Compact Rugged Mission Control System
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INTRODUCTION
North Atlantic Industries' (NAI) Sensor Interface Unit (SIU36) is a rugged base-plate conduction-cooled or air/convection cooled chassis that leverages and integrates NAI’s Configurable Open Systems Architecture™ (COSA ®) rugged conduction-cooled 3U OpenVPX SBC, multifunction I/O boards and power supply products. The SIU36 provides a compact, high density, processing & graphics capable data distribution system solution for I/O intensive, mission or control systems applications. The SIU36 supports board-level processing and full I/O control and communication over Ethernet. With local processing, MIL-STD-1553, ARINC 429/575, Serial or ARINC 825 CAN bus are also available as primary communications interfaces when the boards are configured as such. PowerPC, Intel® or ARM Single Board Computer (SBC) processors can be added for a complete processing and I/O solution. The SIU36 is designed to support up to six NAI multi-function pre-configurable SBC/multifunction I/O boards, with or without processing, that support a wide variety of interface and communications smart function modules, all fitted/housed in a single rugged multi-board slot SIU system chassis, which is “delivered” pre-integrated and fully tested as a system.
OBJECTIVES
This manual provides the user with basic hardware implementation and information regarding the operation and interface of the SIU36. Each SIU36 is fitted with either one to six 3U OpenVPX boards and a single mil-standard power supply unit. Additional PSU option for “hold-up” power/time is available.
SCOPE
This manual only covers the operation of the SIU36 as a stand-alone I/O subsystem. This manual does not cover specific details relating to the operation of the specific I/O boards and function module fitted within the SIU36. Please reference the board specific documentation for details regarding the board level configuration(s).
CONVENTIONS USED IN THIS MANUAL
WARNINGS, CAUTIONS, and NOTES
Note
|
An operating procedure, practice, or condition, etc., that is essential to emphasize. All numbers are expressed in decimal format unless otherwise noted. |
NOTE An operating procedure, practice, or condition, etc., that is essential to emphasize.
All numbers are expressed in decimal format unless otherwise noted.
GENERAL SAFETY NOTICES
The following general safety notices supplement the specific warnings and cautions appearing elsewhere in the manual. They are recommended precautions that must be understood and applied during operation and maintenance of the instrument covered herein.
Serious injury may result if personnel fail to observe safety precautions. Dependent on configuration, some modules (e.g. Synchro / Resolver or AC signal sources) can generate output signals with high voltages. Be careful not to contact high-voltage connections when installing, operating or maintaining this instrument.
The SIU36 is delivered as a standalone system with no accessible or serviceable parts.
REPAIR
DO NOT ATTEMPT REPAIR. Under no circumstances should repair of this instrument be attempted. All repairs to this chassis must be accomplished at the factory.
HIGH VOLTAGE
HIGH VOLTAGE may be used in the operation of this equipment.
INPUT POWER ALWAYS ON
Note
|
The design of the model SIU36 is such that input power is continuously supplied to internal circuits when connected to a main power source. To disconnect the SIU34S from external power, the external power source should first be de-energized. The power input cable can then be disconnected. |
Website https://www.naii.com/
SYSTEM SPECIFICATIONS AND DETAILS
Introduction
The model SIU36 is a next generation rugged systems chassis joining the NAI Sensor Interface Unit (SIU) system chassis family pedigree. The SIU36 is configured to support a wide variety of SBC and multifunction I/O boards that can be configured to support a variety of processing, communications and I/O functions that are supported under the NAI Configurable Open Systems Architecture ™ (COSA®) product families.
The SIU36 can function either as a centralized or distributed system. It can also be used to supplement existing legacy systems by easily adding sensor data acquisition as well as general I/O and communication interfaces without expensive legacy chassis and backplane redesign. It has been designed with rugged embedded industrial, military and aerospace applications in mind.
Leveraging NAI’s field-proven, unique modular architecture, the SIU36 supports standard 3U OpenVPX board-level compatible boards that can be fitted with a wide selection of different Intelligent I/O, motion simulation/measurement and communications functions such as:
A/D Converter |
D/A Converter |
I/O TTL/CMOS |
RTD |
I/O Discrete |
I/O Differential Transceiver |
Synchro/Resolver LVDT/RVDT Measurement |
Synchro/Resolver LVDT/RVDT Simulation |
Strain Gauge |
Encoder |
Dual-Channel Dual Redundant BC/RT/MT MIL-STD-1553 |
High-Speed Sync/Async RS232/422/423/485 |
ARINC 429/575 |
CAN bus |
I/O Relay |
This approach provides unprecedented flexibility for supporting existing or new applications where there are specific interfacing requirements. Significant application benefits include:
-
Independent (pre-processed) I/O functionality targeted to specific data acquisition/control areas
-
Additional capabilities, technology insertion and sensor interfacing to existing fielded applications
-
Minimal integration risk based on current field-proven, deployed technologies
Specifications
The SIU36 is designed to meet the following general product specifications and is provided as a reference. Actual configuration and usage may affect size, weight and power (SWaP) specifications. Please contact NAI for discerning/defining SWaP considerations regarding specific program configurations. See additional details herein.
General
Input Voltage: |
Standard/Default: DC: 18 to 36 VDC (28 VDC nominal) |
Power (Base unit): |
~10 W (PSU efficiency, at 100W load) @ 28 VDC nominal Then, add the power calculated for the configuration specific boards module(s) power (see separate specific boards and module(s) specifications). I/O Signal GND reference is isolated from main power source return and chassis. |
Power/Heat Dissipation: |
Conduction Cooled (CC): ~150 watts (maximum) when properly mounted to a cold plate, which must be maintained at a temperature not to exceed 71°C. Air/Convection cooled (AC) Contact/consult with NAI for configuration and power dissipation. SIU Air/Convection version maximum power dissipation is dependent, but not limited to, configuration, power dissipation, air flow, program and other environmental considerations. NOTE: The total SIU36 power dissipation is dependent on the configuration of the boards and function module types fitted in the SIU36. Environmental and other operating characteristic variable considerations should be considered. |
Temperature, Operating: |
-40°C to 71°C Conduction cooled: As measured at primary thermal transfer interface. Air/Convection cooled: Air/ambient temp as specified. |
Temperature, Storage: |
-55°C to 105°C |
Size: |
Height: ~5.0” (127 mm) CC or ~6.4” (163 mm) AC (w/ additional heat dissipator fin height) Depth: ~9.5” (241 mm) Width: ~9.0” (229 mm) |
Weight: |
The weight of an SIU36 system is dependent on the configuration. The approximate weight of the SIU36 is based on the selection of the PSU, boards and functional module(s). The approximate weight of a configured SIU36 is: ~13.21 lbs. unpopulated Chassis/backplane/rigid flex & connector boards/PSU (conduction cooled) ~14.41 lbs. unpopulated Chassis/backplane/rigid flex & connector boards/PSU (air/convection cooled) (1 includes ~2.2 lbs. for PSU) ~21.32 lbs. fully populated (conduction cooled) ~22.52 lbs. fully populated (air/convection cooled) (2 includes ~1.35 lbs. for each additional fully function module populated board) |
UNPACKING AND INSPECTION
Unpacking
The SIU36 packing materials were designed specifically for transport protection of the SIU36. When receiving the shipment container, inspect packaging for any evidence of physical damage. If damage is evident, it is recommended that the carrier agent is present when opening the shipping container. It is further recommended that all packing material is retained in the event the SIU36 needs to be shipped elsewhere.
Label information provided:
Unit Level Part Number
Unit Level Serial Number
Unit Level Date Code
Also, typically provided with:
Slot/Board configuration(s) as applicable
Slot/Board serial numbers and D/C
Slot/Board IP address / MAC address (if applicable)
Special labeling requirements are also considered (i.e. UID matrix, customer part number, etc.). Contact factory for special labeling requirements.
MECHANICAL INTERFACE
Mechanical Description
The standard SIU36 is a rugged milled 6061 aerospace grade aluminum alloy stock. Conduction cooled version is expected to be mounted to a thermally conductive surface to maintain the specified temperature. The system thermal management design considerations should ensure that the chassis thermal interface (SIU36 bottom surface) does not exceed 71°C. Mounting holes are provided on the chassis bottom housing flanges (as depicted).
The SIU36 is also available in an air/convection cooled version. This version is built with integrated cooling fins milled into the primary chassis housing. Air/convection cooled version must maintain the chassis temperatures at the specified temperature (operational and environmental consideration variables include, but are not limited to chassis configuration power dissipation, air temperature and air flow available.
Maximum power and heat dissipation are dependent on the board and function compliment chosen. Contact NAI for application guidance. See the reference outline drawing(s) below.
Mounting Requirements
Conduction Cooled
Refer to SIU36 Outline and Installation Drawing (OID) for details on mounting and installing the SIU36. It is available for download from NAI’s website (NOTE: availability pending, contact factory for mounting/installation details). The SIU36 is conduction cooled and must be mounted in accordance with the drawing. The OID provides recommended hardware, torque, cold-plate flatness and surface finish specifications, and thermal conductivity requirements.
Figure 2. SIU36 Conduction Cooled Outline Dimensions & Mounting Pattern (Reference Only)
Air/Convection Cooled
Refer to SIU36 Outline and Installation Drawing (OID) for details on mounting and installing the SIU36. It is available for download from NAI’s website. The SIU36 is conduction cooled and must be mounted in accordance with the drawing. The OID provides recommended hardware, torque, cold-plate flatness and surface finish specifications, and thermal conductivity requirements.
Figure 3. SIU36 Air Cooled Outline Dimensions & Mounting Pattern (Reference Only)
Chassis (Earth) GND
Chassis ground point threaded insert location is on the connector face (front) of the SIU36 as shown.
Conduction cooled as shown, but air/convection version GND point is in similar location.
Figure 4. SIU36 Outline Dimensions/Chassis GND location
NOTE:
A Chassis GND braid or equivalent is expected to be secured by the following hardware or equivalent (delivered/installed with the SIU36 assembly):
-
SCREW, SOCKET HEAD CAP, 8-32, ½” LONG, 18-8 SS
-
Lock Washer, #8, 0.174" ID, 0.293" OD, 18-8 SS
-
Flat Washer, #8, 0.172" ID, 0.375" OD, 18-8 SS
Securing information:
-
The chassis is designed/built with a helical insert: NAS1130-08-15 or equivalent (8-32 Helical Insert, 0.246" Length, 18-8 Stainless Steel)
-
Maximum screw/insert hole depth is 0.4”
-
Recommended torque for the SIU36 Chassis GND screw: 15 in-lbs. (170 N-cm)
Finish
Unless otherwise specified, the following standard finish, or equivalent per NAI process requirements applies:
-
PRE-TREATMENT: CHEMICAL FILM COATING IAW MIL-DTL-5541, TYPE II, CLASS 3, ALL OVER.
-
PAINT PRIMER COAT: IAW-MIL-PRF-23377, TYPE II, CLASS 2, WITH A 0.9MIL MINIMUM DRY FILM THICKNESS TO EXTERIOR SURFACES SHOWN IN PAINT MASKING FIGURES.
-
PAINT FINISH COAT: APPLY MEDIUM TEXTURE USING PER MIL-PRF-85285, TYPE I, CLASS 2, SEMI-GLOSS BLACK WITH A DRY FILM THICKNESS OF 0.0008 TO 0.0012 TO EXTERIOR SURFACES.
-
FINISH NOTES 2 AND 3 OMITTED FROM THERMAL INTERFACE SURFACE INDICATED & FROM ALL HARDWARE.
CONNECTOR DESIGNATIONS, LOCATIONS & DESCRIPTIONS
The Power, I/O Interface and Ethernet connectors are located on the SIU36 front panel housing.
Conduction cooled as shown, but air/convection version GND point is in similar location.
Figure 5. SIU36 (Front Panel Connector Placement)
REF. DES. |
KEY |
MANUFACTURER / MIL-DTL SPEC. (or Equiv.) |
P/N |
MATE P/N |
J1 |
N |
AMPHENOL |
TVP02RF-151SN(S2AD |
TV06RF-23-151PN |
J2 |
A |
AMPHENOL |
TVP02RF-151SA(S2AD |
TV06RF-23-151PA |
J3 |
D |
AMPHENOL |
TVP02RF-151SD(S2AD) |
TV06RF-23-151PD |
J4 |
B |
AMPHENOL |
TVP02RF-151SB(S2AD) |
TV06RF-23-151PB |
J5 |
E |
AMPHENOL |
TVP02RF-151SE(S2AD) |
TV06RF-23-151PE |
J6 |
C |
AMPHENOL |
TVP02RF-151SC(S2AD) |
TV06RF-23-151PC |
J7 |
B |
MIL-DTL-D38999 Type |
D38999/20FB35PN |
D38999/26WB35SN |
CONNECTOR DETAILS AND PINOUTS
Generic pinout. See module I/O section or contact factory regarding any special module I/O configuration.
CONNECTOR DETAILS AND PINOUTS
I/O Connectors (J1 to J6) and SLOT Designations
Connectors J1 to J6 route all the I/O from the six OpenVPX boards within the SIU36. The I/O pins from the boards (user defined, and factory configured) are designated from the 3U board slot locations. The Slot-X P1 and P2 connectors of the OpenVPX cards are routed through the backplane to the SIU36 front panel connector rigid-flex assemblies. The specific I/O pin-out information for the J1 to J6 is defined by the configuration of the OpenVPX boards and function modules fitted to the OpenVPX boards.
Jx Designation |
SIU34 Connector MFG. P/N (or equivalent) |
Board # |
NAI Conn P/N |
J1 |
TVP02RF-23-151S(S2AD) |
Slot-1 |
05-0473-COM |
J2 |
TVP02RF-23-151SA(S2AD) |
Slot-2 |
05-0468-COM |
J3 |
TVP02RF-23-151SD(S2AD) |
Slot-3 |
05-0471-COM |
J4 |
TVP02RF-23-151SB(S2AD) |
Slot-4 |
05-0469-COM |
J5 |
TVP02RF-23-151SE(S2AD) |
Slot-5 |
05-0472-COM |
J6 |
TVP02RF-23-151SC(S2AD) |
Slot-6 |
05-0470-COM |
(J7) |
(D38999/20FB35PN) |
[ PSU (Slot-5) ] |
(05-0509-COM) |
Figure 7. SIU36 Slot and Connector Association Details
Mating Connector Information
Mating Connector Kit; NAI P/N: SIU36-CONN-KIT
Available as an optional separate line item. The mating connector kit includes 1 each (or equivalent):
J1 Mate |
NAI P/N: 05-0480-COM |
HD38999 Type III / TV06RF23-151PN / EN, 151-pin, N-Key |
|
J2 Mate |
NAI P/N : 05-0475-COM |
HD38999 Type III / TV06RF23-151PA / EN, 151-pin, A-Key |
|
J3 Mate |
NAI P/N : 05-0478-COM |
HD38999 Type III / TV06RF23-151PD / EN, 151-pin, D-Key |
|
J4 Mate |
NAI P/N: 05-0476-COM |
HD38999 Type III / TV06RF23-151PB / EN, 151-pin, B-Key |
|
J5 Mate |
NAI P/N : 05-0479-COM |
HD38999 Type III / TV06RF23-151PE / EN, 151-pin, E-Key |
|
J6 Mate |
NAI P/N: 05-0477-COM |
HD38999 Type III / TV06RF23-151PC / EN, 151-pin, C-Key |
|
J5 Mate |
NAI P/N : 05-0289-COM |
D38999/26WB35SN / OD, 13-pin, N-Key |
POWER-UP AND BASIC OPERATIONS
Panel LEDs & Functions
Front Panel Power & Status LED Indicators
Figure 8. SIU36 Status LEDs Location
LED |
STATUS / FUNCTION |
|
ILLUMINATED |
EXTINGUISHED |
|
POWER GRN |
Blinking: Initializing Steady On: Power-On/Ready |
Power-off |
* STATUS RED |
Module BIT (Attention required) |
No Module BIT Attention Required |
*Status LED operations: Unless otherwise specified, default Status LED operations is controlled by the Slot-1 SBC/Root Complex card over the internal I2C communications link and functionally defined by the customer applied software application.
Elapsed Time Counter (ETC)
Integrated within the SIU36 backplane is an Elapsed Time Counter (ETC) IC, which records the accumulated time that the elapsed time recorder’s Event pin has been held high (in 250 ms increments). The ETC is stored on the chip from registers 0x0A-0x0D and read by the Slot-1 SBC/Root Complex card over the internal I2C communications link (the register is 0x6B).
Basic Operations
The SIU36 is delivered as a tested unit. All pins and operation have been verified. It is recommended that Power and Ethernet connections be made to verify operation of the boards fitted within the SIU36 by making use of NAI’s Embedded Soft Panel based GUI sample application that can be utilized as a board level “exercising” tool (if the SIU36 card configuration supports). The example process below describes the use of NAI’s Ethernet communications software tool.
After applying appropriate power to the SIU36, connect a host computer (laptop or similar running Windows XX (or Linux), to the appropriate Ethernet enabled/configured board (configured/populated in slot 1) Port A or Port B. The selection of Ethernet Port A or B is dependent on Slot-1 OpenVPX board configuration.
Note
|
Ethernet port assignments, MAC address, and factory default IP address are indicated on the chassis label. |
For detailed supplement, please visit the NAI web-site specific product page(s).
QUALIFICATION
The SIU36 has been designed to meet the following general specifications. Cooling type, size, weight, power and environmental characteristics may affect the program requirements and the specifications as applied. Contact factory for the SIU36 Qualification Test status.
Environmental
Environmental MIL-STD-810 (1) (unless otherwise specified) |
||||||
No. |
Description |
Procedure |
Cycles |
Table |
Figure |
Comments |
514 |
Random Vibe |
Method 514.6, 0.1g2/Hz from 100 to 1K Hz., -3dB octave 5-100 Hz and -6dB 1K-2K Hz,(operational) |
||||
514 |
Sinusoidal Vibe |
TBD |
||||
501 |
Temp (High) |
3 |
3 periods (@ 4 hrs. ea.) within 24 hrs. cycle at 71 ºC baseplate |
|||
502 |
Temp (Low) |
1 |
3 periods (@ 4 hrs. ea.) within 24 hrs. cycle at -40 ºC baseplate |
|||
503 |
Temp (Shock) |
3 |
3 x 1 hr. each hot & cold cycle |
|||
507 |
Humidity |
II |
10 |
507.5-7 |
507.5-IX |
Cyclic high humidity (Cycle B2) |
500 |
Altitude (50K) |
II |
1 |
n/a |
n/a |
10m/s to 50,000ft for 1 hr. |
513 |
Acceleration |
II |
1 |
513.6-II |
n/a |
Carrier-based Aircraft (18g’s max) |
516 |
Shock - Operating |
I |
3 |
516.6-I |
n/a |
40g’s, 1 min each x 6 axis |
516 |
Shock - Crash |
V |
3 |
516.6-I |
n/a |
75g’s, 1 min each x 6 axis |
Ingress Protection IEC 60529 (1, 2) |
||||||
No. |
Description |
Procedure |
Cycles |
Table |
Figure |
Comments |
IP54 |
Dust Protection |
(other – pending characterization / contact factory) |
||||
IP54 |
Water Splashing |
(other – pending characterization / contact factory) |
||||
IP65 |
Dust Tight |
(other – pending characterization / contact factory) |
||||
IP65 |
Water Jets |
(other – pending characterization / contact factory) |
EMI/EMC Specifications
EMC / MIL-STD-461 (1, 2) *(unless otherwise specified) |
||
MIL-STD-461F |
Method/Curve/Procedure |
Comments |
CE102 |
Conducted, Emissions, Power Leads, 10K - 10M Hz |
|
CS101 |
Conducted, Susceptibility, Power Leads, 30 - 150K Hz |
|
CS106 |
Conducted, Susceptibility, Power Leads |
|
CS114 |
Conducted, Susceptibility, Power Leads, 10K - 10M Hz |
|
CS115 |
Conducted, Susceptibility, Bulk Injection |
|
CS116 |
Conducted, Susceptibility, SIN Transient 10K - 100M Hz |
|
RE101 |
Radiated, Emissions, Magnetic Field, 30 - 100K Hz |
|
RE102 |
Radiated, Emissions, Electric Field, 10K - 1.25G Hz |
|
RS101 |
Radiated, Susceptibility, Magnetic Field, 30 - 100K Hz |
|
RS103 |
Radiated, Susceptibility, Electric Field, 2M - 18G Hz |
Notes:
*1 - Designed to meet / Generic Test Reports Available
*2 - Utilizing proper shielded cables and system grounding practices
HEAT DISSIPATION
The SIU36 is capable of dissipating up to a total of 150 Watts when properly mounted. Generally, the conduction cooled version thermal interface or the air/convection cooled version chassis must be maintained at a temperature not to exceed 71°C. Other operating and environmental factors and variable must be considered when specifying for a higher-level system platform integration. The total SIU36 power dissipation is dependent on the configuration of the OpenVPX boards and power supply fitted in the SIU36.
RELIABILITY
The reliability of the SIU36 is dependent on the configuration of the OpenVPX boards and power supply fitted within it. The Mean Time between Failures listed below is for the SIU36 configured with chassis, backplane, EMI Filter and connectors.
MTBF
The Mean Time between Failures is configuration, environment and temperature dependent. Please contact factory regarding calculations based on the specific configuration and program requirements.
REF |
Description |
Calculation Model |
MTBF* (hours) |
Environment |
Temp (°C) |
SIU36 - BP/FLT |
SIU36 Chassis/backplane/filter assembly |
MIL-HDBK-217FN2 and ANSI/VITA 51.0 & 51.1-2008. RELIABILITY PREDICTION SUBSIDIARY SPECIFICATION |
657,336 |
AIC |
55 |
516,765 |
NS |
40 |
322,651 |
GM |
41 |
*Calculation estimate only (to be validated)
SIGNAL PIN-OUTS
The following pinouts provides a general use guideline as an example, only. Pinout routing will be dependent on card type/configuration for optimal I/O usage. Consult NAI factory for assistance in determining specific configuration signal definitions as applicable.
Pin-Out / General / I/O Connector (Slot 1)
The following pinout is an example of a SIU36 Slot-1 populated with a 68PPC2 SBC fitted with an EM1, high-speed I/O 2-port Ethernet NIC and a CM5, combination 2-Channel dual redundant MIL-STD-1553 and 8-Channel ARINC 429 communications function modules.
J1 D38999 Connector |
68PPC2 (as configured) |
BP Pin |
BP Signal Name |
MOD-1 / EM1 |
MOD-2 / CM5 |
Signal Description |
1 |
TX2-TP2P |
J1-A13 |
TX2-TP2P |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
||
2 |
TX2-TP2N |
J1-B13 |
TX2-TP2N |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
||
3 |
TX2-TP3P |
J1-E13 |
TX2-TP3P |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
||
4 |
TX2-TP3N |
J1-F13 |
TX2-TP3N |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair |
||
5 |
TX1-TP3P |
J1-G14 |
TX1-TP3P |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
||
6 |
TX1-TP3N |
J1-H14 |
TX1-TP3N |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
||
7 |
MOD2-DATIO06 |
J2-B11 |
MOD2-DATIO06 |
CH1-RT-ADDR3/ANN1 |
MIL-STD-1553, Discrete RT Addressing, GND/OPEN |
|
8 |
MOD2-DATIO11 |
J2-G12 |
MOD2-DATIO1 |
1 |
CH1-STANDARD/BNP1 |
MIL-STD-1553, Discrete Special Mode Select, GND/OPEN |
9 |
MOD2-DATIO12 |
J2-H12 |
MOD2-DATIO12 |
CH1-MODE0/BNN1 |
MIL-STD-1553, Discrete Special Mode Select, GND/OPEN |
|
10 |
USB3_SSRXP_DN1 |
J1-G12 |
USB3_SSRXP_DN1 |
LV-Differential, ~ 600 mV, pk-pk |
||
11 |
USB3_SSRXN_DN1 |
J1-H12 |
USB3_SSRXN_DN |
1 |
LV-Differential, ~ 600 mV, pk-pk |
|
12 |
MOD2-DATIO04 |
J2-H10 |
MOD2-DATIO04 |
BUSBN-CH1 |
MIL-STD-1553, BUS, 24Vp-p (typ) |
|
13 |
MOD2-DATIO03 |
J2-G10 |
MOD2-DATIO03 |
BUSBP-CH1 |
MIL-STD-1553, BUS, 24Vp-p (typ) |
|
14 |
TTL-CH1 |
J2-I01 |
P2-G1 |
TTL, 0-5V, GND REF |
||
15 |
TTL-CH2 |
J2-I03 |
P2-G3 |
TTL, 0-5V, GND REF |
||
16 |
MOD2-DATIO05 |
J2-A11 |
MOD2-DATIO05 |
CH1-RT-ADDR2/ANP1 |
MIL-STD-1553, Discrete RT Addressing, GND/OPEN |
|
17 |
+5V-USB3_2 |
J1-G10 |
+5V-USB3_2 |
5V, 0.5A max (pending) |
||
18 |
GND |
GND |
GND Reference (signal/system GND) |
|||
19 |
SER-GND2 |
J1-I13 |
SER-GND2 |
GND Reference (signal/system GND) |
||
20 |
USB3_SSRXP_DN2 |
J1-E09 |
USB3_SSRXP_DN2 |
LV-Differential, ~ 600 mV, pk-pk |
||
21 |
USB3_SSRXN_DN2 |
J1-F09 |
USB3_SSRXN_DN2 |
LV-Differential, ~ 600 mV, pk-pk |
||
22 |
TTL-CH4 |
J2-I07 |
P2-G7 |
TTL, 0-5V, GND REF |
||
23 |
TTL-CH3 |
J2-I05 |
P2-G5 |
TTL, 0-5V, GND REF |
||
24 |
MOD2-DATIO16 |
J2-F13 |
MOD2-DATIO16 |
AR429-B-CH02 |
±10V, Bipolar, Return-to-Zero (RZ) |
|
25 |
MOD2-DATIO15 |
J2-E13 |
MOD2-DATIO15 |
AR429-A-CH02 |
±10V, Bipolar, Return-to-Zero (RZ) |
|
26 |
N/C |
n/c |
||||
27 |
N/C |
n/c |
||||
28 |
USB3-2_GND |
J1-H10 |
USB3-2_GND |
GND Reference (signal/system GND) |
||
29 |
N/C |
n/c |
||||
30 |
N/C |
n/c |
||||
31 |
(high speed) |
J2-E05 |
MOD1-ETH3-TP0P |
Shield |
Shield drain, cable, GbE (EM1) |
|
32 |
(high speed) |
J2-F05 |
MOD1-ETH3-TP0N |
(n/c) |
N/A |
|
33 |
+5V-USB3_1 |
J1-E11 |
+5V-USB3_1 |
5V, 0.5A max (pending) |
||
34 |
USB3-1_GND |
J1-F11 |
USB3-1_GND |
GND Reference (signal/system GND) |
||
35 |
MOD2-DATIO28 |
J2-H16 |
MOD2-DATIO28 |
CH1-RT-PARITY/BPN1 |
MIL-STD-1553, Discrete RT Addressing, GND/OPEN |
|
36 |
MOD2-DATIO27 |
J2-G16 |
MOD2-DATIO27 |
CH1-RT-ADDR4/BPP1 |
MIL-STD-1553, Discrete RT Addressing, GND/OPEN |
|
37 |
N/C |
n/c |
||||
38 |
N/C |
n/c |
||||
39 |
N/C |
n/c |
||||
40 |
MOD2-DATIO31 |
J2-I11 |
MOD2-DATIO31 |
AR429-A-CH07 |
±10V, Bipolar, Return-to-Zero (RZ) |
|
41 |
MOD2-DATIO23 |
J2-E15 |
MOD2-DATIO23 |
AR429-A-CH08 |
±10V, Bipolar, Return-to-Zero (RZ) |
|
42 |
MOD2-DATIO24 |
J2-F15 |
MOD2-DATIO24 |
AR429-B-CH08 |
±10V, Bipolar, Return-to-Zero (RZ) |
|
43 |
(high speed) |
J2-H04 |
MOD1-ETH3-TP2N |
(n/c) |
N/A |
|
44 |
(high speed) |
J2-G04 |
MOD1-ETH3-TP2P |
(n/c) |
N/A |
|
45 |
MOD2-DATIO18 |
J2-D14 |
MOD2-DATIO18 |
AR429-B-CH04 |
±10V, Bipolar, Return-to-Zero (RZ) |
|
46 |
MOD2-DATIO17 |
J2-C14 |
MOD2-DATIO17 |
AR429-A-CH04 |
±10V, Bipolar, Return-to-Zero (RZ) |
|
47 |
MOD2-DATIO19 |
J2-G14 |
MOD2-DATIO19 |
AR429-A-CH05 |
±10V, Bipolar, Return-to-Zero (RZ) |
|
48 |
MOD2-DATIO20 |
J2-H14 |
MOD2-DATIO20 |
AR429-B-CH05 |
±10V, Bipolar, Return-to-Zero (RZ) |
|
49 |
GND |
GND |
GND Reference (signal/system GND) |
|||
50 |
N/C |
n/c |
||||
51 |
N/C |
n/c |
||||
52 |
MOD2-DATIO32 |
J2-I09 |
MOD2-DATIO32 |
AR429-B-CH07 ±10V, Bipolar, |
Return-to-Zero (RZ) |
|
53 |
(high speed) |
J2-F09 |
MOD1-DATIO02 |
EM1-ETH2-TP0- |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
|
54 |
(high speed) |
J2-E09 |
MOD1-DATIO01 |
EM1-ETH2-TP0+ |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
|
55 |
GND |
GND |
GND Reference (signal/system GND) |
|||
56 |
(high speed) |
J2-F03 |
MOD1-ETH4-TP0N |
(n/c) |
N/A |
|
57 |
(high speed) |
J2-E03 |
MOD1-ETH4-TP0P |
(n/c) |
N/A |
|
58 |
USB3_2N |
J1-D10 |
USB3_2N |
LV-Differential, ~ 600 mV, pk-pk |
||
59 |
USB3_2P |
J1-C10 |
USB3_2P |
LV-Differential, ~ 600 mV, pk-pk |
||
60 |
MOD2-DATIO26 |
J2-D16 |
MOD2-DATIO26 |
CH1-RT-ADDR1/APN1 |
MIL-STD-1553, Discrete RT Addressing, GND/OPEN |
|
61 |
MOD2-DATIO25 |
J2-C16 |
MOD2-DATIO25 |
CH1-RT-ADDR0/APP1 |
MIL-STD-1553, Discrete RT Addressing, GND/OPEN |
|
62 |
N/C |
n/c |
||||
63 |
N/C |
n/c |
||||
64 |
N/C |
n/c |
||||
65 |
GND |
GND |
GND Reference (signal/system GND) |
|||
66 |
N/C |
n/c |
||||
67 |
N/C |
n/c |
||||
68 |
(high speed) |
J2-H02 |
MOD1-ETH4-TP2N |
(n/c) |
N/A |
|
69 |
(high speed) |
J2-G02 |
MOD1-ETH4-TP2P |
(n/c) |
N/A |
|
70 |
USB3_SSTXN_DN1 |
J1-D12 |
USB3_SSTXN_DN1 |
LV-Differential, ~ 600 mV, pk-pk |
||
71 |
USB3_SSTXP_DN1 |
J1-C12 |
USB3_SSTXP_DN1 |
LV-Differential, ~ 600 mV, pk-pk |
||
72 |
MOD2-DATIO13 |
J2-A13 |
MOD2-DATIO13 |
AR429-A-CH01 |
±10V, Bipolar, Return-to-Zero (RZ) |
|
73 |
MOD2-DATIO09 |
J2-C12 |
MOD2-DATIO09 |
BUSBP-CH2 |
MIL-STD-1553, BUS, 24Vp-p (typ) |
|
74 |
MOD2-DATIO10 |
J2-D12 |
MOD2-DATIO10 |
BUSBN-CH2 |
MIL-STD-1553, BUS, 24Vp-p (typ) |
|
75 |
N/C |
n/c |
||||
76 |
N/C |
n/c |
||||
77 |
NVMRO |
J1-I01 |
N/C (P1-Res_Bus_SE) |
NVMRO (Write_Enable#), Open/GND |
||
78 |
N/C |
n/c |
||||
79 |
GND |
GND |
GND Reference (signal/system GND) |
|||
80 |
N/C |
n/c |
||||
81 |
BKPLN-SATA-TXP |
J2-E01 |
BKPLN-SATA-TXP |
LVDS, ~ 250 mV, pk-pk (pending) |
||
82 |
BKPLN-SATA-TXN |
J2-F01 |
BKPLN-SATA-TXN |
LVDS, ~ 250 mV, pk-pk (pending) |
||
83 |
USB3_SSTXN_DN2 |
J1-B09 |
USB3_SSTXN_DN2 |
LV-Differential, ~ 600 mV, pk-pk |
||
84 |
USB3_SSTXP_DN2 |
J1-A09 |
USB3_SSTXP_DN2 |
LV-Differential, ~ 600 mV, pk-pk |
||
85 |
MOD2-DATIO14 |
J2-B13 |
MOD2-DATIO14 |
AR429-B-CH01 |
±10V, Bipolar Return-to-Zero (RZ) |
|
86 |
GND |
GND |
GND Reference (signal/system GND) |
|||
87 |
N/C |
n/c |
||||
88 |
N/C |
n/c |
||||
89 |
N/C |
n/c |
||||
90 |
N/C |
n/c |
||||
91 |
N/C |
n/c |
||||
92 |
N/C |
n/c |
||||
93 |
N/C |
n/c |
||||
94 |
(high speed) |
J2-A07 |
MOD1-DATIO11 |
EM1-ETH1-TP1+ |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
|
95 |
USB3_1N |
J1-B11 |
USB3_1N |
LV-Differential, ~ 600 mV, pk-pk |
||
96 |
USB3_1P |
J1-A11 |
USB3_1P |
LV-Differential, ~ 600 mV, pk-pk |
||
97 |
MOD2-DATIO21 |
J2-A15 |
MOD2-DATIO21 |
AR429-A-CH06 |
±10V, Bipolar, Return-to-Zero (RZ) |
|
98 |
MOD2-DATIO22 |
J2-B15 |
MOD2-DATIO22 |
AR429-B-CH06 |
±10V, Bipolar, Return-to-Zero (RZ) |
|
99 |
N/C |
n/c |
||||
100 |
N/C |
n/c |
||||
101 |
N/C |
n/c |
||||
102 |
N/C |
n/c |
||||
103 |
(high speed) |
J2-D08 |
MOD1-DATIO08 |
EM1-ETH2-TP3- |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
|
104 |
(high speed) |
J2-C08 |
MOD1-DATIO07 |
EM1-ETH2-TP3+ |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
|
105 |
MOD2-DATIO02 |
J2-D10 |
MOD2-DATIO02 |
BUSAN-CH1 |
MIL-STD-1553, BUS, 24Vp-p (typ) |
|
106 |
MOD2-DATIO01 |
J2-C10 |
MOD2-DATIO01 |
BUSAP-CH1 |
MIL-STD-1553, BUS, 24Vp-p (typ) |
|
107 |
(high speed) |
J2-B07 |
MOD1-DATIO12 |
EM1-ETH1-TP1- |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
|
108 |
TX1-TP2N |
J1-D14 |
TX1-TP2N |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
||
109 |
TX1-TP2P |
J1-C14 |
TX1-TP2P |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
||
110 |
(high speed) |
J2-B09 |
MOD1-DATIO04 |
EM1-ETH2-TP1- |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
|
111 |
(high speed) |
J2-A09 |
MOD1-DATIO03 |
EM1-ETH2-TP1+ |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
|
112 |
(high speed) |
J2-C06 |
MOD1-DATIO15 |
EM1-ETH1-TP3+ |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
|
113 |
(high speed) |
J2-D06 |
MOD1-DATIO16 |
EM1-ETH1-TP3- |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
|
114 |
N/C |
n/c |
||||
115 |
MOD2-DATIO29 |
J2-I15 |
MOD2-DATIO29 |
AR429-A-CH03 |
±10V, Bipolar, Return-to-Zero (RZ) |
|
116 |
MOD2-DATIO30 |
J2-I13 |
MOD2-DATIO30 |
AR429-B-CH03 |
±10V, Bipolar, Return-to-Zero (RZ) |
|
117 |
N/C |
n/c |
||||
118 |
(high speed) |
J2-A05 |
MOD1-ETH3-TP1P |
(n/c) |
N/A |
|
119 |
(high speed) |
J2-B05 |
MOD1-ETH3-TP1N |
(n/c) |
N/A |
|
120 |
TX2-TP0N |
J1-B15 |
TX2-TP0N |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
||
121 |
TX2-TP0P |
J1-A15 |
TX2-TP0P |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
||
122 |
(high speed) |
J2-E07 |
MOD1-DATIO09 |
EM1-ETH1-TP0+ |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
|
123 |
(high speed) |
J2-F07 |
MOD1-DATIO10 |
EM1-ETH1-TP0- |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
|
124 |
(high speed) |
J2-G08 |
MOD1-DATIO05 |
EM1-ETH2-TP2+ |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
|
125 |
(high speed) |
J2-H08 |
MOD1-DATIO06 |
EM1-ETH2-TP2- |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
|
126 |
MRSTn |
J1-I15 |
MRSTn |
(+)3.3/GND signal typ. |
||
127 |
RTC_STDBY |
J1-I03 |
RTC_STDBY |
(+)3.3V typ. (external sourced) |
||
128 |
N/C |
n/c |
||||
129 |
(high speed) |
J2-C04 |
MOD1-ETH3-TP3P |
(n/c) |
N/A |
|
130 |
high speed) |
J2-D04 |
MOD1-ETH3-TP3N |
(n/c) |
N/A |
|
131 |
TX1-TP0N |
J1-D16 |
TX1-TP0N |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
||
132 |
TX1-TP0P |
J1-C16 |
TX1-TP0P |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
||
133 |
(high speed) |
J2-G06 |
MOD1-DATIO13 |
EM1-ETH1-TP2+ |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
|
134 |
(high speed) |
J2-H06 |
MOD1-DATIO14 |
EM1-ETH1-TP2- |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
|
135 |
MOD2-DATIO07 |
J2-E11 |
MOD2-DATIO07 |
BUSAP-CH2 |
MIL-STD-1553, BUS, 24Vp-p (typ) |
|
136 |
GND |
GND |
GND Reference (signal/system GND) |
|||
137 |
N/C |
n/c |
||||
138 |
N/C |
n/c |
||||
139 |
TX1-TP1N |
J1-H16 |
TX1-TP1N |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
||
140 |
TX1-TP1P |
J1-G16 |
TX1-TP1P |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
||
141 |
BP-SATA-RXN |
J2-B01 |
BP-SATA-RXN |
LVDS, ~ 250 mV, pk-pk (pending) |
||
142 |
BP-SATA-RXP |
J2-A01 |
BP-SATA-RXP |
LVDS, ~ 250 mV, pk-pk (pending) |
||
143 |
MOD2-DATIO08 |
J2-F11 |
MOD2-DATIO08 |
BUSAN-CH2 |
MIL-STD-1553, BUS, 24Vp-p (typ) |
|
144 |
SER-TXD1 |
J1-I11 |
SER-TXD1 |
RS-232 signal, (+/-12V) typ. |
||
145 |
SER-RXD1 |
J1-I09 |
SER-RXD1 |
RS-232 signal, (+/-12V) typ. |
||
146 |
TX2-TP1N |
J1-F15 |
TX2-TP1N |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
||
147 |
TX2-TP1P |
J1-E15 |
TX2-TP1P |
10/100/1000BASE-T, ± 2.5V typ. (over twisted pair) |
||
148 |
(high speed) |
J2-C02 |
MOD1-ETH4-TP3P |
(n/c) |
N/A |
|
149 |
(high speed) |
J2-D02 |
MOD1-ETH4-TP3N |
(n/c) |
N/A |
|
150 |
(high speed) |
J2-A03 |
MOD1-ETH4-TP1P |
(n/c) |
N/A |
|
151 |
(high speed) |
J2-B03 |
MOD1-ETH4-TP1N |
(n/c) |
N/A |
Pin-Out / General / I/O Connector (Slot 2-6)
The following pinout is an example of a SIU36 Slot-2 through Slot-6 (SX) populated with a 68G5. Please contact NAI for assistance/consult in generating a configuration specific pinout.
J2-J6 D38999 Connector |
68G5 - default |
68G5 Pin |
Backplane (BP) Pin |
BP Signal Name |
Signal Description |
1 |
N/C (ETH2-TXP) |
P1-D11 |
J1-E11 |
SX-ETH2-TXP |
N/C |
2 |
N/C (ETH2-TXN) |
P1-E11 |
J1-F11 |
SX-ETH2-TXN |
N/C |
3 |
N/C (ETH1-RXP) |
P1-B12 |
J1-C12 |
SX-ETH1-RXP |
N/C |
4 |
N/C (ETH1-RXN) |
P1-C12 |
J1-D12 |
SX-ETH1-RXN |
N/C |
5 |
N/C (ETH2-RXP) |
P1-A11 |
J1-A11 |
SX-ETH2-RXP |
N/C |
6 |
N/C (ETH2-RXN) |
P1-B11 |
J1-B11 |
SX-ETH2-RXN |
N/C |
7 |
MOD3-DATIO20 |
P2-F12 |
J2-H12 |
SX-M3-D20 |
Configuration/Function Specific |
8 |
MOD3-DATIO07 |
P2-D15 |
J2-E15 |
SX-M3-D07 |
Configuration/Function Specific |
9 |
MOD3-DATIO08 |
P2-E15 |
J2-F15 |
SX-M3-D08 |
Configuration/Function Specific |
10 |
N/C (ETH1-TXP) |
P1-E12 |
J1-G12 |
SX-ETH1-TXP |
N/C |
11 |
N/C (ETH1-TXN) |
P1-F12 |
J1-H12 |
SX-ETH1-TXN |
N/C |
12 |
ETH2-TP1P |
P1-D13 |
J1-E13 |
SX-ETH2-TP1P |
N/C |
13 |
ETH2-TP1N |
P1-E13 |
J1-F13 |
SX-ETH2-TP1N |
N/C |
14 |
MOD1-DATIO37 |
P2-G01 |
J2-I01 |
SX-M1-D37 |
Configuration/Function Specific |
15 |
MOD1-DATIO38 |
P2-G03 |
J2-I03 |
SX-M1-D38 |
Configuration/Function Specific |
16 |
MOD3-DATIO19 |
P2-E12 |
J2-G12 |
SX-M3-D19 |
Configuration/Function Specific |
17 |
MOD1-DATIO03 |
P1-E10 |
J1-G10 |
SX-M1-D03 |
Configuration/Function Specific |
18 |
GND |
GND |
GND Reference (signal/system GND) |
||
19 |
SER-GND |
P1-G13 |
J1-I13 |
SX-SER-GND |
(N/A, RS232 Debug, if configured) |
20 |
SER-RXD |
P1-G09 |
J1-I09 |
SX-SER-RXD |
(N/A, RS232 Debug, if configured) |
21 |
SER-TXD |
P1-G11 |
J1-I11 |
SX-SER-TXD |
(N/A, RS232 Debug, if configured) |
22 |
ETH2-TP0+ |
P1-A13 |
J1-A13 |
SX-ETH2-TP0P |
N/C |
23 |
ETH2-TP0- |
P1-B13 |
J1-B13 |
SX-ETH2-TP0N |
N/C |
24 |
MOD3-DATIO27 |
P2-E10 |
J2-G10 |
SX-M3-D27 |
Configuration/Function Specific |
25 |
MOD3-DATIO28 |
P2-F10 |
J2-H10 |
SX-M3-D28 |
Configuration/Function Specific |
26 |
MOD1-DATIO40 |
P2-G07 |
J2-I07 |
SX-M1-D40 |
Configuration/Function Specific |
27 |
MOD2-DATIO19 |
P2-E04 |
J2-G04 |
SX-M2-D19 |
Configuration/Function Specific |
28 |
MOD1-DATIO04 |
P1-F10 |
J1-H10 |
SX-M1-D04 |
Configuration/Function Specific |
29 |
MOD3-DATIO02 |
P2-C16 |
J2-D16 |
SX-M3-D02 |
Configuration/Function Specific |
30 |
MOD3-DATIO01 |
P2-B16 |
J2-C16 |
SX-M3-D01 |
Configuration/Function Specific |
31 |
MOD3-DATIO18 |
P2-C12 |
J2-D12 |
SX-M3-D18 |
Configuration/Function Specific |
32 |
MOD3-DATIO17 |
P2-B12 |
J2-C12 |
SX-M3-D17 |
Configuration/Function Specific |
33 |
ETH2-TP3P |
P1-E14 |
J1-G14 |
SX-ETH2-TP3P |
N/C |
34 |
ETH2-TP3N |
P1-F14 |
J1-H14 |
SX-ETH2-TP3N |
N/C |
35 |
MOD3-DATIO15 |
P2-D13 |
J2-E13 |
SX-M3-D15 |
Configuration/Function Specific |
36 |
MOD3-DATIO16 |
P2-E13 |
J2-F13 |
SX-M3-D16 |
Configuration/Function Specific |
37 |
MOD1-DATIO39 |
P2-G05 |
J2-I05 |
SX-M1-D39 |
Configuration/Function Specific |
38 |
MOD2-DATIO20 |
P2-F04 |
J2-H04 |
SX-M2-D20 |
Configuration/Function Specific |
39 |
MOD2-DATIO10 |
P2-C06 |
J2-D06 |
SX-M2-D10 |
Configuration/Function Specific |
40 |
MOD1-DATIO07 |
P1-D09 |
J1-E09 |
SX-M1-D07 |
Configuration/Function Specific |
41 |
MOD3-DATIO22 |
P2-B11 |
J2-B11 |
SX-M3-D22 |
Configuration/Function Specific |
42 |
MOD3-DATIO21 |
P2-A11 |
J2-A11 |
SX-M3-D21 |
Configuration/Function Specific |
43 |
MOD1-DATIO12 |
P1-F08 |
J1-H08 |
SX-M1-D12 |
Configuration/Function Specific |
44 |
MOD1-DATIO11 |
P1-E08 |
J1-G08 |
SX-M1-D11 |
Configuration/Function Specific |
45 |
ETH2-TP2P |
P1-B14 |
J1-C14 |
SX-ETH2-TP2P |
N/C |
46 |
ETH2-TP2N |
P1-C14 |
J1-D14 |
SX-ETH2-TP2N |
N/C |
47 |
MOD3-DATIO25 |
P2-B10 |
J2-C10 |
SX-M3-D25 |
Configuration/Function Specific |
48 |
MOD3-DATIO26 |
P2-C10 |
J2-D10 |
SX-M3-D26 |
Configuration/Function Specific |
49 |
GND |
GND |
GND Reference (signal/system GND) |
||
50 |
MOD2-DATIO03 |
P2-E08 |
J2-G08 |
SX-M2-D03 |
Configuration/Function Specific |
51 |
MOD2-DATIO09 |
P2-B06 |
J2-C06 |
SX-M2-D09 |
Configuration/Function Specific |
52 |
MOD1-DATIO08 |
P1-E09 |
J1-F09 |
SX-M1-D08 |
Configuration/Function Specific |
53 |
MOD3-DATIO32 |
P2-E09 |
J2-F09 |
SX-M3-D32 |
Configuration/Function Specific |
54 |
MOD3-DATIO31 |
P2-D09 |
J2-E09 |
SX-M3-D31 |
Configuration/Function Specific |
55 |
GND |
GND |
GND Reference (signal/system GND) |
||
56 |
MOD1-DATIO24 |
P1-E05 |
J1-F05 |
SX-M1-D24 |
Configuration/Function Specific |
57 |
MOD1-DATIO23 |
P1-D05 |
J1-E05 |
SX-M1-D23 |
Configuration/Function Specific |
58 |
MOD3-DATIO05 |
P2-A15 |
J2-A15 |
SX-M3-D05 |
Configuration/Function Specific |
59 |
MOD3-DATIO06 |
P2-B15 |
J2-B15 |
SX-M3-D06 |
Configuration/Function Specific |
60 |
MOD2-DATIO28 |
P2-F02 |
J2-H02 |
SX-M2-D28 |
Configuration/Function Specific |
61 |
MOD2-DATIO27 |
P2-E02 |
J2-G02 |
SX-M2-D27 |
Configuration/Function Specific |
62 |
MOD2-DATIO04 |
P2-F08 |
J2-H08 |
SX-M2-D04 |
Configuration/Function Specific |
63 |
N/C |
n/c |
|||
64 |
N/C |
n/c |
|||
65 |
GND |
GND |
GND Reference (signal/system GND) |
||
66 |
MOD2-DATIO01 |
P2-B08 |
J2-C08 |
SX-M2-D01 |
Configuration/Function Specific |
67 |
MOD2-DATIO26 |
P2-C02 |
J2-D02 |
SX-M2-D26 |
Configuration/Function Specific |
68 |
MOD1-DATIO06 |
P1-B09 |
J1-B09 |
SX-M1-D06 |
Configuration/Function Specific |
69 |
MOD1-DATIO05 |
P1-A09 |
J1-A09 |
SX-M1-D05 |
Configuration/Function Specific |
70 |
MOD3-DATIO09 |
P2-B14 |
J2-C14 |
SX-M3-D09 |
Configuration/Function Specific |
71 |
MOD3-DATIO10 |
P2-C14 |
J2-D14 |
SX-M3-D10 |
Configuration/Function Specific |
72 |
MOD3-DATIO13 |
P2-A13 |
J2-A13 |
SX-M3-D13 |
Configuration/Function Specific |
73 |
MOD3-DATIO04 |
P2-F16 |
J2-H16 |
SX-M3-D04 |
Configuration/Function Specific |
74 |
MOD3-DATIO03 |
P2-E16 |
J2-G16 |
SX-M3-D03 |
Configuration/Function Specific |
75 |
N/C |
n/c |
|||
76 |
N/C |
n/c |
|||
77 |
N/C |
n/c |
|||
78 |
MOD2-DATIO02 |
P2-C08 |
J2-D08 |
SX-M2-D02 |
Configuration/Function Specific |
79 |
GND |
GND |
GND Reference (signal/system GND) |
||
80 |
MOD2-DATIO25 |
P2-B02 |
J2-C02 |
SX-M2-D25 |
Configuration/Function Specific |
81 |
MOD1-DATIO18 |
P1-C06 |
J1-D06 |
SX-M1-D18 |
Configuration/Function Specific |
82 |
MOD1-DATIO17 |
P1-B06 |
J1-C06 |
SX-M1-D17 |
Configuration/Function Specific |
83 |
MOD3-DATIO23 |
P2-D11 |
J2-E11 |
SX-M3-D23 |
Configuration/Function Specific |
84 |
MOD3-DATIO24 |
P2-E11 |
J2-F11 |
SX-M3-D24 |
Configuration/Function Specific |
85 |
MOD3-DATIO14 |
P2-B13 |
J2-B13 |
SX-M3-D14 |
Configuration/Function Specific |
86 |
GND |
GND |
GND Reference (signal/system GND) |
||
87 |
N/C |
n/c |
|||
88 |
N/C |
n/c |
|||
89 |
MOD1-DATIO02 |
P1-C10 |
J1-D10 |
SX-M1-D02 |
Configuration/Function Specific |
90 |
MOD2-DATIO08 |
P2-E07 |
J2-F07 |
SX-M2-D08 |
Configuration/Function Specific |
91 |
MOD2-DATIO07 |
P2-D07 |
J2-E07 |
SX-M2-D07 |
Configuration/Function Specific |
92 |
MOD3-DATIO30 |
P2-B09 |
J2-B09 |
SX-M3-D30 |
Configuration/Function Specific |
93 |
MOD3-DATIO29 |
P2-A09 |
J2-A09 |
SX-M3-D29 |
Configuration/Function Specific |
94 |
MOD2-DATIO05 |
P2-A07 |
J2-A07 |
SX-M2-D05 |
Configuration/Function Specific |
95 |
MOD2-DATIO17 |
P2-B04 |
J2-C04 |
SX-M2-D17 |
Configuration/Function Specific |
96 |
MOD2-DATIO18 |
P2-C04 |
J2-D04 |
SX-M2-D18 |
Configuration/Function Specific |
97 |
MOD1-DATIO31 |
P1-D03 |
J1-E03 |
SX-M1-D31 |
Configuration/Function Specific |
98 |
MOD1-DATIO27 |
P1-E04 |
J1-G04 |
SX-M1-D27 |
Configuration/Function Specific |
99 |
N/C |
n/c |
|||
100 |
N/C |
n/c |
|||
101 |
MOD1-DATIO01 |
P1-B10 |
J1-C10 |
SX-M1-D01 |
Configuration/Function Specific |
102 |
MOD1-DATIO34 |
P1-C02 |
J1-D02 |
SX-M1-D34 |
Configuration/Function Specific |
103 |
MOD1-DATIO33 |
P1-B02 |
J1-C02 |
SX-M1-D33 |
Configuration/Function Specific |
104 |
MOD2-DATIO16 |
P2-E05 |
J2-F05 |
SX-M2-D16 |
Configuration/Function Specific |
105 |
MOD2-DATIO13 |
P2-A05 |
J2-A05 |
SX-M2-D13 |
Configuration/Function Specific |
106 |
MOD2-DATIO14 |
P2-B05 |
J2-B05 |
SX-M2-D14 |
Configuration/Function Specific |
107 |
MOD2-DATIO06 |
P2-B07 |
J2-B07 |
SX-M2-D06 |
Configuration/Function Specific |
108 |
MOD3-DATIO11 |
P2-E14 |
J2-G14 |
SX-M3-D11 |
Configuration/Function Specific |
109 |
MOD3-DATIO12 |
P2-F14 |
J2-H14 |
SX-M3-D12 |
Configuration/Function Specific |
110 |
MOD1-DATIO32 |
P1-E03 |
J1-F03 |
SX-M1-D32 |
Configuration/Function Specific |
111 |
MOD1-DATIO28 |
P1-F04 |
J1-H04 |
SX-M1-D28 |
Configuration/Function Specific |
112 |
MOD1-DATIO09 |
P1-B08 |
J1-C08 |
SX-M1-D09 |
Configuration/Function Specific |
113 |
MOD1-DATIO14 |
P1-A07 |
J1-A07 |
SX-M1-D14 |
Configuration/Function Specific |
114 |
MOD2-DATIO30 |
P2-B01 |
J2-B01 |
SX-M2-D30 |
Configuration/Function Specific |
115 |
MOD1-DATIO19 |
P1-E06 |
J1-G06 |
SX-M1-D19 |
Configuration/Function Specific |
116 |
MOD2-DATIO22 |
P2-B03 |
J2-B03 |
SX-M2-D22 |
Configuration/Function Specific |
117 |
MOD2-DATIO15 |
P2-D05 |
J2-E05 |
SX-M2-D15 |
Configuration/Function Specific |
118 |
MOD2-DATIO24 |
P2-E03 |
J2-F03 |
SX-M2-D24 |
Configuration/Function Specific |
119 |
N/C (+5V-USB-) |
P2-G13 |
J2-I13 |
+5V-USB-SX |
(N/A) |
120 |
MOD1-DATIO35 |
P1-E02 |
J1-G02 |
SX-M1-D35 |
Configuration/Function Specific |
121 |
MOD1-DATIO36 |
P1-F02 |
J1-H02 |
SX-M1-D36 |
Configuration/Function Specific |
122 |
MOD1-DATIO22 |
P1-A05 |
J1-A05 |
SX-M1-D22 |
Configuration/Function Specific |
123 |
MOD1-DATIO21 |
P1-B05 |
J1-B05 |
SX-M1-D21 |
Configuration/Function Specific |
124 |
MOD1-DATIO10 |
P1-C08 |
J1-D08 |
SX-M1-D10 |
Configuration/Function Specific |
125 |
MOD1-DATIO13 |
P1-B07 |
J1-B07 |
SX-M1-D13 |
Configuration/Function Specific |
126 |
MOD2-DATIO29 |
P2-A01 |
J2-A01 |
SX-M2-D29 |
Configuration/Function Specific |
127 |
MOD1-DATIO20 |
P1-F06 |
J1-H06 |
SX-M1-D20 |
Configuration/Function Specific |
128 |
MOD2-DATIO21 |
P2-A03 |
J2-A03 |
SX-M2-D21 |
Configuration/Function Specific |
129 |
MOD2-DATIO23 |
P2-D03 |
J2-E03 |
SX-M2-D23 |
Configuration/Function Specific |
130 |
N/C (USB-GND-) |
P2-G15 |
J2-I15 |
USB-GND-SX |
(N/A) |
131 |
MOD2-DATIO12 |
P2-F06 |
J2-H06 |
SX-M2-D12 |
Configuration/Function Specific |
132 |
MOD2-DATIO11 |
P2-E06 |
J2-G06 |
SX-M2-D11 |
Configuration/Function Specific |
133 |
MOD1-DATIO25 |
P1-B04 |
J1-C04 |
SX-M1-D25 |
Configuration/Function Specific |
134 |
MOD1-DATIO26 |
P1-C04 |
J1-D04 |
SX-M1-D26 |
Configuration/Function Specific |
135 |
MOD1-DATIO29 |
P1-B03 |
J1-B03 |
SX-M1-D29 |
Configuration/Function Specific |
136 |
GND |
GND |
GND Reference (signal/system GND) |
||
137 |
MOD2-DATIO31 |
P2-D01 |
J2-E01 |
SX-M2-D31 |
Configuration/Function Specific |
138 |
MOD2-DATIO32 |
P2-E01 |
J2-F01 |
SX-M2-D32 |
Configuration/Function Specific |
139 |
N/C (-USB-DP) |
P2-G09 |
J2-I09 |
SX-USB-DP |
(N/A) |
140 |
N/C (-USB-DM) |
P2-G11 |
J2-I11 |
SX-USB-DM |
(N/A) |
141 |
ETH1-TP1N |
P1-E15 |
J1-F15 |
SX-ETH1-TP1N |
(N/A) |
142 |
ETH1-TP1P |
P1-D15 |
J1-E15 |
SX-ETH1-TP1P |
(N/A) |
143 |
MOD1-DATIO30 |
P1-A03 |
J1-A03 |
SX-M1-D30 |
Configuration/Function Specific |
144 |
MOD1-DATIO15 |
P1-D07 |
J1-E07 |
SX-M1-D15 |
Configuration/Function Specific |
145 |
MOD1-DATIO16 |
P1-E07 |
J1-F07 |
SX-M1-D16 |
Configuration/Function Specific |
146 |
ETH1-TP2N |
P1-C16 |
J1-D16 |
SX-ETH1-TP2N |
(N/A) |
147 |
ETH1-TP2P |
P1-B16 |
J1-C16 |
SX-ETH1-TP2P |
(N/A) |
148 |
ETH1-TP0- |
P1-B15 |
J1-B15 |
SX-ETH1-TP0N |
(N/A) |
149 |
ETH1-TP0+ |
P1-A15 |
J1-A15 |
SX-ETH1-TP0P |
(N/A) |
150 |
ETH1-TP3N |
P1-F16 |
J1-H16 |
SX-ETH1-TP3N |
(N/A) |
151 |
ETH1-TP3P |
P1-E16 |
J1-G16 |
SX-ETH1-TP3P |
(N/A) |
General System Functions
PS-ON/OFF#
SIU36 PSU is strapped to be always “ON”. The unit will power-on if external +28V power is applied.
SYSRST#
[GND] or Logic-level “Low” (referenced to internal System GND of the SIU36) initiates/applies an active low assertion to the OpenVPX SYSRST# signal on the cards. Applied and once released, this will effectively introduce a root 'system/card' reset. SYSRST# signal is typically accessed from the SLOT-1 card, J1 MIL-connector.
Note
|
SYSRST# function is dependent on slot 1 card type/configuration; SYSRST# is typically routed to the “MRSTn” reset input of the SBC (root-complex) /Slot-1 card. If/as applicable, the card issues the RSTn signal on the backplane to all other “end-point” cards within the chassis when SYSRST# is asserted. |
PART NUMBER DESIGNATION
Standard Product = SIU36-XXXXX
XXXXX = NAI/Factory assigned unique configuration identifier
Standard Product = SIU36-XXXXX
Chassis Family |
SIU36 |
Chassis Version |
XXXXX |
- Standard 3U OpenVPX 6-slot card version (plus dedicated PSU slot). - Pre-Configured Card, Function, Slot Designation and PSU Definitions*. - Unique product specific configuration code assignment / identifier. Contact factory for other than standard version**. |
Specifications are subject to change without notice.
Notes
*Factory assigned X-digit code will reference the complete SIU configuration information in the NAI Master Code List (MCL) or Part Number Configurator, as assigned and documented at the factory.
SIU mating connector kit part number:
OpenVPX Systems; 4x 151-pin (unique keys) & 1x 13-pin
28 VDC Power: SIU34-CONN-KIT
**If your configuration option is not listed please contact factory at 1-631-567-1100
Revision History
Hardware Manual - SIU36 Revision History
Revision |
Revision Date |
Description |
C |
2022-01-18 |
ECO C09005, Transition manual to docbuilder format. Pg.5, Revised simplified block diagram (updated profiles for Slots 4 & 6) |
C1 |
2023-04-11 |
ECO C10276, pg.5, update weight. Pg.5/10, updated CC height from 5.1 to 5.0. Pg.5/10, updated CC/AC depth from 9.0 to 9.5. Pg.10, changed 'length' to 'width'. Pg.10, updated unpopulated weight (incl. PSU); added fully populated weight. Pg.18, added ETC details. |
C2 |
2023-05-25 |
ECO C10418, pg.5, changed product image to conduction-cooled. |
NAI Cares
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