lt 20

Width lt 10

e appearance measurement in SK

The energy scale in the near detector is set by the Magnet-TPC spectrometer system (B mapping better than 1)

The event normalization and the spectrum shape (linear distortion and width of the spectrum) measurement will be done by measuring the CCQE events

Po co czyli Near detector tasks

Wiązka 30 () GeV protony na tarczy C

Moc wiązki

Struktura czasowa

Kat 250 ndash wiązka neutrin z wiązka pierwotnych protonoacutew - off axis

Magnes

bullRozmontowany do transportu z CERNu

bullMontowany w Japonii i elementy spuszczane do studni -23m

Detektor montowany w

bullStudni

bullex magnesie UA1

Jak czyli informacje Techniczne

Trudno jest podać końcowe liczby bo w rożnych okresach będą roacuteżne

W studni będzie ciasno

Jarzmo 82 moduły C 55 t moduł

The total weight of the yoke is 850 tons

The external dimensions of the magnet are 76m(L)x61m(H)x56m(W)

Dipol 02 T Geometria

Jarzmo otwarte Struktura jarzma C

Magnes zamknięty

C is segmented in 12 azimuthal sections Each section is made of 16 iron plates 5 cm thick with 17 cmair gap between plates

MAGNES

Jarzmo magnesu pole prostopadłe do beamu i grawitacji 02T

Z goacutery złożony

Pole B

MAGNES

MAGNES Dla lepszego wyobrażenia

No fragile each 55 tons (normal truck lt30 tons)

bulltotal 848 tons

bulloverall dimensions each 3x1x65 m3

No special box or protection are foreseen

The only protection will be a cover against rain

Detail to be defined with the Shipping Company

based on their preferred shipping configuration and proposed container

Shipping configurations proposed by Company have to be verified

Orientation during transport and storing

Orientation during lowering in the pit

I jego transport do Japonii MAGNES

Montaż modułoacutew jarzma bullTest insertion of dummy modules and adjustment possibilities under discussionbull conceptual installation scheme for electronics existsbull engineering design on hold until decision

on reinforcement barSMRD cooling system

Alignement - względne ustawienie modułoacutew jarzma bullWiemy że alignement z dokładnością +-1mm powinno być wystarczajace dla montazu licznikoacutew SMRD ale jak wyjdzieRequire good alignment (see Andrersquos presentation)

Chłodzenie bdquoSMRD cooling system only required if coils are not chilledrdquo

Magda PosiadałaTadeusz KozłowskiMHS

MAGNES Ustawienie w studni i alignement chłodzenie

Nie pokazuje struktury mechanicznej (bdquobasketrdquo) na ktoacuterej wiszą

0 detector

Kalorymetr elektromagnetyczny

Traker

bullTPC Time Projection Chamber

bullFGD Fine Graine Detector

SMRD - Side Muon Range Detector

DETEKTORY

bdquoBASKETrdquo struktura mechaniczna (bdquobasketrdquo) na ktoacuterej wiszą detektory

ECALDS

DS ECAL comprises 1 module containing-

33 Pb layers

34 scint Layers

Total number of Scintillator bars = 3468

Dimensions- 23m x 23m x 05m

Each module will have a carbon fibre face panel front and back with structurally stiff aluminium sides

Weight of modules ~ 53 tonnes

DS ECAL design completed and reviewed

bullMaterials ordered

bullLabs and devices (scanners moving etc) ~ready

bullProduction lab at Lancaster ready

bullLayers construction in January-March 2008

bullModule assembly and QA in April-June

bullMPPC installation in August

bullCosmics runs starting in September

bullCERN test-beam in Spring 2009

bullInstallation at Tokai in 08-09 2009

ECALDS

DS ECAL

The P0D is a solid scintillator strip detector using water to provide a large oxygen content

It is based on the K2K SciBar experience and the MINERvA design

The P0D target is constructed of water layers between X-Y scintillator modules which provide the charged particle tracking The scintillator modules are constructed with 10 lead by mass so it has a high probability of creating an electromagnetic shower The P0D has a total target mass of approximately 15 tons and a fiducial mass of approximately 5 tons

bdquoThe primary physics goal of the P0D is to measure neutral current p0 events produced in a water target within the expected momentum T2K ne appearance signalrdquo

Light generated by passing particles in the scintillator bars is collected by a 1mm diameter Y-11 Wavelength Shifting Fiber (WLS) threaded axially through the bars The light is collected by a photo sensor at one end of the barbullThe photo sensor is housed in an optical connector which screws to the frame as shownbullThe far end of the fiber is polished and mirrored and terminates at the far end of the scintillating bar

Mieli kłopotyhellip0

3 Super-POslashDules

Upstream ECAL (3200 kg)7 POslashDules7 4mm-thick lead radiators

Target (11000 kg)28573 kg water26 POslashDules25 16mm brass radiators25 Water target layersSplit into 2 sub-units for pre-installation handling

Central ECAL (3200 kg)7 POslashDules7 4mm-thick lead radiators

Total Mass is 17600 kg - 28573 kg water

Construction Status

bullSchedule is TightbullDesigns and prototypes for all subsystems moving forwardbullComponent production begins early 2008bullAssembly begins MayJune 2008bullReady for shipment in January 2009bullAllows a 3 month contingency

Component purchases have begunTrip-T ASIC fabrication order being tendered

PhotosensorsSeveral dozen in Feb 500week starting in April (~11500 total)To be tendered shortly

Scintillator Production (3000 bars on hand)Fiber ampc

Wydaje się że sa to plany na 2008

TRACKER bdquoThe first role for the tracker is to isolate a clean sample of CCQE events

In order to do that both the proton (mostly in the FGD) and the muon track need to be reconstructed

Detecting the recoil proton allows to select a high purity CCQE samplerdquo

Tracker consists of bull 3 TPCs bull 2 FGD modules

The FGDs are thin enough (lt 30 cm) that most of the penetrating particles produced in neutrino interactions especially muons will reach the TPCs where their momenta and charges will be measured by their bending in the magnetic field

The ND280 detector will contain two massive fine-grained detectors (FGDs) which provide the target mass for neutrino interactions as well as tracking of charged particles coming from the interaction vertex

bdquoThe FGDs form part of the ND280s tracker Its primary function is to measure the neutrino beams flux energy spectrum and flavor composition by observing charged current neutrino interactionsrdquo

TRACKERFGD

Light produced in scintillator bar is readout using a wavelength shifting (WLS) fibre coupled to MPPC

XY Modulle Construction Each module consists of

bullan X layer bulla Y layer and bulltwo G10 skins

currently 20 of 24 modules glued

Considerable RD was done for module gluing procedure Metal jig was constructed to ensure that X and Y layers were aligned andperpendicular

light injection with LEDs on every channel - analog sum trigger

Second FGD is composed of water layers interleaved with scintillatorMust measure CCQE cross-section on water since SuperK is water-based detector

TRACKERFGD

FGD provides target mass for tracker (2 x ~1 tonne) dimensions ~2m x ~2m x ~30cm

bullone all-plastic FGD bullone plastic with 6 x 25cm water panels FGD

Scintillator barsThe number of bars needed for

bullthe plastic FGD is 19230=5760 bullthe water-rich FGD 19214=2688 bars

The total number of bars is ~10000 The geometrical specications of each bar

bull Length (z dimension) =184321 mmbull Outside x and y dimensions =96 mmbull TiO2 thickness=025 mm (co-extruded bar coating)bull Active dimensions=91 mmbull Hole diameter=18 +- 03 mm

TRACKERFGD

February 2008 start of photosensor delivery February-April 2008 stringing of XY modules and mounting of photosensors May 2008 start FGD commissioning Summer 2008-Winter 2009 beam tests calibrationshakedown Summer 2009 ship to Tokai

TRACKERTPC

The proton momentum is soft so that some will stop before entering the TPC volume The TPC will also provide further information useful to study events with additional pion tracks

The CCQE represents 40 of the total neutrino cross-section at these energies and the TPC will provide 3-D information on the event this classication is expected to be relatively straightforward

It will also be important to distinguish the products from neutrino interactions inside the fiducial volume of the near detector from other beam related activity

In particular neutrino interactions in the magnet iron will produce many charged particles that will enter the fiducial volume

The excellent 3D granularity of TPCs will allow these to be distinguished more easily than in a projective 2D trackerrdquo

TRACKERTPC

The geometry of the TPC follows from the constraints given the UA1 magnetThree TPCs are needed in order to measure the momenta of particles originating from the two FGDtargets The outer dimensions of each module are roughly 25 m 25 m in the plane perpendicular tothe neutrino beam direction and 10 m along the beam direction The transverse dimension is chosen to provide space between the inner wall of the magnet and the TPC modules for electromagnetic calorimeter and for a mechanical support cage The dimension along the beam direction is chosen to achieve the required momentum resolution including the necessary inactive elements The upstream TPC will measure backscattered particles from the upstream FGD as well as high momentum muons exiting the P0D in the forward direction

Geometria

Several parts have been machined (oversized) on the routerfinal machining to final size to be done once router calibration is under controlouter panels need final machining

Ar-CF4-iC4H10 Purifier design from ALICE

TRACKERTPC

Operation is considered at bullan electric field around 200 Vcm bullthe cathode being at a potential of 104857625 kV

inner panels underconstructionendplate under constructioncathode module frame not startedservice spacer in machine shopservice covers under construction

First tracks with AFTER based FEETRACKERTPC

The ECAL consists of lead-scintillator sandwich sampling calorimeter modules located around the ND280 inner detectors on all four sides and at the downstream end of the magnet

Barrel ECAL

The Electromagnetic Calorimeter comprises two sections The Tracker ECAL (TECAL) surrounds the FGDs and TPCs

bullThe main purpose of the Tracker ECAL is to aid the Tracker in fully reconstructing neutrino interactions bullIt detects reconstructs and identies particles leaving the tracking volume bullThe TECAL is also important for the energy measurement of electrons from beam ne

The P0D ECAL (gamma muon tagger) is a simpler device which helps to positively identify photons and muons escaping the P0DBoth ECAL sections tag interactions occurring outside the inner detectors which produce event signatures that can resemble those of signal neutrino interactions in the ducial volumes of the inner detectorsThe good cluster and MIP reconstruction capabilities of the ECALs will allow satisfactory background rejection to be performed

Ale chyba nie będzie działał w 2009r

SMRD bdquoThe principal tasks for the side muon range detector (SMRD) are to

(1) measure muon momenta and angle for CC-QE reactions to help determine the neutrino energy

(2) identify backgrounds from beam neutrino interactions in the iron yokes and in the cavity walls surrounding the detector and

(3)trigger on through going cosmic ray muons for calibration purposes of the inner detector components

Te miony z oddziaływań CC neutrin z wiązki powinien widzieć SMRD

Poza czasem spillu

W czasie spillu

1 counter (07x17x87 cm)Scintillator thickness 70 mmGroove depth 25 mmLY = 196 plusmn06 pe (19 Mar 2007)LY = 188 plusmn06 pe (10 Sept 2007)[readout with MRS-APD at INR]

Confirmed by test at LSU Light yield for SMRD prototype scintillator slab can be readout with 995 detection efficiency if average Ly=15peMIP

Tu dochodzą obejmy w ktoacutere wsuwane są MPPC ndash odczyt światła z 2 końcoacutew fibra

Liczniki są wsunięte w szczeliny w jarzmie

Rogi nie są wypełnione

Bardzo skomplikowana obejma scyntylatoroacutew ale czy można mniejSMRD

Od jakości względnego ustawienia C w studni zależy jak dobrze da się wypełnić szczeliny w jarzmie licznikami

Planowana jest łapka do ew wymiany uszkodzonych detektoroacutew odczytu

Chyba nie możliwości wymiany uszkodzonych scyntylatoroacutew

SMRDw spillu

Top bottom

Left (right)

Liczba i rozmieszczenie licznikoacutew w szczelinach jarzma magnesu

Paweł Przewłocki

Rozmieszczenie modułoacutew wynika z 1 Wpływu materiału cewki na pęd

widocznych w SMRD mionoacutew2 Charakterystyk kątowych mionoacutew

z oddziaływań CC

Liczbascyntylatoroacutew 1120 786 1906 Zamoacutewienie 2000 szt

Problemem nie jest szerokość szczelin w modułach C (~17mm) w ktoacutere mają wejść liczniki (~8mm)

Jest względne ustawienie modułoacutew C ponieważ liczniki będą wsuwane w jarzmo PO złożeniu magnesu w studni

1 Odległość spill ndash spill 353 s (03 Hz)

2 Spill początek ndash koniec 517 s

3 W spillu 15 bunchy 60ns odległość 270 ns (całkowanie+reset)

4 Po spillu jeszcze 8 bdquobunchyrdquo (28s)

5 Czas czytania 15+8 bunchy = 74s

6 Wtedy przełączenie na tryger kosmiczny

WIĄZKA

22 2 55 5

spillstart stop

Struktura czasowa wiązki i elektroniki

Czas na tryger kosmiczny (kalibrację) = 353s ndash (517+28+74)10-6s = ~353s

SMRDpoza

spillem Wieża - Segment w x y z

Na zebraniu w KEK była dyskusja o trygerze może skomentuje ktoś z jej uczestnikoacutew

Symulacja trygera

DetektoryWewnętrzne

SMRD jako tryger ndash GEOMETRIA

Widok w x-y

Piotr Mijakowski amp Karol Strykowski

SMRD Production Responsibilities

1) Scintillator size and tolerances have been fixedPoziom 7 x 167 x 875 mmPion 7 x 175 x 875 mm

2) Scintillator production (+ chemical reflector)Preparation of Production in Progress at Uniplast (Rosja)

1000 detectors now1000 detectors by end of 2008

3) Groove milling (INR)4) QA of WLS fibers and scintillators gluing (INR)5) Endcap + optical connector Production of Mold has started(SofttouchUS)6) Assembly + packaging (INR)7) Photosensor tests at INR LSU Warsaw8) Slow Control (LSUWarsaw)9) Electronics testing (UPitt)10) Cooling if needed (Cracow) SMRD cooling system only required if coils are not chilled

SMRD a sprawa

polska

Krzysztof ZarembaRobert Sulej ~4000 MPPC

Detektor światła ndash liczy fotony z WLS Multi Pixel Photon Counter

ND280 ~70000 WLS fiber readout channels

pixels 400Active area 10-12 mm2

Gain ~106

Minimum PDE 12Bias voltage 25-70 VDark rate 1MHz (th = 05 pe)Pulse width 50 nsLife time stability very good

Photosensor tests at Kyoto INR LSU CSU TRIUMF Sheffield Warwick

MPPC 10x10 mm2 400 pixels

13x13 mm2 667 pixels

50 000 szt dla ND280Producent Hamamatsu

Main parameters PDE dark rate gain cross-talk are measured All MPPC parameters are stable within 5 accuracy after heat testHPK will provide simple tests 2 parameters - Operating bias voltage at 25oC for gain 75x105

- Dark rate at operating bias voltage

Wymagania

także Politechnika Warszawska (KZ RS)

Działa w polu magnetycznym

Uwagi dot MPPC Bardzo nowy detektor ndash pojawił się w katalogach Hamamatsu na wiosnę 2007

1 Pierwsze zastosowanie w tej skali (~50 000 kanaloacutew) MPPC w eksperymencie

5 - tego wyboru

a) SMRD nie potrzebuje tak dużej liczby pikseli

b) Efektywność rejestracji fotonu maleje ze wzrostem liczby pikseli

c) Ten model MPPC nie figuruje w katalogach Hamamatsu z lata 2007

2 MPPC są bardzo czułe na zmiany temperatury

a) Wzmocnienie maleje ze wzrostem temperatury

b) Liczba bdquoafterpulsoacutewrdquo rośnie ze wzrostem temperatury

3 Decyzja o zastosowaniu MPPC z liczbą pikseli = 675

4 + tego wyboru

a) Łatwiej jest zrobić alignement f MPPC 13 mm WSL 1mm

b) Wspoacutelny i standardowy dla całego ND280

ALEhellip

analoguepipeline

Szybki sygnał 01 powyżej zadanego progu

Zasilanie globalne(~70V)

HVtrim dobrane dla pojedynczego MPPC (~0-5 V)

2 kanały TRIPt MPPC o dużej i małej amplitudzie

MPPC Kabel Zasilanie TRIPt2kanały MPPC

MPPCinformacja

chip TRIgger and Pipeline with Timing)

Inputs of the TRIP-t are

bull the analog pulses from the fibers after amplification by the MPPCbull digital timing inputs to control eg the time window over which the

system should be sensitive to pulses

Outputs of the TRIP-t are (1) a digital signal to use for triggering (2) an analog pulse (~1V) that is proportional to the amplitude of the input

from the MPPC called the A-pulse (3) an analog pulse (~1V) that is proportional to the time between the firing

of the discriminator and the closing of the time-gate called the t-pulse

The chip contains an analog pipeline just before the final output drivers The A-pulse and t-pulse outputs are stored in analog pipelines

Outputs to form trigger signals are created by discriminators in the front end and readout quickly through the digital multiplexer

) TRIPt jest rodem z FERMILAB (D0) W ND280 są zmiany ktoacuterych przyczyn nie rozumiem

Beam line construction started Apr 2004

ND280 pit construction start Jul 2007

UA1 magnet installation Apr 2008

Completion of ND280 building Mar 2009

Neutrino beam line commissioning Apr 2009

ND280 Commissioning Oct 2009

Kalendarz prac w Japonii

Magnes bullinstalacja 04-05 2008bullzamknięty włączony

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

goacutera ndash doacuteł 02ndash03 2009lewo ndash prawo 07ndash09 2009

Chłodzenie 04 2009

ND280 Schedule(NEW) ( Simplified version ) (Uploaded on 2007-Mar-22)

T2K Physics run Nov 2009

Spill Structure

bull 15 batchesbull charge integrated in batches

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

517micros 517micros 517micros

integration resetChip Time Structure

preampvery simplified ndash

neglecting features not relevant to ND280 operation

integratereset

gain = 1 or 4

gain adjust123hellip8

analogue pipeline

disc OP

discriminator

TRIP-t Front-end architecture

bull only preamp gain affects signal feeding discriminatorndash no fine control (x1 or x4)

bull discriminator threshold Vth ndash common to all channels on chip

bull analogue bias settingsndash gain Vth etcndash programmable via serial interface

disc OP

analoguepipeline

~ 1V dynamic range available at preamp OP ~ similar voltage range

at x10 amp OP~ similar disc thresh

voltage adjustment range

single triptchannel

Gain Considerations

bull SiPMndash gain = 5 x 105 and Npelt500

bull 25 V CMOSndash dynamic ranges of internal circuits ~ 1V

bull implications for discriminator threshold rangendash 0 ndash 5 pe adjustment range then 5 pe equiv 1V at x10 OPndash 1V equiv 50 pe at preamp OPndash high gain channel will saturate at ~ 50 pe

bull effective threshold spreadndash +- 05 pe (measured ndash see later)

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

coax sheath not DCcoupled to GND

47k50V 0402

HVglobal common to all SiPM channels on TFBHVtrim individual for each SiPM channel 5V adjustment range (choice of 81012 bit DAC precision)HVtrim applied to coax sheath ndash AC but not DC coupled to GND

significant no of passiveschannel ndash need careful high

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

bull FE FPGAndash channel mask (64ch)ndash look for trigger primitives

bull N hits in ~100 nsec windowbull tracks

ndash drive output

bull Trigger FPGAndash require certain FE FPGA hit pattern

The neutrino spectrum at the far detector is estimated by correcting the neutrino spectrum measured at the near detector by an extrapolation function obtained from the beam Monte Carlo simulation(farnear ratio)

The goal of the ND280 detector is to measure the neutrino ( and e) spectra and to study the neutrino cross sections to predict the response at the far detector

Energy scale lt2

non-QECCQE at 5-10

Width lt 10

Moc wiązki

Struktura czasowa

Magnes

bullStudni

bullex magnesie UA1

Magnes zamknięty

MAGNES

Pole B

MAGNES

bulltotal 848 tons

0 detector

Traker

DETEKTORY

ECALDS

33 Pb layers

34 scint Layers

ECALDS

DS ECAL

Construction Status

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

Energy scale lt2

non-QECCQE at 5-10

Width lt 10

Moc wiązki

Struktura czasowa

Magnes

bullStudni

bullex magnesie UA1

Magnes zamknięty

MAGNES

Pole B

MAGNES

bulltotal 848 tons

0 detector

Traker

DETEKTORY

ECALDS

33 Pb layers

34 scint Layers

ECALDS

DS ECAL

Construction Status

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

Moc wiązki

Struktura czasowa

Magnes

bullStudni

bullex magnesie UA1

Magnes zamknięty

MAGNES

Pole B

MAGNES

bulltotal 848 tons

0 detector

Traker

DETEKTORY

ECALDS

33 Pb layers

34 scint Layers

ECALDS

DS ECAL

Construction Status

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

Magnes zamknięty

MAGNES

Pole B

MAGNES

bulltotal 848 tons

0 detector

Traker

DETEKTORY

ECALDS

33 Pb layers

34 scint Layers

ECALDS

DS ECAL

Construction Status

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

Magnes zamknięty

MAGNES

Pole B

MAGNES

bulltotal 848 tons

0 detector

Traker

DETEKTORY

ECALDS

33 Pb layers

34 scint Layers

ECALDS

DS ECAL

Construction Status

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

Pole B

MAGNES

bulltotal 848 tons

0 detector

Traker

DETEKTORY

ECALDS

33 Pb layers

34 scint Layers

ECALDS

DS ECAL

Construction Status

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

bulltotal 848 tons

0 detector

Traker

DETEKTORY

ECALDS

33 Pb layers

34 scint Layers

ECALDS

DS ECAL

Construction Status

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

bulltotal 848 tons

0 detector

Traker

DETEKTORY

ECALDS

33 Pb layers

34 scint Layers

ECALDS

DS ECAL

Construction Status

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

bulltotal 848 tons

0 detector

Traker

DETEKTORY

ECALDS

33 Pb layers

34 scint Layers

ECALDS

DS ECAL

Construction Status

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

0 detector

Traker

DETEKTORY

ECALDS

33 Pb layers

34 scint Layers

ECALDS

DS ECAL

Construction Status

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

0 detector

Traker

DETEKTORY

ECALDS

33 Pb layers

34 scint Layers

ECALDS

DS ECAL

Construction Status

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

ECALDS

33 Pb layers

34 scint Layers

ECALDS

DS ECAL

Construction Status

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

ECALDS

33 Pb layers

34 scint Layers

ECALDS

DS ECAL

Construction Status

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

ECALDS

DS ECAL

Construction Status

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

Construction Status

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

Construction Status

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

Construction Status

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

Construction Status

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

TRACKERFGD

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

TRACKERTPC

Geometria

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

TRACKERTPC

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

Barrel ECAL

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

Poza czasem spillu

W czasie spillu

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

SMRDw spillu

Top bottom

Left (right)

Paweł Przewłocki

z oddziaływań CC

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

WIĄZKA

22 2 55 5

spillstart stop

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

SMRDpoza

Symulacja trygera

Widok w x-y

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

SMRD a sprawa

polska

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

Gain ~106

Wymagania

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

5 - tego wyboru

4 + tego wyboru

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

ALEhellip

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

analoguepipeline

MPPCinformacja

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

05-06 2009 oraz od 11 2009

SMRD bullInstalacja

Chłodzenie 04 2009

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

Spill Structure

Bunch Structure

Spill Structure

58ns 58ns

260ns260ns

353s 353s

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

integratereset

gain = 1 or 4

analogue pipeline

disc OP

discriminator

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

disc OP

analoguepipeline

single triptchannel

Gain Considerations

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

47k50V 0402

220pF50V0402

330pF100V0603

10pF100V0603

100pF100V0603

100nFLV

1kLV 0402

trip-t

10pF100V 0603

HVglobal

HVtrim(0-5V)

cal testpulse

47k50V 0402

density layout

SiPM TFB Connection

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

Trigger Path

SiPMdisc

FE FPGA(TFB)

output driver

Trigger FPGA(GTM)

10-20 m

SCINTtrigger

TPCtrigger

ndash drive output

Informacje ogólne wiązka Magnes Detektory p 0 Traker FGD TPC SMRD W spillu Poza spillem

Documents

far detector

near detector

nd280 detector

jak wizka

neutrino spectrum

montowany w japonii

neutrino nm

gdzie w studni bdzie