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Outline Upgrade status of the ECAL/HCAL HV control mezzanine board;  Firmware design,  Setup for making functional tests and validation FPGA firmware.

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Presentation on theme: "Outline Upgrade status of the ECAL/HCAL HV control mezzanine board;  Firmware design,  Setup for making functional tests and validation FPGA firmware."— Presentation transcript:

1 Outline Upgrade status of the ECAL/HCAL HV control mezzanine board;  Firmware design,  Setup for making functional tests and validation FPGA firmware. Proposal of the LEDTSB board adaptation in a new upgraded FEB crate Planning of the CALO slow control upgrade LHCb calorimeter upgrade meeting 2/03/2016. A. Konoplyannikov Status of the CALO slow control upgrade for HV, LED and Cs calibration systems

2 Upgrade status of the ECAL/HCAL HV control mezzanine board;  New control mezzanine board based on IGLOO2 FPGA was developed for usage with the HV and HCAL Cs calibration systems;  Two prototype boards were produced and assembled ;  Photo of the new mezzanine board in the left;  Firmware for the HV system FPGA has been redesigned and simulated;  The functional tests of these mezzanines were started in February and now near finish. LHCb calorimeter upgrade meeting 2/03/2016. A. Konoplyannikov Block-diagram of the High Voltage and LED intensity control signal and power supply distribution board (HV_LED_DAC). Reminder: HV_LED_DAC board Specification. Readout of the control voltages is implemented on the board by two ADCs. The DCU-ADC (on SPECS mezzanine board) readouts the HV control signals and VFC-ADC (on the mother board) readouts the LED intensity control signals. Outputs 200 outputs for the CW base control voltage distribution in range from 0 to 5 V with 12 bit precision. 8 outputs of the stabilized LV and +100 V power supplies for feeding the 8 groups of the CW bases. Voltages for CW base power: 1) +5.8 V, -5.8 V protected by fuses; 2) +100 V protected by relays. 8 connectors for distribution 16 LED intensity control signals in range from 0 V to +5 V with 12 bit precision and powering LED-PIN boards. Voltages for LED-PIN board: 1) +15 V for LED driver; 2) -30 V, +5.8 V, -5.8 V for PIN diode amplifier. Will be replaced with GBT-SCA mezzanine Will be replaced with IGLOO2 Control mezzanine

3 Upgrade status of the ECAL/HCAL HV control mezzanine board LHCb calorimeter upgrade meeting 2/03/2016. A. Konoplyannikov Top level of the Smart Design diagram for the HV-LED intensity control project. Microsemi M2GL010-1FGG484 FPGA Firmware design was implemented with MicroSemi Libero SoC v11.5

4 Upgrade status of the ECAL/HCAL HV control mezzanine board LHCb calorimeter upgrade meeting 2/03/2016. A. Konoplyannikov Setup for making the full functional tests of the new mezzanine with a CALO HV-LED control board

5 Upgrade status of the ECAL/HCAL HV control mezzanine board LHCb calorimeter upgrade meeting 2/03/2016. A. Konoplyannikov Powerful software has been developed for making the functional tests of the new mezzanine with a CALO HV- LED control board. Finally one HV-LED_DAC board equipped with a new control mezzanine has been tested in the LHCb pit. All tests were passed except one with block transfer to memory. List of the validation tests used for debugging FPGA firmware. Example of the output plots of the linearity test (ADC counts versus DAC converter value) Nonlinearity Linearity HV channel LED channel

6 The LEDTSB boards will use the infrastructure of the FEB crate where they are installed.  In particular, they should use the Channel-B control lines of the crate to make synchronisation with LHC timing.  In the same time, as mentioned by LAL people, the slow control bus (as SPECS) and +5 V / -5V volt power is not foreseen in new FEB crate. CALO DCS – LEDTSB boards Proposal The LEDTSB boards have to be modified: 1.SPECS should be replaced by GBT-SCA mezzanine with e-link, a mini HDMI connector at the front panel could be used as e-link connector. 2.+5 and -5V power will be needed for calibration LEDTSB (this is the procedure which will be done at the beginning of operation). As we will not have ±5V lines in future crates, we can arrange powering during the calibration, e.g., using a laboratory power supply. Proposal of the LEDTSB board adaptation into a new FEB crate LHCb calorimeter upgrade meeting 28/01/2016 Y. Guz, A. Konoplyannikov

7 Proposal of the LEDTSB board adaptation in a new FEB crates LHCb calorimeter upgrade meeting 2/03/2016. A. Konoplyannikov Features: Dimension: 15 x 10 x 2mm (approx.) Weight: 1g Package Content: Mini HDMI Male C Type SMT+PCB Connector 25 30 Possible implementation HDMI connector of e-Link -5V cable +5V cable GBT-SCA HDMI cable of e-Link LEDTSB

8 Planning of the CALO slow control upgrade LHCb calorimeter upgrade meeting 2/03/2016. A. Konoplyannikov  Finish firmware debugging of the HV project in one week;  Start firmware design for HCAL Cs calibration system;  Start development of the GBT-SCA mezzanine for the SPECS mezzanine replacement PCB board design; Firmware design;  Learn software for using proposed system with MiniDAQ (planning to participate in the session of the MiniDAQ tutorial)

9 LHCb calorimeter upgrade meeting 2/03/2016. A. Konoplyannikov spares CALO DCS – HV-LED and INTEG boards GBTX fan-out board with VLDB Optical Link E-Link HV-LED board


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