ESR for the muon DT Minicrate System

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Presentation transcript:

ESR for the muon DT Minicrate System System Overview ESR for the muon DT Minicrate System CERN. November 3rd 2003.

MINICRATE Trigger SC 2 ESR / MUON DT MINICRATE SYSTEM. Overview. November 3rd , 2003 MINICRATE Trigger SC

READ-OUT TRIGGER ROB (Read-Out Board) 3 ESR / MUON DT MINICRATE SYSTEM. Overview. November 3rd , 2003 READ-OUT ROB (Read-Out Board) • Performs the time digitalisation of the incoming signals from the front-end electronics. • 128 channels, 4 HPTDC per board. TRIGGER TRB (Trigger server boards) • Select the two best muon candidates in each board. • 128 channels, 32 BTI´s per board, 4 TRACO per board. SB (Server boards) • Selects two best muon candidates in the chamber.

RESPONSABILITIES - Read-Out (ROB´s) & RO-link:................CIEMAT 4 ESR / MUON DT MINICRATE SYSTEM. Overview. November 3rd , 2003 RESPONSABILITIES - Read-Out (ROB´s) & RO-link:................CIEMAT - Trigger Boards (TR) , CCB & CCB-link:....INFN Padova - Server Boards (SB) & TR link:.................INFN Bologna - Mechanics:............................................CIEMAT & All

LOCATION IN THE DETECTOR 5 ESR / MUON DT MINICRATE SYSTEM. Overview. November 3rd , 2003 LOCATION IN THE DETECTOR Electronics attached to chambers: Drastical minimisation of cables.

MINICRATE LAYOUT 6 ESR / MUON DT MINICRATE SYSTEM. Overview. November 3rd , 2003 MINICRATE LAYOUT

MC TO CHAMBER CONNECTION 7 ESR / MUON DT MINICRATE SYSTEM. Overview. November 3rd , 2003 MC TO CHAMBER CONNECTION SLΦ1 SLΘ ROB Φ ROB Φ ROB Φ ROB Φ ROB Θ ROB Θ SLΦ2 Nº of channels/board tries to find a compromise between high granularity (multiplication of common components) and low granularity (increase the number of unused channels).

DISTRIBUTION ON THE DETECTOR 8 ESR / MUON DT MINICRATE SYSTEM. Overview. November 3rd , 2003 DISTRIBUTION ON THE DETECTOR Left and right minicrates depending on the service layout on each wheel inside the iron yoke.

CABLES OUTGOING FROM A MINICRATE 9 ESR / MUON DT MINICRATE SYSTEM. Overview. November 3rd , 2003 CABLES OUTGOING FROM A MINICRATE

MINICRATE ASSEMBLY SEQUENCE 10 ESR / MUON DT MINICRATE SYSTEM. Overview. November 3rd , 2003 MINICRATE ASSEMBLY SEQUENCE Pictures

Refrigeration by 15ºC water circulation. 11 ESR / MUON DT MINICRATE SYSTEM. Overview. November 3rd , 2003 WATER COOLING SYSTEM Refrigeration by 15ºC water circulation.

MC LINKS CCB link ROB link TTC optical connection RPC alignment 12 ESR / MUON DT MINICRATE SYSTEM. Overview. November 3rd , 2003 MC LINKS CCB link TTC optical connection RPC alignment ROB link RJ-45 copper link

MC PROTOTYPING We have produced: 13 ESR / MUON DT MINICRATE SYSTEM. Overview. November 3rd , 2003 MC PROTOTYPING We have produced: • 2 MB1 prototypes: Padova: Trigger part assembled and operated in May 03 test beam. Madrid • 1 MB2 at ISR: for testing insertion on chamber. • 1 MB3 in Legnaro: waiting to be equipped with TRB´s. • 1 MB1 definitive (left) in Madrid.

3.3 V Digital 5.0 V Digital MC POWER SUPPLY 14 ESR / MUON DT MINICRATE SYSTEM. Overview. November 3rd , 2003 MC POWER SUPPLY AVERAGE MINICRATE POWER CONSUMPTION: 135 Watts 3.3 V Digital The voltage at chamber input is nominally 4 V (as it is followed by low drop regulators). The current at the load can be any value between 0 and 35 A. PS must be designed to provide at least 20% more current than maximum nominally required: 42 A. The voltage at the Load is nominally 6 V, as it is followed by one low drop regulator. The current at the Load will be any value between 0 and 1.5 A. PS must be designed to provide at least 20% more current than maximum nominally required: 1.8 A 5.0 V Digital

TRB’s & ROB’s 3.3V Low drop regulator CCB 5V Low drop regulator 15 ESR / MUON DT MINICRATE SYSTEM. Overview. November 3rd , 2003 MC POWER SUPPLY Independent systems per wheel. 3.3V digital TRB’s & ROB’s 3.3V Low drop regulator on each board 4V 6 V 5 V digital CCB 5V Low drop regulator 6V 8 V TOWERS MINICRATE 5 EASY MODULES A3003 25 EASY MODULE A3050 ~1 m 10-20 m cable