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Advanced Implantation Detector Array (AIDA):

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Prototype mechanical design. Based on 8cm x 8cm DSSSD ... Design drawings (PDF) available. http://www.eng.dl.ac.uk/secure/np-work/AIDA ... – PowerPoint PPT presentation

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Title: Advanced Implantation Detector Array (AIDA):


1
Advanced Implantation Detector Array
(AIDA) Update Issues
presented by Tom Davinson on behalf of the AIDA
collaboration (Edinburgh Liverpool STFC DL
RAL)
Tom Davinson School of Physics Astronomy The
University of Edinburgh
2
Prototype AIDA ASIC Channel Layout
  • High (20MeV FSR), intermediate (1GeV FSR) and low
    gain (20GeV FSR) channels in parallel
  • Blocks are sequenced to follow signals flow
    (left to right)
  • Shaper and peak hold at back end to minimize
    noise
  • 400mm x 6mm

Fast comparators
Peak Holds MUX
High speed buffer
Slow comparator
700pF feedback capacitor
Shapers
Preamplifiers feedback
400mm
6mm
3
Prototype AIDA ASIC Top level design
  • Analogue inputs left edge
  • Control/outputs right edge
  • Power/bias top and bottom
  • Prototypes delivered May 2009
  • MPW run
  • 100 dies delivered
  • Functional tests at STFC RAL OK

4
Prototype AIDA ASIC Analogue input and bias
reference
5
Prototype AIDA ASIC Analogue outputs
6
Prototype AIDA ASIC
7
1 Medium Energy (ME) ME
Input signals (voltage step capacitive-coupled)
Preamp buffered output (Low-Medium Energy Channel)
Trigger output
Data Ready signal
Variable medium-energy (ME) event followed after
5us by a second fixed ME event the energy of the
first event (11.75pC, 23.5pC, 35.25pC) does not
affect the response to the second (11.75pC).
8
1 Medium Energy (ME) ME
Input signals (voltage step capacitive-coupled)
Analog output (peak-hold multiplexed output)
Trigger output
Data Ready signal
When the data ready signal is active, the correct
value is present at the analogue output (after
the hit has been detected and the correct address
been fed into the output multiplexer). NB the
test environment is very noisy and that affects
the measurements.
9
2 High Energy (HE) ME
Input signals (voltage step capacitive-coupled)
Preamp buffered output (Low-Medium Energy Channel)
Range signal High high-energy channel active
Data Ready signal
Three high-energy (HE) events (610pC, 430pC,
250pC) followed by a ME event (28.8pC) the
initial HE event does not affect the response to
the second. The roll-of of the L-ME channel
preamplifier is due to the HE channel amplifier
becoming active the two are effectively in
parallel. Note the Range signal changing status
after the HE event
10
2 High Energy (HE) ME
Preamp buffered output (Low-Medium Energy Channel)
Analog output (peak-hold multiplexed output)
Data Ready signal
Although the low-medium energy channel preamp
saturates, the correct value is stored and
multiplexed to the Analog Output when the Data
Ready signal is active.
11
3 High Energy (HE) ME
Input signals (voltage step capacitive-coupled)
Preamp buffered output (Low-Medium Energy Channel)
Range signal High high-energy channel active
Data Ready signal
Fixed high-energy (HE) event (610pC) followed by
three ME events (15pC, 30pC, 45pC) the ASIC
recovers autonomously from the overload of the
L-ME channel and the second event is read
correctly.
12
3 High Energy (HE) ME
Input signals (voltage step capacitive-coupled)
Analog output (peak-hold multiplexed output)
Range signal High high-energy channel active
Data Ready signal
First value (constant) given by the High-Energy
channel, second by the Medium-Energy channel.
13
Prototype AIDA Mezzanine
  • 4x AIDA ASICs
  • 64 channels
  • Design complete
  • Delivery end-October
  • 30 units

3rd September 2009
14
Prototype AIDA FEE
FPGA, Memory, Gbit
Digital readout
Multiplex readout
Power Supplies
Clock distribution
Mezzanine
  • Design complete
  • Production in progress
  • 8 units (4x AIDA, 2x DL DDG, 2x LYCCA)
  • Delivery w/c 21.9.09

15
Prototype AIDA FEE
16
FEE Assembly Sequence
17
Prototype AIDA Enclosure
  • Prototype mechanical design
  • Based on 8cm x 8cm DSSSD
  • evaluate prior to design for 24cm x 8cm DSSSD
  • Compatible with RISING, TAS, 4p neutron detector
  • 12x 8cm x 8cm DSSSDs
  • 24x AIDA FEE cards
  • 3072 channels
  • Design complete
  • Mechanical assembly in
  • progress

18
Prototype AIDA Enclosure
19
AIDA Project Timeline
  • November/December 2009
  • Systems integration (ASICMezzanineFEE)
  • Bench tests
  • February 2010
  • In-beam tests
  • March 2010
  • Design revisions
  • April 2010
  • ASIC wafer run
  • FEE production run
  • June 2010
  • Production delivery complete

20
AIDA Project Information
Project web site http//www.ph.ed.ac.uk/td/AIDA/
welcome.html Design Documents http//www.ph.ed.a
c.uk/td/AIDA/Design/design.html Technical
Design Review v1.1 ASIC Project Specification
v1.4 FEE Specification v1.0 The University of
Edinburgh (lead RO) Phil Woods et al. The
University of Liverpool Rob Page et al. STFC DL
RAL John Simpson et al. Project Manager Tom
Davinson
21
Acknowledgements
This presentation includes material from other
people My thanks to Ian Lazarus, Patrick
Coleman-Smith, Jonathan Strachan Paul Morrall
(STFC DL) Steve Thomas Davide Braga (STFC
RAL) Zhong Liu (Edinburgh) Dave Seddon, Sami
Rinta-Antila Rob Page (University of Liverpool)
22
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