Difference between revisions of "SU735"

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= Description =
  
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= Block Diagram =
  
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== Version 0 ==
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= Front planel =
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== Version 0 ==
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{| border="1" class="wikitable"
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|+ Front panel connectors and controls
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! scope="col" | Name
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! scope="col" | Type
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! scope="col" | Qty.
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! scope="col" | Dir.
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! scope="col" | Function
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|-
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|Analog input
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|LEMO connector
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|1x
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|input
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|Detector input
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|-
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|DIO
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|LEMO connector
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|1x
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|input/output
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|Digital input/output (LVTTL)
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|}
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= Back Connector =
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== Version 0 ==
  
  
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   power    in            GND 36  35 GND            in    power
 
   power    in            GND 36  35 GND            in    power
  
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== Version 1 ==
  
 
production version
 
production version
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   LVTTL    in          CLKp 34  33 CLKn            in    LVTTL
 
   LVTTL    in          CLKp 34  33 CLKn            in    LVTTL
 
   power    in            GND 36  35 GND            in    power
 
   power    in            GND 36  35 GND            in    power
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= Measurement =
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== Version 0 ==
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Revision as of 13:36, 28 February 2014

Description

Block Diagram

Version 0

Front planel

Version 0

Front panel connectors and controls
Name Type Qty. Dir. Function
Analog input LEMO connector 1x input Detector input
DIO LEMO connector 1x input/output Digital input/output (LVTTL)

Back Connector

Version 0

SU735 pin table (direction shown for the SU board!)

prototype

 power    in            +5V  2    1 +5V             in     power
 LVTTL    in           CLKp  4    3 CLKn            in     LVTTL
    NC     -              -  6    5 -               -      NC
 LVTTL   out        DATA<1>  8    7 DATA<0>         out    LVTTL
 LVTTL   out        DATA<3> 10    9 DATA<2>         out    LVTTL
 LVTTL   out        DATA<5> 12   11 DATA<4>         out    LVTTL
 LVTTL   out        DATA<7> 14   13 DATA<6>         out    LVTTL
 LVTTL   out        DATA<9> 16   15 DATA<8>         out    LVTTL
 LVTTL   out       DATA<11> 18   17 DATA<10>        out    LVTTL
 LVTTL   out       DATA<13> 20   19 DATA<12>        out    LVTTL
 LVTTL    in       SPARE<1> 22   21 SPARE<0>        in     LVTTL
 LVTTL    in       SPARE<3> 24   23 SPARE<2>        in     LVTTL
 LVTTL    in       SPARE<5> 26   25 SPARE<4>        in     LVTTL
 LVTTL    in          RESET 28   27 SPARE<6>        in     LVTTL
 LVTTL    in            SCL 30   29 SDA             bidir  LVTTL
 LVTTL   out           SDRD 32   31 SEn             in     LVTTL
 LVTTL    in          SDATA 34   33 SCLKn           in     LVTTL
 power    in            GND 36   35 GND             in     power

Version 1

production version

 power    in            +5V  2    1 +5V             in     power
 LVTTL bidir            SDA  4    3 SCL             in     LVTTL
 LVTTL   out        DATA<1>  6    5 DATA<0>         out    LVTTL
 LVTTL   out        DATA<3>  8    7 DATA<2>         out    LVTTL
 LVTTL   out        DATA<5> 10    9 DATA<4>         out    LVTTL
 LVTTL   out        DATA<7> 12   11 DATA<6>         out    LVTTL
 LVTTL   out        DATA<9> 14   13 DATA<8>         out    LVTTL
 LVTTL   out       DATA<11> 16   15 DATA<10>        out    LVTTL
 LVTTL   out       DATA<13> 18   17 DATA<12>        out    LVTTL
 LVTTL    in       SPARE<1> 20   19 GI_GATE         in     LVTTL
 LVTTL    in       SPARE<3> 22   21 SPARE<2>        in     LVTTL
 LVTTL    in        FREQ<1> 24   23 FREQ<0>         in     LVTTL
 LVTTL    in          RESET 26   25 CLK_CPU         in     LVTTL
 LVTTL   out           SDRD 28   27 SEn             in     LVTTL
 LVTTL    in          SCLKn 30   29 SDATA           in     LVTTL
    NC     -              - 32   31 -               -      NC
 LVTTL    in           CLKp 34   33 CLKn            in     LVTTL
 power    in            GND 36   35 GND             in     power

Measurement

Version 0

Ab SVN Version 25 CLK_CPU wird nicht mehr benötigt, es wird ein interner Oscillator benutzt. Jede Änderung der 2 Bits Freq<1:0> oder ein RESET Pulse startet die Initialisierung des Clock-Cleaner ICs.


Modifikation für R. Schicker: 2 digitalle Ausgänge auf den LEMOs J2 und J3 (U5 und viele Widerstände müsen weg). Spare<1> und Spare<2> werden zu den 2 LEMOs durch das Lattice FPGA weitergeleitet.


Measurement

 Board: LTC evaluation board.
 mean: 8193,55
 variance: 1,58
 std. deviation: 1,26
 input: no signal
 samples: 16384
 file: F:\SU735_14Bit_ADC\SU735-1\Entwicklung\Messungen\Ohne Signal.adc
 
 Histo LTC eval board.png


 Board: LTC evaluation board.
 ENOB: 10,9
 samples: 2048
 file: F:\SU735_14Bit_ADC\SU735-1\Entwicklung\Messungen\Mit Signal Rigol 1MHz.adc
 signal: rigol
   
 PowerSpectrum LTC eval board.png


 Board: DL709 7xADC
 mean: 7950
 variance: 7,3
 std. deviation: 2,7
 input: no signal
 samples: ??
 12-Bits ADC
 
 Histo SU735 12Bits.png


 Board: DL709 7xADC
 ENOB: 10,32
 samples: 2048
 input: rigol 1,8 Vpp, f = 1MHz
 12-Bits ADC
 
 PowerSpectrum SU735 12Bits.png


 Board: DL709 7xADC
 mean: 7947,43
 variance: 6,59
 std. Deviation: 2,57
 input: no signal
 samples: ??
 14-Bits ADC
 
 Histo SU735 14Bits.png


 Board: DL709 7xADC
 ENOB: 10,4
 samples: 2048
 input: rigol 1,8 Vpp, f = 1MHz
 14-Bits ADC
 
 PowerSpectrum SU735 14Bits.png


 Board: DL709 7xADC with USB isolator
 mean: 7948,33
 variance: 6,73
 std. Deviation: 2,59
 input: no signal
 samples: ??
 14-Bits ADC
 
 Histo SU735 14Bits USB Isolator.png