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Table Of Contents

Cisco 3200 Rugged Enclosures

Cisco 3270 Rugged Enclosure

Cisco 3270 Router Card Stack

Cisco 3230 Rugged Enclosure

Cisco 3230 Router Card Stack

Rugged Enclosure End Caps

Antenna End Cap

I/O End Caps for the Cisco 3200 Rugged Enclosures

Protective End Cap Cover

I/O End Cap Port Signals

Gigabit Ethernet Signal Limitations

Fast Ethernet Signals

Console Port Signals

AUX Port Signals

Cisco 3200 Rugged Enclosure LED Indications

Cisco 3270 Rugged Enclosure I/O End Cap LED Indications

Cisco 3230 Rugged Enclosure I/O End Cap LED Indications

WMIC Console LEDs

Thermal Plates

Mounting Brackets


Cisco 3200 Rugged Enclosures


This chapter provides an overview of the Cisco 3200 Rugged Enclosures so that simple troubleshooting, such as reconnecting a loose cable, can be performed in the field. The chapter is not intended as a complete guide to the chassis, because the devices should be serviced or repaired by a qualified personnel.

The enclosure seals the Cisco 3200 Series router cards so that they can withstand the harsh environments that are common in police cars, military vehicles, trains, airborne vehicles, and outdoor locations that are exposed to the elements.

Cisco 3200 Rugged Enclosure features include:

Symmetrical mounting holes for the mounting brackets, so that the unit can be mounted upside-down if required.

A design that meets NEMA4 requirements (impervious to rain or hose-directed water). The enclosure is slightly rounded on the top and bottom. This provides a non-pooling surface in case the enclosure is exposed to water.

Maximum heat dissipation. Thermally conductive pads and thermal vias around the board perimeter of each card physically contact thermal plates that physically contact the aluminum chassis. This minimizes the overall board thermal rise by transferring heat into the surrounding environment.

The Cisco 3200 Rugged Enclosures are available as:

A fully assembled Cisco 3270 Rugged Enclosure that supports the Cisco 3270 Rugged Router card, up to five mobile interface cards, and one Cisco Mobile Router Power Card (MRPC).

A fully assembled Cisco 3230 Rugged Enclosure that supports the Mobile Access Router Card (MARC), up to five mobile interface cards (MICs), and one MRPC.

Figure 1-1 shows an exploded view of a Cisco 3230 Rugged Enclosure. (The design of the longer
Cisco 3270 Rugged Enclosure is similar.)

Figure 1-1 Exploded View of a Rugged Enclosure

1

I/O end cap1

2

Wiring card

3

Card stack

4

Extrusion (body of the enclosure)

5

Antenna end cap

   

1 This end cap shows four serial ports, but the typical configuration has two serial ports.


The enclosures are sealed by using O-rings between the extrusion and the end caps.

Cisco 3270 Rugged Enclosure

The Cisco 3270 Rugged Enclosure operates in a temperature range from -40 to +165°F (-40 to +74°C) when all ports are copper. If the Cisco 3270 Router includes a fiber-optic port, it operates at a temperature range from -40 to +147°F (-40 to +64°C).

The Cisco 3270 Rugged Enclosure is designed to meet NEMA4 requirements. Figure 1-2 shows an example of a fully assembled Cisco 3270 Rugged Enclosure. Note the greater length to accommodate the Cisco 3270 Rugged Router card and future expansion.

Figure 1-2 Cisco 3270 Rugged Enclosure

Cisco 3270 Router Card Stack

The Cisco 3270 Rugged Enclosure supports the following configurations:

One Cisco 3270 Rugged Router card

Up to three Wireless Mobile Interface Cards (WMICs)

One Serial Mobile Interface Card (SMIC)

One Fast Ethernet Switch Mobile Interface Card (FESMIC)

One Cisco Mobile Router Power Card (MRPC)

A base configuration includes one of each of the following: Cisco 3270 Rugged Router card, SMIC, FESMIC, and MRPC.

In the Cisco 3270 Rugged Enclosure, the cards should be stacked in the order shown in Figure 1-3. The figure includes three optional WMICs. If WMICs are added, the first WMIC should be installed on the bottom of the stack, and the next two WMICs should be installed at the top of the stack.

Figure 1-3 Example of a Cisco 3270 Router Card Stack with Three Optional WMICs

1

WMIC 1

2

MRPC

3

MARC

4

SMIC

5

FESMIC

6

WMIC 2

7

WMIC 3

8

Small-form-factor pluggable (SFP) module

9

Second PCI bus

   

Cisco 3230 Rugged Enclosure

The Cisco 3230 Rugged Enclosure is designed to accommodate the Mobile Access Router Card (MARC). This enclosure operates in a temperature range from -40 to 165°F (-40 to +74°C), and is certified to meet NEMA4 requirements. Figure 1-4 shows an example of a Cisco 3230 Rugged Enclosure.

Figure 1-4 Cisco 3230 Rugged Enclosure

1

Front of the enclosure (I/O end cap)1

2

Back of the enclosure (antenna end cap)

1 This end cap shows four serial ports, but the typical configuration has two serial ports.


Cisco 3230 Router Card Stack

The Cisco 3230 Rugged Enclosure can accommodate up to seven cards, including:

One MARC

Up to three WMICs

One SMIC (or no SMIC)

One FESMIC

One MRPC

A basic configuration includes one of each of the following: MARC, SMIC, FESMIC, WMIC, and MRPC.

In the Cisco 3230 Rugged Enclosure, the cards should be stacked in the order shown in Figure 1-5. The two optional WMICs are on the top of the stack.

Figure 1-5 Cisco 3230 Router Stack

1

WMIC 1

2

MRPC

3

MARC

4

SMIC

5

FESMIC

6

WMIC 2

7

WMIC 3

   

Rugged Enclosure End Caps

Each Cisco 3200 Rugged Enclosure has two end caps: an antenna end cap that connects to the back of the enclosure, and an I/O end cap that connects to the front of the enclosure. The port configurations of the I/O end caps vary, based on the contents of the enclosure. For example, the number and location of antenna ports installed on the antenna end cap depend on how many WMICs are installed in the enclosure.


Note To prevent exposure to the elements, we recommend using the protective port covers (provided) on ports that are not in use and using port covers (provided) on the mating cables.


Antenna End Cap

The antenna end cap has four antenna ports on the flat side and two ports on the top surface. The end cap is used with the Cisco 3270 Rugged Enclosure or the Cisco 3230 Rugged Enclosure. The antenna ports are connector type RP-TNC. Each RP-TNC is connected internally to a WMIC. Typically, two antenna ports are used to support each WMIC. If fewer than three WMICs are installed, the unused antenna connector ports are sealed with a cap to protect them from the environment.

Figure 1-6 Cisco 3200 Rugged Enclosure Antenna End Cap with a Mounting Bracket


Note By default, the Cisco 3205 WMIC uses the right antenna to receive and transmit data.



Note For additional information on antennas and antenna cables, see the "Antenna Basics" technical note at http://www.cisco.com/en/US/products/hw/wireless/ps458/products_installation_guide_chapter09186a008007f74a.html
and the "Antenna Cabling" technical note at http://www.cisco.com/en/US/tech/tk722/tk809/technologies_tech_note09186a00801c12c2.shtml


I/O End Caps for the Cisco 3200 Rugged Enclosures

The I/O end cap has multiple connectors for connecting power and data cables. The end cap configurations shown in this section are fully populated; however, the number of ports and their functions may differ, depending upon the number of WMICs in the system.

End Cap Fast Ethernet and WMIC Console Ports

Internally, five Fast Ethernet ports are available: one routed Fast Ethernet port on the router card and four switched Fast Ethernet ports on the Fast Ethernet Switch Mobile Interface Card (FESMIC). When a WMIC is installed in addition to the router, the WMIC Fast Ethernet port is connected internally to the routed Fast Ethernet port on the router card or is connected to one of the switched Fast Ethernet ports on the FESMIC to provide a communications link with the router. In contrast, the Serial Mobile Interface Card (SMIC) and FESMIC communicate with the router through the bus. All the router Fast Ethernet ports are addressed by using the slot/port format.

In typical configurations, the first WMIC Fast Ethernet port is connected to the routed Fast Ethernet port on the router card. The Fast Ethernet ports of the second and third WMICs are connected to FESMIC switched Fast Ethernet ports. The differences in the types of the router Fast Ethernet ports that the WMICs are connected to affect how they are configured, as, for example, when uploading a Cisco IOS image to a WMIC.

The WMIC runs an independent Cisco IOS image and when you configure the WMIC, the link forms an internal LAN. In standard configurations, the WMIC Fast Ethernet port is never brought out to the end cap.

The WMIC console port is brought out to the corresponding RJ-45 port on the I/O end cap, replacing a Fast Ethernet port. If the router includes one WMIC, the EIA/TIA-232 WMIC console port replaces a Fast Ethernet port on the end cap. If the router includes two WMICs, two WMIC EIA/TIA-232 console ports replace two Fast Ethernet ports on the end cap.


Note At present, even if the router contains no WMICs, in standard configurations the maximum three Fast Ethernet ports are brought out to the end cap. Unused EIA/TIA-232 ports are sealed.


Cisco 3270 Router I/O End Cap

Figure 1-7 shows the Cisco 3270 Router I/O end cap.

Figure 1-7 Cisco 3270 Router End Cap

1

Router console port

2

FE0 port

3

FE1 port

4

FE0X port

5

GE0 (Gigabit Ethernet) port

6

Fiber-Optic port (shown) or Copper Gigabit Ethernet (GE1) port

7

USB0 (bottom) and USB1 (top) ports

8

Ser2 Smart Serial port

9

Power input

10

Ser1 EIA/TIA-232 (DCE) port

11

AUX port

12

Ser0 EIA/TIA-232 (DCE) port

13

FE1X port or WMIC 3 console port1

14

FE2X port or WMIC 2 console port1

15

FE3X port or WMIC 1 console port1

   

1 The configuration of the port is set at the factory and labeled accordingly.


The RJ-45 connectors identified as 8, 9, and 10 are Fast Ethernet ports or WMIC console ports, depending on the configuration of the system. For example, if two WMICs have been added to the router, RJ-45 ports 8 and 9 are labeled WMIC 1 and WMIC 2. Port 10 is labeled FE1X.


Note The connectors are sealed at the factory with captive dust covers (not shown) that seal the ports and protect the pins. The dust covers should be used to seal the ports when the ports are not covered by cable connectors.


Fiber Optic Connector IP-67 Integrity

When the fiber-optic port is not connected or otherwise in use, the protective cover should be used to seal the port. To seal the fiber-optic port when it is connected to a cable, use connectors that maintain IP-67 integrity. The part numbers for the connectors are Tyco 1828618-1 and Tyco 1828618-2.


Caution When connecting fiber-optic cables, observe all standard procedures for safety, and maintain a clean connection.

Power Connector IP-67 Integrity

To seal the Tyco DC Power input power connector and maintain IP-67 integrity, use the following parts:

796094-2-CPC housing

66101-3-contact

207489-1-boot

207490-1-cable (grip size 11)

Smart Serial Port External Seal for System Integrity

When the Smart Serial port is not connected or otherwise in use, the protective cover should be used to seal the port. To seal the Smart Serial port when the port is connected to a cable, complete the steps in Appendix A, "Smart Serial Port External Seal." in the Cisco 3200 Series Router Hardware Reference.

USB Flash Storage Device Caveat

In some cases, using two USB flash storage devices causes unpredictable results (CSCsd11136).

If one USB flash storage device is plugged into a USB port and a second USB flash storage device is plugged into or unplugged from the other port, an error might occur (CSCsd44152). The error message is, "USB_HOST_STACK-6-USB_FLASH_READY_TEST_TIME: USB flash 'Ready' test time over
4 seconds."

If an unsupported USB flash storage device is plugged into a USB port, an error might occur (CSCsd44152). The error message is, "Failed to enumerate a USB device as not able to read the device's description."

To correct the problems, remove any unsupported USB flash storage device and use only one supported device in one of the two USB ports. The Cisco-supported flash storage devices listed below.

Item#
Vendor
Part Number

16-3153-01

SANDISK

SDUJGU0-256-926

16-3153-01

M-SYSTEMS

8U-52E-0256-12A01C

16-3152-01

SANDISK

SDUJGU0-128-926

16-3152-01

M-SYSTEMS

8U-52E-0128-12A01C

16-3151-01

SANDISK

SDUJGU0-64-926

16-3151-01

M-SYSTEMS

8U-52E-0064-12A01C


Cisco 3230 Router I/O End Cap

Figure 1-8 shows the Cisco 3230 Router I/O end cap. It has multiple connectors that can be used to connect power and data cables.

Figure 1-8 Cisco 3230 Router End Cap

1

WMIC 1 console port

2

WMIC 2 console port

3

WMIC 3 console port

4

FE0 port

5

FE1X port

6

FE2X or MARC FE0X port (for more information, see the "Fast Ethernet Port Cabling for the Cisco 3250 and Cisco 3230 Routers" section.)

7

AUX port

8

Router console port

9

Ser0 RS-232 (DCE) port

10

Ser1 RS-232 (DCE) port

11

Power input

   


Note The connectors are sealed at the factory with captive dust covers (not shown) that seal the ports and protect the pins. The dust covers should be used to seal the ports when the ports are not otherwise covered by cable connectors.


Protective End Cap Cover

A protective end cap cover ( Figure 1-9) provides weatherproof protection for the ports on the end caps of the Cisco 3200 Rugged Enclosure when the enclosure is installed outdoors. The protective end cap cover also provides added protection for in-vehicle use, inhibiting corrosion on the ports and potential damage from objects that are stored near the enclosure inside a vehicle.

The protective end cap cover has a ruggedized design for high reliability and NEMA4 compliance.

Figure 1-9 Cisco 3200 Rugged Enclosure Protective End Cap Cover

1

Hinge point

2

NEC cable pass-through

3

Holes for 8-32 protective end cap cover screws

4

Hinge/mounting bracket

5

Mounting bolt

   

To attach the protective end cap cover to the enclosure, follow these steps (see Figure 1-10).

Figure 1-10 Protective End Cap Cover Installation

1

Hinge bracket

2

Hinge point

3

Cable/service loop cavity

4

NEC pass-through

5

Gasket

6

Cap mounting



Step 1 Loosen the end cap mounting hardware (four 1/4-20 bolts), but do not remove the bolts.

Step 2 Slide the hinge brackets onto the right side and the left side of the end cap cover. The mounting tabs should slide under the loosened bolts.

Step 3 Re-torque the two loosened bolts on the right side of the end cap cover to between 58 and 68 in-lb.

Step 4 Ensure that the gasket is fully seated in the protective end cap cover.

Step 5 Close the cover on the protective end cap cover and ensure that it is fully seated.

Step 6 Re-torque the end cap cover bolts on left side of the end cap cover to between 58 and 68 in-lb.

Step 7 Tighten the 8-32 protective cover screws (18 in-lb) until they are seated.


For sealing, we recommend Liquid Tight Connector, which is described at the following URL:

http://www.newark.com/NewarkWebCommerce/newark/en_US/mfr/brands.jsp?mfg=HUBB

I/O End Cap Port Signals

This section describes the ports and port signals on the Cisco 3200 Rugged Enclosure I/O end caps.

Gigabit Ethernet Signal Limitations

Due to CPU and memory bus limitations, a Gigabit Ethernet port transmits and receives packets below the line rate. The line rate is lower for small frames and higher for large frames.

Small packet streams on Gigabit Ethernet ports, such as 64-byte packet streams, support up to 24 percent of full duplex, bidirectional line rate traffic without experiencing packet drops.

The 512-byte packet streams support up to 78 percent of full duplex, bidirectional line rate traffic. The 1518-byte packet streams support up to 88 percent of full duplex bidirectional line rate traffic.

At higher frame rates the RDRP receive drop counter (displayed by using the show controller g0/0 command) increases indicating dropped packets.

At higher frame rates for packet sizes greater than 512 bytes, the transmit underruns1 counter (displayed by using the show int g0/0 or show int g0/1 command) increases. The transmit underruns might cause CRC errors on the peer router.

Fast Ethernet Signals

A Cisco router identifies a Ethernet port interfaces by slot number and port number in the format of slot/port. For example, the slot/port address of a Fast Ethernet interface on the Cisco 3230 Rugged Enclosure is 0/0.

The Cisco 3270 Router Ethernet port signals are in compliance with IEEE 802.3. The interfaces support the following:

Autonegotiation and parallel detection MII interface with extended register capability for 10/100BASE-TX or 10/100/1000BASE-TX connections.

Full-duplex and half-duplex modes.

3.3V operation low power consumption (300 mW typical).

Low-power sleep mode.

Robust baseline wander correction performance.

MDIX support (Fast Ethernet and Gigabit Ethernet copper only).

Jumbo Frame (4400 bytes) support on Gigabit Ethernet interfaces.

10BASE-T or 100BASE-TX using a single Ethernet connection.

10BASE-T, 100BASE-TX, or 1000BASE-TX using a Gigabit Ethernet copper connection.

100BAFX/100LX, 1000BASE-SX, 1000BASE-LX/LH for Gigabit Ethernet fiber-optic connections. (The speed is not configurable.)

Standard carrier signal multiple access collision detect (CSMA/CD) or full-duplex operation.

Integrated programmable LED drivers.

The Cisco 3230 Router Ethernet port signals are in compliance with IEEE 802.3. The interfaces support the following:

Autonegotiation and parallel detection MII interface with extended register capability for 10/100BASE-TX connections

Full-duplex and half-duplex modes

3.3V operation low power consumption (300 mW typical)

Low-power sleep mode

10BASE-T or 100BASE-TX using a single Ethernet connection

Robust baseline wander correction performance

Standard carrier signal multiple access collision detect (CSMA/CD) or full-duplex operation

Integrated programmable LED drivers

Fast Ethernet Port Cabling for the Cisco 3250 and Cisco 3230 Routers

Most Cisco 3200 Series router Ethernet ports support autodetection. If the device that the router is connected to also supports autodetection, the choice of a straight-through or crossover Ethernet cable does not matter. However, the Cisco 3250 router MARC FE0X port does not support autodetection.

To connect a port marked MARC FE0X to a routing Ethernet port that does not support autodetection, use a straight-through Ethernet cable. To connect a MARC FE0X port to a hub, switch, a router hub, or switch port, use a crossover Ethernet cable. Table 1-1 shows the connections.

Table 1-1 General Guidelines for MAR Fast Ethernet Port Cabling

Ports
Server, Workstation, or Personal Computer Ethernet Link
Hub, Switch, Uplink Router Ethernet Hub, or Switch

Ports marked FE0X, FE1X, and so forth

Straight-through cable

Crossover cable

Ports marked FE0, FE1, and so forth

Crossover cable

Straight-through cable


For example, a port marked FE0X requires a crossover Ethernet cable to establish the Ethernet link between a Cisco 3250 router and a hub. A port that does not support autodetection marked FE0 requires a straight-through Ethernet cable to establish the Ethernet link between a Cisco 3250 router and a hub.

For additional information on cable pin assignments, see the "Cable Pinouts" chapter of the Cisco Content Services Switch Getting Started Guide at:

http://www.cisco.com/en/US/products/hw/contnetw/ps789/products_installation_guide_chapter09186a00805f718d.html

Console Port Signals

You can connect to the router or to a Wireless Mobile Interface Card (WMIC) by using a console cable to connect to the console interfaces.

The console port signals:

Are asynchronous serial DCE

Support 9.6-kbps, 19.2-kbps, 38.4-kbps, 57.6-kbps, and 115.2-kbps baud rates

Support full modem control of DTR, DSR, RTS, and CTS signals

AUX Port Signals

The AUX port is a serial asynchronous port that supports the following speeds:

Cisco 3270 Rugged Router card in the Cisco 3270 Router: 1.2 kbps, 2.4 kbps, 4.8 kbps, 9.6 kbps, 19.2 kbps, 38.4 kbps, 57.6 kbps, 115.2 kbps, and 460 kbps.

Mobile Access Router Card (MARC) in the Cisco 3230 Router: 1.2 kbps, 2.4 kbps, 4.8 kbps, 9.6 kbps, 19.2 kbps, 38.4 kbps, 57.6 kbps, and 115.2 kbps.

The AUX port supports the following:

Asynchronous serial DTE

5 to 8 data bits

1, 1.5, or 2 stop bits

Odd, even, or no parity

Flow control by using RTS, CTS, DTR, and CDC signals

Cisco 3200 Rugged Enclosure LED Indications

This section describes the LED indications for the Cisco 3200 Rugged Enclosure I/O end caps.


Note The behavior of the WMIC LEDs is described in the "WMIC Console LEDs" section.


Cisco 3270 Rugged Enclosure I/O End Cap LED Indications

Table 1-2 lists the LEDs for the Cisco 3270 Rugged Enclosure I/O end caps and their indications.

Table 1-2 LEDs for the Cisco 3270 Rugged Enclosure End Cap 

LED
Indication

Cisco 3270 Rugged Router card

Solid green: OK.
Blinking: Booting and self-testing.
Black: Not OK or the power is off.

Serial Status/Link (1 status/link LED per serial port)

Solid green: Link OK.
Black: No link is detected.
Amber blink: Activity.

Fast Ethernet
(1 LED per port, except for the fiber-optic port, which has no LEDs)

Link LED
Solid green: Link OK.
Black: No link is detected.

Activity LED
Black: No activity and no connection.
Green blink: Activity.

Gigabit Ethernet
(2 LEDs per port)

Link LED
Solid green: Link OK.
Black: no link is detected.

Activity LED
Solid green: Link OK.
Black: No activity.
Green blink: Activity.

Console

Solid green: Link OK.
Black: No activity.
Green blink: Activity.

WMIC Console (Installation or Operation Mode)

For installation mode, see Table 1-4.

For operation mode, see Table 1-5.


Cisco 3230 Rugged Enclosure I/O End Cap LED Indications

Table 1-3 lists the LEDs for the Cisco 3230 Rugged Enclosure I/O end caps and their indications.

Table 1-3 LEDs for Cisco 3230 Router I/O End Caps 

LED
Indication

MARC

Solid green: OK.
Blinking: Booting and self-testing.
Black: Not OK or the power is off.

Serial Status/Link (1 status/link LED per serial port)

Solid green: Link OK.
Black: No link is detected.
Amber blink: Activity.

Fast Ethernet (2 LEDs per Fast Ethernet port)

Link LED
Solid green: Link OK.
Black: No link is detected.

Activity LED
Black: No activity.
Green blink: Activity.

WMIC Console (Installation or Operation Mode)

For installation mode, see Table 1-4.

For operation mode, see Table 1-5.


WMIC Console LEDs

WMIC console LEDs function in installation mode or operational mode. The WMIC is set to the installation mode by default. To change the function of the WMIC, use the station role command.

Table 1-4 shows the status of the LEDs when the WMIC is in installation mode (signal strength).

Table 1-4 WMIC Installation Mode

RSSI (dBm)
Status LED
Radio LED

> -51

Steady

Steady

-58 to -54

Fast blinking (16 Hz)

Steady

-60 to -57

Slow blinking (4 Hz

Steady

-63 to -60

Very slow blinking (2 Hz)

Steady

-66 to -63

Black

Steady

-69 to -66

Black

Fast blinking (16 Hz)

-72 to -69

Black

Slow blinking (4 Hz

-75 to -72

Black

Very slow blinking (2 Hz)

< -75

Black

Black


Table 1-5 shows the status of the LEDs when the WMIC is in operational mode.

Table 1-5 WMIC Operational Mode

Indication
Status LED
Radio LED

Green steady

At least one bridge is associated.

Red steady

Loading firmware.

Firmware failure.

Green blink

No bridges are associated.

Transmitting or receiving packets on the radio port.

Amber blink

General warning.

Maximum retries or buffer full.

Black (no light)

Default.


Thermal Plates

Cisco 3200 Rugged Enclosures use thermal plates and Wedge Loks to transfer heat from the cards to the extrusion. Figure 1-11 shows a card with thermal plates. The conduction cooling removes the need for internal fans.

Figure 1-11 Router Card with Thermal Plates

1

Power connector

2

Wedge Lok

3

ISA bus

4

PCI bus


Mounting Brackets

Mounting brackets are available for the enclosures.

The notches in the mounting brackets allow you to temporarily install the bracket without the router in place. The bolts for the notches in the mounting bracket can be installed on the enclosure before the other bolts are installed. The partially installed bolts provide enough support to allow you to install the router in the bracket, and then install and tighten the remaining bolts. The torque values for the mounting bracket screws are from 58 to 68 in-lb.

Figure 1-12 shows the Cisco 3270 Rugged Enclosure mounting bracket.

Figure 1-12 Cisco 3270 Rugged Enclosure Mounting Bracket

Figure 1-13 shows the dimensions of the Cisco 3270 Rugged Enclosure mounting bracket.

Figure 1-13 Cisco 3270 Rugged Enclosure Mounting Bracket Dimensions

Figure 1-14 shows the Cisco 3230 Rugged Enclosure mounting bracket.

Figure 1-14 Cisco 3230 Rugged Enclosure Mounting Bracket

Figure 1-15 shows the dimensions of the Cisco 3230 Rugged Enclosure mounting bracket.

Figure 1-15 Cisco 3230 Rugged Enclosure Mounting Bracket Dimensions

1 Transmit underrun-an error on interfaces when the data is not ready on the memory bus when the system attempts to transmit the data; a bad packet is transmitted.

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Posted: Sun Feb 10 06:42:07 PST 2008
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