Cabling Documentation for BSTM and DACU Units
Page 1 of 122
Date 5/26/2009
BSTM and DACU Connectors ................................................................................................ 2
BSTM Connectors............................................................................................................... 4
DACU1 Connectors............................................................................................................. 5
DACU2 Connectors............................................................................................................. 6
Internal BSTM Cables............................................................................................................. 6
Internal DACU1 Cables ........................................................................................................ 32
Internal DACU2 Cables ........................................................................................................ 46
Test Cables between EGSE and Onboard Data Acquisition System ....................................... 63
Internal EGSE Cables............................................................................................................ 90
The IDE Interface.................................................................................................................106
Configuration Using Cable Select.........................................................................................109
Null modem, an introduction ................................................................................................114
Out of Date Cables ...............................................................................................................120
Cabling Documentation for BSTM and DACU Units
Page 2 of 122
Date 5/26/2009
BSTM and DACU Connectors
BSTM Connectors:
Nr
XB1
XB2
XB3
XB4
XB5
XB6
XBT
XBP
Display
Keyboard
Type
PC10
PC50
PC19
PC50
PC19
PC10
PC10
PC10
HD 15F
MINI-DIN 06
To
OECS and Hermetic Connector 1
Hermetic Connector 2
OECS (Onboard Electronic Control
System)(Onboard Monitoring Telemetry
OMTS
System)
ICS
(Internal Control System)
Slow Scientific Telemetry
EGSE
To XB4
Ethernet to DACU1, DACU2 and SAS3
External Power Supply Unit for BSTM
EGSE-T1, EGSE-T2
Ethernet Switch, ISS Ethernet
EGSE-T1
Amateur Radio
VGA
Keyboard
Ethernet Switch
TEST with EGSE
TEST with EGSE
DACU1 Connectors:
Nr
Type
To
EGSE substitute
XD13
Cannon 25S
DFM1
EGSE-T3 (2 Ch D/A)
XD14
Cannon 15S
DP
EGSE-XD14 (RS-422)
XD15
Cannon 15S
LP
EGSE-XD15(RS-422)
XD16
Cannon 25S
CWD-WP
EGSE-T3 (2 Ch D/A)
XD17
Cannon 9S
SAS3
Through XD11 External Power Supply Unit
XD11
Cannon 15S
Power
External Power Supply Unit
XD12
PC10
Ethernet-BSTM
Display
HD 15F
VGA
TEST with EGSE
Keyboard
MINI-DIN 06
Keyboard
TEST with EGSE
DACU2 Connectors:
Nr
Type
To
EGSE substitute
XD23
Cannon 15S
CORES
EGSE-XD23 (RS-422)
XD24
Cannon 15S
RFA
EGSE-XD24 (RS-422)
XD25
Cannon 15S
DFM2
EGSE-XD25 (RS-232)
XD26
Cannon 15S
LP
EGSE-XD26 (RS-422)
XD27
Cannon 15S
DP
EGSE-XD27 (RS-422)
XD28
Cannon 25S
CWD-WP
EGSE-T3 (2 Ch D/A)
XD21
Cannon 15S
Power
External Power Supply Unit
XD22
PC10
Ethernet-BSTM
Display
HD 15F
VGA
TEST with EGSE
Keyboard
MINI-DIN 06
Keyboard
TEST with EGSE
Cabling Documentation for BSTM and DACU Units
Page 3 of 122
Date 5/26/2009
(Ethernet Switch receives five channels, i.e. USER IF, BSTM-XBP, BSTM-XB5, SAS3,
Embedded Processor)
1
2
Pin Assignment of Female Connector PC-10 from front view.
Cabling Documentation for BSTM and DACU Units
Page 4 of 122
XB1
Date 5/26/2009
BSTM Connectors
front panel connector PC10 male
XB2
front panel connector PC50 male
E-NET-1
E-NET-2
E-NET-3
XB3
front panel connector PC19 male
XB4
front panel connector PC50 male
Isolator CON3
2x25 poles female ribbon connector
XB5
front panel connector PC19 male,
BSTM 3350 CN1(Ethernet) 2x5 poles female ribbon connector
XB6
front panel connector PC50 male
XBT front panel connector PC10 male NOT USED
XBP
front panel connector PC10 male E-NET-4
0
(SERV front panel connector PC32 male Engineering Model Only)
DM6606 CN2
Isolator CN2
2x20 poles female/male PCB connector
2x20 poles female/male PCB connector
Display HD 15F
VGA Flight Models contain Display and Keyboard Connectors
Keyboard MINI-DIN 06
Connectors
Keyboard Flight Models contain Display and Keyboard
Cabling Documentation for BSTM and DACU Units
Page 5 of 122
Date 5/26/2009
DACU1 Connectors
XD13 (Cannon standard) SUB-D 25S
DM6430 CN3 2x25 poles female ribbon connector
DACU1 PCR
2x8 poles female ribbon connector
XD14 (Cannon standard) SUB-D 15S
DACU1 CM310 CN3
2x5 poles female ribbon connector
XD15 (Cannon standard) SUB-D 15S
DACU1 CM310 CN4
2x5 poles female ribbon connector
XD16 (Cannon standard) SUB-D 25S
XD17 (Cannon standard) SUB-D 9S
XD11 (Cannon standard) SUB-D 15S
XD12 PC10 male (previous MEKS 8-8, RET Order Number: 53-05-25)
DACU1 3350 CN1
2x5 poles female ribbon connector
Display HD 15F
VGA Flight Models contain Display and Keyboard Connectors
Keyboard MINI-DIN 06
Connectors
Keyboard Flight Models contain Display and Keyboard
Cabling Documentation for BSTM and DACU Units
Page 6 of 122
Date 5/26/2009
DACU2 Connectors
XD23 (Cannon standard) SUB-D 15S
CM310 CN5 2x5 poles female ribbon connector
DACU2 PCR
2x8 poles female ribbon connector
XD24 (Cannon standard) SUB-D 15S
CM310 CN6 2x5 poles female ribbon connector
XD25 (Cannon standard) SUB-D 15S
DACU2 3350 CN3 2x5 poles female ribbon connector
XD27 (Cannon standard) SUB-D 15S
CM310 CN3 2x5 poles female ribbon connector
XD26 (Cannon standard) SUB-D 15S
CM310 CN4 2x5 poles female ribbon connector
XD28 (Cannon standard) SUB-D 25S
6430 CN3
2x25 poles female ribbon connector
XD22 PC10 male (previous MEKS 8-8, RET Order Number: 53-05-25)
DACU2 3350 CN1
2x5 poles female ribbon connector
XD21 (Cannon standard) SUB-D 15S
Display HD 15F
VGA Flight Models contain Display and Keyboard Connectors
Keyboard MINI-DIN 06
Connectors
Internal BSTM Cables
Keyboard Flight Models contain Display and Keyboard
Cabling Documentation for BSTM and DACU Units
Page 7 of 122
Fig 1. Connectors of BSTM Front Panel
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 8 of 122
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 9 of 122
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 10 of 122
Fig. 2.
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 11 of 122
Date 5/26/2009
Engineering Model: The order of cards in BSTM from the back panel to rear panel:
- Power Supply,
- Processor card
- Slow Scientific Telemetry Interface
- ISOLATOR
- D/A Converter DM6604 port address 340H, 832D
- E-NET Ethernet Card
- Interface Card
ETHERNET CONECTORS:
DACU1
SAS3
DACU2
AMATEUR RADIO
ISS BOARD
XB2
XB2
XB2
XBP
XB5
E-NET CARD
E-NET CARD
E-NET CARD
E-NET CARD
PROCESSOR
E-NET1
E-NET2
E-NET3
E-NET4
CN1
Cabling Documentation for BSTM and DACU Units
Page 12 of 122
BSTM Connector: XB1
Pin
1
2
3
4
5
6
7
8
9
10
Signal
To
Case
Case
Case
Case
PC10
Remark
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 13 of 122
BSTM Connector: XB2
Date 5/26/2009
PC50
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
Signal
T1+
T1R1+
R1T1D+
T1DR1D+
R1DT2+
T2R2+
R2T2D+
T2DR2D+
R2DT3+
T3R3+
R3-
To
E-NET-1/1
E-NET-1/2
E-NET-1/3
E-NET-1/6
E-NET-1/1
E-NET-1/2
E-NET-1/3
E-NET-1/6
E-NET-2/1
E-NET-2/2
E-NET-2/3
E-NET-2/6
E-NET-2/1
E-NET-2/2
E-NET-2/3
E-NET-2/6
E-NET-3/1
E-NET-3/2
E-NET-3/3
E-NET-3/6
Remark
Doubled 1-5 shield 1
Doubled 2-6 shield 1
Doubled 3-7 shield 1
Doubled 4-8 shield 1
Doubled 1-5 shield 2
Doubled 2-6 shield 2
Doubled 3-7 shield 2
Doubled 4-8 shield 2
Doubled 9-13 shield 3
Doubled 10-14 shield 3
Doubled 11-15 shield 3
Doubled 12-16 shield 3
Doubled 9-13 shield 4
Doubled 10-14 shield 4
Doubled 11-15 shield 4
Doubled 12-16 shield 4
Doubled 17-33 shield 7
Doubled 18-34 shield 7
Doubled 19-35 shield 7
Doubled 20-36 shield 7
33
34
35
36
T3D+
T3DR3D+
R3D-
E-NET-3/1
E-NET-3/2
E-NET-3/3
E-NET-3/6
Doubled 17-33
Doubled 18-34
Doubled 19-35
Doubled 20-36
41
42
43
44
45
46
47
48
49
50
Common Shield
Common Shield
Case
Case
Common Shield of Twisted
Common Shield of Twisted
Case
Case
120 ohm to ground E-NET Ethernet Card
120 ohm to ground E-NET Ethernet Card
shield 8
shield 8
shield 8
shield 8
Cabling Documentation for BSTM and DACU Units
Page 14 of 122
BSTM Connector: XBT
Date 5/26/2009
CN1 is a 10 poles female ribbon cable connector
XBT –
Pin
1
2
3
4
5
6
7
8
9
10
Signal
XPT1
XPT2
To
Remark
case
XBT receives time synchronic pulses.
+5V
TLP115
XPT/1
XPT/2
A1
B1
220
Vcc 6
1
3
2,2K
C1
IRQ5 B23
5
4
100nF
D1
0V
GND B32
Cabling Documentation for BSTM and DACU Units
Page 15 of 122
BSTM Connector: XBP
Pin
1
2
3
4
5
6
7
8
9
10
Signal
RD+
RDTD+
TDRD+ doubled
RD- doubled
TD+ doubled
TD- doubled
shield
case
Date 5/26/2009
--- Amateur Radio BSTM Connector: XBP PC10
To
E-NET4/3
E-NET4/6
E-NET4/1
E-NET4/2
E-NET4/3
E-NET4/6
E-NET4/1
E-NET4/2
Remark
E-NET-1, E-NET-2, E-NET-3 are soldered directly on PCB without connector.
Ethernet Bus 10BaseT Pin-Out
COL
AUI
P1
P2
P3
P4
E-NET
E-NET-UPLINK (from XB5) goes to PCM3350 CN1
E-NET-1 (from XB2) goes to HUB PORT1
E-NET-2 (from XB2) goes to HUB PORT2
E-NET-3 (from XB2) goes to HUB PORT3
E-NET-4 (from XBP) goes to HUB PORT4
RxRx+
TxTx+
RxRx+
TxTx+
HUB PORT 1
E-NET-1 DACU1
E-NET-2
HUB PORT 2
SAS3
E-NET-3
RxRx+
TxTx+
RxRx+
TxTx+
RxTx-
Rx+
Tx+
HUB PORT 3
DACU2
HUB PORT 4
AMATEUR RADIO
E-NET PORT
FIG3 E-NET and HUB PORTs have different pin assignment.
E-NET-4
Cabling Documentation for BSTM and DACU Units
Page 16 of 122
BSTM Connector: XB3
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
Signal
To
+28V BSTM
Wire Wrap
+28V BSTM
+28V BSTM
Wire Wrap
Wire Wrap
Case
Case
Case
Case
-28V BSTM
-28V BSTM
Wire Wrap
Wire Wrap
-28V BSTM
Wire Wrap
+28V BSTM
-28V BSTM
Fig.4
PC19
After September 2007
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 17 of 122
BSTM Connector: XB4
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
41
42
43
44
45
46
47
48
49
50
PC50
Signal
ATM1
ATM Common
To
Remark
Isolator CON3/49 TM Power Twisted by 2 Shield 1
Isolator CON3/50 Common
Twisted by 1 Shield 1
ATM2
ATM Common
Isolator CON3/47 TM Power Twisted by 6 Shield 2
Isolator CON3/48 Common Twisted by 5 Shield 2
ATM3
ATM Common
Isolator CON3/45
Isolator CON3/46
TM NA Twisted by 10 Shield3
Common Twisted by 9 Shield 3
ATM4
ATM Common
Isolator CON3/43
Isolator CON3/44
TM NA Twisted by14 Shield4
Twisted by13 Shield4
ATM 5
ATM Common
Isolator CON3/41
Isolator CON3/42
TM NA Twisted by18 Shield5
Twisted by17 Shield5
DTB
DTB+
DTBDTB Common
Common shield
Shield
Case
Case
Date 5/26/2009
DTB shield
Common Shield of Twisted
Common Shield of Twisted
Case
Case
120 ohm to ground ISOLATOR
120 ohm to ground ISOLATOR
Cabling Documentation for BSTM and DACU Units
Page 18 of 122
XB4/42 DTB
XB4/43 DTB+
XB4/44 DTBXB4/45 DTB Common
Date 5/26/2009
100
platinium
sensor
Platinum Sensor measures temperature of processor. This sensor is connected to XB4 connector.
Cabling Documentation for BSTM and DACU Units
Page 19 of 122
Fig. 5.
XB4/42 DTB
XB4/43 DTB+
XB4/44 DTBXB4/45 DTB Common
100
platinium
sensor
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 20 of 122
BSTM Connector: XB5
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
PC19
Till 14. September 2007
Signal
RD+
RDTD+
TD-
To
CN1/9 PCM3350
CN1/10 PCM3350
CN1/3 PCM3350
CN1/4 PCM3350
Remark
shield 1
shield 1
shield 1
shield 1
Common shield
Shield
Case
Case
Common Shield of Twisted
Common Shield of Twisted
Case
Case
120 ohm to CN1/6,8
120 ohm to CN1/6,8
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 21 of 122
BSTM Connector: XB5
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
PC19
AFTER 14. September 2007
Signal
RD+
To
CN1/9 PCM3350
Remark
shield 1
TD+
RD-
CN1/3 PCM3350
CN1/10 PCM3350
shield 1
shield 1
TDShield
Case
CN1/4 PCM3350
Common Shield of Twisted
Case
shield 1
120 ohm to CN1/6,8
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 22 of 122
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 23 of 122
BSTM Connector: XB6
Fig. 6.
TI+
TI-
Remark
3-4 two wire line
3-4 two wire line
5-6 two wire line
5-6 two wire line
7-8 two wire line
7-8 two wire line
9-10 two wire line
9-10 two wire line
120 to shield point
KI+
KI- shielding
To
KS+
KS-
Signal
+TI 1
-TI 1
+KI 1
-KI 1
+KS 1
-KS 1
+GPR 1
-GPR 1
shield
CASE
GPR+
GPR-
Pin
1
2
3
4
5
6
7
8
9
10
PC10
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 24 of 122
DISPLAY
CN9/1
CN9/2
CN9/3
CN9/4
CN9/5
CN9/6
CN9/7
CN9/8
CN9/9
CN9/10
CN9/11
CN9/12
CN9/13
CN9/14
CN9/15
-
DISPLAY VGA CN9/1
DISPLAY VGA CN9/9
DISPLAY VGA CN9/2
DISPLAY VGA CN9/10
DISPLAY VGA CN9/3
DISPLAY VGA CN9/12
DISPLAY VGA CN9/5
DISPLAY VGA CN9/13
DISPLAY VGA CN9/6
DISPLAY VGA CN9/14
DISPLAY VGA CN9/7
DISPLAY VGA CN9/15
DISPLAY VGA CN9/8
KEYBOARD
5
3
green
4
2
1
DIN6 female,
front view
MINI-DIN 06/1
MINI-DIN 06/3
MINI-DIN 06/6
MINI-DIN 06/2
MINI-DIN 06/5
MINI-DIN 06/4
brown orange
red
6
black
-
yellow
PS2/barna
PS2/ narancs
PS2/ piros
PS2/zöld
PS2/ fekete
PS2/ sárga
Processor Card Keyboard
Connector
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 25 of 122
Date 5/26/2009
2,5” HDD Interface
The first 40 signals on a notebook's connector are the same as those of the regular 40pin connector; the additional four signals are defined as follows:
The table below lists the names of the signals, along with the pin number of the
standard connector that each uses:
Pin
#
Signal
Pin
#
Signal
1
-RESET
2
GROUND
3
DD7
4
DD8
5
DD6
6
DD9
7
DD5
8
DD10
9
DD4
10
DD11
11
DD3
12
DD12
13
DD2
14
DD13
15
DD1
16
DD14
17
DD0
18
DD15
19
GROUND
20
(key)
21
DMARQ
22
GROUND
23
-DIOW: STOP
24
GROUND
26
GROUND
28
CSEL
25
27
DIOR:HDMARDY:HSTROBE
IORDY:DDMARDY:DSTROBE
29
-DMACK
30
GROUND
31
INTRQ
32
(reserved)
33
DA1
34
-PDIAG:-
Cabling Documentation for BSTM and DACU Units
Page 26 of 122
Date 5/26/2009
CBLID
35
DA0
36
DA2
37
-CS0
38
-CS1
39
-DASP
40
GROUND
Pin
Pin
Signal
#
Signal
#
41
+5 V (logic)
42
+5 V (motor)
43
GROUND
44
(reserved)
You may immediately notice that there is no +12 V connection as exists for regular
drives, because 2.5" form factor drives have 5-volt motors. Two separate +5 lines are provided;
one for the motor and the other for the hard disk's circuit board.
+5V
12V
R22
1
D1
1N4148
AD592
6
7
P2
P1
150
C21
4
10K
10nF
R21
10K
12k 1%
Temp1
PA3
C22
Vref/2=0,9V
0V
Vin-=2,676V
2
3
8
9
10
10K
-CS
Vcc
-RD
CLK R
-WR
DB0
CLK IN
DB1
-INTR
DB2
Vin+
DB3
Vin-
DB4
AGND
DB5
Vref/2
DB6
DGND
DB7
20
19
17 PB1
16 PB2
15 PB3
14 PB4
13 PB5
12 PB6
11 PB7
10nF
C23
Cabling Documentation for BSTM and DACU Units
Page 27 of 122
+5V
X5
R1
10k
T1
330
R13
X6
X1 6604/37 PA0
10k
330
R2
R14
X7
X8
X5
X6
yellow led SAS3 on
R12
yellow led DACU2 on
330
yellow led DACU1 on
BC183C
Date 5/26/2009
X7
BC183C
R3
T2
10k
X8
X2 6604/35 PA1
10k
R4
SW HDD container is ON
6604/48 +5V
X9
6604/38 PC0
X10
6604/46 PB0
X11
6604/50 0V
R7
10k
330
BC183C
T3
R5
10k
R8
X14
green led
X12
X13
X3 6604/33 PA2
X15
10k
R6
R9
330
X4 6604/50 GND
X16
red led
R10
T4
X17
10k
BC183C
R11
X3
X2
X1
10k
X9
X10
X8
X11
Green led indicates power. Microswitch is switched on if HDD is locked by
mechanically. While red led is on, pulling out HDD is prohibited. Before you pull out
HDD, open mechanical lock and wait until processor closes data storage on HDD and red
led is switched off.
Cabling Documentation for BSTM and DACU Units
Page 28 of 122
Date 5/26/2009
The HDD is connected to processor card by an IDE cable, which length is given here.
Cabling Documentation for BSTM and DACU Units
Page 29 of 122
Connection between BSTM’s Cards
Connection between Isolator and DM6604,
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
41
42
43
44
45
46
47
48
49
50
Isolator Signal
Ain0
AGND
Ain1
AGND
Ain2
AGND
Ain3
AGND
Ain4
AGND
Ain5
DIN5
DIN4
DIN3
DIN2
DIN1
DIN0
To
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
41
42
43
44
45
46
47
48
49
50
DM6604 Signal
AOU1
AGND
AOUT2
AGND
AOUT3
AGND
AOUT4
AGND
AOUT5
AGND
AOUT6
PA5
PA4
PA3
PA2
PA1
PA0
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 30 of 122
Fig. 9. Layout of 6604
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 31 of 122
Fig. 10. Layout of Opto-Isolator
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 32 of 122
Date 5/26/2009
Internal DACU1 Cables
Nr
Type
To
XD13
Cannon 25S
DFM1
XD14
Cannon 15S
DP
XD15
Cannon 15S
LP
XD16
Cannon 25S
CWD-WP
XD17
Cannon 9S
SAS3
XD11
Cannon 15S
Power
XD12
PC-10 male
Ethernet-BSTM
The order of cards in DACU1 from the back panel to rear panel are:
- 35Watt Power Supply,
- processor card
- EMPTY
- CM310 Quad Serial Port Utility Module; I/O=140H (SW1 Down, Up, Up, Down;)
IRQ=5 for every channel (JP1, JP2, JP3, JP4), G setting in any JP1 or JP2 or JP3 or JP4: G
jumper installed = 1K pull down resistor in ONE channel, for the selected IRQ5
SW2 1-4 Up Enables every channel, SW2 5-8 Up RS 422 mode for every channel
- Relay Card to Connect Experiment Power
- A/D Converter DM6430; I/O=300H, JP1=OT1; JP2=XTAL; OTO, JS1=JS2=pull-up 10k
PORT0 and PORT1;
- Interface Card
Cabling Documentation for BSTM and DACU Units
Page 33 of 122
Date 5/26/2009
DACU1 XD13-Cannon 25S to DFM1
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
Signal
-28V
Cable shielding
6430 Connector Source
PS Card/15,16
120 ohm to DM6430 ground
Case
Power check
+28V
0 Power check
Bxdc
Bydc
Bzdc
B0dc
Bxac
Byac
Bzac
B0ac
B50
B100
B150
B400
B800
B0
Case
DM6430JP1/37
PS Card/7,8
DM6430JP1/40
DM6430JP1/9
DM6430JP1/11
DM6430JP1/13
DM6430JP1/18,20,22,21
DM6430JP1/15
DM6430JP1/2
DM6430JP1/4
DM6430JP1/18,20,22,21
DM6430JP1/6
DM6430JP1/8
DM6430JP1/10
DM6430JP1/12
DM6430JP1/14
DM6430JP1/18,20,22,21
Signal or Remark
Card Name
PS Card
DIG0.02
(previous1,2)
Digital Ground
AN5 In
AN6 In
AN7 In
Analogue Ground
AN8 In
AN9 In
AN10 In
Analogue Ground
AN11 In
AN12 In
AN13 In
AN14 In
AN15 In
Analogue Ground
DM6430
PS Card
DM6430
DM6430
DM6430
DM6430
DM6430
DM6430
DM6430
DM6430
DM6430
DM6430
DM6430
DM6430
DM6430
DM6430
DM6430
2) 10 k ohm pull-up resistors are installed on the card, and a solder connection must be made on
the bottom of the board to configure their operation. The solder connections are made at JS1 for Port 0 and JS2 for
Port 1. The factory default is pull-up for both ports.
XD13 /8
A2
XD13/10
B2
TLP181/SMD
1K
C2
6430/37
D2
DM6430P1/40
Cabling Documentation for BSTM and DACU Units
Page 34 of 122
DACU1 XD14-Cannon 15S DP
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
Date 5/26/2009
SERIAL PORT1
DP’s Signal Name
-28V
Source
PS Card/15,16
Signal or
Remark
TD+
RD+
0TM
Emitter
Collector
CM310/CN3/4
CM310/CN3/6
CM310/CN3/9,10
DM6430JP1/40
DM6430JP1/35
TDRD-
CM310/CN3/5
CM310/CN3/3
Twisted pair2
Twisted pair1
case
+28V
case
PS Card/3,4
PS Card
RS422 Ground
Digital Ground
DIG0.12
Comment
PS Card
Twisted pair2
Twisted pair1
Cable shielding
2) 10 k ohm pull-up resistors are installed on the module, and a solder connection must be made on
the bottom of the board to configure their operation. The solder connections are made at JS1 for Port 0 and JS2 for
Port 1. The factory default is pull-up for both ports.
6430/47
+
NC
AD592 Bottom View
-
6430/48
6430/16
1N4148
12K 1%
GND 6430/18,20,22,21
Cabling Documentation for BSTM and DACU Units
Page 35 of 122
Date 5/26/2009
DACU1 XD15-Cannon SUB-D 15S LP
SERIAL PORT2
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
Signal or Remark
Comment
RS422 Ground
Digital Ground
DIG0.22
Cable shielding
LP’s Signal Name
-28V
Source
PS Card/15,16
TD+
RD+
0TM
Emitter
Collector
CM310/CN4/4
CM310/CN4/6
CM310/CN4/9,10
DM6430JP1/40
DM6430JP1/33
TDRD-
CM310/CN4/5
CM310/CN4/31
case
+28V
case
PS Card/1,2
(previous 5,6)
2) 10 k ohm pull-up resistors are installed on the module, and a solder connection must be made on
the bottom of the board to configure their operation. The solder connections are made at JS1 for Port 0 and JS2 for
Port 1. The factory default is pull-up for both ports.
Cabling Documentation for BSTM and DACU Units
Page 36 of 122
Date 5/26/2009
DACU1 XD16-Cannon SUB-D 25S CWZ-WP
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
Signal
-28V
Cable shielding
B ground
B signal
I ground
I signal
Case
Power good
+28V
U ground
U signal
T ground
T signal
On Test for I
Off Test for I
Calibration Signal
Common Calib. S.
On Test for B
Source
PS Card/15,16
120 ohm to DM6430 ground
DM6430JP1/18,20,22,21
DM6430JP1/1
DM6430JP1/18,20,22,21
DM6430JP1/3
Case
DM6430JP1/31
PS Card/5,6
DM6430JP1/18,20,22,21
6430/5
DM6430JP1/18,20,22,21
DM6430JP1/7
DM6430JP138
DM6430JP1/36
DM6430JP1/34
DM6430JP1/40
DM6430JP1/32
Signal or Remark
Comment
Analogue Ground
AN1
Analogue Ground
AIN2
DIG0.32
SEE FIGURE 10A
(previous 7,8)
Analogue Ground
AIN3
Analogue Ground
AIN4
DIG1.0
DIG1.1
DIG1.2
Digital Gr
DIG1.3
2) 10 k ohm pull-up resistors are installed on the module, and a solder connection must be made on
the bottom of the board to configure their operation. The solder connections are made at JS1 for Port 0 and JS2 for
Port 1. The factory default is pull-up for both ports..
XD16 /8
A1
XD16 /17
B1
TLP181/SMD
C1
6430/31
D1
XD16 /17
2,2K
Fig. 10A The opocoupler is between XD16/8 “Power Good” and XD16JP1/31
Cabling Documentation for BSTM and DACU Units
Page 37 of 122
Date 5/26/2009
ACU1 XD17-Cannon SUB-D 09S SAS3
Pin
1
2
3
4
5
6
7
8
9
Signal
-28V
Source
PS Card/15,16
Signal or Remark
Comment
XS2/3,4
Power check
0 Power check
DM6430JP1/29
DM6430JP1/40
DIG0.42
Digital Ground
XS2/7
XS2/8
CASE
case
XS2/10
+28V
PS Card/9,10
XS2/1,2
2) 10 k ohm pull-up resistors are installed on the module, and a solder connection must be made on
the bottom of the board to configure their operation. The solder connections are made at JS1 for Port 0 and JS2 for
Port 1. The factory default is pull-up for both ports.
Cabling Documentation for BSTM and DACU Units
Page 38 of 122
DACU1 XD11-Cannon SUB-D 15S to PKK
Pin
Signal
Source
1
SU -28V
PS/15,16
2
3
4
5
6
7
8
9
10
11
12
13
14
15
SU -28V
SU +28V
SU +28V
PS/15,16
PS/13,14
PS/13,14
DACU1 -28V
DACU1 -28V
DACU1 +28V
DACU1 +28V
Wire wrap POWER SUPPLY UNIT
Wire wrap POWER SUPPLY UNIT
Wire wrap POWER SUPPLY UNIT
Wire wrap POWER SUPPLY UNIT
Case
case
DP
LP
CWZ-WP
DFM1
SAS3
1,2
3,4
5,6
7,8
9,10
XD14
XD15
XD16
XD13
XD17
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 39 of 122
Date 5/26/2009
DACU1 XD12: Ethernet connector Processor Card CN10
Pin
Signal
Pin
Signal
1
TD+
CN1/9
2
TD-
CN1/10
3
RD+
CN1/3
4
RD-
CN1/4
5
TD+
CN1/9
6
TD-
CN1/10
7
RD+
CN1/3
8
RD-
CN1/4
9
SHIELD
120 Ohm to CN1/6
10
case
Hasonlóan BSTM-hez gyári kábel felhasználásával
Similar as in BSTM, using original cable
Pin assignment of CN1 on Processor Card
Cabling Documentation for BSTM and DACU Units
Page 40 of 122
DISPLAY
CN9/1
CN9/2
CN9/3
CN9/4
CN9/5
CN9/6
CN9/7
CN9/8
CN9/9
CN9/10
CN9/11
CN9/12
CN9/13
CN9/14
CN9/15
-
DISPLAY VGA CN9/1
DISPLAY VGA CN9/9
DISPLAY VGA CN9/2
DISPLAY VGA CN9/10
DISPLAY VGA CN9/3
DISPLAY VGA CN9/12
DISPLAY VGA CN9/5
DISPLAY VGA CN9/13
DISPLAY VGA CN9/6
DISPLAY VGA CN9/14
DISPLAY VGA CN9/7
DISPLAY VGA CN9/15
DISPLAY VGA CN9/8
KEYBOARD
5
3
green
4
2
1
DIN6 female,
front view
MINI-DIN 06/1
MINI-DIN 06/3
MINI-DIN 06/6
MINI-DIN 06/2
MINI-DIN 06/5
MINI-DIN 06/4
brown orange
red
6
black
-
yellow
PS2/barna
PS2/ narancs
PS2/ piros
PS2/zöld
PS2/ fekete
PS2/ sárga
Processor Card Keyboard
Connector
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 41 of 122
AD592
12K
(-)
1N4148
(+)
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 42 of 122
Date 5/26/2009
-28V
+28V
Fig. 11.. PSU (Power Supply Unit )
CM310/CN5
CM310/CN3
CM310/CN6
CM310/CN4
Fig. 12. CM310 CARD
Cabling Documentation for BSTM and DACU Units
Page 43 of 122
Fig. 13. DM6430
+5V
(DM6430/JP1-48)
Date 5/26/2009
E1
E2
E3
E4
E5
E6
+28V
-28V
Cabling Documentation for BSTM and DACU Units
Page 44 of 122
Fig. 14. PS (Power Switch)
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 45 of 122
Fig. 15. PROCESSOR CARD
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 46 of 122
Date 5/26/2009
Internal DACU2 Cables
Nr
Type
To
XD23
Cannon 15S
CORES
XD24
Cannon 15S
RFA
XD25
Cannon 15S
DFM2
XD26
Cannon 15S
LP
XD27
Cannon 15S
DP
XD28
Cannon 25S
CWD-WP
XD21
Cannon 15S
Power
XD22
PC-10 male
Ethernet-BSTM
The order of cards in DACU2 from the back panel to rear panel are:
- 35Watt Power Supply,
- processor card
- EMPTY
- CM310 Quad Serial Port Utility Module; I/O=140H (SW1 Down, Up, Up, Down;)
IRQ=5 for every channel (JP1, JP2, JP3, JP4), G setting in any JP1 or JP2 or JP3 or JP4: G
jumper installed = 1K pull down resistor in ONE channel, for the selected IRQ5
SW2 1-4 Up Enables every channel, SW2 5-8 Up RS 422 mode for every channel
- Relay Card to Connect Experiment Power
- A/D Converter DM6430; I/O=300H, JP1=OT1; JP2=XTAL; OTO, JS1=JS2=pull-up 10k
PORT0 and PORT1;
- Interface Card
Cabling Documentation for BSTM and DACU Units
Page 47 of 122
DACU2 XD23-Cannon SUB-D 15S to CORES
Source
Pin
Signal
PS Card/15,16
1
-28V
CM310/5/9,10
2
0TM
CM310/5/4
3
TD+
CM310/5/6
4
RD+
5
6
7
8
9
CM310/5/5
10
TDCM310/5/3
11
RD12
13
Case
14
Case
PS Card/9,10
15
+28V
Date 5/26/2009
SERIAL PORT3
Remark
Comment
Cabling Documentation for BSTM and DACU Units
Page 48 of 122
DACU2 XD24-Cannon SUB-D 15S to RFA
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
Date 5/26/2009
SERIAL PORT4
DACU2’s Signal
Name
-28V
Source
PS Card/15,16
Signal or Remark
TD+
RD+
0TM
Dig Ground
Power Good
CM310/6/4
CM310/6/6
CM310/6/9,10
6430/40
6430/37
TDRD-
CM310/6/5
CM310/6/3
Twisted pair2
Twisted pair1
Case
+28V
PS Card/11,12
PCR Card
RS422 Ground
Digital Ground
DIG0.02
Comment
PCR Card
Twisted pair2
Twisted pair1
Cable shielding
2) 10 k ohm pull-up resistors are installed on the module, and a solder connection must be made on
the bottom of the board to configure their operation. The solder connections are made at JS1 for Port 0 and JS2 for
Port 1. The factory default is pull-up for both ports.
Cabling Documentation for BSTM and DACU Units
Page 49 of 122
Date 5/26/2009
ACU2 XD25-Cannon SUB-D 15S to DFM2
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
Signal
-28V
Source
PS Card/15,16
Signal or
Remark
Comment
RS232 Receive Data
RD Ground
CN3/3
CN3/9
Processor Card
Processor Card
Receive for DACU
Dig Ground
6430/40
Digital Ground
See Figure 15A !
RS232 Transmit Data
TD Ground
CN3/5
CN3/9
Case
+28V
PS Card/7,8
DIG0.42
See Figure 15A !
Processor Card
Processor Card
TR for DACU
Previous 5,6
2) 10 k ohm pull-up resistors are installed on the module, and a solder connection must be made on
the bottom of the board to configure their operation. The solder connections are made at JS1 for Port 0 and JS2 for
Port 1. The factory default is pull-up for both ports.
1.
TLP181/SMD
XD25 /8
A2
C2
XD25 /4
B2
D2
6430/29
XD25 /6
2,2K
Fig 15A Power Good level is converted to active low by TLP181 chip. If experiment is
switched on, DIG 0.3 is TTL low.
Cabling Documentation for BSTM and DACU Units
Page 50 of 122
Short-circuits in CN3 Connctor to XD25
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 51 of 122
DACU2 XD27-Cannon SUB-D 15S to DP
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
DP’s Signal Name
-28V
Source
PS Card/15,16
TD+
RD+
0TM
Emitter
Collector
CM310/3/4
CM310/3/6
CM310/3/9,10
6430/40
6430/35
TDRD-
CM310/3/5
CM310/3/3
case
+28V
case
PS Card/3,4
Signal or Remark
Date 5/26/2009
PORT1
Comment
PCR Card
Twisted pair2
Twisted pair1
RS422 Gnd
Digital Ground
DIG0.12
Twisted pair2
Twisted pair1
Previous 7,8
PCR Card
2) 10 k ohm pull-up resistors are installed on the module, and a solder connection must be made on
the bottom of the board to configure their operation. The solder connections are made at JS1 for Port 0 and JS2 for
Port 1. The factory default is pull-up for both ports.
Cabling Documentation for BSTM and DACU Units
Page 52 of 122
DACU2 XD26-Cannon SUB-D 15S to LP
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
LP’s Signal Name
-28V
Source
PS Card/15,16
TD+
RD+
0TM
Emitter
Collector
CM310/4/4
CM310/4/6
CM310/4//9,10
6430/40
6430/33
TDRD-
CM310/4/5
CM310/4/3
case
+28V
case
PS Card/1,2
Date 5/26/2009
PORT2
Signal or Remark
Comment
RS422 Ground
Digital Ground
DIG0.22
Previous 9,10
2) 10 k ohm pull-up resistors are installed on the module, and a solder connection must be made on
the bottom of the board to configure their operation. The solder connections are made at JS1 for Port 0 and JS2 for
Port 1. The factory default is pull-up for both ports.
Cabling Documentation for BSTM and DACU Units
Page 53 of 122
Date 5/26/2009
DACU2 XD28-Cannon SUB-D 25S to CWZ-WP
Pin
Signal
Source
Signal or Remark
Comment
1
-28V
PS Card/15,16
2
Cable shielding
120 ohm to DM6430 ground
Analogue Ground
3
B ground
6430/18,20,22,21
4
B signal
6430/1
AIN1
5
I ground
Analogue Ground
6430/18,20,22,21
6
I signal
6430/3
AIN2
7
Case
8
See Fig 15B!
6430/31
DIG0.32
See Fig 15B!
9
+28V
PS Card/5,6
Previous 11,12
10
U ground
Analogue Ground
6430/18,20,22,21
11
U signal
6430/5
AIN3
12
T ground
Analogue Ground
6430/18,20,22,21
13
T signal
6430/7
AIN4
14
On Test for I
6430/38
DIG1.0
15
Off Test for I
6430/36
DIG1.1
16
Calibration Signal
6430/34
DIG1.2
17
Common Calib. S.
6430/40
Digital Gr
18
On Test for B
6430/32
DIG1.3
19
20
21
22
23
24
25
2) 10 k ohm pull-up resistors are installed on the module, and a solder connection must be made on
the bottom of the board to configure their operation. The solder connections are made at JS1 for Port 0 and JS2 for
Port 1. The factory default is pull-up for both ports.
6430/31
TLP181/SMD
XD28 /8
A3
XD28 /17
B3
C3
D3
XD28 /17
2,2K
Fig. 15B Power Good level is converted to active low by TLP181 chip. If experiment is
switched on, DIG 0.3 is TTL low.
Cabling Documentation for BSTM and DACU Units
Page 54 of 122
Processor
Temperature Sensor
AD592
12K
(-)
(+)
AD592
12K
(-)
(+)
Power Supply Unit
Temperature Sensor
AD592
12K
(-)
(+)
A/D Converter
Temperature Sensor
AD592
12K
(-)
(+)
Inner Case
Temperature Sensor
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 55 of 122
Date 5/26/2009
DACU2 XD22: Ethernet connector PC-10
Pin
Signal
Source
Pin
Signal
1
TD+
CN1/9
2
TD-
CN1/10
3
RD+
CN1/3
4
RD-
CN1/4
5
TD+
CN1/9
6
TD-
CN1/10
7
RD+
CN1/3
8
RD-
CN1/4
9
SHIELD
120 Ohm to CN1/6
10
case
Pin assignment of CN1 on Processor Card
Cabling Documentation for BSTM and DACU Units
Page 56 of 122
DISPLAY
CN9/1
CN9/2
CN9/3
CN9/4
CN9/5
CN9/6
CN9/7
CN9/8
CN9/9
CN9/10
CN9/11
CN9/12
CN9/13
CN9/14
CN9/15
-
DISPLAY VGA CN9/1
DISPLAY VGA CN9/9
DISPLAY VGA CN9/2
DISPLAY VGA CN9/10
DISPLAY VGA CN9/3
DISPLAY VGA CN9/12
DISPLAY VGA CN9/5
DISPLAY VGA CN9/13
DISPLAY VGA CN9/6
DISPLAY VGA CN9/14
DISPLAY VGA CN9/7
DISPLAY VGA CN9/15
DISPLAY VGA CN9/8
KEYBOARD
5
3
green
4
2
1
DIN6 female,
front view
brown orange
6
-
black
red
yellow
PS2/barna
PS2/ narancs
PS2/ piros
PS2/zöld
PS2/ fekete
PS2/ sárga
MINI-DIN 06/1
MINI-DIN 06/3
MINI-DIN 06/6
MINI-DIN 06/2
MINI-DIN 06/5
MINI-DIN 06/4
Processor Card Keyboard
Connector
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 57 of 122
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 58 of 122
DACU2 XD21-Cannon SUB-D 15S to PKK
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
Signal
SU -28V
SU -28V
SU +28V
SU +28V
Source
PCR/15,161
PCR/15,161
PCR/13,141
PCR/13,141
DACU2 -28V
DACU2 -28V
DACU2 +28V
DACU2 +28V
Wire wrap
Wire wrap
Wire wrap
Wire wrap
Case
LP
DP
CWP-WP
DFM2
CORES
RFA
1,2
3,4
5,6
7,8
9,10
11,12
XD26
XD27
XD28
XD25
XD23
XD24
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 59 of 122
Date 5/26/2009
-28V
+28V
Fig. 16. PSU (Power Supply Unit )
CM310/CN5
CM310/CN3
CM310/CN6
CM310/CN4
Fig. 17. CM310 CARD
Cabling Documentation for BSTM and DACU Units
Page 60 of 122
Fig. 18. +5V (DM6430/JP1-48)
Date 5/26/2009
E1
E2
E3
E4
E5
E6
+28V
-28V
Cabling Documentation for BSTM and DACU Units
Page 61 of 122
Fig. 19. PS (Power Switch)
LP
DP
CWP-WP
DFM2
CORES
RFA
1,2
3,4
5,6
7,8
9,10
11,12
XD26
XD27
XD28
XD25
XD23
XD24
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 62 of 122
Fig. 20. PROCESSOR CARD
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 63 of 122
Date 5/26/2009
Test Cables between EGSE and Onboard Data Acquisition System
Fig. 21.
Cabling Documentation for BSTM and DACU Units
Page 64 of 122
Fig.22.
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 65 of 122
POWER BSTM EGSE Cable
BSTM Connector: XB3
Pin
1
2
3
4
5
6
7
8
9
11
12
13
14
15
16
17
18
19
Date 5/26/2009
CABLE 1
PC19 female
Signal
+28V BSTM
+28V BSTM
To
Red Banana Plug
Red Banana Plug
Till Sept 2007
Doubled 1-2
+28V BSTM
+28V BSTM
Red Banana Plug
Red Banana Plug
From Sept 2007
From Sept 2007
-28V BSTM
-28V BSTM
-28V BSTM
White Banana Plug
White Banana Plug
White Banana Plug
Till Sept 2007
Doubled 13-14
From Sept 2007
-28V BSTM
White Banana Plug
From Sept 2007
XB3
BSTM +28V
Red +28V
White -28V
1,5 m
Fig. 23. Cable: XB3 is PC19 female connector.
BSTM -28V
Cabling Documentation for BSTM and DACU Units
Page 66 of 122
ETHERNET BSTM EGSE Cable
BST
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
41
42
43
44
45
46
47
48
49
50
CABLE 2
Signal
T1+
T1R1+
R1T1D+
T1DR1D+
R1DT2+
T2R2+
R2T2D+
T2DR2D+
R2DT3+
T3R3+
R3-
From
E-NET-1/1
E-NET-1/2
E-NET-1/3
E-NET-1/6
E-NET-1/1
E-NET-1/2
E-NET-1/3
E-NET-1/6
E-NET-2/1
E-NET-2/2
E-NET-2/3
E-NET-2/6
E-NET-2/1
E-NET-2/2
E-NET-2/3
E-NET-2/6
E-NET-3/1
E-NET-3/2
E-NET-3/3
E-NET-3/6
Remark
Doubled 1-5
Doubled 2-6
Doubled 3-7
Doubled 4-8
Doubled 1-5
Doubled 2-6
Doubled 3-7
Doubled 4-8
Doubled 9-13
Doubled 10-14
Doubled 11-15
Doubled 12-16
Doubled 9-13
Doubled 10-14
Doubled 11-15
Doubled 12-16
Doubled 17-33
Doubled 18-34
Doubled 19-35
Doubled 20-36
To
XD12/1
XD12/2
XD12/3
XD12/4
XD12/5
XD12/6
XD12/7
XD12/8
SAS3/1
SAS3/2
SAS3/3
SAS3/4
SAS3/5
SAS3/6
SAS3/7
SAS3/8
XD22/1
XD22/2
XD22/3
XD22/4
T3D+
T3DR3D+
R3D-
E-NET-3/1
E-NET-3/2
E-NET-3/3
E-NET-3/6
Doubled 17-33
Doubled 18-34
Doubled 19-35
Doubled 20-36
XD22/5
XD22/6
XD22/7
XD22/8
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 67 of 122
Date 5/26/2009
CABLE 2
XB2
EGSE XD12
EGSE SAS3
EGSE XD22
5m
Fig. 24. Cable: XB2 is PC50 female connector. Others ones are PC10 female types.
If SAS3 is connected to PC, then the interface cable between EGSE SAS3 and PC
Cabling Documentation for BSTM and DACU Units
Page 68 of 122
Date 5/26/2009
OMTS BSTM EGSE Cable CABLE 4
BSTM Connector: XB4
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
41
42
43
44
45
46
47
48
49
50
PC50 female to EGSE T1 Cannon 25S
Signal
ATM1
ATM Common
From
Isolator CON3/49
Isolator CON3/50
ATM2
ATM Common
Remark
Shielding
To
T1/1
T1/10
Isolator CON3/47
Isolator CON3/48
Shielding
T1/2
T1/10
ATM3
ATM Common
Isolator CON3/45
Isolator CON3/46
Shielding
T1/3
T1/10
ATM4
ATM Common
Isolator CON3/43
Isolator CON3/44
Shielding
T1/4
T1/10
ATM5
ATM Common
Isolator CON3/41
Isolator CON3/42
Shielding
T1/5
T1/10
Cabling Documentation for BSTM and DACU Units
Page 69 of 122
Date 5/26/2009
Cable 4
T1
XB4
1,5 m
Fig. 25. Cable: XB4 is PC50 female connector, and T1 is CANNON25S type.
T1/10 is the Analogue Ground. ATM1, ..ATM6 are shielded cables.
Kábeltípus 4 vezeték közösen árnyékolva
Cabling Documentation for BSTM and DACU Units
Page 70 of 122
ISS-Ethernet BSTM EGSE Cable
BSTM Connector: XB5
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
Date 5/26/2009
Cable 6
PC19 female To: RJ-45 male
Signal
RX+
From
ISS-UpLink/1
Remark
TX+
RX-
ISS-UpLink/3
ISS-UpLink/2
ISS E/3
ISS E/2
TX-
ISS-UpLink/6
ISS E/6
ISS E/1
BSTM ISS-UPLINK
XB5
5m
Fig. 26. Cable: RJ-45 type male and PC19 female connector.
Cabling Documentation for BSTM and DACU Units
Page 71 of 122
Ethernet Cables - RJ45/Colors & Crossover - Illustration
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 72 of 122
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 73 of 122
Slow Scientific Telemetry BSTM EGSE
BSTM Connector: XB6
Pin
1
2
3
4
5
6
7
8
9
10
Signal
+TI
-TI
+KI
-KI
+KS
-KS
+GPR
-GPR
shield
case
Date 5/26/2009
Cable 7
PC10 female To: XB6 Cannon 9P
To
XB6/2
XB6/3
XB6/4
XB6/5
XB6/6
XB6/7
XB6/8
XB6/9
XB6/1
XB6/1
Remark
2-3 two wire line
2-3 two wire line
4-5 two wire line
4-5 two wire line
6-7 two wire line
6-7 two wire line
8-9 two wire line
8-9 two wire line
120 Ohm to shield
case
EGSE XB6
XB6
1,5 m
Fig. 27. Cable: XB6 is PC10 female, and EGSE XB6 is CANNON 9P type connector.
Kábeltípus Huba Géza ad FTP vagy SFTP árnyékolt kábelt
2
1
Female PC connector watching from soldering side
Cabling Documentation for BSTM and DACU Units
Page 74 of 122
Date 5/26/2009
Cable 8
Amateur Radio BSTM EGSE
Ethernet RJ-45 male to PC-10 male cable
RJ45/3
RJ45/6
RJ45/1
RJ45/2
XBP/1 RD+
XBP/2 RDXBP/3 TD+
XBP/4 TD-
RJ45
XBP
2m
Fig. 28. Cable: There are RJ-45 male and PC-10 female type connectors on ends of cable.
Cabling Documentation for BSTM and DACU Units
Page 75 of 122
Date 5/26/2009
Power DACU1 EGSE Cable 9
DACU1 XD11-Cannon SUB-D 15S to PKK
Pin
Signal
From
1
SU -28V
PS/15,16
White Banana Plug
2
3
4
5
6
7
8
9
10
11
SU -28V
SU +28V
SU +28V
PS/15,16
PS/13,14
PS/13,14
Red Banana Plug
DACU1 -28V
DACU1 -28V
DACU1 +28V
DACU1 +28V
Wire wrap POWER SUPPLY UNIT
Wire wrap POWER SUPPLY UNIT
Wire wrap POWER SUPPLY UNIT
Wire wrap POWER SUPPLY UNIT
13
14
15
;;;;;;;;;;;;;;;;;;;;;;;;;’’’’’
White Banana Plug
Red Banana Plug
XD11
DACU1 +28V
Red +28V
White -28V
1,5 m
Fig. 29. Cable, XD11 is Cannon 15P type connector.
DACU1 -28V
Cabling Documentation for BSTM and DACU Units
Page 76 of 122
Power DACU2 EGSE
Date 5/26/2009
Cable 10
DACU2 XD21-Cannon SUB-D 15S to PKK
Pin
1
2
Signal
SU -28V
SU -28V
From
PCR/15,161
PCR/15,161
To
White Banana Plug
3
4
5
6
7
8
9
10
11
12
13
14
15
SU +28V
SU +28V
PCR/13,141
PCR/13,141
Red Banana Plug
DACU2 -28V
DACU2 -28V
DACU2 +28V
DACU2 +28V
Wire wrap
Wire wrap
Wire wrap
Wire wrap
White Banana Plug
Red Banana Plug
XD21
DACU2 +28V
Red +28V
White -28V
1,5 m
Fig. 30. Cable: XD21 is Cannon 15P type connector.
DACU2 -28V
Cabling Documentation for BSTM and DACU Units
Page 77 of 122
Date 5/26/2009
Cable 11
DACU1-DP EGSE
DACU1 XD14
CD14EGSE
DACU1 XD14-Cannon 15S to EGSE XD14 (DP)
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
DP’s Signal Name
-28V
To
Fig. 31.
Comment
TD+
RD+
0TM
Emitter
Collector
EGSE XD14/3
EGSE XD14/4
EGSE XD14/1
Fig. 31.
Fig. 31.
Twisted pair2
Twisted pair1
Signal Ground
TDRD-
EGSE XD14/2
EGSE XD14/5
Twisted pair2
Twisted pair1
case
+28V
XD14/1
Fig. 31.
DACU1 XD14
XD14 EGSE
TLP181/SMD
XD14 DACU/15
XD14 DACU/7
XD14 DACU/1
EGSE XD14/6
XD14 DACU/6
2,2K
Photocoupler and resistor are assembled in Connector Case
1,5 m
Fig 31. Cable: XD14 DACU is Cannon 15P and XD14 EGSE is Cannon 9P
Kábeltípus: UTP sodrott érpár.
Cabling Documentation for BSTM and DACU Units
Page 78 of 122
Date 5/26/2009
Cable 12
XD15 EGSE
DACU1-LP EGSE
DACU1 XD15
DACU1 XD15-Cannon 15S to EGSE XD15 (LP)
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
LP’s Signal Name
-28V
To
Fig. 32.
Comment
TD+
RD+
0TM
Emitter
Collector
EGSE XD15/3
EGSE XD15/4
EGSE XD15/1
Fig. 32.
Fig. 32.
Twisted pair2
Twisted pair1
Signal Ground
Signal Ground
TDRD-
EGSE XD15/2
EGSE XD15/5
Twisted pair2
Twisted pair1
case
+28V
XP15/1
Fig. 32.
DACU1 XD15
XD15 EGSE
TLP181/SMD
XD15 DACU/15
XD15 DACU/7
XD15 DACU/1
EGSE XD15/6
XD15 DACU/6
2,2K
Photocoupler and resistor are assembled in Connector Case
1,5 m
Fig 32. Cable: XD15 DACU is Cannon 15P and XD15 EGSE is Cannon 9P
Kábeltípus: UTP sodrott érpár
Cabling Documentation for BSTM and DACU Units
Page 79 of 122
Date 5/26/2009
SAS3 EGSE Cable 13
DACU1 XD17-Cannon 9S to SAS3
Pin
1
2
3
4
5
6
7
8
9
Signal
-28V
To
Fig. 33.
Power check
0 Power check
Fig. 33.
Fig. 33.
CASE
+28V
Fig. 33.
EGSE T2
XD17 DACU
XD17 DACU/9
XD17 DACU/3
XD17 DACU/1
2,2K
EGSE T2/2
EGSE T2/9
XD17 DACU/4
Photocoupler and resistor are assembled in Connector Case
1,5 m
Fig. 33. Cable: XD17 DACU is Cannon 9P T2 is Cannon 25S.
Kábeltípus: a csatlakozó csak a rajzon látható áramkört tartalmazza. Nem megy
máshova.
Cabling Documentation for BSTM and DACU Units
Page 80 of 122
Date 5/26/2009
DACU1-DFM1, DACU1-CWD, DACU2-CWD EGSE Cable 14
XD13 DACU
T3 EGSE
DACU1 XD13-Cannon 25S to EGSE T3 (DFM1 )
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
Signal
-28V
Cable shielding
6430 Connector
Fig. 34.
Case
Power check
+28V
0 Power check
Bxdc
Bydc
Bzdc
B0dc
Bxac
Byac
Bzac
B0ac
B50
B100
B150
B400
Fig. 34. T3/3
Fig. 34.
Fig. 34.
EGSE T3/1
EGSE T3/1
EGSE T3/1
EGSE T3/2
EGSE T3/6
EGSE T3/6
EGSE T3/6
EGSE T3/7
EGSE T3/6
EGSE T3/6
EGSE T3/6
EGSE T3/6
23
24
25
B800
B0
EGSE T3/6
EGSE T3/7
Signal or Remark
Card Name
PS Card
Shielding
Shielding
Shielding
2.
3. 4,7k to +5V (DM6430/48)
Kábeltípus 2 vezeték közösen árnyékolva,
(mivel a jeleket ugyanaz a kimenet hajtja meg a T3 EGSE oldalon).
Cabling Documentation for BSTM and DACU Units
Page 81 of 122
XD16 DACU
Date 5/26/2009
T3 EGSE Cable 14
DACU1 XD16-Cannon SUB-D 25S to EGSE XD16 (CWZ-WP)
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
Signal
-28V
Cable shielding
B ground
B signal
I ground
I signal
Case
Power good
+28V
U ground
U signal
T ground
T signal
On Test for I
Off Test for I
Calibration Signal
Common Calib. S.
On Test for B
To
Fig. 34.
Fig. 34.
EGSE T3/2
EGSE T3/1
EGSE T3/2
EGSE T3/1
Fig. 34. T3/4
Fig. 34.
EGSE T3/7
EGSE T3/6
EGSE T3/7
EGSE T3/6
Signal or Remark
Comment
shielding
shielding
shielding
shielding
Control Signals
for Real Device
2). 4,7k to +5V
Kábeltípus 2 vezeték közösen árnyékolva,
(mivel a jeleket ugyanaz a kimenet hajtja meg a T3 EGSE oldalon).
Cabling Documentation for BSTM and DACU Units
Page 82 of 122
DACU2 XD28-Cannon SUB-D 25S to CWZ-WP
XD28 DACU
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
Signal
-28V
Cable shielding
B ground
B signal
I ground
I signal
Case
Power good
+28V
U ground
U signal
T ground
T signal
On Test for I
Off Test for I
Calibration Signal
Common Calib. S.
On Test for B
Date 5/26/2009
Cable 14
T3 EGSE
To
Fig. 34.
Fig. 34.
EGSE T3/2
EGSE T3/1
EGSE T3/2
EGSE T3/1
Fig. 34. T3/5
Fig. 34.
EGSE T3/7
EGSE T3/6
EGSE T3/7
EGSE T3/6
Signal or Remark
Comment
shielding
shielding
shielding
shielding
Control Signals
for Real Device
2). 4,7k to +5V
Kábeltípus 2 vezeték közösen árnyékolva,
(mivel a jeleket ugyanaz a kimenet hajtja meg a T3 EGSE oldalon).
Cabling Documentation for BSTM and DACU Units
Page 83 of 122
Date 5/26/2009
Cable 14
XD13/1 DACU CONNON25P
XD13 DACU/9
TLP181/SMD
XD13 DACU/8
XD13 DACU/10
DFM1
2,2K
XD13 DACU/1
Photocoupler and resistor are assembled in Connector Case
T3 EGSE
CANNON 9P
XD16 DACU CANNON 25P
XD16 DACU/9
470
ROM 2405S
XD16 DACU/17
Vin- Vin+ Vo- Vo+
3
4
1 2
XD16 DACU/1
CWZ-WP
XD16 DACU/8
Photocoupler and resistors are assembled in Connector Case
XD28 DACU CANNON25P
XD28 DACU/9
XD28 DACU/17
470
ROM 2405S
CWZ-WP
Vin- Vin+ Vo- Vo+
3
4
1 2
XD28 DACU/8
XD28 DACU/1
Photocoupler and resistors are assembled in Connector Case
1,5 m
Fig 34. Cable: XD13, XD16, XD28 DACU are Cannon 25P and T3 EGSE is Cannon 9P
Cabling Documentation for BSTM and DACU Units
Page 84 of 122
XD13-3 DACU
CANNON 25P
XD13-2
CANNON 25S
ROM 2405S
XD13-2 and XD13-3, all pins are
connected , same numbers to same
numbers ,
except 1, 8, 9, 10. These pins 1, 8, 9,
10 are not connected.
Vin- Vin+ Vo- Vo+
3
1 2
4
XD13-3/1
XD13-3/9
Date 5/26/2009
470
XD13-3/10
XD13-3/8
XD13-1
XD13-2
XD13-3
T3 EGSE CANNON9P
CANNON 25P
0,5m
XD16
CANNON 25P
XD28
CANNON 25P
Cabling Documentation for BSTM and DACU Units
Page 85 of 122
Date 5/26/2009
DACU2-CORES EGSE Cable 15
XD23 DACU XD23 EGSE
DACU2 XD23-Cannon 15S to EGSE XD23 (CORES)
Pin
Signal
To
1
-28V
2
0TM
EGSE XD23/1
3
TD+
EGSE XD23/3
4
RD+
EGSE XD23/4
5
6
7
8
9
10
TDEGSE XD23/2
11
RDEGSE XD23/5
12
13
14
Case
EGSE XD23/1
15
+28V
XD23 DACU
XD23 EGSE
DACU XD23/15
TLP181/SMD
EGSE XD23/6
DACU XD23/1
DACU XD23/2
2,2K
1,5 m
Fig 35. Cable: XD23 is Cannon 15P and XD23 EGSE is Cannon 9P
Kábeltípus: UTP sodrott érpár
Cabling Documentation for BSTM and DACU Units
Page 86 of 122
Date 5/26/2009
DACU2-RFA EGSE Cable 16
XD24 DACU XD24 EGSE
DACU2 XD24-Cannon 15S to EGSE-XD24 (RFA)
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
DACU2’s Signal
Name
-28V
0TM
TD+
RD+
RFA’s Signal Name
-28V
To
Dig Ground
Power good
Fig. 36.
Fig. 36.
TDRD-
RDTD-
EGSE XD24/2
EGSE XD24/5
Case
+28V
Case
+28V
EGSE XD24/1
EGSE XD24/1
EGSE XD24/3
EGSE XD24/4
RD+
TD+
XD24 DACU
XD24 EGSE
TLP181/SMD
DACU XD24/15
DACU XD24/1
DACU XD24/7
EGSE XD24/6
DACU XD24/6
2,2K
1,5 m
Fig 36. Cable: XD24 is Cannon 15P and XD24 EGSE is Cannon 9P
Kábeltípus: UTP sodrott érpár
Cabling Documentation for BSTM and DACU Units
Page 87 of 122
Date 5/26/2009
DACU2-LP EGSE Cable 17
XD26 DACU
XD26 EGSE
DACU2 XD26-Cannon 15S to LP
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
DP’s Signal Name
-28V
Cable shielding
TD+
RD+
0TM
Emitter
Collector
To
Fig. 37.
Comment
EGSE XD26/3
EGSE XD26/4
EGSE XD26/1
Fig. 37.
Fig. 37.
Twisted pair2
Twisted pair1
Cable shielding
TDRD-
EGSE XD26/2
EGSE XD26/5
Twisted pair2
Twisted pair1
case
+28V
EGSE XD26/1
Fig. 37.
DACU2 XD26
TLP181/SMD EGSE XD26/6
XD26 DACU/7
XD26 DACU/15
XD26 DACU/1
XD26 EGSE
XD26 DACU/6
2,2K
Photocoupler and resistor are assembled in Connector Case
1,5 m
Fig. 37. Cable: DACU2 XD26 is Cannon 15p; XD26 EGSE is Cannon 9p.
Kábeltípus: UTP sodrott érpár
Cabling Documentation for BSTM and DACU Units
Page 88 of 122
Date 5/26/2009
DACU2-DP EGSE Cable 18
XD27 DACU XD27 EGSE
DACU2 XD27-Cannon 15S to DP
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
DP’s Signal Name
-28V
Cable shielding
TD+
RD+
0TM
Emitter
Collector
To
Fig. 38.
Comment
EGSE XD27/3
EGSE XD27/4
EGSE XD27/1
Fig. 38.
Fig. 38.
Twisted pair2
Twisted pair1
Cable shielding
TDRD-
EGSE XD27/2
EGSE XD27/5
Twisted pair2
Twisted pair1
case
+28V
EGSE XD27/1
XP22/8
Fig. 38.
DACU2 XD27
XD27 EGSE
TLP181/SMD
XD27 DACU/15
XD27 DACU/7 EGSE XD27/6
XD27 DACU/1
XD27 DACU/6
2,2K
Photocoupler and resistor are assembled in Connector Case
1,5 m
Fig. 38. Cable: DACU2 XD27 is Cannon 15p; XD27 EGSE is Cannon 9p.
Kábeltípus: UTP sodrott érpár
Cabling Documentation for BSTM and DACU Units
Page 89 of 122
Date 5/26/2009
DACU2-DFM2 EGSE Cable 19
XD25 DACU XD25 EGSE
DACU2 XD25-Cannon 15S to EGSE-XD25 (DFM2)
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
Signal
-28V
Cable shielding
RS232 Receive Data
RD Ground
To
Fig. 39.
Fig. 39.
EGSE XD25/3
EGSE XD25/5
Power good
Fig. 39.
RS232 Transmit Data
TD Ground
EGSE XD25/2
EGSE XD25/5
Case
+28V
EGSE XD25/5
Fig. 39.
XD25 DACU
XD25 EGSE
ROM 2405S
Vin- Vin+ Vo- Vo+
3
4
XD25 DACU/15
1 2
XD25 DACU/8
XD25 DACU/4
470
XD25 DACU/1
Photocoupler and resistors are assembled in Connector Case
1,5 m
Fig. 39. Cable: DACU2 XD25 is Cannon 15p; XD25 EGSE is Cannon 9s.
Kábeltípus: UTP sodrott érpár
Cabling Documentation for BSTM and DACU Units
Page 90 of 122
Date 5/26/2009
Internal EGSE Cables
The order of cards in EGSE from the bottom panel to top is:
- PCM-3350 processor card,
- PCM-3618 8-port RS422/485 High-Speed Module; i/o=300h irq5
- PCM-3712 D/A Converter, 2 Channel Analogue Output; i/o=220h, +-10V
- PCM-3718-HG 12 bit DAS Module; i/o=280h
- Slow Telemetry Card
VGA
keyboard
mouse
RFA
c
24
XD 14
c
LP2
An In
c
26
DP1
XD
c
XD 15
LP1
XD
T4
XD25
T3
XB6
T1
DP2
c
c
CORES
T2
An Out
Ethernet
Dig In/Out
Slow Sci DFM2
Telemetry
27
XD 23
Figure 40. EGSE backpanel connectors
EGSE backpanel contains fifteen connectors.
T1 DB25p Analogue Inputs
T2 DB25p Digital Inputs/Outputs
T3 DB9s Analog Outputs
25 cm
15 cm
20 cm
T4 is Ethernet jack
XB6 DB9s Slow Telemetry
XD25 DB9s RS232 Port
XD14, XD15, XD23, XD24, XD26, XD27 are DB9s type connectors. RS-422 Ports
XD
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Date 5/26/2009
+SB
4
sw1
sw2
4,7k
1k
220nF
D
D
1
2
Q
13
12
PS_ON
3
74HC14
Q
1
74HC74
6
5
4,7k
3
4
11
10
9
8
D
Q
Q
sw1
sw2
+SB
GND
PS_ON
GND
22µF
Reset circuit of EGSE.
The pin assignment of ATX power supply is shown on next Figure.
+SB pin of Reset circuit comes from +5V Standby
PS-On means Power On for ATX power supply. Sw1, Sw2 is the power On/Off button on
EGSE front panel.
Cabling Documentation for BSTM and DACU Units
Page 92 of 122
24-pin ATX power supply connector
(20-pin omits the last 4: 11, 12, 23 and 24)
Color
Signal
Pin Pin
Signal
+3.3 V 1
13 +3.3 V sense
+3.3 V 2
14 -12 V
Ground 3
15 Ground
+5 V 4
16 Power on
Ground 5
17 Ground
+5 V 6
18 Ground
Ground 7
19 Ground
Power good 8
20 -5 V
+5 V standby 9
21 +5 V
+12 V 10 22 +5 V
+12 V 11 23 +5 V
+3.3 V 12 24 Ground
Color
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 93 of 122
T1 comes from PCM-3718HG Analogue Input. P1 connector
Figure 41. PCM-3718HG Connectors
Sw1 I/O=280H;
JP1 DM1 1MHz
JP2 S/E
JP3 Trigger Input DIO 0
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 94 of 122
Figure 42. PCM-3718HG’s P1 Connector
A/D S0 (1) – T1/1
A/D S1 (3) – T1/2
A/D S2 (5) – T1/3
A/D S3 (7) – T1/4
A/D S4 (9) – T1/5
A/D S5 (11)– T1/6
A/D S6 (13)– T1/7
A/D S7 (15)– T1/8
A.GND (17)– T1/9
A.GND (19)– T1/10
A/D S8 (2) – T1/14
A/D S9 (4) – T1/15
A/D S10 (6) – T1/16
A/D S11 (8) – T1/17
A/D S12 (10) – T1/18
A/D S13 (12) – T1/19
A/D S14 (14) – T1/20
A/D S15 (16) – T1/21
A.GND (18) – T1/22
A.GND (20) – T1/23
Date 5/26/2009
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Page 95 of 122
Date 5/26/2009
T2 comes from PCM-3718HG Digital Input/Output P2 connector.
11x4,7K
XD14/6 C1
C2
XD15/6
C3
C5
C4
C6
T3/3
T3/5
XD23/6 C7
XD26/6 C9
C8
XD24/6
C10
XD27/6
T3/4
XD25/6 C11
Figure 43. PCM-3718HG’s P2 Connector
C19
C17
C11
C7
C5
C9
C10
C8
C6
C4
C2
C1
C3
C17
C19
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DIO 0 (1)
DIO 2 (3)
DIO 4 (5)
DIO 6 (7)
DIO 8 (9)
DIO 10 (11)
DIO 12 (13)
DIO 14 (15)
D.GND (17)
+5V (19)
– T2/1 – XD14/6
– T2/2 –
– T2/3 – T3/4
– T2/4 – XD23/6
– T2/5 – XD26/6
– T2/6 – XD25/6
– T2/7
– T2/8
– T2/9
– T2/10
DIO 1 (2)
DIO 3 (4)
DIO 5 (6)
DIO 7 (8)
DIO 9 (10)
DIO 11 (12)
DIO 13 (14)
DIO 15 (16)
D.GND (18)
+12V (20)
– T2/14 – XD15/6
– T2/15 – T3/3
– T2/16 – T3/5
– T2/17 – XD24/6
– T2/18 – XD27/6
– T2/19
– T2/20
– T2/21
– T2/22
– T2/23
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 97 of 122
T3 comes from PCM-3712
Fig. 44. T3 is DB9s type connector.
T3/3 – T2/4
T3/4 – T2/5
T3/5 – T2/6
I/O= 220H
Channel 0 JP1, JP3, JP5 Unipolar 0 - +5V
Channel 1 JP2, JP4, JP10 Unipolar 0 - +5V
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 98 of 122
Figure 45. Slow Telemetry Interface Card
STI Case Shield
STI +TI
STI -TI
STI +KI
STI -KI
STI +KS
STI -KS
STI +GPR
STI -GPR
– XB6/1
– XB6/2
– XB6/3
– XB6/4
– XB6/5
– XB6/6
– XB6/7
– XB6/8
– XB6/9
TI+
TI-
KI+
KI- shielding
KS+
KS-
GPR+
GPR-
XB6, DB9s comes from Slow Telemetry Card
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 99 of 122
T4, Ethernet jack
T4/1 TD+
T4/2 TDT4/3 RD+
T4/6 RD-
–
–
–
_
CN1/9
CN1/10
CN1/3
CN1/4
COM3 connector is accessory of the Processor card.
Fig. 46. Layout of the Processor Card.
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 100 of 122
XD25 comes from PCM-3350 COM1 Port (CN3)
Fig. 47.
XD 25 CANNON 9/S
9
8
7
6
T2/6
5
4
3
2
1
GND
TX Transmit Data
RX Receive Data
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 101 of 122
Figure 48. PCM-3618 Connectors
I/O= 300H; IRQ5; VECTOR=340H
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 102 of 122
PCM-3618 Connectors to RS-422 are JP9 and JP11.
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 103 of 122
RS-422 Configuration, all ports are DB9s connectors.
RS-422 Port 1
XD24
POW
TXTX+
RX+
RXGND
6
5
4
3
2
1
RS-422 Port 2
XD26
POW
TXTX+
RX+
RXGND
6
5
4
3
2
1
RS-422 Port 3
XD27
POW
TXTX+
RX+
RXGND
6
5
4
3
2
1
RS-422 Port 4
XD14
POW
TXTX+
RX+
RXGND
6
5
4
3
2
1
RS-422 Port 5
XD15
POW
TXTX+
RX+
RXGND
6
5
4
3
2
1
RS-422 Port
XD23
6 POW 6
TX- 5
TX+ 4
RX+ 3
RX- 2
GND 1
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 104 of 122
JP9
Date 5/26/2009
5
1
9
XD14
6
DB9S
1
T2/1
5
11
19
XD15
6
DB9S
6
1
T2/14
5
21
XD23
29
6
1
T2/4
5
Reserve
31
39
DB9S
DB9S
1
JP9/1 pin is connected to XD14/5
JP11
5
1
XD24
9
6
T2/17
XD26
19
6
1
T2/5
XD27
6
DB9S
1
T2/18
5
Reserve
1
JP11/1 pin is connected to XD24/5
Fig. 49.
DB9S
5
21
29
39
1
5
11
31
DB9S
DB9S
Cabling Documentation for BSTM and DACU Units
Page 105 of 122
The PC/104 Connector
Ret Order Number 53-06-39; E-TEC Code BE2-040-S132-11 (2x20 pin)
Ret Order Number 53-06-40; E-TEC Code BE2-064-S132-11 (2x32 pin)
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 106 of 122
Date 5/26/2009
Travelstar 7K100
Jumper settings
Models: (PATA) HTS721010G9AT00, HTS721080G9AT00, HTS721060G9AT00
This signal connector for AT attachment is designed to mate with Dupont part number 69764-044 or
equivalent.
MASTER WITHOUT JUMPER!!!!
Pin position 20 is left blank for correct connector insertion.
Pin positions A, B, C, and D are used for the drive address setting. A jumper is available at the interface
connector to determine the drive address.
SLAVE WITH JUMPER IN POSITION 2!!!!!!
Cabling Documentation for BSTM and DACU Units
Page 107 of 122
Connector: 40 pin header
IDE Hard Disk Interface IDC-40 Male
pin
assignment
pin
assignment
1
-Reset
2
GND
3
Data 7
4
Data 8
5
Data 6
6
Data 9
7
Data 5
8
Data 10
9
Data 4
10
Data 11
11
Data 3
12
Data 12
13
Data 2
14
Data 13
15
Data 1
16
Data 14
17
Data 0
18
Data 15
19
GND
20
Key
21
(reserved)
23
-IOW
24
GND
25
-IOR
26
GND
27
IO Chrdy
28
Ale
29
(reserved)
30
GND
31
IRQ14
32
-IOCS16
33
Addr 1
34
(reserved)
35
Addr 0
36
Addr 2
37
-CS0 (1F0-1F7) 38
39
-Active
22
40
GND
-CS1 (3f6-3f7)
GND
Portables use a 44 pin IDE connector, which is the same as above plus:
41
+5V (logic)
42
+5V (motor)
43
GND
44
reserved
Date 5/26/2009
Cabling Documentation for BSTM and DACU Units
Page 108 of 122
Date 5/26/2009
The IDE Interface
The IDE interface requires only one cable. All pins straight from 1 to 1, 2 to 2 and so
on. The drives can be connected in any order. Only remember that one should be jumpered as
Master and the other as Slave. If only one drive is used, jumper it as Single (if such a mode
exists, or most common Master else).
Controller
Drive 1 or 2 Drive 1 or 2
+--+
+--+
+--+
|::|===================|::|============|::| <-Pin 1
|::|===================|::|============|::|
|::|===================|::|============|::|
|::|===================|::|============|::|
|::|===================|::|============|::|
|::|===================|::|============|::|
|::|===================|::|============|::|
+--+
+--+
+--+
(to
(to
(to the Drive 2)
40PIN IDC FEMALE to the Controller.
40 PIN IDC FEMALE to the Drive 1.
40 PIN IDC FEMALE to the Drive 2.
Controller Drive 1 Drive 2
Wire 1-40 1-40
1-40
1-40
the
the
Controller)
Drive
1)
Cabling Documentation for BSTM and DACU Units
Page 109 of 122
Date 5/26/2009
http://www.pcguide.com/ref/hdd/if/ide/confCS-c.html
Configuration Using Cable Select
An alternative to the standard master/slave jumpering system used in the vast majority
of PCs is the use of the cable select system. As the name implies, with this system the cable--or
more correctly, which connector on the cable a device is attached to--determines which device is
master and which is slave. The goal of cable select is to eliminate having to set master and
slave jumpers, allowing simpler configuration.
To use cable select, both devices on the channel are set to the "cable select" (CS)
setting, usually by a special jumper. Then, a special cable is used. This cable is very similar in
most respects to the regular IDE/ATA cable, except for the CSEL signal. CSEL is carried on
wire #28 of the standard IDE/ATA cable, and is grounded at the host's connector (the one that
attaches to the motherboard or controller). On a cable select cable, one of the connectors (the
"master connector") has pin #28 connected through to the cable, but the other (the "slave
connector") has an open circuit on that pin (no connection). When both drives on the channel
are set cable select, here's what happens:
•
•
Master: The device that is attached to the "master connector" sees the CSEL signal as
grounded, because its connector has pin #28 attached to the cable, and the host's
connector has that signal grounded. Seeing the "zero value" (grounded), the device sets
itself to operate as master (device 0).
Slave: The drive that is attached to the "slave connector" does not see the CSEL signal
as grounded, because its connector is not attached to the CSEL signal on the cable.
Seeing this "no connection", the device configures itself as a slave (device 1).
If you switch the devices between the two connectors, they swap configuration, the
master becoming the slave and vice-versa. Not a very complicated arrangement, and a good
idea, it would seem. In fact, if cable select had actually caught on, it would have been great.
The problem is that it has never been widely used, and this lack of universality has made cable
select unattractive, which is a bit of a chicken and egg situation. Since cable select was never
accepted in the industry, most drives come, by default, with the drive jumpered as a master or
single drive. This means that to enable cable select, you have to change a jumper anyway,
which obviously negates some of the advantage.
But the biggest reason why cable select never caught on was the cable itself. From the
very beginning, all 40-conductor IDE/ATA cables should have been made so that they would
work with cable select. There's actually no need to have different cable types, because if you
set a drive to "master" or "slave" explicitly, it just ignores the CSEL setting. So a cable select
cable can be used either way: regular jumpering or cable select.
Unfortunately, regular 40-conductor IDE/ATA cables don't support cable select. (Why
this came about I do not know, but I suspect that some bean counter determined they could
save five cents on each PC by doing this.) So to use cable select you need a special cable, and
these are of course non-standard, making them a special purchase. Also, many people don't
understand cable select, nor do they realize it needs a special cable. If you set both drives to
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Date 5/26/2009
"CS" and then use them on a regular (non-cable-select) IDE cable, both drives will configure
themselves as "master", causing a configuration conflict.
Making matters worse, the 40-conductor IDE/ATA cable select cables have the "master
connector" as the middle device and the "slave connector" as the device at the end of the cable,
farthest from the host. For signaling reasons, it's best to put a single drive at the end of a cable,
not put it in the middle leaving a "stub" of wire hanging off the end of the channel. But if you
do this, that single drive sets itself as a slave with no master, a technically illegal configuration.
Worse, suppose you do this, and your hard disk sets itself as a slave, and the system boots from
it without problem, as most would. Then, you decide to add a new hard disk. You set it to cable
select and attach it to the middle connector. The new drive then becomes the master, and thus
moves ahead of the old drive in precedence! The system will try to boot from it instead of your
old drive (which some people might want, but many do not.)
To get around this problem, a second type of 40-wire cable select cable was created, the
so-called "Y-shaped" cable. On this one, the connector to the system is in the middle, and the
slave and master connectors are on the two opposite ends of the cable. This certainly makes
things less confusing, but has its own difficulties. For starters, IDE/ATA cables are very
limited in length, which means this "Y-shaped" cable was hard to use in large tower systems.
All your drives had to be mounted very close to the motherboard or controller card so the cable
would reach. And again, the cable was a special item.
As you can see, the traditional way of doing cable select was a total mess, which was
why it was never widely adopted. The key reason for this mess was--once again--lack of
standardization. I rather expected cable select to eventually wither away. However, when the
80-conductor Ultra DMA cable was introduced, the cable select feature was much improved,
changing the potential of this feature. The two key changes were:
•
•
Drive Position: Unlike the old cables, with the 80-conductor cable, the master
connector is at the end of the cable, and the slave is in the middle. As I explained
above, this is a much more sensible arrangement, since a single drive placed at the end
of the cable will be a master, and a second drive added in the middle a slave.
Universality: All 80-conductor IDE/ATA cables support cable select (or at least, all of
the ones that are built to meet the ATA standards). This means there's no confusion
over what cables support the feature, and no need for strange "Y-cables" and other nonstandard solutions.
These two changes mean a world of difference for the future of cable select. Since these
cables will eventually completely replace all of the 40-conductor cables, all systems will be
capable of running cable select without any special hardware being needed. As I mentioned
before, you can still explicitly set drives to master or slave if you want to, and the CSEL signal
will be ignored by the drives. So the bottom line is that these cables work either way, cable
select or not. What will finally make cable select catch on? If drive manufacturers and systems
integrators widely agree to use it, and the manufacturers start shipping drives with the "CS"
jumpers on by default. We'll have to see if this happens.
Warning: 80-conductor IDE/ATA cables are often said to be compatible with 40conductor cables. That's true of normal 40-conductor cables with drives jumpered as
master and slave, but not cable select cables. If you swap a regular (non-"Y-shaped") 40conductor cable select cable with an 80-conductor IDE cable, the master and slave drives will
Cabling Documentation for BSTM and DACU Units
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Date 5/26/2009
swap logical positions. If you don't that to happen, you'll need to change the order that the
devices
connect
to
the
cable.
Note: A special thanks to Hale Landis of www.ata-atapi.com for his assistance in
deciphering the mysteries of cable select, especially with the 80-conductor cable.
Cabling Documentation for BSTM and DACU Units
Page 112 of 122
Date 5/26/2009
http://www.unixwiz.net/techtips/ide-cable-select.html
Modifying an IDE cable - the "easy" way
It's possible to easily make a CS cable by modifying a "regular" one. Lay out the IDE
cable on a work surface, and consider the ribbon area between the two drive connectors
(farthest away from the motherboard connector). Starting with pin one - the edge with the red
stripe -- count to the 28th wire and mark it with a pen. For safety, we also start from the far
side and count backwards to pin 40 to make sure we didn't skip one.
With a small, sharp knife (such as an X-Acto blade), cut out a small section of the 28th
wire, leaving a "hole" in the cable. Be careful not to cut the other wires! Use a marker pen to
mark "M" (master) near the middle drive connector and "S" (slave) near the far drive connector
to keep them straight. The resulting cable should look something like this:
This cable will work fine in two-drive configurations, but there is a drawback: it's
suboptimal for one-drive installations. These high-speed disk cables really should always have
a drive on the physical far end of the cable to reduce noise on the bus, but this cable puts the
single drive in the middle. In practice this will probably work most of the time, but it's not the
best way to run a computer system.
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Date 5/26/2009
Modifying an IDE cable - the "hard" way
Modifying an IDE cable to properly put the master on the far end means that the far end
pin 28 is grounded and the middle connector pin 28 has to float. This is quite a bit more work
and requires soldering skills. But we'll try to describe it.
Similar to the previous cable, we need to cut the 28th wire on the ribbon cable, but this
time it's on the other side of the middle connector. This effectively cuts pin 28 off from both
connectors. We need to somehow ground this line, and fortunately the IDE cable has several of
these. We'll borrow a ground from pin 40.
Between the two drive connectors cut pin 28 near the middle connector and release
about two inches of this wire towards the far connector. Strip about one centimeter of
insulation from this wire, exposing the conductor. Twist the exposed wire to keep the strands
together.
Then separate the 40th wire (opposite end from the red stripe) from the 39th wire by
carefully cutting the plastic between the two. But do not cut the wire itself. Very carefully
strip away about 2 cm of insulation from the 40th wire, exposing the metal conductor. Again,
do not cut the conductor itself. Solder the pin-28 wire to the exposed pin-40 wire, grounding
the CS line to the master connector on the end.
Cover the exposed soldered connection with tape or hot glue, then mark both
connectors with Master and Slave indicators. The resulting cable should look roughly like this:
Cabling Documentation for BSTM and DACU Units
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Date 5/26/2009
Null modem, an introduction
Serial communications with RS232. One of the oldest and most widely spread communication
methods in computer world. The way this type of communication can be performed is pretty
well defined in standards. I.e. with one exception. The standards show the use of DTE/DCE
communication, the way a computer should communicate with a peripheral device like a
modem. For your information, DTE means data terminal equipment (computers etc.)
where DCE is the abbreviation of data communication equipment (modems). One of
the main uses of serial communication today where no modem is involved—a serial null
modem configuration with DTE/DTE communication—is not so well defined, especially
when it comes to flow control. The terminology null modem for the situation where two
computers communicate directly is so often used nowadays, that most people don't realize
anymore the origin of the phrase and that a null modem connection is an exception, not the
rule.
In history, practical solutions were developed to let two computers talk with each other using a
null modem serial communication line. In most situations, the original modem signal lines are
reused to perform some sort of handshaking. Handshaking can increase the maximum allowed
communication speed because it gives the computers the ability to control the flow of
information. High amounts of incomming data is allowed if the computer is capable to handle
it, but not if it is busy performing other tasks. If no flow control is implemented in the null
modem connection, communication is only possible at speeds at which it is sure the receiving
side can handle the amount information even under worst case conditions.
Original use of RS232
When we look at the connector pinout of the RS232 port, we see two pins which are certainly
used for flow control. These two pins are RTS, request to send and CTS, clear to send. With
DTE/DCE communication (i.e. a computer communicating with a modem device) RTS is an
output on the DTE and input on the DCE. CTS is the answering signal comming from the
DCE.
Before sending a character, the DTE asks permission by setting its RTS output. No
information will be sent until the DCE grants permission by using the CTS line. If the DCE
cannot handle new requests, the CTS signal will go low. A simple but useful mechanism
allowing flow control in one direction. The assumption is, that the DTE can always handle
incomming information faster than the DCE can send it. In the past, this was true. Modem
speeds of 300 baud were common and 1200 baud was seen as a high speed connection.
For further control of the information flow, both devices have the ability to signal their status
to the other side. For this purpose, the DTR data terminal ready and DSR data set ready
signals are present. The DTE uses the DTR signal to signal that it is ready to accept
information, whereas the DCE uses the DSR signal for the same purpose. Using these signals
involves not a small protocol of requesting and answering as with the RTS/CTS handshaking.
These signals are in one direction only.
The last flow control signal present in DTE/DCE communication is the CD carrier detect. It
is not used directly for flow control, but mainly an indication of the ability of the modem
device to communicate with its counter part. This signal indicates the existence of a
communication link between two modem devices.
Null modem without handshaking
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Date 5/26/2009
How to use the handshaking lines in a null modem configuration? The simplest way is to don't
use them at all. In that situation, only the data lines and signal ground are cross connected in
the null modem communication cable. All other pins have no connection. An example of such
a null modem cable without handshaking can be seen in the figure below.
Simple null modem without handshaking
Connector 1 Connector 2 Function
2
3
Rx
Tx
3
2
Tx
Rx
5
5
Signal ground
Compatibility issues
If you read about null modems, this three wire null modem cable is often talked about. Yes, it
is simple but can we use it in all circumstances? There is a problem, if either of the two devices
checks the DSR or CD inputs. These signals normaly define the ability of the other side to
communicate. As they are not connected, their signal level will never go high. This might
cause a problem.
The same holds for the RTS/CTS handshaking sequence. If the software on both sides is well
structured, the RTS output is set high and then a waiting cycle is started until a ready signal is
received on the CTS line. This causes the software to hang because no physical connection is
present to either CTS line to make this possible. The only type of communication which is
allowed on such a null modem line is data-only traffic on the cross connected Rx/Tx lines.
This does however not mean, that this null modem cable is useless. Communication links like
present in the Norton Commander program can use this null modem cable. This null modem
cable can also be used when communicating with devices which do not have modem control
signals like electronic measuring equipment etc.
As you can imagine, with this simple null modem cable no hardware flow control can be
implemented. The only way to perform flow control is with software flow control using the
XOFF and XON characters.
Null modem with loop back handshaking
The simple null modem cable without handshaking shows incompatibilities with common
software. The main problem with this cable is that there is a possibility for the software to hang
if it checks the modem signal lines in a proper way. I.e. with this null modem cable, good
written programs will perform worse than badly written programs.
To overcome this problem and still be able to use a cheap null modem communication cable
with only three lines in it, a fake null modem cable layout has been defined. The null modem
cable with loop back handshaking resulted from this.
Null modem with loop back handshaking
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Date 5/26/2009
Connector 1 Connector 2 Function
2
3
Rx
Tx
3
2
Tx
Rx
5
5
Signal ground
1+4+6
DTR
CD + DTR
1+4+6
DTR
CD + DTR
7+8
RTS
CTS
7+8
RTS
CTS
The main purpose of this null modem cable is to let well defined software think there is
handshaking available, with a null modem cable which has no provisions for it.
Compatibility issues
Consider first the DSR signal (pin 6). This input indicates that the other side is ready to start
communicating. In the layout, the line is linked back to the DTR output (pin 4). This means,
that the software doesn't see the ready signal of the other device, but its own. The same holds
for the CD input (pin 1). The assumption is, that if software has been written to check the
DSR line to test communication availability, it will probably also set the DTR output to
indicate its own state. This is true for at least 99% of all serial communication software. This
implies that at least 99% of all serial communication software is capable of faking its own
DSR check with this null modem cable.
The same trick is used with the CTS input. In the original use, RTS is set, and then CTS is
checked before starting the communication. By setting the RTS output (pin 7) the CTS input
on the same connector (pin 8) is receiving clearance immediately. There is no possibility of a
software hangup because of dangling RTS requests.
Other issues to consider
The null modem cable with loop back handshaking is often advised as the best low cost
available null modem cable. But, is it really so good? The simple null modem cable without
handshaking has the disadvantage that it does not permit proper written software to
communicate with it. Software which is aware of the lack of handshaking signals can however
use it without problems.
The null modem cable with loop back handshaking can be used with more software, but it has
no functional enhancements over the simple cable! There is no way both devices can control
data flow, other than by using XON/XOFF handshaking. If the software is designed for using
hardware flow control it seems to work with this null modem cable, but on unpredictable
moments, data loss may occur. This means that the null modem cable allows communication as
long as no flow control is needed, but when data speeds reach the limit the receivers can
handle, communication may stop immediately without an assignable reason. Therefore,
although this null modem cable is cheap and easy to make, use it with care! Despite these
warnings, this type of null modem cable has been used successfully between Windows
95/98/ME computers with a Direct Cable Connection.
Null modem with partial handshaking
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Date 5/26/2009
The simple null modem cable and the null modem cable with loop back handshaking are
useful, but have no provisions for hardware flow control. If it is absolutely necessary that
hardware flow control is used, the null modem with partial handshaking can be an alternative.
Null modem with partial handshaking
Connector 1 Connector 2 Function
1
7+8
RTS2
CTS2 + CD1
2
3
Rx
Tx
3
2
Tx
Rx
4
6
DTR
DSR
5
5
Signal ground
6
4
DSR
DTR
7+8
1
RTS1
CTS1 + CD2
Compatibility issues
This null modem cable is the best of two worlds. There is the possibility of hardware flow
control without being incompatible with the original way flow control was used with
DTE/DCE communication. Let us first consider the RTS/CTS flow control lines present on
pins 7 and 8. As with the loop back null modem cable, these signals are not connected to the
other device, but directly looped back on the same connector. This means, that RTS/CTS
flow control is allowed to be used in the software, but it has no functional meaning. Only when
the software at the other side checks the CD signal at pin 1, the RTS information will reach
the other device. This would however be only the case in specifically developed software
which uses the CD input for this purpose.
More important however is the cross connection of the DSR (pin 6) and DTR (pin 4) lines.
By cross connecting these lines, their original function is simulated pretty well. The DTR
output is used to signal the other device that communication is possible. This information is
read on the DSR input, the same input used for this purpose with modem communication.
Because of this cross connection, the DTR output line can be used for simple flow control.
Incomming data is allowed when the output is set, and blocked if the output is not set.
Software using only the RTS/CTS protocol for flow control cannot take advantage of the
partial handshaking null modem cable. Most software however will also check the DSR line
and in that case—when using the null modem cable with partial handshaking—the best
possible hardware flow control can be achieved which is still compatible with the original use
with modems.
Null modem with full handshaking
The most expensive null modem cable is the null modem cable suitable for full handshaking.
In this null modem cable, seven wires are present. Only the ring indicator RI and carrier detect
CD signal are not linked. The cable is shown in the following figure.
Null modem with full handshaking
Cabling Documentation for BSTM and DACU Units
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Date 5/26/2009
Connector 1 Connector 2 Function
2
3
Rx
Tx
3
2
Tx
Rx
4
6
DTR
DSR
5
5
Signal ground
6
4
DSR
DTR
7
8
RTS
CTS
8
7
CTS
RTS
Compatibility issues
The null modem cable with full handshaking does not permit the older way of flow control to
take place. The main incompatibility is the cross connection of the RTS and CTS pins.
Originally, these pins are used for a question/answer type of flow control. When the full
handshaking null modem cable is used, there is no request anymore. The lines are purely used
for telling the other side if communication is possible.
The main advantage of this cable is, that there are two signalling lines in each direction. Both
the RTS and DTR outputs can be used to send flow control information to the other device.
This makes it possible to achieve very high communication speeds with this type of null
modem cable, provided that the software has been designed for it. Because of the high possible
connection speed, this null modem cable can be used with Interlink to connect two MS-DOS
PC's.
This is the type of cable Microsoft recommends for the direct cable connection in their
knowledge base article. For the DB9 connector they also added a connection of DTR to CD
on each connector but they didn't define this connection for the DB25 connector version and
they also didn't mention the CD input in the descriptive text, so it is safe to leave the CD input
disconnected.
Null modem layout selection table
The right null modem cable to choose mainly depends on the application and the software that
will be used. As a general guide line, I would advise the following.
Choose your null modem cable
Cable without Loop back
Partial
Full
handshaking handshaking handshaking handshaking
Software flow
control only
+++
++
+
+
DTE/DCE compatible
hardware flow control
at low speeds
-
+++
++
-
DTE/DCE compatible
hardware flow control
at high speeds
-
+
+++
-
High speed
communication
using special software
-
-
++
+++
Cabling Documentation for BSTM and DACU Units
Page 119 of 122
+++
++
+
-
Date 5/26/2009
Recommended cable
Good alternative
Works, but not recommended
Does not work
The null modem cable with partial handshaking works in most cases. If you are developing software which must
work with all kinds of cables, it is best to use software flow control only and ignore all modem control inputs.
RS232 DB9 pinout
DEC MMJ pinout
RS232 DB25 pinout
Cabling Documentation for BSTM and DACU Units
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Date 5/26/2009
Out of Date Cables
Cables between BSTM’s Cards
( IDE Extension Cable, IDE-Card: HPFL 44/P RM=2mm, szallagkabel csati)
(53-08-96 2x22G RM=2,0 mm BUCHSENL E-TEC nzakba ultetheto)
At Cable’s end where HDDs are: 3 pieces, Order N: 53-00-75 type PLF40 PFOSTECKVER
with 40 holes
In middle cable: 3M 4640-6000 type FARNELL Order Code 469-191
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
Isolator Signal
To
2
1
4
3
6
5
8
7
10
11
12
13
14
13
16
15
18
17
20
19
22
21
24
23
26
25
28
27
30
29
32
31
34
33
36
35
38
37
40
39
DM6604 Signal
Cabling Documentation for BSTM and DACU Units
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Date 5/26/2009
RET Order N: 53-00-75, Type PLF40; Manufacturer E-TEC, Code IDS-040-S100-01/P
3M 4640-6000 type
FARNELL Order Code
469-191
Cabling Documentation for BSTM and DACU Units
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Date 5/26/2009