ADC PRSM070A, PRSM084A, PRSM074C, PRSMAW4A, PRSM070C User Manual

...

Download

MANAGING HOST UNITS

Content Page

9.1 Viewing the Host Summary................................................................................214

9.2 Resetting the Host Unit .....................................................................................215

9.3 Viewing Host SeRF Ethernet Ports.......................................................................217

9.4 Decommissioning a DART in a Host.....................................................................220

9.5 Viewing the Host SeRF Summary........................................................................222

9.6 Viewing Host SeRF Optical Ports.........................................................................224

9.7 Viewing Host DART Alarms ................................................................................226

Managing Host Units

Host Summary

System View

SERF

DART

Host Major Contact Alarm Output

Host Minor Contact Alarm Output

Remote Major Contact Alarm Output—

Remote Minor Contact Alarm Output—

9.1 VIEWING THE HOST SUMMARY

This section describes the read-only status indicators in the Host Summary view. For information on setting Host attributes, see “Enter a Host Name, Clock Source, and

Linking Mode” on page 147 and “Changing to Built-In Network Mode” on page 186.

To open the select

, and then click on the Host name node.

view in the EMS View Frame, in the Function Explorer Tree

The read-only status indicators are:

•

—Current summary alarm state of Host SeRF card. Red indicates that a major alarm exists for some component module of the SeRF. Yellow indicates a minor alarm.

•

—Current summary alarm state is indicated by status indicator on same row of page. Red indicates that a major alarm exists for the DART. Yellow indicates a minor alarm.

•

—Dry alarm NO/NC contact (labeled ALARM OUTPUTS HOST) on the Host. Current state of major alarm contacts is indicated by Alarm Summary status indicator on same row of page.

•

—Dry alarm NO/NC contact (labeled ALARM OUTPUTS HOST) on the Host. Current state of minor alarm contacts is indicated by Alarm Summary status indicator on same row of page.

•

Red indicates Host NO/NC major alarm contacts are in an alarm position. These connections are typically wired to a local alarm alert system. This status indicator is red when a major alarm is present on any Remote connected to the Host.

•

Red indicates that Host NO/NC minor alarm contacts are in an alarm position. These connections are typically wired to a local alarm alert system. This status indicator is red when a minor alarm is present on any Remote connected to Host.

Resetting the Host Unit

System View

Host Summary

Reset Unit

9.2 RESETTING THE HOST UNIT

Only a user logged in under the admin or a Network Manager account can change Prism system settings t

Resetting the Host Unit results in a Loss of Service condition for the Host and connected Remotes unt take 5 to 20 minutes for man

hrough the EMS.

il the Host comes back up. Depending on the system configuration, it can

agement communication to be restored.

11 In the Function Explorer Tree, select

node to open the

22 Click

view in the EMS View Frame.

, and then click on the Host name

Managing Host Units

Host Summary

33 In the confirmation dialog, click OK.

Once you click OK, the confirmation dialog closes and the Host reboots. It will take some time for the Host to retrieve data from connected Remotes and to reconfigure data on the Remotes. During this time, an alert message displays in the

view and on any other page where data can be set. Any attempt to SET will fail. You cannot make configuration changes while this message is displayed. Wait until the message clears before continuing with configuration settings.

Viewing Host SeRF Ethernet Ports

ENET Configurations

System View,Host-x,SERF,ENET

ENET Configurations

9.3 VIEWING HOST SERF ETHERNET PORTS

The Host

view is a summary of throughput and number of errors on the twelve Ethernet (ENET) ports on the Host SeRF card. These ports consist of eight ports used for connection to Remotes and four ports used for system management and maintenance functions.

11 In the Function Explorer Tree, select

Host name) to open the

view in the EMS View Frame.

(where

x is the

Managing Host Units

ENET Configurations

Refresh

ENET Configurations

Switch Port

Craft Port

OptEnetPort1-8

Network Port

Management Port

Rx Bytes

Rx Pkts

Rx FSC Errors

22 (Optional) To enlarge the view, click Full Screen to open a separate window that

shows only the

table.

33 To update the counters, click

The

view lists the Ethernet ports and their corresponding

status.

•• The row headers in the first column are as follows:

–

—on card processor's connection to the switch on the SeRF card

—on card processor's connection to the PHY port labeled Craft

—Ethernet switch interface to SFP 1-8

—Ethernet switch interface to on-card processor

—switch interface to the PHY port labeled Network

•• The column headers, from left to right, are as follows:

–

—Receive byte counter. Increments by the byte count of frames received, including those in bad packets, excluding preamble and SFD but including FCS bytes

–

—Receive packet counter. Increments for each frame received packet (including bad packets, all unicast, broadcast, and multicast packets)

–

—Receive FCS error counter. Increments for each frame received that has an integral 64 to 1518 length and contains a frame check sequence error

Viewing Host SeRF Ethernet Ports

Rx BroadCast Pkts

Rx MultiCast Pkts

Rx Fragmented Frames

Rx Jabber Frames

Tx Byte Counter

Tx Pkt Counter

Tx BroadCast Pkts.

Tx MultiCast Pkts.

–

—Receive broadcast packet counter. Increments for each broadcast good frame of lengths 64 to 1518 (non VLAN) or 1522 (VLAN), excluding multicast frames. Does not include range/length errors

–

—Receive multicast packet counter. Increments for each multicast good frame of lengths 64 to 1518 (non VLAN) or 1522 (VLAN), excluding broadcast frames. This count does not include range/length errors

–

—Receive fragments counter. Increments for each frame received that is less than 64 bytes and contains an invalid FCS. This includes integral and non-integral lengths

–

—Receive jabber counter. Increments for frames received that exceed 1518 (non VLAN) or 1522 (VLAN) bytes and contain an invalid FCS. This includes alignment errors

–

—Transmit byte counter. Increments by the number of bytes that were put on the wire including fragments of frames that were involved with collisions. This count does not include preamble/SFD or jam bytes. This counter does not count if the frame is truncated

–

—Transmit packet counter. Increments for each transmitted packet (including bad packets, excessive deferred packets, excessive collision packets, late collision packets, all unicast, broadcast, and multicast packets)

–

—Transmit broadcast packet counter. Increments for

each broadcast frame transmitted (excluding multicast frames)

–

—Transmit multicast packet counter. Increments for each

multicast valid frame transmitted (excluding broadcast frames)

Managing Host Units

Decommission

System View,Host-x,SERF,DARTS

DART’s Alarm Summary

9.4 DECOMMISSIONING A DART IN A HOST

Only a user logged in under the admin or a Network Manager account can change Prism system settings t

This procedure is for decommissioning a DART in a Host. For information on decommissioning a DART in

on page 232.

hrough the EMS.

a Remote, see “Decommissioning an RF Module in a Remote”

The removed. You use the

button is available only when a DART has already been physically

button to remove DART configuration settings and to delete DART alarms from EMS alarm summaries. Entries in the Alarm History Log, however, are preserved.

Decommission a DART only if it has been permanently removed from the Remote and will not be replaced procedure removes information about the inventory) from the EMS database.

You must delete any RF links before you can decommission a Host DART. The FlexWave system prevents a

11 In the Function Explorer Tree, select

the Host name) to open the

with another DART. When a DART is taken out of service, this

DART (such as associated alarms, links, and

decommission if RF links are in place.

view in the EMS View Frame.

(where

x is

Decommissioning a DART in a Host

Information

Band-Config

Configuration and Alarm Details

Decommission

22 In the

decommissioned. The

33 In the

column, click on the

window, click the

window opens.

link for the DART to be

button.

44 In the confirmation dialog, click

Managing Host Units

Host SERF

System View,Host-x,SERF

Prism on SERF of Host

Optical Ports

SERF Fault

System Fan Fault

9.5 VIEWING THE HOST SERF SUMMARY

The

page provides a summary for the SeRF (Serial Radio Frequency) card located in the Host. The Host SeRF card contains the processor chip where the EMS software documented in this manual resides. The SeRF controls communication between the Host and the Remotes, and maintains the system configuration settings.

In the Function Explorer Tree, select name) to open the

-n view in the EMS View Frame.

(where

x is the Host

The

•

—alarm status indicator for Host optical ports. Red indicates that an

-n view has the following elements:

alarm exists for at least one of the eight optical ports on the SeRF card. Yellow indicates a minor alarm.

•

—state of the SeRF. Red indicates that either the SeRF clock source is

unacceptable or the SeRF card FPGA is not programmed.

•

—state of the Host chassis fan. Red indicates that the Host chassis

fan is spinning too slowly.

Viewing the Host SeRF Summary

Over Temperature Fault

90° C

Primary Clock Priority Fault

Under Temperature Fault

-40° C

Secondary Clock Priority Fault

Secondary Clock

Priority Fault

Host Temperature Measurement

• temperature of the Host is above its operating limits. Fault threshold is

•

—Red indicates that the current chassis-internal

—Indicates that there is another Host in a Multi-Host system that has the same Clock Priority Level (CPL) as this Host. All Hosts that are in conflict generate this alarm. When all Hosts with this alarm are provisioned with unique CPLs, the alarm clears. Service is disrupted on all systems when this alarm is present. The

•

—Yellow indicates that the current chassis-internal

temperature of the Host is below its operating limits. Fault threshold is

•

—In a three-Host system, indicates that the Clock

is a Major alarm.

Priority Level for the Host managing the Remote has been changed. All Hosts in the system generate this alarm. When all Hosts with this alarm are provisioned with unique CPLs, the alarm clears. Service is not disrupted, but could become disrupted if the host providing the clock becomes unavailable. The

•

is a Minor alarm.

—Gives the current chassis-internal temperature in

degrees Centigrade detected by the Host.

For corrective actions for alarm states, refer to “Troubleshooting Alarms” on

page 264. For information on setting the Clock Priority Level, see “Set the Clock Priority Level” on page 150.

Managing Host Units

Host Optical Ports

System View

Host-x,SERF,Optical Ports

Optical Ports

Host

Optical Ports

9.6 VIEWING HOST SERF OPTICAL PORTS

The

view shows the current usage and alarm status of the optical ports on the Host plus the current values of some key operating parameters. The Host has eight optical ports, but the

view only shows active ports (physically connected to a Remote). Each port in the page represents one set of forward and reverse paths between a Host and Remote. Physically, this may have been accomplished with two fibers through that port or with a single fiber (if WDM is used). Each physical port contains an SFP transceiver with two connectors.

The

view provides a link that can be used to enter or edit the name for a Host optical port (see “Enter a Host Name, Clock Source, and Linking Mode” on

page 147).

For corrective actions for alarm states, refer to “Troubleshooting Alarms” on

page 264.

To access the

The

view for

(where

view, in the Function Explorer Tree, select

x is the Host name).

-n opens in the EMS View Frame, which only shows the

Receive power level from the Remote unit (REV path). To see the Receive power level in the FWD path (from the Host to the Remote), you must open the

view for the desired Remote as described in “Viewing Remote SeRF Optical Ports” on

page 248.

Viewing Host SeRF Optical Ports

Optical Ports

Optics Number

Port

Configuration Page

Optics Name

UNKNOWN_SFPName

Optics Type

LongRange

Fwd Launch

Rev Receive

Wave Length

IpEnable Fault

RxBer Fault

0.00001

RxNoLight Fault

-34dBm

Laser Fault

OverDrive Fault

-9dBm

UnderDrive Fault

-27dBm

Remote Name

The following informational columns are provided in the

•

—System assigned port number. This is a link to the

for this particular port.

—user entered port name or

, which indicates that

table.

no name has been entered.

•

—indicates that the laser range, which is

to meet 3Gbps

optical transmission requirements.

•

—Launch power level in dBm of forward path signal. The minimum

FWD launch power is -2 dBm, and the maximum is 3 dBm.

•

—Receive power level in dBm of reverse path signal, which incorporates the launch power of the Remote Unit SFP plus all optical losses (insertion losses, fiber cable loss, and so forth). The minimum REV launch power is -27 dBm, and the maximum is -9 dBm.

•

—Number displayed is wave length transmitted through this port:

– Non-duplex and WDM configurations: 1550 nm fwd, 1310 rev

– CWDM configurations can be one of eight wavelengths: 1470, 1490, 1510,

1530, 1550, 1570, 1590, 1610.

•

—An attempt to enable IP on a fiber (Host) to a Remote that already has IP enabled on another fiber (Host) has been made. The alarm is cleared if IP is disabled on the fiber. It is also cleared if IP becomes enabled. This latter condition can occur if the fiber that was already carrying IP later has IP disabled, or if the fiber otherwise becomes disabled. For information on setting Ip Enable, see

“Configure the Remote SeRF Optical Ports” on page 158.

•

—Yellow indicates that too many errors have been received on the

receiving fiber. Fault threshold is

• threshold is below

•

• Fault threshold is

•

—Red indicates that no light is detected on the receiving fiber. Fault

—Red indicates that the forward path laser is faulty.

—Red indicates power of signal received on the fiber is too strong.

. Threshold cannot be changed.

—Yellow indicates power of signal received on fiber is too weak.

—name of the Remote connected to this Optics port.

. Threshold cannot be changed.

Managing Host Units

Prism Host DART’s Alarm Summary

System View,Host-x,SERF,DARTS

Host DART’s Alarm Summary

Information

Band-Config

Configuration and Alarm Details of DARTnon Host-

DART

Band-Config

9.7 VIEWING HOST DART ALARMS

A Host may support up to eight DART cards. Each DART card provides one RF band for up to eight Remotes. The DART card converts between serial (optical) and RF data in both forward and reverse directions. The all DART cards currently installed in the Host and provides an alarm summary status indicator for each card. This page also provides a link, for each DART card, to a more detailed page that can be used to configure the DART card and obtain alarm details (for more information, see “Configure the Host DARTs” on page 152).

view lists

11 In the Function Explorer Tree, select

the Host name) to open the Frame.

22 In the

to monitor. The (where

column, click on the

n corresponds to the DART whose

view in the EMS View

link for the DART that you want

x window opens

link you selected).

(where

x is

Viewing Host DART Alarms

Configuration and Alarm Details of DARTnon Host-

DART Fault

DART Over Drive Fault

+20dBm

DART Hardware Mismatch Fault

DART UnderDrive Fault

Refresh

The

x window shows the following

Host DART alarms:

•

—Summary alarm state of the DART card. Red indicates a problem

with passing RF.

•

is too strong. Fault threshold is

•

—Red indicates that the RF signal received from the BTS

—Red indicates that the DART type doesn't match the assigned Pass Band. Examples: After assigning the Pass Band, if the DART is changed with another DART type, then the occurs. Or, if you swap DART types (such as, from GSM1800 to UMTS), the

is raised as the stored database has one DART

type configured, and the new hardware doesn't match it.

•

—Yellow indicates that the power of the signal received on the RF input to the DART is 20 dB below the optimal input level. For example:

Host Forward

DART Gain

30 dB -25 dBm -45 dBm

20 dB -15 dBm -35 dBm

10 dB -5 dBm -25 dBm

0 dB +5 dBm -15 dBm

Maximum RMS

Input Power

UnderDrive

Threshold

33 Click

to update the alarm summary. For corrective actions for alarm states,

refer to “Troubleshooting Alarms” on page 264.

Managing Host Units

Intentionally Blank Page

MANAGING REMOTE UNITS

Content Page

10.1 Viewing Remote SeRF Ethernet Ports.................................................................230

10.2 Decommissioning an RF Module in a Remote ......................................................232

10.3 Configuring Dual-Slot LPAs ..............................................................................235

10.4 Restarting an LPA ...........................................................................................236

10.4.1 Identify the LPA Fault ..............................................................................236

10.4.2 Reset the LPA.........................................................................................238

10.5 Monitoring a Remote Unit ................................................................................240

10.6 Decommissioning a Remote Unit.......................................................................244

10.7 Resetting a Remote Unit..................................................................................246

10.8 Viewing Remote SeRF Alarms...........................................................................248

10.9 Viewing Remote SeRF Optical Ports...................................................................248

10.10 Viewing an Alarm Summary of the Remote RF Groups .......................................250

10.11 Viewing RF Band Alarm Details .......................................................................252

10.12 Viewing Remote GPS Alarms and Location Parameters .......................................255

Managing Remote Units

ENET Configurations

System View,Remotes,SERF,ENET

ENET Configurations

Switch Port

Craft Port

OptEnetPort1-8

Network Port

Management Port

Rx Bytes

Rx Pkts

Rx FSC Errors

10.1 VIEWING REMOTE SERF ETHERNET PORTS

The Remote SERF ENET page is a summary of throughput and number of errors on the twelve Ethernet (ENET) ports on the Remote SeRF card. These ports, located on the front side of the SeRF card, consist of eight ports used for connection to Remotes and four ports used for system management and maintenance functions.

To open the Tree select

view in the EMS View Frame, in the Function Explorer

The

•

—on card processor's connection to the PHY port labeled Craft

—Receive byte counter. Increments by the byte count of frames received,

—on card processor's connection to the switch on the SeRF card

—Ethernet switch interface to on-card processor

view lists the Ethernet ports and their corresponding status.

—Ethernet switch interface to SFP 1-8

—switch interface to the PHY port labeled Network

including those in bad packets, excluding preamble and SFD but including FCS bytes

•

—Receive packet counter. Increments for each frame received packet

(including bad packets, all unicast, broadcast, and multicast packets)

•

—Receive FCS error counter. Increments for each frame received that

has an integral 64 to 1518 length and contains a frame check sequence error

Viewing Remote SeRF Ethernet Ports

Rx BroadCast Pkts

Rx MultiCast Pkts

Rx Fragmented Frames

Rx Jabber Frames

Tx Byte Counter

Tx Pkt Counter

Tx BroadCast Pkts.

Tx MultiCast Pkts.

•

—Receive broadcast packet counter. Increments for each broadcast good frame of lengths 64 to 1518 (non VLAN) or 1522 (VLAN), excluding multicast frames. Does not include range/length errors

•

—Receive fragments counter. Increments for each frame received that is less than 64 bytes and contains an invalid FCS. This includes integral and non-integral lengths

•

—Receive jabber counter. Increments for frames received that exceed 1518 (non VLAN) or 1522 (VLAN) bytes and contain an invalid FCS. This includes alignment errors

•

—Transmit broadcast packet counter. Increments for each

broadcast frame transmitted (excluding multicast frames)

•

—Transmit multicast packet counter. Increments for each

multicast valid frame transmitted (excluding broadcast frames)

Managing Remote Units

Decommission

System View,Remotes,Remote#-x,SERF,Optical

Ports

Remote#

Alarm Summary of RF Groups

10.2 DECOMMISSIONING AN RF MODULE IN A REMOTE

Only a user logged in under the admin or a Network Manager account can change Prism system settings t

Decommission a RF Module only if it has been permanently removed from the Remote and will not be repl

This procedure is for decommissioning a Remote’s RF Modules, which contain the Remote DARTS. For info

“Decommissioning a DART in a Host” on page 220.

hrough the EMS.

aced with another DART.

rmation on decommissioning a DART in a Host, see

The have already been physically removed. You use the

button is available only when a RF Module and hence the DART(s)

button when an RF Module and its DART(s) have taken out of service. This procedure removes all information about this RF Module (such as associated alarms, links, and inventory) from the EMS database. Entries in the Alarm History Log, however, are preserved.

11 In the Function Explorer Tree, select

(where

port number and

The

indicates the Remote number that corresponds to a Host SFP

n is the Remote name).

view opens in the EMS View Frame. For a description of the RF Groups, see “RF Groups in the Remote and the EMS GUI” on

page 160.

Decommissioning an RF Module in a Remote

config

Configuration Details

Decommission

22 In the rectangle for the RF group selected, click on the

whose DART needs to be decommissioned.

link for the band

33 In the

window, click the

button.

Managing Remote Units

44 In the confirmation dialog, click OK.

10.3 CONFIGURING DUAL-SLOT LPAS

Configuration Details

LPA Operating Mode

standby

normal

standby

Configuring Dual-Slot LPAs

Both LPAs in a dual-slot 40W module can be controlled from the window, which allows you to set the

, enable/disable a LPA, or

reset a LPA, as shown below:

The following rules apply to the dual-slot LPA installation:

•• For the second LPA, the GUI displays it in an RF group by itself. There will be no

DART in the RF group. However, you will be able to view alarms and configuration for the RF group in case of dual LPA setup. For the “missing” DART, default values will display. You cannot configure the missing DARTs, but can set the LPA mode and reset the LPA.

•• User-initiated configuration of dual LPAs is simulataneous for both the LPAs. If

one of the LPAs is placed into

mode, both go into

, both go into standby. If one is placed into

mode.

•• User initiated LPA resets are simulataneous. If one LPA is reset, so is the other.

•• Alarm handling for the two LPAs occurs independently. If one alarms and goes

into

, the second LPA continues in its current state. Automatic alarm

recovery is also handled independently.

Managing Remote Units

LPA Reset

System View,Remotes,Remote#-x,RF Groups

Remote#

band

Alarm Details of DART-x of Group

on Remote#-

LPA Disable Fault

LPA Loop Fault,LPA Over Power Fault

10.4 RESTARTING AN LPA

Only a user logged in under the admin or a Network Manager account can change Prism system settings t

hrough the EMS.

You use the

button to bring an LPA back into service (restart) that stopped

because of an LPA alarm.

This section comprises a 6-step process that is broken into 2 sections that first identifies the fault and then resets the LPA.

10.4.1 Identify the LPA Fault

11 In the Function Explorer Tree, select

(where number and

indicates the Remote number that corresponds to a Host SFP port

n is the Remote name).

22 In the rectangle for the RF group selected, click on the

whose LPA needs to be reset. The window opens (where x is the DART, Group or Remote name).

link for the band

An LPA Reset is necessary when any of the alarms listed below have occurred.

•

—Red indicates that the Linear Power Amplifier is disabled because it encountered a problem. Check for a corresponding LPA fault listed in this section (such as

, and so forth), then correct

the LPA fault. If LPA Reset does not clear this alarm, the corresponding RF Module

Restarting an LPA

LPA VSWR Fault

LPA DC Fault

LPA Loop Fault

LPA Over Power Fault

LPA Low Power Fault

may need to be replaced. Contact ADC Technical Assistance for further help (see

“Contacting ADC” on page 335).

•

—Red indicates an internal VSWR fault state of the LPA. Check the Remote’s antenna connection. If the connection is good and a subsequent LPA reset does not clear the alarm, inspect the blue cable going from the corresponding Remote Antenna port to the Duplexer—verify that the connection is tight. If this doesn't clear the fault, the Duplexer may need to be replaced. Notify ADC Technical Support (see “Contacting ADC” on page 335).

•

—Red indicates that the voltage level inside the LPA is outside its acceptable range. If the LPA Reset does not clear this alarm, contact ADC Technical Assistance for further help as the RF Module that contains the LPA or the Power supply within the SeRF Module may need to be replaced (see

“Contacting ADC” on page 335).

•

—Red indicates that the LPA is not sure of the feedback loop, so it has placed itself into a safe state. You can attempt to recover the LPA by reducing forward gain by 10dB on both DART cards, resetting the LPA, then restoring GAIN. If the reset does not work, contact ADC Technical Support (see “Contacting ADC”

on page 335).

•

—Red indicates that the power level inside the LPA is high enough to damage the LPA. Reduce the Remote Forward Gain (see “Link the Host

and Remote DARTs.” on page 159), then reset the LPA.

•

—Red indicates that the internal gain of the LPA does not meet specifications. In addition to an LPA Reset, try putting the LPA into standby and then back to enable to see if this clears this fault. If neither troubleshooting step clears this alarm, the corresponding RF Module may need to be replaced. contact ADC Technical Assistance for further help (see “Contacting ADC” on page 335).

•

LPA Missing Fault—Red indicates that the LPA is missing. This fault cannot be cleared

with an LPA Reset.

Managing Remote Units

System View,Remotes,Remote#-x,SERF,RF

Groups

Remote#

config

Configuration Details

LPA Reset

10.4.2 Reset the LPA

Once an LPA Reset is started, Loss of Service occurs. It take approximately 10 to 20 seconds before t depending on the number of Remotes Remotes the power reading could take sev eral minutes

he LPA signal recov ers. The GUI RF pow er reading w ill take longer

equipped—for a fully loaded Prism system with 8

to update.

33 In the Function Explorer Tree, select

(where

SFP port number and

indicates the Remote number that corresponds to a Host

n is the Remote name).

44 In the rectangle for the RF group selected, click on the

whose LPA needs to be reset.

55 In the

window, click the

button.

link for the band

66 In the LPA Reset caution dialog, click OK.

Restarting an LPA

Managing Remote Units

System View,Remotes

Remote Alarm Summary

Rmt1_Hst1_Reg1

Prism Remote Unit Remote

Remote

10.5 MONITORING A REMOTE UNIT

11 In the Function Explorer Tree, select

view in the EMS View Frame.

to open the top level

22 If the Alarm Summary status indicator for any Remote is red or yellow, indicating

that an alarm exists for that Remote, in the Function Explorer Tree, select the node that corresponds to that Remote. In the preceding example, you would click on the remote node labeled

This opens the selected Remote (

-n).

-n summary that corresponds to the

Monitoring a Remote Unit

SERF

RF Groups Alarm Summary

33 If the

status indicator is red or yellow, you must go another level lower in the Function Explorer Tree for this same Remote to select the page for the SeRF or RF Groups. For more information on these displays, see

“Viewing Remote SeRF Alarms” on page 248 or “Viewing Remote SeRF Optical Ports” on page 248.

The GPS alarm is not supported at present; this status indicator will be white.

Managing Remote Units

Major Alarms

Minor Alarms

Remote Capacity

Remote Temperature

Host Lost Fault

Remote Lost Fault

AC Power Supply Fault

Over Temperature Fault

84°C

Fan Under Speed Fault

Under Temperature Fault

-40°C

Fan Over Speed Fault

Open Door Fault

Apply

Refresh

DART ID 8

RF Slot 4

DART ID 7

DART ID 6

RF Slot 3

DART ID 5

DART ID 4

RF Slot 2

DART ID 3

DART ID 2

RF Slot 1

DART ID 1

SERF Board

44 If any status indicator in the

refer to the following list:

•

—Number of slots for RF Modules in the remote. Each RF Module comprises up to two Classic DARTS or Single SuperDARTs or one Dual SuperDART.

•

field—Currently detected internal temperature of the

Remote (measured near the SeRF board).

table is red or yellow,

•

status indicator—Red indicates Remote has lost contact with

Host.

•

status indicator—Red indicates that the Host is unable to

communicate with the Remote.

•

status indicator—Red indicates Remote power supply has

failed.

• Remote is over its functional operating limit. Fault threshold is

•

status indicator—Red indicates internal temperature in

—Red indicates that the speed of the Remote fan is not

high enough for the internal functional temperature of the Remote.

•

status indicator—Yellow indicates that the internal

temperature within the Remote is under the operating limit. Fault threshold is

•

—Yellow indicates that the Remote fan is not necessary for the current internal temperature of the Remote, but the fan is spinning (Minor alarm).

•

—Yellow status indicator for this Minor alarm, which indicates

that the door to the Remote is open.

•

button—When clicked, causes Remote Name entry to be applied

•

button—When clicked, causes page to be reloaded from Host

Monitoring a Remote Unit

Reset Unit

Decommission Unit

•

button—When clicked, causes the Remote to reboot. This causes a Loss of Service until Remote has returned to normal operation. Typical down time is two to four minutes. See “Resetting a Remote Unit” on page 246.

The use of the Reset Unit button causes Loss of Service and should not be used unless other troublesh experienced at the Remote.

•

ooting processes have been follow ed and did not fix the issue being

button—When clicked, deletes any configuration settings for that Remote and removes all corresponding alarms from the EMS alarm summaries (see “Decommissioning a Remote Unit” on page 244).

Managing Remote Units

Decommission

Prism Remote Unit Remote

Remote

10.6 DECOMMISSIONING A REMOTE UNIT

Only a user logged in under the admin or a Network Manager account can change Prism system settings t

hrough the EMS.

The removed from the system. You use the

button is available only when a Remote has already been physically

button to delete alarms related

to the removed Remote from the EMS alarm summaries.

Decommission a Remote only if it has been permanently removed from the Remote and will not be replace this Remote (such as associated a

d with another Remote. This procedure removes all information about

larms, links, and inventory) from the EMS database.

11 If the system is configured for manual linking mode, remove any RF links to the

DART.

22 In the Function Explorer Tree, select the node that corresponds to the Remote that

has been physically removed from the Prism system.

This opens the selected Remote (

-n). There should be a statement that communication

-n summary that corresponds to the

with the Remote has been lost.

Decommissioning a Remote Unit

Decommission Unit

33 Click

44 In the confirmation dialog, click

Managing Remote Units

Prism Remote Unit Remote

Remote

Reset Unit

10.7 RESETTING A REMOTE UNIT

Only a user logged in under the admin or a Network Manager account can change Prism system settings t

Resetting the Remote causes Loss of Service and should not be used unless other troubleshooting proce experienced at the Remote.

If communication and/or reverse-path fiber is lost to the Remote, a Remote Reset can be attempted.

11 In the Function Explorer Tree, select the node that corresponds to the Remote that

you want to reset. This opens the corresponds to the selected Remote (

hrough the EMS.

sses hav e been follow ed and did not fix the issue being

-n).

-n summary that

22 Click the

button.

Resetting a Remote Unit

33 In the confirmation dialog, click OK.

The Remote reboots (resets), which causes a Loss of Service until the Remote has returned to normal operation. Typical down time is two to four minutes.

Managing Remote Units

Prism on SERF of Remote

System View,Remotes,Remote#-x,SERF

Remote#

Prism on SERF of Remote

Optical Ports

SERF Fault

Optical Ports On Remote

Optical

Ports On Remote

Optical Ports On Remote

System View,Remotes,Remote#-x,SERF,Optical Ports

Remote#

10.8 VIEWING REMOTE SERF ALARMS

To open the Explorer Tree select

-n view in the EMS View Frame, in the Function (where

the Remote number that corresponds to a Host SFP port number and name).

indicates

n is the Remote

The

-n view provides an alarm summary for the SeRF card on

the identified Remote.

•

status indicator—Summary alarm status indicator for Remote optical

ports. Red indicates no light (such as the RxNolight Fault) or a laser fault.

•

status indicator—Summary alarm status indicator for Remote SeRF

card. Red indicates that an alarm exists for the Remote SeRF card.

10.9 VIEWING REMOTE SERF OPTICAL PORTS

The optical ports on the Remote, plus current values of operating parameters. The

-n view only shows the ports that are in current use (that is, they have a fiber and connector plugged into them with the other end of the fiber being connected to Remote).

To open the Explorer Tree select

and

indicates the Remote number that corresponds to a Host SFP port number

n is the Remote name).

-n view shows the current usage and alarm status of the

-n view in the EMS View Frame, in the Function (where

Viewing Remote SeRF Optical Ports

Optical Ports On Remote

Optics Number

Port Configuration

Page

Optics Name

UNKNOWN_SFPName

Ip Enable

Optics Type

LongRange

Fwd Launch

Rev Receive

Wave Length

RxBer Fault

0.00001

RxNoLight Fault

Laser Fault

OverDrive Fault

-9dBm

UnderDrive Fault

-27dBm

Host Name

The

-n view provides an alarm summary for the SeRF card on

the identified Remote.

• for this particular port

•

—System-assigned port number and link to the

—User-entered port name or

indicating no name

has been entered

•

—Disabled for Remotes. This parameter indicates if the link is carrying IP traffic. It can only be set on the Host as described in “Configure the Remote SeRF

Optical Ports” on page 158.

•

—Laser range, which is

to meet 3Gbps optical transmission

requirements.

•

—Launch power in dB of REV path signal, from the Remote to the Host.

—Launch power in dB of receive level of the FWD path, from the Host

to the Remote. The minimum REV launch power is -27 dBm, and the maximum is

-9 dBm.

•

• fiber. Fault threshold is

•

—Number displayed is wave length transmitted through this port

—Yellow indicates that there ware too many errors on the receiving

—Red indicates that no light is detected on the receiving fiber

•

• threshold is

• underdrive is from -28dBm to -33dBm. Fault threshold is

•

—Red indicates reverse path laser is not sending light

—Red indicates forward path optical signal is too strong. Fault

—Yellow indicates forward path optical signal is too weak. The

—Name of the Host at the other end of the fiber.

Managing Remote Units

Alarm Summary of RF Groups of Remote-

Remote-

Alarm Summary of RF Groups of Remote-

System View,Remotes,Remote#-x,RF Groups

Remote#

DART

LPA

10.10 VIEWING AN ALARM SUMMARY OF THE REMOTE RF

ROUPS

The four RF groups on a particular Remote (

To open the the Function Explorer Tree select

n is the Remote name).

and

indicates the Remote number that corresponds to a Host SFP port number

n view provides an alarm summary for the

n).

n view in the EMS View Frame, in

(where

To understand how the EMS maps the RF Groups in the Remote to their representation in the GUI, see “RF Groups in the Remote and the EMS GUI” on

page 160. The RF Group alarm indicators are listed below.

•

—Summary alarm state of the DART card upconverter, downconverter and the DART FPGA. Yellow indicates that a Minor alarm is the highest-level alarm and Red indicates that a Major alarm exists for the DART.

•

—Summary alarm state of Linear Power Amplifier (LPA), where both LPA indicators refer to the same LPA. Yellow indicates that a Minor alarm is the highest-level alarm and Red indicates that a Major alarm exists for the LPA.

Viewing an Alarm Summary of the Remote RF Groups

LNA

Power Det

Alarm

Summary of RF Groups on Remote

•

—Summary alarm state of the Low Noise Amplifier (LNA). Red indicates that

an active alarm exists for the LNA.

• configuration, the

When a new dual-slot 40W RF Module is installed in a Prism system, in the

—Red indicates that the LPA has been shut down. On initial

indicator will be red until the link is created.

window, the status of the second LPA is in the slot

below where the DART appears in the GUI.

The following figure shows:

•• 40W RF Module, PCS 1900 Non-Diversity Enclosure for Prism Remote installed in

Slots D and C. The second LPA status is shown in Slot C.

•• 40W RF Module AWS 2100 Non-Diversity Enclosure for Prism Remote installed in

Slots B and A. The second LPA status is shown in Slot A.

Managing Remote Units

Alarm Summary of RF Groups of Remote-

System View,Remotes,Remote#-x,RF Groups

Remote#

10.11 VIEWING RF BAND ALARM DETAILS

The indicators and their current values.

11 To open the

in the Function Explorer Tree select (where number and

indicates the Remote number that corresponds to a Host SFP port

n is the Remote name).

n view shows band-specific alarm

n view in the EMS View Frame,

Viewing RF Band Alarm Details

DART

Alarm Details

of DART-

of Group

on Remote-

Alarm Details of DART-n of Group

on Remote-

• DART Major Alarms

DART Fault

DART DC Supply Fault

DART Hardware Mismatch Fault

DART Over Temperature Fault

84°C

DART Remote Ranging Fault

• Power Detector Major Alarms

System VSWR Fault

RF Power Fault

0 dBm

22 Click on a

band in the RF Groups view (upper link) to open the

n window.

The

n window has the the following

components. For corrective actions for alarm states, refer to “Troubleshooting

Alarms” on page 264.

–

—Summary alarm state of the DART card upconverter downconverter and the DART FPGA. Red indicates that either the clock source for the DART card is outside the acceptable range or the DART FPGA is not programmed.

–

—Red indicates DART card DC supply is faulted.

—Red indicates an invalid passband

configuration for the DART.

–

temperature is too high. Fault threshold is

–

—Red indicates DART card internal

—Red indicates that the Host is unable to implement the signal delay entered in the RF Band Configuration Page (described in “Link the Host and Remote DARTs.” on page 159).

–

—Red indicates a VSWR fault at the interface to the

antenna (greater than 3:1).

–

output is too low. The threshold for this fault is

—Red indicates that the RF power measured at the antenna

Managing Remote Units

• LNA Major Alarms

LNA Power Fault

• LPA Major Alarms

LPA Disable Fault

LPA VSWR Fault

LPA DC Fault

LPA Loop Fault

LPA Over Power Fault

LPA Low Power Fault

LPA Missing Fault

• DART Minor Alarms

DART Low Temperature Fault

-40°C

• LPA Minor Alarms

LPA High Temperature Fault

–

error.

–

because it encountered a problem.

–

Fault threshold is

–

—Red indicates that the voltage level inside the LPA is outside

its acceptable range.

–

working.

–

high enough to damage the LPA.

–

not meet specification.

–

Fault threshold is

—Red indicates that the Low Noise Amplifier has an internal

—Red indicates that the Linear Power Amplifier is disabled

—Red indicates that an internal VSWR fault state of the LPA.

—Red indicates that the feedback loop inside the LPA is not

—Red indicates that the power level inside the LPA is

—Red indicates that the internal gain of LPA does does

—Red indicates that the LPA is missing.

—Yellow indicates DART temperature is too low.

–

temperature is too high.

—Yellow indicates that the LPA internal

Viewing Remote GPS Alarms and Location Parameters

Remote GPS

System View,Remotes,Remote#-x,GPS

Remote#

10.12 VIEWING REMOTE GPS ALARMS AND LOCATION PARAMETERS

The

(Global Positioning System) page shows the alarm status and location

parameters for the Remote GPS function.

GPS is not supported in the softw are version documented in this manual so the Remote GPS page compone

nts are not described.

To open the GPS summary in the EMS View Frame, in the Function Explorer Tree select

(where

that corresponds to a Host SFP port number and

indicates the Remote number

n is the Remote name).

Managing Remote Units

Intentionally Blank Page

MANAGING ALARMS

Content Page

11.1 Viewing Active Alarms .....................................................................................258

11.2 Viewing an Alarm History Log...........................................................................259

11.3 Masking an Alarm Type ...................................................................................260

11.4 Unmasking an Alarm Type ...............................................................................262

11.5 Troubleshooting Alarms...................................................................................264

Some EMS parameter values are associated with alarms. When a parameter enters an alarm state, an alarm status indicator is activated where the color of the indicates the alarm severity, where:

•• Red indicates a major alarm

•• Yellow indicates a minor alarm

•• Green indicates a normal (okay) state

•• Grey indicates that the alarm has been masked

•• White indicates that an associated device is unplugged or missing.

Managing Alarms

Active Alarm List

System View

Active Alarm List

Alarm Type

Host No

Host Name

Remote No

Remote Name

Module Type

Module Number

Severity—Major

Minor

Time Stamp

YYYY:MM:DD:HH:MM:SS

11.1 VIEWING ACTIVE ALARMS

Viewing the

window is a means to determine alarm type, Host unit

name, Remote name, time stamp, and other information for active alarms.

11 To access the EMS Menu bar, in the Function Explorer Tree, click on

display a system view.

22 To open the

window, in the EMS Menu bar select

The

•

table provides the following information:

—Descriptive name of alarm. For more information, refer to

“Troubleshooting Alarms” on page 264.

•

—Always “1”

—User-defined Host name or system default

—System assigned number of Remote from which alarm came

—User-defined Remote name or system default

—Type of unit that is experiencing the alarm (SeRF, DART, LPA, LNA,

Power Detector, SFP)

•

—Unit number of module experiencing the alarm condition

—Date and time when the alarm occurred (

)

11.2 VIEWING AN ALARM HISTORY LOG

System View

Active Alarm List

Alarm Log History

Active Alarm List

History Log

Alarm Log History

Active Alarm List

Alarm Log History

Clear

Viewing an Alarm History Log

11 To access the EMS Menu bar, in the Function Explorer Tree, click on

display a system view.

22 To open the

33 To open the

link.

window, in the EMS Menu bar select

window, in the

window click the

The window (see “Viewing Active Alarms” on page 258), except the window includes the severity of

window components are the same as for the

if the alarm condition has been cleared.

Managing Alarms

System View

Alarm Management

Alarm Management Tabl

11.3 MASKING AN ALARM TYPE

Only a user logged in under the admin or a Network Manager account can change Prism system settings t

Masking an alarm type causes the EMS to stop reporting alarms of that type until the alarm is unmasked. By default all alarms are unmasked. When an alarm type is masked (mask status enabled), the following is true:

•• The corresponding status indicator shows in gray.

•• The alarm state is not calculated into the higher level alarm summary

•• The corresponding trap is not sent to SNMP managers.

To mask an alarm:

hrough the EMS.

11 To access the EMS Menu bar, in the Function Explorer Tree, click on

display a system view.

22 In the EMS Menu bar, select

The

e window opens.

Masking an Alarm Type

enable

Apply

33 Click the list in the Mask Status column for the alarm for which you want to enable

a mask, select

, and then click

In the following graphic, a mask has been enabled for the SeRF Secondary Clock Priority Fault.

Managing Alarms

System View

Alarm Management

Alarm Management Tabl

11.4 UNMASKING AN ALARM TYPE

Only a user logged in under the admin or a Network Manager account can change Prism system settings t

Unmasking an alarm type causes the EMS to report alarms of that type until the alarm is masked. By default all alarms are unmasked.

hrough the EMS.

11 To access the EMS Menu bar, in the Function Explorer Tree, click on

display a system view.

22 In the EMS Menu bar, select

The

e window opens.

Unmasking an Alarm Type

disable

Apply

33 Click the list in the Mask Status column for the alarm for which you want to

disable a mask, select

, and then click

In the following graphic, masking has been disabled for the SeRF Secondary Clock Priority Fault.

Managing Alarms

HostDARTDCSupplyFault

HostDARTDwnCon1SynLockFault

HostDARTDwnCon2SynLockFault

11.5 TROUBLESHOOTING ALARMS

This section lists alarms that can be viewed in EMS alarm summaries.

Table 11-1. EMS Alarm Descriptions and Corrective Actions

Alarm Name Alarm

Sev erity Level

Major The voltage supplied

Major Lock state of the

Description Action

Check whether the to the DART board is too low. (Host DC Power board accepts 21-60 Vdc and draws up to 427.28 Watts per Host.)

first down converter synthesizer. Causes RF mute

second downconverter synthesizer. Causes RF mute

Vdc supply is in the

range of 21-60 Vdc.

If persistent (may be

transient on

startup), contact

ADC.

When a DART is

being turned up or

after a power reset,

the DART

synthesizers may go

in and out of lock,

which may cause

this fault. Unless

this fault persists,

these transient

faults can be

ignored. If

persistent, consult

ADC, replace DART

When a DART is

being turned up or

after a power reset,

the DART

synthesizers may go

in and out of lock,

which may cause

this fault. Unless

this fault persists,

these transient

faults can be

ignored. If

persistent, consult

ADC, replace DART

Troubleshooting Alarms

HostDARTFault

Active

Alarm List

HostDARTHardwareMismatchFault

HostDARTOverDriveFault

HostDARTUnderDriveFault

HostDARTUpConSynLockFault

Table 11-1. EMS Alarm Descriptions and Corrective Actions (Cont.)

Alarm Name Alarm

Sev erity Level

Major Summary status of

Major Indicates a hardware

Description Action

Inspect DART upconverter and/or downconverter and DART FPGA status. The clock source for the DART is outside an acceptable range or the DART FPGA is not programmed. may also occur with the DARTDCSupplyFault.

mismatch for the DART boards between linked Host and Remote

upconverter and/or

downconverter

alarms. If these

alarms are found

and persist, consult

ADC, replace DART.

If no

upconverter/downc

onverter alarms are

found, unplug DART

from Host, then

replug DART in Host

to reload the FPGA. If

persistent, consult

ADC, replace DART.

Check if a linked

DART of one type

was unplugged and

not decommissioned

then replaced with a

DART of another

type. Make sure

linked Host and

Remote DARTs are

of same type

for

Major the RF signal

received from BTS is greater than +5dBm. The allowed range is

-25 dBm to +5 dBm.

Minor When the Host input

level is 20 dB less than the expected Host DART Input. For example, for 30 dB of Host DART gain (-25 dBm expected input), the threshold is -45 dBm. For 0 dB of Host DART gain (+5 dBm expected input), the threshold is -15 dBm.

Major Lock state of the

upconvertor synthesizer

Lower the gain on

the Host DART. If

persistent when

gain is zero, lower

power of BTS RF

signal. Maximum

power at zero gain is

+19dBm.

Increase the gain of

the Host DART. If

persistent when

gain is at maximum,

increase power of

BTS RF signal.

If persistent, consult

ADC, replace DART

Managing Alarms

HostModuleMissingFault

HostOverTempFault

HostSERFFault

Active Alarm List

HostSERFOptOverDriveFault

HostSerfOptRxBerFault

HostSERFOptRxNoLightFault

HostSERFOptUnderDriveFault

HostSERFRmtLostFault

Table 11-1. EMS Alarm Descriptions and Corrective Actions (Cont.)

Alarm Name Alarm

Sev erity Level

Major One of the pluggable

Major The temperature of

Major Summary fault for

Major The power of the

Description Action

Either insert a modules is missing on the Host

the Host is Over its upper limit of 84C

SeRF combining SeRF synthesizer and SeRF FPGA status. Either the clock source is not acceptable or the SeRF board FPGA is not programmed.

signal received from the Remote exceeds the maximum level of -9dBm

replacement unit or

decommission the

unit

Check Host fan and

ambient conditions

Check for related

SeRF alarms in

and respond to

those alarms if

found. If no SeRF

alarms exists, FPGA

is faulty; consult

ADC, replace SeRF. If

SeRF is replaced, use

the same Compact

Flash to retain

system

configuration.

Externally attenuate

Remote return path

signal or replace

Remote SFP with one

of less strength

Minor Too many errors on

the receiving fiber

Major No light detected

from the receiving fiber

Minor The power of the

signal received on the fiber is below the minimum power level of -27dBm

Major Host is not receiving

messages from connected Remote or there is an IP conflict causing loss of communication

Check fiber for kink

or sharp bend. Check

for too much gain.

Make sure the fiber

is clean.

Check for broken or

disconnected fiber.

Check for out of

service Remote

Check fiber for too

much attenuation,

dirty connectors.

Check SFP type

being used (too

weak for range)

Check for optics

disconnect. Check

for Remote out of

power or out of

service

Check for IP conflict



Troubleshooting Alarms

HostSERFSynthAlarmFault

HostSysCardFanFault

HostUnderTempFault

RmtAcPowerSupplyFault RmtACPowerSupplyMon1Fault

RmtDARTDCSupplyFault

RmtDARTDwnCon1SynLockFault

RmtDARTDwnCon2SynLockFault

RmtDARTFault

Table 11-1. EMS Alarm Descriptions and Corrective Actions (Cont.)

Alarm Name Alarm

Sev erity Level

Major The configured clock

Major The Host fan is

Minor The temperature of

Major A power supply is in

Description Action

If clock source is source is not providing an acceptable signal

spinning too slowly

the Host is under its lower operating limit (-40 degrees Fahrenheit )

a failed state

onboard and

persists, consult

ADC, replace system

card. If clock source

is external, check

clock source,

connection

Check fan for

mechanical problem.

If not fixable,

consult ADC, replace

fan

Check ambient

conditions

If persistent, consult

ADC, may have to

replace one or more

power supply

located in the SeRF

Module

Major The on-board DC

voltages are out of their valid ranges

Major Lock state of the

first downconverter synthesizer

Major Lock state of the

second downconverter synthesizer

Major Summary fault

status of DART upconvertor/ downconverter and DART FPGA status

If persistent (may be

transient on

startup), check If the

DC power switch to

the DART is in the

OFF position. If DC

power is ON, reset

set the RF Module. If

the alarm persists,

consult ADC, as you

may have to replace

RF Module

If persistent, consult

ADC, replace RF

Module

If persistent, consult

ADC, replace RF

Module

If persistent, consult

ADC, replace RF

Module

Managing Alarms

RmtDARTHardwareMismatchFault

RmtDARTOverTempFault

RmtDARTUnderTempFault

RmtDARTUpConSynLockFault

RmtLNAPowerFault

RmtLPADcFault

RmtLPADetectFault

RmtLPADisableFault

RmtLPAHighTempFault

Table 11-1. EMS Alarm Descriptions and Corrective Actions (Cont.)

Alarm Name Alarm

Sev erity Level

Major Indicates a hardware

Major Indicates that

Minor Indicates that

Major Lock state of the

Description Action

Check if a linked mismatch for the DART cards between linked Host and Remote

detected temperature is above the maximum ambient temperature of 50°C.

detected temperature is below the lower acceptable limit (-40 degrees Farenheit)

upconverter synthesizer

DART of one type

was unplugged and

not decommissioned

then replaced with a

DART of another

type. Make sure

linked Host and

Remote DARTs are

of same type

Check air flow

around Remote. If

persists, consult

ADC.

Check ambient

conditions

If persistent, consult

ADC, replace RF

Module

Major The low noise

amplifier has an internal error

Major The LPA voltage

level is outside its acceptable range. Causes RF mute

Major Presence fault state

of the LPA (the LPA cannot be detected)

Major Disable state of the

LPA. The LPA is disabled because it encountered a problem

Minor LPA is overheated Check ambient

If persistent, consult

ADC, replace RF

Module

Reset LPA and

recheck. If alarm

keeps coming back,

consult ADC, replace

RF Module

If persistent, consult

ADC, replace RF

Module

See “Identify the LPA

Fault” on page 236.

If fault cannot be

corrected, replace

the RF Module

temperature. Check

remote temperature.

Reset LPA. If

persistent, consult

ADC, replace RF

Module

Troubleshooting Alarms

RmtLPALoopFault

RmtLPALowPowerFault

RmtLPAOverPowerFault

RmtLPAVswrFault

RmtMajorExtAlarmInputFault

RmtMinorExtAlarmInputFault

RmtModuleMissingFault

Table 11-1. EMS Alarm Descriptions and Corrective Actions (Cont.)

Alarm Name Alarm

Sev erity Level

Major The feedback loop

Major Internal low power

Description Action

Lower DART(s) inside the LPA is not working. Causes RF mute

fault state of linear power amplifier (the gain of one or more internal amplifiers does not meet specification). Causes RF mute

Internal over power fault state of linear power amplifier (power level is high enough to damage LPA)

remote gain by 10dB,

reset the LPA, then

return gain to values

previously

configured. If fault

persists, replace RF

Module.

Reset LPA. If error

persists, consult

ADC, replace RF

Module

Reduce FWD gain,

reset the LPA, and

then monitor power

levels. Adjust gain to

acceptable values.

Reset LPA. If error

persists, consult

ADC, replace RF

Module

Major Internal VSWR fault

state of linear power amplifier (greater than 3:1). Causes RF mute

Major External major alarm

contact input

ALARMTYPE (Minor, OK)

Major One of the pluggable

External minor alarm contact input

modules is missing on the Remote

Reset LPA. If error

persists, consult

ADC, replace RF

Module

Not used

Replace or

decommission the

missing module

Managing Alarms

RmtNoRFPowerFault

RmtOverTempFault

RmtRangingFault

RmtSERFFault

Table 11-1. EMS Alarm Descriptions and Corrective Actions (Cont.)

Alarm Name Alarm

Sev erity Level

Major The RF power

Description Action

Verify that there is measured at the antenna output is too low. The threshold for this fault is 0 dBm.

an active Host DART

Under Drive Fault,

which indicates a

loss of BTS input. If

this fault is active,

address this

problem and the

RmtNoRFPowerFault

should clear.

If there is not an

active Host DART

Under Drive Fault,

the problem may be

the result of another

LPA fault such as

VSWR or Over Power

Faults. If there are no

other faults, then

reset the Remote RF

Module. If power is

still not, present

then replace the

module.

Major High temperature

reading from RSI card in Remote

Major The configured

delay is outside the range of what can be supplied.

Major Summary fault for

SeRF combining SeRF synthesizer and SeRF FPGA status

Check ambient

temperature. Check

remote temperature.

If not an actual over

temperature fault,

shut down Remote,

consult ADC

Enter a delay value

within the

permissible range

see “Link a Remote

DART to a Host

DART” on page 162

Check for related

SeRF alarms in active

alarms list and

respond to those

alarms if found. If no

SeRF alarm exists,

FPGA is faulty;

consult ADC, replace

SeRF

Troubleshooting Alarms

RmtSERFHstLostFault

RmtSERFOptLaserFault

RmtSERFOptOverDriveFault

Table 11-1. EMS Alarm Descriptions and Corrective Actions (Cont.)

Alarm Name Alarm

Sev erity Level

Major Remote not

Description Action

There are two receiving any messages from connected Host

possible actions:

•Check for optics disconnect. Check the optical link and determine the source of lost communications. If an optical meter on the output of the SFP determines that no power is being transmitted, or meter measuring receive levels at the SFP determines the receiver is broken, replace SFP with the appropriate type for the range of signal supported.

•There may be an IP conflict. For example, if the Host is configured in External Network mode but there's not a DHCP server running on the network, the Remote will not receive an IP address, there therefore will not be communication with the Host, which would activate this alarm.

Major SFP reports that

laser of forward path is faulty

Major The power of the

signal received at the Remote is too strong

Replace SFP with the appropriate type for range of signal supported

Externally attenuate Host forward path signal or replace Host SFP with one of less strength

Managing Alarms

RmtSERFOptRxBERFault

RmtSERFOptRxNoLightFault

RmtSERFOptUnderDriveFault

RmtSERFSynthAlarmFault

RmtSystemVswrFault

RmtUnderTempFault

Table 11-1. EMS Alarm Descriptions and Corrective Actions (Cont.)

Alarm Name Alarm

Sev erity Level

Minor Too many errors on

Major No light detected

Minor The power of the

Major Onboard

Description Action

Check fiber for kink

the receiving fiber

from the receiving fiber

signal received on the fiber is too weak

synthesizer fault

or sharp bend. Check for too much gain. Make sure the fiber is clean.

Check for broken or disconnected fiber. Check for out of service Host

Check fiber for too much gain, dirty connectors. Check SFP type being used (too weak for range)

Check clock signal coming from Host. Host is not generating a proper signal. Possibly Host clock source is bad or Host has bad FPGA

Major LPA VSWR Fault Perform cable

sweeps on external antenna cable system. Put a load on the Remote by disconnecting the external antenna cable to determine if the source of the VSWR condition is internal or external. If it's internal, replace the RF Module. If it's external, troubleshoot and determine source of high VSWR reading.

Minor Temperature is

below lower acceptable limit (-40 degrees Farenheit)

Check ambient conditions

Troubleshooting Alarms

fwuHstSERFOptIpEnableFault

fwuRmtFanOverSpeedFault

fwuRmtFanUnderSpeedFault

fwuRmtOpenDoorFault

fwuHstSysCardPrimaryCPFault

fwuHstSysCardSecondaryCPFault

Table 11-1. EMS Alarm Descriptions and Corrective Actions (Cont.)

Alarm Name Alarm

Sev erity Level

Major An attempt to enable

Minor Remote fan has an

Major Remote fan has an

Description Action

The alarm is cleared IP on a fiber (Host) to a Remote that already has IP enabled on another fiber (Host) has been made.

Over Speed fault

Under Speed fault

if IP is disabled on

the fiber. It is also

cleared if an ACK is

later received from

the Remote. This

latter condition can

occur if the fiber that

was already carrying

IP later has IP

disabled, or if the

fiber otherwise

becomes disabled.

For information on

setting Ip Enable,

see

“Configure the Remote SeRF Optical Ports” on page 158

Fan may require replacement.

Fan may require cleaning and/or replacement.

Minor Door on the Remote

is open

Major Primary Clock

Priority Fault

Minor Secondary Clock

Priority Fault

Close the Remote door

Set Primary CPL within acceptable range

Set Secondary CPL within acceptable range

Managing Alarms

SNMP INTERFACE

Content Page

12.1 EMS SNMP Interface .......................................................................................276

12.2 SNMP Overview..............................................................................................277

12.2.1 Background Information on SNMP .............................................................278

12.2.2 MIB Used by FlexWave System .................................................................280

12.3 SNMP Procedures ...........................................................................................281

12.4 Accessing the FlexWave-Prism Agent MIB ..........................................................282

12.5 Configuring the Trap Viewer.............................................................................283

12.5.1 Registering the Manager for Receiving Traps 

(static—non AdventNet MIB Browser) .............................................................283

12.5.2 Registering the Manager for Receiving Traps 

(dynamic—AdventNet MIB Browser) ...............................................................284

12.5.3 Viewing Traps.........................................................................................287

12.5.3.1 Date and Time Stamps ....................................................................287

12.5.3.2 Variable Bindings ............................................................................288

12.5.3.3 View the Traps................................................................................290

12.6 FlexWave-URH Agent MIB................................................................................292

12.7 Traps ............................................................................................................308

SNMP Interface

12.1 EMS SNMP INTERFACE

SNMP (Simple Network Management Protocol) is an international standard for remote monitoring and control of online devices. The EMS provides an interface for those wishing to access a Prism system using an SNMP manager such as the AdventNet application shown in Figure 12-1.

Figure 12-1. EMS SNMP Interface Example

The FlexWave EMS SNMP interface can manage FlexWave Prism and URH units. This document describes how

to use the SNMP interface w ith a P rism system.

SNMP Overview

12.2 SNMP OVERVIEW

The FlexWave system SNMP interface, shown schematically in Figure 12-2, allows a remote user using an SNMP manager to access the same database as accessed by the standard EMS interface. The database accessed is an SNMP database called a Management Information Base (MIB).

Web

GET/SETTRAP

Network port

EMS

INTERNAL

MIB

Windows 2000 or Windows XP

computer running

Internet Explorer 6.0

and/or SNMP Manager

URH Host Unit

75356-05

Figure 12-2. SNMP Interface

This section describes the FlexWave system SNMP interface, and provides procedures for using the SNMP interface to “get” and “set” system parameters and receive alarms.

In SNMP terminology, the parameters in a MIB are called “objects” and alarms are called “traps.”

SNMP Interface

12.2.1 Background Information on SNMP

SNMP (Simple Network Management Protocol) is an international standard for remote control of online devices. A typical scenario involves the devices being controlled, remote computers (called managers) that can control them, a network connection, and SNMP software. The SNMP software includes SNMP manager software on each controlling computer and SNMP “proxy agent” software and one or more MIBs on each of the controlled devices.

A MIB is a database defined in accordance with SNMP requirements. A MIB consists of tables of objects used to exchange information between a manager and agent. Information is exchanged using three basic operations: GET, SET, and TRAP. A manager uses GET to obtain an object value from a MIB and SET to set an object to a new value. A TRAP is a notification that is sent out by an agent when the value of a trap object exceeds a threshold defining an alarm state.

In a manager browser, a MIB looks like an Explorer hierarchy of folders and files, as shown in Figure 12-3. The items at the lowest level, analogous to files in the Explorer view, are not files, however; they are objects that each represent one system parameter (object) and its current value. MIB objects are arranged in tables. Each set of objects (within a single folder) represents one such table. An object marked with a key symbol indicates that view is the key value for that table.

SNMP Overview

Figure 12-3. MIB in MIB Browser

In the FlexWave system, the MIB accessed through the SNMP interface is the same database as used by the EMS graphical user interface. There is therefore a one-to-one correspondence between MIB objects and the parameters displayed in the EMS Web pages. Likewise, there is a one-to-one correspondence between the SNMP trap objects and the alarm indicator LEDs displayed on the EMS pages. The MIB object names and the EMS page names for the same items differ in a way that can be easily figured out. For example, the MIB object “fwuHstDARTPassBand” corresponds to the “Host DART Pass Band” parameter on the Host DART Configuration and Alarm Details Page.

SNMP Interface

12.2.2 MIB Used by FlexWave System

The FlexWave system uses a single MIB called the ADC-FLEXWAVE-URH.mib. The MIB resides on the SeRF card in the Host where the EMS software also runs. The SNMP proxy agent software required for the interface with SNMP managers also resides and runs on the Host SeRF card.

A complete list of the objects that compose the FlexWave-Prism Agent MIB are listed in this section in two tables. Table 12-2 on Page 292 lists objects that may be accessed for GET/SET operation. Table 12-3 on page 308 lists traps that are sent to SNMP managers registered to receive them whenever the respective fault condition occurs.

SNMP Procedures

12.3 SNMP PROCEDURES

This topic contains procedures done at the SNMP manager to interact with the FlexWave-Prism Agent MIB. Any SNMP manager may be used. These procedures are illustrated with examples from an AdventNet MIB Browser.

Figure 12-4 shows the features of a typical MIB browser.

Figure 12-4. Typical MIB Browser

Examples show n in this chapter use the AdventNet MIB Browser. Some procedural details may vary with a

nother browser, but the basic steps are the same.

SNMP Interface

Host

Port number

12.4 ACCESSING THE FLEXWAVE-PRISM AGENT MIB

The FlexWave-Prism Agent MIB can be accessed using any SNMP manager with an active network connection. The IP address of the FlexWave-Prism Host must be known and entered in the MIB browser.

11 On the manager computer, open the MIB Browser.

22 Load the ADC-FLEXWAVE-URH.mib file.

33 Enter the IP address of the Host of the FlexWave-Prism system in the text box

provided next to

44 Enter the

as 8001.

55 Enter the Read Community as public and Write Community as private.

66 To see an overview the MIB content, expand the MIB tree.

Configuring the Trap Viewer

155.226.32.101 8003 SNMP_VERSION_2c public 30 5 ACTIVE

12.5 CONFIGURING THE TRAP VIEWER

Configuring a trap viewer enables it to receive traps from the FlexWave system.

12.5.1 Registering the Manager for Receiving Traps (static—non AdventNet MIB Browser)

To receive traps, the manager must first be registered with the FlexWave-Prism Agent using the following procedure.

This procedure cannot be done with the AdventNet MIB Browser.

11 Open a telnet or ssh connection to the Host.

22 Stop the agent process with the following command: service URHagent stop

33Edit /usr/local/fwu/conf/snmp/v2managertable.txt and add a line for each

trap receiver that looks like this:

The balance of the line should be the same for all trap managers, except:

•• Replace “155.226.32.101” i

used by the trap manager.

• 8003 is the destin number is supported.

ation port used. The Default SNMP trap port is 162. Any port

n the example with the IP address of the computer being

44 Start the agent process with the following command: service URHagent start

You can't use both a static and dynamic trap agent configuration. You can only use one or the other.

If you configure static, the dynamic entries will be deleted.

SNMP Interface

SNMP-TARGET-MIB

Host,Port and Community

Write

Community

12.5.2 Registering the Manager for Receiving Traps (dynamic—AdventNet MIB Browser)

To receive traps, the manager must first be registered with the FlexWave-Prism Agent using the following procedure.

11 Open the MIB-browser and load the

22 Expand the MIB tree.

33 Set the common parameters such as

, and

Configuring the Trap Viewer

snmpTargetAddrTable

View SNMP Data Table

View -> SNMP Table

Start

Add

44 Select the

55 In the window that opens, click

and then click on the

icon or 

66 In the window that opens, click

to add the manager information.

SNMP Interface

snmpTargetAddrName

snmpTargetAddrDomain

snmpTargetAddrTAddress

snmpTargetAddrTimeout

snmpTargetAddrRetryCount

snmpTargetAddrTagList

public

snmpTargetAddrParams

group1

snmpTargetAddrStorageType

77 Set the manager information as follows:

•

—any unique name

—.1.3.6.1.6.1.1

—IP address of the machine where you want to receive the traps, The port number should also be provided next to IP address (for example, #8004)

•

• view the traps; the default community string is

•

You can't use both a static and dynamic trap agent configuration. You can only use one or the other.

If you configure dynamic, the static entries will be deleted.

—timeout value

—retry count

—any string that will be used as a community string to

—any string, usually

—3

88 Click

The information given in Step 7 displays as a new row in the SNMP Table.

99 Click

to close the SNMP Table.

Configuring the Trap Viewer

EEE, MMM dd, HH:mm:ss

TUE, FEB 26, 13:30:15

12.5.3 Viewing Traps

This section describes how to view traps in the MIB Browser and how to interpret responses.

12.5.3.1 Date and Time Stamps

The FlexWave MIB imports the date and time in the format of:

Table 12-1 describes the date and time fields.

Table 12-1. MIB Date and Time Stamp Fields

Field Contents Variable

EEE Three letter abbreviation for the day of the week SUN - SAT

MMM Three letter month abbreviation JAN - DEC

dd Two-digit day of the month 01-31

HH Two-digit hour for a 24-hour clock; AM/PM will not

display

mm Two-digit minute 00 through 59

ss Two-digit second 00 through 59

00 - 23

For example, Tuesday February 26 at 1:30:15 PM would be displayed as:

SNMP Interface

12.5.3.2 Variable Bindings

For Host Traps, there are 9 variable bindings:

11 sysUpTime

22 snmpTrapOID

33 fwuTrapSequenceNumber

44 fwuTrapTimeStamp

55 fwuModuleNumber

66 fwuModuleType

77 fwuHstNumber

88 fwuHstName

99 fwuNotificationStatus

For Remote Traps, there are 11 variable bindings:

11 sysUpTime

22 snmpTrapOID

33 fwuTrapSequenceNumber

44 fwuTrapTimeStamp

55 fwuModuleNumber

66 fwuModuleType

77 fwuHstNumber

88 fwuHstName

99 fwuRmtNumber

100fwuRmtName

111 fwuNotificationStatus

You can therefore determine the affected module based on the module number and type (variable binding 5 and 6).

The module types are represented numerically as follows:

11 Host

22 Remote

33 SeRF

44DART

55 SFP

66 RSI

77 RDI

88 Power Detector

99 LPA

100 LNA

111 Duplexer

122 GPS

Configuring the Trap Viewer

SNMP Interface

Trap Viewer

Port

162

Community

public

Add

Port

Community

Trap

TrapList

Load

Start

12.5.3.3 View the Traps

11 In the AdventNet MIB Browser, click the

To receive traps using the manager, you must first register the manager using the procedure in “Registering the Manager for Receiving Traps (static—non AdventNet MIB

Browser)” on page 283 o (dynamic—AdventNet MIB Browser)” on page 284.

The

r in “Registering the Manager for Receiving Traps

dialog opens.

icon on the Toolbar.

22 In the

33 (Optional) In the

traps. The default is

44 Click the

the

The Port and Community list can be deleted by clicking the Delete Entry button.

55 Click the

66 Click the

box, enter the desired port number. The default is

button to add the

box, enter the community string for the incoming

and

list to the

list box).

button to load the trap parser file.

button. Trap Viewer begins to receive traps from the specified port

list (visible in

and community.

Configuring the Trap Viewer

Trap Table

Class

Type

Source

Date

Message

Enable Logging

trap.log

Show Details

View Trap Details

Stop

Delete Entry

Delete the Selected Rows

Trap Viewer

ParserEditor.Trap Viewer

ParserEditor

The traps when received are listed in the

. The trap table has the

following five columns.

•

—defines the severity of the trap.

—defines the type of the trap or the inform request.

—represents the IP address of the source from where the traps were

sent.

•

—shows the date and time when the trap was received.

—lists the VarBind list of the trap, if any.

The status of the trap is displayed in the status pane at the bottom of the dialog box. Moreover, the Trap count and the inform count is displayed in the status pane.

77 To log the received traps, select the

traps are logged to a file. The default name of the log file is

88 To view the details of the traps, click on the

right-click the trap in the trap table and select

99 Click

to stop listening to the port.

100 To delete a trap, select the trap and click the

right-click the trap in the trap table and select

check box. All the incoming

button. You can also

Another option in

is the

can filter the incoming traps according to certain criterion called the Parser Criteria. The configuration of the criterion is made possible by using the

SNMP Interface

GET/SET

Enable

Disable

Enable

fwuTrapSequenceNumber

fwuTrapTimeStamp

fwuHstOverTempFaultMask

fwuHstUnderTempFaultMask

fwuHstSERFFPGAStatus

fwuHstSysCardRIADCPartNumber

fwuHstSysCardRISerialNumber

fwuHstSysCardRIDateCode

fwuHstSysCardRIHWVer

12.6 FLEXWAVE-URH AGENT MIB

Objects in the FlexWave-URH Agent MIB divide into two types: trap objects. This section describes the

objects. For information on trap

objects and

objects, see “Traps” on page 308.

Table 12-2 lists all objects within the FlexWave-URH Agent MIB that are available for

GET and/or SET commands. Objects that are available for SET commands are also available for GET commands.

For each SNMP syntax, there is a range of values defined in the MIB file. These are the possible values that can be entered in a SET command and returned in a GET command.

You can also (

) or not (

masking, which sets whether the trap will be raised

). Thresholds dictate when a trap will be activated. Table 12-2 lists all FlexWave-URH Agent MIB objects for which traps, masks and thresholds are sent to the SNMP manager.

Table 12-2. FlexWave-URH Agent MIB GET/SET Objects

Object Name Des cription SNMP Sy ntax Get

or SET

Total number of traps raised by the agent.

Counter32 GET

Time stamp when trap was raised.

Show masking status of Over Temperature fault. Masking is disabled by default. If enabled, the trap will not be raised.

Show status of masking of Under Temperature fault. Masking is disabled by default. If enabled, the trap will not be raised.

Host SeRF Card FPGA status where 0 indicates that the SeRF can talk to the FPGA and 1 indicates that it cannot

Remote Inventory Data-ADC Part Number

Remote Inventory Data-Serial Number

Remote Inventory Data-Date Code

Remote Inventory Data-Hardware Version

DateAndTime GET

MASKType SET

INTEGER GET

DisplayString GET

FlexWave-URH Agent MIB

fwuHstSysCard10MhzRefClock

fwuHstSysCardCPLevel

fwuHstSysCardFanFaultMask

fwuHstSysCardPrimaryCPFaultMask

fwuHstSysCardSecondaryCPFaultMask

fwuHstOverTempThreshold

fwuHstUnderTempThreshold

fwuRmtSERFFPGAStatus

fwuRmtRSIRIADCPartNumber

fwuRmtRSIRISerialNumber

fwuRmtRSIRIDateCode

fwuRmtRSIRIHWVer

fwuRmtCapacity

fwuHstNumber

fwuHstName

Table 12-2. FlexWave-URH Agent MIB GET/SET Objects (Cont.)

Object Name Des cription SNMP Sy ntax Get

System Card Reference clock, which can be can be internal (0) or external (1)

System Card Master Clock Priority Level, which can be from 0 to 15

Host System Card Fan Fault Mask. The alarm is disabled by default. Enable the alarm by setting it to enabled (1).

Primary Clock Priority Fault Mask. The alarm is disabled by default. Enable the alarm by setting it to enabled (1).

Secondary Clock Priority Fault Mask. The alarm is disabled by default. Enable the alarm by setting it to enabled (1).

Host System Card Over Temperature threshold value. This is not user settable.

INTEGER SET

Integer SET

MASKType SET

Integer32 SET

or SET

Host System Card Under Temperature Threshold value. This is not user settable.

Remote SeRF Card FPGA status where 0 indicates that the SeRF can talk to the FPGA and 1 indicates that it cannot

Remote Inventory Data-ADC Part Number

Remote Inventory Data-Serial Number

Remote Inventory Data-Date Code

Remote Inventory Data-Hardware Version

The number of RF Modules that can be installed in the Remote (1 - 4)

FlexWave URH Host Number HOSTNBRType GET

User assigned name of the Host. It can be 40 characters long

Integer32 SET

INTEGER GET

DisplayString GET

Unsigned32 GET

DisplayString SET

SNMP Interface

fwuHstUnitReset

fwuHstBackPlaneRev

fwuHstAlarmStatusSummary

fwuHstTempMeas

fwuSystemAlarmStatusSummary

fwuHstLinkingMode

fwuHstMajorContactAlarmOutput

fwuHstMinorContactAlarmOutput

fwuRmtMajorContactAlarmOutput

fwuRmtMinorContactAlarmOutput

fwuSystemAlarmSequenceNumber

fwuSystemAlarmAgentUpTime

fwuSystemAlarmType

fwuSystemAlarmHstNumber

fwuSystemAlarmHstName

fwuSystemAlarmRmtNumber

Table 12-2. FlexWave-URH Agent MIB GET/SET Objects (Cont.)

Object Name Des cription SNMP Sy ntax Get

Host SeRF card can be reset by setting a value of 1

Revision of Host back plane. DisplayString GET

Host Alarm Status Summary, where the severity of the alarm is:

•Normal = 1

•Minor = 2

•Major = 3

• Not Present = 0

Host system temperature value in Celsius

System Alarm Status Summary, where the severity of the alarm is:

•Normal = 1

•Minor = 2

•Major = 3

• Not Present = 0

INTEGER SET

ALARMType GET

DisplayString GET

ALARMType GET

or SET

System Linking mode for DART linking

Host Major contact output port state

Host Minor contact output port state

Remote Major contact output port state

Remote Minor contact output port state

Defines the index of the Alarm Table

Agent up time TimeTicks GET

Trap OID of the Alarm OBJECT

Host number from which the alarm has been raised

Name of the Host from which the alarm has been raised

Remote number from which the alarm has been raised

Integer SET

CONTACTTypeGET

Unsigned32 GET

GET

IDENTIFIER

HOSTNBRType GET

DisplayString GET

REMOTENBRT ype

GET

FlexWave-URH Agent MIB

fwuSystemAlarmRmtName

fwuSystemAlarmModuleType

fwuSystemAlarmModuleNumber

fwuSystemAlarmSeverity

fwuSystemAlarmTimeStamp

fwuHstSERFLinuxKernelVer

fwuHstSERFLinuxBootLoaderVer

fwuHstSERFCompactFlashSWVer

fwuHstSERFFPGAVer

fwuHstSERFPPCSNMPHTTPAgentSWVer

fwuHstSERFPPCHWMonSWVer

fwuHstSERFPPCAPPMonSWVer

fwuHstSERFPPCMATEMonSWVer

fwuHstSERFPPCENETMonSWVer

fwuHstSERFPPCFPGAMonSWVer

fwuHstSERFRIDateCode

Table 12-2. FlexWave-URH Agent MIB GET/SET Objects (Cont.)

Object Name Des cription SNMP Sy ntax Get

Remote name from which the alarm has been raised

Type of module raising the alarm

Identifier of the module raising the alarm.

This object gives the severity of this Alarm notification.

•Normal = 1

•Minor = 2

•Major = 3

• Not Present = 0

Time stamp of the Alarm DateAndTime GET

Linux Kernel Version of the Host system

Boot Loader Version of the Host system

DisplayString GET

MODULEType GET

Integer32 GET

ALARMType GET

DisplayString GET

or SET

Compact Flash Version of the Host system

Version of FPGA image loaded on SeRF

Software Version of the HTTP/SNMP agent running on Host

Software Version of the Hardware Monitor process running on the Host

Software Version of the Application Monitor process running on the Host

Software Version of the Mate Monitor process running on the Host

Software Version of the Ethernet Monitor process running on the Host

Software Version of the FPGA Monitor process running on the Host

DisplayString GET

Host SeRF Inventory-Date Code

DisplayString GET

SNMP Interface

fwuHstSERFRIHWVer

fwuHstSERFRISerialNumber

fwuHstSERFRIADCPartNumber

fwuHstSERFOptSFPNumber

fwuHstSERFOptSFPName

fwuHstSERFOptSFPType

fwuHstSERFOptSFPTxColor

fwuHstSERFOptRevLaunchPowerMeas

fwuHstSERFOptFwdLaunchPowerMeas

fwuHstSERFOptMateName

fwuHstSERFIPEnable

fwuHstSERFOptRxBERFaultThreshold

fwuHstSERFOptOverDriveFaultThreshld

fwuHstSERFOptUnderDriveFaultThreshld

fwuHstSERFOptRxBERFaultMask

fwuHstSERFOptOverDriveFaultMask

Table 12-2. FlexWave-URH Agent MIB GET/SET Objects (Cont.)

Object Name Des cription SNMP Sy ntax Get

Host SeRF Inventory-Hardware Version

Host SeRF Inventory-Serial Number

Host SeRF Inventory-ADC Part Number

SFP Number-Optical Port number (from 1 to 8)

User defined name of the SFP Optical Port that can be up to 32 characters long

SFP Type-Optical Port Type OPTICSType GET

SFP wavelength in nanometer Integer32 GET

Value of Host Receive measured optical power in dBm

Value of Host Transmit measured optical power in dBm

DisplayString GET

INTEGER GET

DisplayString SET

DisplayString GET

or SET

Name of Host Mates DisplayString GET

IP Enable mode for Host carrying RF, where 1 equals enable

Threshold Value for declaring a Decoded word error state of the primary wavelength optical receiver (too many errors)

Threshold value for declaring SFP over drive fault. This is not user settable.

Threshold value for declaring SFP under drive fault. This is not user settable.

Shows the masking status of primary wavelength optical receiver; masking is disabled by default; if enabled, the trap will not be raised.

Shows the masking status of SFP Over Drive Fault; masking is disabled by default; if enabled, the trap will not be raised.

Integer SET

DisplayString SET

Integer32 SET

MASKType SET

FlexWave-URH Agent MIB

fwuHstSERFOptUnderDriveFaultMask

fwuHstSERFOptIpEnableFaultMask

fwuHstSERFEthPortNumber

fwuHstSERFEthPortType

fwuHstSERFEthPortRxBytes

fwuHstSERFEthPortRxPkts

fwuHstSERFEthPortRxFcsErrors

fwuHstSERFEthPortRxBroadcastPkts

fwuHstSERFEthPortRxMulticastPkts

fwuHstSERFEthPortRxFragmtdFrames

fwuHstSERFEthPortRxJabbersFrames

fwuHstSERFEthPortTxByteCounter

fwuHstSERFEthPortTxPkts

fwuHstSERFEthPortTxBroadcastPkts

fwuHstSERFEthPortTxMulticastPkts

fwuHstSERFEthPortSFPId

fwuHstDARTNumber

fwuHstDARTName

fwuHstDARTBandType

fwuHstDARTPassBand

Table 12-2. FlexWave-URH Agent MIB GET/SET Objects (Cont.)

Object Name Des cription SNMP Sy ntax Get

Shows the masking status of Under Drive Fault. Masked is disabled by default. If enabled, the trap will not be raised.

Shows the masking status of the IP Enable Fault. Masked is disabled by default. If enabled, the trap will not be raised.

A unique identifier for each Ethernet port (from 1 to 12)

Identifies the type of Ethernet port

Receive byte counter Counter64 GET

Receive packet counter Counter64 GET

Receive FCS error counter Counter64 GET

Receive Broadcast packet counter

MASKType SET

Unsigned32 GET

ENETType GET

Counter64 GET

or SET

Receive Multicast packet counter

Receive fragments counter Counter64 GET

Receive jabber counter Counter64 GET

Transmit byte counter Counter64 GET

Transmit packet counter Counter64 GET

Transmit broadcast packet counter

Transmit multicast packet counter

Identifier of SFP to which this Ethernet port connects

A unique identifier for each DART Card Object (from 1 to

A user defined name for each DART Card object that can be up to 32 characters long

Band type of Host DART card BANDType GET

Counter64 GET

Unsigned32 GET

Integer32 GET

DisplayString SET

Pass-band type of host DART card.

PASSBANDTypeSET

SNMP Interface

fwuHstDARTOperatingMode

fwuHstDARTDiversityStatus

fwuHstDARTForwardGain

fwuHstDARTReverseGain

fwuHstDARTFPGAStatus

fwuHstDARTFPGAProgramVer

fwuHstDARTRIADCPartNumber

fwuHstDARTRISerialNumber

fwuHstDARTRIDateCode

fwuHstDARTRIHWVer

fwuHstDARTRowStatus

fwuHstDARTOverDriveFaultThreshold

fwuHstDARTUnderDriveFaultThreshold

fwuRmtNumber

fwuRmtCatalogState

fwuRmtName

Table 12-2. FlexWave-URH Agent MIB GET/SET Objects (Cont.)

Object Name Des cription SNMP Sy ntax Get

Operating mode of Host DART card

Diversity Status of Host DART card, where diversity is 1 and no diversity is 0

Primary Gain in forward path of Host DART card

Primary Gain in reverse path of Host DART card

Indicates if the Host SeRF FPGA can talk to the DART FPGA where 0 indicates that the SeRF can talk to the FPGA and 1 indicates that it cannot

FPGA Version on the Host DART card

Host DART Inventory Data-ADC Part Number

Host DART Inventory Data-Serial Number

MODEType SET

INTEGER SET

GAINType SET

INTEGER GET

DisplayString GET

or SET

Host DART Inventory Data Date Code

Host DART Inventory Data-Hardware Version

Status of this conceptual row RowStatus SET

Threshold value for Host DART Card Over Drive. This is not user settable.

Threshold value for Host DART Card Under Drive. This is not user settable.

The Remote number of Remote connected (from 1 to

Catalog state of Remote. If fwuRmtCatalogState is commission (2) state, commission Remote. If it is in normal (1) state, do not commission Remote

User defined name of the Remote, which can be up to 40 characters long

DisplayString GET

DisplayString SET

INTEGER GET

CATALOGTypeGET

DisplayString SET

FlexWave-URH Agent MIB

fwuRmtAlarmStatusSummary

fwuRmtTempMeasurement

fwuRmtGeneralTableRowStatus

fwuRmtType

fwuRmtSERFLinuxKernelVer

fwuRmtSERFLinuxBootLoaderVer

fwuRmtSERFCompactFlashSWVer

fwuRmtSERFFPGAVer

fwuRmtSERFPPCHWMonSWVer

fwuRmtSERFPPCAPPMonSWVer

fwuRmtSERFPPCGPSMonSWVer

fwuRmtSERFPPCSNMPHTTPAgentSWVer

fwuRmtSERFPPCMATEMonSWVer

fwuRmtSERFPPCENETMonSWVer

fwuRmtSERFPPCFPGAMonSWVer

fwuRmtSERFRIDateCode

Table 12-2. FlexWave-URH Agent MIB GET/SET Objects (Cont.)

Object Name Des cription SNMP Sy ntax Get

Summary of alarm status of all connected remote units where:

•Normal = 1

•Minor = 2

•Major = 3

• Not Present = 0

Temperature of each Remote in Celsius. This value comes from the RSI

Status of this conceptual row RowStatus SET

Type of Remote: Prism or URH REMOTEType GET

Linux Kernel Version of the Remote system

Linux Boot loader Version of the Remote system

Compact Flash Software Version of the Remote system

ALARMType GET

DisplayString GET

or SET

Version of FPGA loaded on SeRF

Hardware monitor process Software Version of the Remote system

Application monitor process Software Version of the Remote system

GPS monitor process Software Version of the Remote system

SNMP agent Software Version of the Remote system

Mate monitor process Software Version of the remote system.

ENET monitor process Software Version of the Remote system

FPGA monitor process Software Version of the Remote system

DisplayString GET

Remote SeRF Inventory-Date Code of the Remote system

DisplayString GET

SNMP Interface

fwuRmtSERFRIHWRev

fwuRmtSERFRISerialNumber

fwuRmtSERFRIADCPartNumber

fwuRmtSERFOptSFPNumber

fwuRmtSERFOptSFPName

fwuRmtSERFOptSFPType

fwuRmtSERFOptSFPColor

fwuRmtSERFOptRevLaunchPowerMeas

fwuRmtSERFOptFwdLaunchPowerMeas

fwuRmtSERFOptMateName

fwuRmtSERFIPEnable

fwuRmtSERFOptRxBERFaultThreshold

fwuRmtSerfOptOverDriveFaultThreshld

fwuRmtSerfOptUnderDriveFaultThreshld

fwuRmtSERFOptRxBERFaultMask

Table 12-2. FlexWave-URH Agent MIB GET/SET Objects (Cont.)

Object Name Des cription SNMP Sy ntax Get

Remote SeRF Inventory Hardware Version of the Remote system

Remote SeRF Inventory-Serial Number

Remote SeRF Inventory-ADC Part Number

A unique identifier of each SFP (from 1 to 8)

User defined name of each Remote SFP.It can be 32 character long.

SFP Type-Optical Port Type OPTICSType GET

SFP wavelength in nanometer. Integer32 GET

Value of Remote Receive measured optical power in dbm

Value of Remote Transmit measured optical power in dbm

DisplayString GET

INTEGER GET

DisplayString SET

DisplayString GET

or SET

Name of Remote mate DisplayString GET

IP Enable mode for Host connected to the Remote that is carrying RF, where 1 equals enable

Threshold Value for declaring a Decoded word error state of the primary wavelength optical receiver (too many errors). This is not user settable.

Threshold value for declaring SFP over drive fault. This is not user settable.

Threshold value for declaring SFP under drive fault. This is not user settable.

Trap enable/disable for primary wavelength optical receiver; trap is enabled by default; if disabled, the trap will not be raised

Integer GET

DisplayString SET

Integer32 SET

MASKType SET

FlexWave-URH Agent MIB

fwuRmtSERFOptOverDriveFaultMask

fwuRmtSERFOptUnderDriveFaultMask

fwuRmtSERFEthPortNumber

fwuRmtSERFEthPortType

fwuRmtSERFEthPortRxBytes

fwuRmtSERFEthPortRxPkts

fwuRmtSERFEthPortRxFscErrors

fwuRmtSERFEthPortRxBroadcastPkts

fwuRmtSERFEthPortRxMulticastPkts

fwuRmtSERFEthPortRxFragmtdFrames

fwuRmtSERFEthPortRxJabbersFrames

fwuRmtSERFEthPortTxByteCounter

fwuRmtSERFEthPortTxPkts

fwuRmtSERFEthPortTxBroadcastPkts

fwuRmtSERFEthPortTxMulticastPkts

fwuRmtSERFEthSFPID

fwuRmtDARTNumber

fwuRmtDARTName

fwuRmtDARTBandType

Table 12-2. FlexWave-URH Agent MIB GET/SET Objects (Cont.)

Object Name Des cription SNMP Sy ntax Get

Trap enable/disable for SFP Over Drive Fault. Trap is enabled by default. If disabled, the trap will not be raised.

Trap enable/disable for SFP Under Drive Fault; trap is enabled by default; if disabled, the trap will not be raised

A unique identifier for each Ethernet port (from 1 to 12)

An identifier for the type of Ethernet port

Receive byte counter Counter64 GET

Receive packet counter Counter64 GET

Receive FCS error counter Counter64 GET

Receive broadcast packet counter

MASKType SET

Unsigned32 GET

ENETType GET

Counter64 GET

or SET

Receive multicast packet counter

Receive fragments counter Counter64 GET

Receive jabber counter Counter64 GET

Transmit byte counter Counter64 GET

Transmit packet counter Counter64 GET

Transmit multicast packet counter

Transmit broadcast packet counter

Identifier of SFP to which this Ethernet port connects to

A unique identifier for each DART Card Object of Remote (from 1 to 8)

A user defined name for each DART Card object of Remote, which can be up to 32 characters

Band type of Remote DART card

Counter64 GET

Unsigned32 GET

Integer32 GET

DisplayString SET

BANDType GET

SNMP Interface

fwuRmtDARTPassBand

fwuRmtDARTOperatingMode

fwuRmtDARTDiversityStatus

fwuRmtDARTForwardGain

fwuRmtDARTReverseGain

fwuRmtDARTForwardDelay

fwuRmtDARTReverseDelay

fwuRmtDARTTempMeas

fwuRmtDARTFPGAStatus

fwuRmtDARTFPGAProgramVer

fwuRmtDARTRIADCPartNumber

fwuRmtDARTRISerialNumber

fwuRmtDARTRIDateCode

fwuRmtDARTRIHWVer

fwuRmtDARTGeneralTableRowStatus

Table 12-2. FlexWave-URH Agent MIB GET/SET Objects (Cont.)

Object Name Des cription SNMP Sy ntax Get

Pass-band type of remote DART card.

Operating mode of Remote DART card

Diversity Status of Remote DART card, where diversity is 1 and no diversity is 0

Primary Gain in forward path of Remote DART card

Primary Gain in reverse path of Remote DART card

Forward Delay for Remote DART card Micro Seconds (from 1 to 500). If the Forward Delay value is not equal to Actual Forward Delay value then, then a Ranging fault will be raised if the Remote DART is Linked

Reverse Delay for Remote DART card Micro Seconds (from 1 to 500). If the Reverse Delay value is not equal to the Actual Reverse Delay value then, then a Ranging fault will be raised if the Remote DART is linked

PASSBANDTypeSET

MODEType SET

INTEGER SET

GAINType SET

GAINType GET

DELAYType SET

or SET

Temperature value of Remote DART card

Indicates if the Remote SeRF FPGA can talk to DART FPGA where 0 indicates that the SeRF can talk to the DART and 1 indicates that it cannot

FPGA Version on the Remote DART card

Remote DART Inventory Data-ADC Part Number

Remote DART Inventory Data-Serial Number

Remote DART Inventory Data

- Date Code

Remote DART Inventory Data-Hardware Version

Status of a row in the DART General table

DisplayString GET

INTEGER GET

DisplayString GET

RowStatus SET

FlexWave-URH Agent MIB

fwuRmtDARTActualForwardDelay

fwuRmtDARTForwardLowerboundDelay

fwuRmtDARTForwardUpperboundDelay

fwuRmtDARTActualReverseDelay

fwuRmtDARTReverseLowerboundDelay

fwuRmtDARTReverseUpperboundDelay

fwuRmtDARTOverTempFaultMask

fwuRmtDARTUnderTempFaultMask

fwuRmtDARTOverTempThreshold

fwuRmtDARTUnderTempThreshold

fwuRmtGPSLongitudeDegrees

fwuRmtGPSLongitudeMinutes

fwuRmtGPSLongitudeSeconds

fwuRmtGPSLatitudeDegrees

fwuRmtGPSLatitudeMinutes

fwuRmtGPSLatitudeSeconds

fwuRmtGPSAltitudeMeters

fwuRmtGPSNumberOfSatellite

Table 12-2. FlexWave-URH Agent MIB GET/SET Objects (Cont.)

Object Name Des cription SNMP Sy ntax Get

Forward Delay for Remote DART

Lower bound forward delay value

Upper bound delay value Integer32 GET

Reverse Delay for Remote DART

Lower bound Reverse delay value

Upper bound Reverse delay value

Masking status of DART over Temp fault; masking is disabled by default.If enabled trap will not raised

Masking status of DART under Temp fault. Masking is disabled by default.If enabled trap will not raised

Integer32 GET

MASKType SET

or SET

Threshold value for remote DART over temperature. This is not user settable.

Threshold value for remote DART under temperature. This is not user settable.

The GPS Longitude in Degrees (from -180 to 180)

The GPS Longitude in Minutes (from -59 to 59)

The GPS Longitude in milliseconds (from -5999 to

5999)

The GPS Latitude in Degrees (from -180 to 180)

The GPS Latitude in Minutes (from -59 to 59)

The GPS Latitude in milliseconds (from -5999 to

5999)

The GPS Altitude in Meters (from -180 to 180)

MASKType SET

INTEGER GET

The Number of satellites discovered (from -180 to 180)

INTEGER GET

SNMP Interface

fwuRmtGPSFaultMask

fwuRmtLPANumber

fwuRmtLPAReset

fwuRmtLPAOpState

fwuRmtPowerDetectorNumber

fwuRmtSystemVSWRMeas

fwuRmtRFPowerOutputMeas

fwuRmtPwrDetectorBoardRIADCPartNum

fwuRmtPwrDetectorBoardRISerialNum

fwuRmtPwrDetectorBoardRIDateCode

fwuRmtPwrDetectorBoardRIHWVer

fwuRmtSystemVSWRFaultMask

fwuRmtNoRFPowerFaultMask

fwuRmtSystemVSWRFaultThreshold

fwuRmtLNANumber

fwuRmtLNAType

fwuRmtLNARIADCPartNumber

fwuRmtLNARISerialNumber

fwuRmtLNARIDateCode

Table 12-2. FlexWave-URH Agent MIB GET/SET Objects (Cont.)

Object Name Des cription SNMP Sy ntax Get

Shows masking status of GPS Fault; masking is disabled by default; if enabled, the trap will not be raised

A unique identifier for an LPA (from 1 to 4)

Set this object to a value of 1 to cause LPA to reset itself. Normal value is 0

Operating mode of Remote LPA, where normal is 0 and standby is 1

A unique identifier for each power detector (from 1 to 4)

VSWR (Voltage Standing Wave Ratio) measurement

The value of Remote RF Power Output in dBm

Power Detector Inventory-ADC Part Number

MASKType SET

Integer32 GET

INTEGER SET

Integer32 GET

DisplayString GET

or SET

Power Detector Inventory-Serial Number

Power Detector Inventory-Date Code

Power Detector Inventory-Hardware Version

System VSWR (Voltage Standing Wave Ratio) Fault

No RF Power Fault MASKType SET

Threshold value for System VSWR (Voltage Standing Wave Ratio) Fault. This is not user settable.

A unique identifier for LNA Objects (from 1 to 8)

Remote LNA card type BANDType GET

LNA Inventory Data-ADC Part Number

LNA Inventory Data-Serial Number

DisplayString GET

MASKType SET

Integer32 SET

Integer32 GET

DisplayString GET

LNA Inventory Data-Date Code

DisplayString GET

FlexWave-URH Agent MIB

fwuRmtLNARIHWVer

fwuRmtLNAPowerFaultMask

fwuRmtRDINumber

fwuRmtRDIRIADCPartNumber

fwuRmtRDIRISerialNumber

fwuRmtRDIRIDateCode

fwuRmtRDIRIHWVer

fwuHstDARTOverDriveFaultMask

fwuHstDARTUnderDriveFaultMask

fwuRmtOverTempFaultMask

fwuRmtUnderTempFaultMask

fwuRmtOpenDoorFaultMask

fwuRmtFanOverSpeedFaultMask

Table 12-2. FlexWave-URH Agent MIB GET/SET Objects (Cont.)

Object Name Des cription SNMP Sy ntax Get

LNA Inventory Data-Hardware Version.

Shows masking status of Remote LNA Power Fault; masking is disabled by default; if enabled, the trap will not be raised

A unique identifier for each RDI (from 1 to 4)

RDI Inventory Data-ADC Part Number

RDI Inventory Data-Serial Number

RDI Inventory Data-Date Code DisplayString GET

RDI Inventory Data-Hardware Version

Shows masking status of Host DART Over Drive Fault; masking is disabled by default; if enabled, the trap will not be raised

DisplayString GET

MASKType SET

Integer32 GET

DisplayString GET

MASKType SET

or SET

Shows masking status of Host DART Under Drive Fault; masking is disabled by default; if enabled, the trap will not be raised

Show status of masking of Remote over temperature Fault; masking is disabled by default; if enabled, the trap will not be raised

Show status of masking of Remote Under Temperature Fault; masking is disabled by default; if enabled, the trap will not be raised

Show status of masking of Remote Open Door Fault; masking is disabled by default; if enabled, the trap will not be raised

Show status of masking of Remote Fan Over Speed Fault; masking is disabled by default; if enabled, the trap will not be raised

MASKType SET

SNMP Interface

fwuRmtFanUnderSpeedFaultMask

fwuRmtOverTempFaultThreshold

fwuRmtUnderTempFaultThreshold

fwuHMmonIndex

fwuHMmonRmtLocation

fwuHMmonRmtIPAddress

fwuHMmonRmtID

fwuHMmonHstSideSFPID

fwuHMmonRmtSideSFPID

fwuRMmonIndex

fwuRMmonHstIPAddress

fwuRMmonHstID

fwuRMmonRmtID

fwuRMmonHstSideSFPID

fwuRMmonRmtSideSFPID

fwuGeoHeartbeatTimer

fwuGeoIndex

fwuGeoLatitude

fwuGeoLongitude

fwuGeoRmtName

Table 12-2. FlexWave-URH Agent MIB GET/SET Objects (Cont.)

Object Name Des cription SNMP Sy ntax Get

Show status of masking of Remote Fan Under Speed Fault; masking is disabled by default; if enabled, the trap will not be raised

Threshold value for remote over temperature Fault. This is not user settable.

Threshold value for remote under temperature Fault. This is not user settable.

Index of mate monitor table. Integer32 GET

Location of Remote connected to Host

IP addresses of Remote IpAddress GET

ID of connected Remote REMOTENBRT

Slot ID of the SFP at Host end. Integer32 GET

MASKType SET

DisplayString GET

ype

or SET

GET

Slot ID of the SFP used at Remote end

Index of mate monitor table Integer32 GET

IP addresses of Host connected to the Remote

ID of Host connected to the Remote

ID of companion remote unit. REMOTENBRT

Slot ID of the SFP at Host end Integer32 GET

Slot ID of the SFP used at Remote end.

Specifies Heartbeat can be sent at the timer specified here, from 1 to 30

Geo objects Table Index. Unsigned32 SET

Identifies the Latitude of Remote

Identifies the Longitude of Remote

Integer32 GET

IpAddress GET

HOSTNBRType GET

GET

ype

Integer32 GET

INTEGER SET

DisplayString SET

Identifies the Latitude of Remote

DisplayString GET

FlexWave-URH Agent MIB

fwuGeoStatus

fwuDARTMappingIndex

fwuHstID

fwuHstDARTID

fwuHstSFPID

fwuHstDARTPassBand

fwuRmtID

fwuRmtDARTID

fwuRmtSFPID

fwuRmtDARTPassband

fwuHstSFPStartTimeSlot

fwuHstSFPEndTimeSlot

fwuMappingStatus

fwuRmtUnitReset

Table 12-2. FlexWave-URH Agent MIB GET/SET Objects (Cont.)

Object Name Des cription SNMP Sy ntax Get

Identifies the Latitude of Remote

Index of the DART table. Unsigned32 GET

ID of the Host HOSTNBRType SET

ID of DART at Host to which the Remote DART is to be connected (from 1 to 8)

ID of host side SFP ID connected toward the remote DART. (from 1 to 8)

Pass-band type of Host DART card

ID of the Remote from which DART is to be connected

ID of Remote DART to which the Host DART will connect (from 1 to 8)

ID of Remote side SFP ID connected toward the Host DART (from 1 to 8)

INTEGER GET

INTEGER SET

PASSBANDTypeGET

REMOTENBRT ype

INTEGER SET

or SET

SET

Remote side Band-PassBand information of the linked darts

Start timeslot on the fiber that is carrying the DART traffic. This is a read-write object but it is not available for user to do a RW operation.

End timeslot on the fiber that is carrying the RF traffic from Host to Remote DART card. This is a Read-Write object, but is not available for user as a Read-Write operation.

Status of row RowStatus SET

Provides a way to reset the Remote SeRF card. Set to 1 to trigger a Remote reset

PASSBANDTypeGET

Integer32 SET

INTEGER SET

SNMP Interface

GET/SET

fwuHstSysCardFanFault

fwuHstModuleMissingFault

fwuHstOverTempFault

fwuHstUnderTempFault

fwuRmtModuleMissingFault

fwuRmtOverTempFault

fwuRmtUnderTempFault

fwuRmtOpenDoorFault

fwuRmtFanOverSpeedFault

fwuRmtFanUnderSpeedFault

fwuHstSERFSynthAlarmFault

fwuHstSERFFault

fwuHstSERFRmtLostFault

fwuHstSERFOptRxBERFault

fwuHstSERFOptRxNoLightFault

fwuHstSERFOptLaserFault

fwuHstSERFOptOverDriveFault

fwuHstSERFOptUnderDriveFault

fwuHstSERFOptIpEnableFault

fwuHstDARTDwnCon1SynLockFault

fwuHstDARTDwnCon2SynLockFault

fwuHstDARTUpConSynLockFault

fwuHstDARTOverDriveFault

12.7 TRAPS

The EMS receives traps from SNMP agents and converts them to alarms and non-alarmed events for further processing and reporting.

For information on

objects, see “FlexWave-URH Agent MIB” on page 292.

Table 12-3. FlexWave-URH Agent MIB Traps

Trap Object Description

Host System Card Fan fault

Host Module missing fault

Host Over Temperature fault

Host Under Temperature fault

Remote Module missing fault

Remote Over Temperature fault

Remote Under Temperature fault

Door on the Remote is open

Remote fan has an Over Speed fault

Remote fan has an Under Speed fault

Onboard synthesizer fault

Consolidation of SeRF Onboard synthesizer fault and SeRF FPGA Status

Remote Lost fault-Host not receiving any messages from connected Remote

Decoded word error state of the primary wavelength optical receiver (too many errors)

Receiving light state of the primary wavelength optical receiver (no light)

Error state of laser forward path

Host SFP Over Drive fault

Host SFP Under Drive fault

Host SFP IP Enable fault

Lock State of the first Down Converter synthesizer

Lock State of the second Down Converter synthesizer

Lock State of the Up Converter synthesizer

Host DART Card Over Drive fault. RF signal received from BTS is too high

fwuHstDARTUnderDriveFault

fwuHstDARTFault

fwuHstDARTDCSupplyFault

fwuHstDARTHardwareMismatchFault

fwuRmtAcPowerSupplyFault

fwuRmtMajorExtAlarmInputFault

fwuRmtMinorExtAlarmInputFault

fwuRmtSERFHstLostFault

fwuRmtSERFOptRxBERFault

fwuRmtSERFOptRxNoLightFault

fwuRmtSERFOptLaserFault

fwuRmtSERFOptOverDriveFault

fwuRmtSERFOptUnderDriveFault

fwuRmtSERFSynthAlarmFault

fwuRmtSERFFault

fwuRmtDARTDwnCon1SynLockFault

fwuRmtDARTDwnCon2SynLockFault

fwuRmtDARTUpConSynLockFault

fwuRmtDARTDCSupplyFault

fwuRmtDARTFault

fwuRmtDARTHardwareMismatchFault

fwuRmtRangingFault

Table 12-3. FlexWave-URH Agent MIB Traps (Cont.)

Trap Object Description

Traps

Host DART Card Under Drive fault. RF Signal received from the BTS is too low

This fault is a consolidated fault of

fw uHstDARTDwnCon1SynLockFault, fw uHstDARTDwnCon2SynLockFault, fw uHstDARTUpConSynLockFault, fw uHstDARTFP

Host DART Card DC Supply fault

Indicates a hardware mismatch for the RF and optical cards between Host and Remotes

Remote AC Power Supply fault. This is an aggregation of

ACPowerSupplyMonitor1, ACP owerSupplyMonitor2, ACPowerSupplyMonitor3, ACP owerSupplyMonitor4

The remote Major Ext Alarm Input Fault

The remote Minor Ext Alarm Input Fault

Host Lost fault-Remote not receiving any messages from connected Host

Decoded word error state of the primary wavelength optical receiver (too many errors)

Receiving light state of the primary wavelength optical receiver (no light)

GAStatus and fwuHstDARTDCSupplyFault

Error state of laser forward path

Remote SFP Over Drive fault

Remote SFP Under Drive Fault

Onboard synthesizer fault

Consolidation of SeRF Onboard synthesizer fault and SeRF FPGA Status

Lock state of the first down converter synthesizer

Lock state of the second down converter synthesizer

Lock state of the Upconverter synthesizer

Remote DART Card DC Supply fault

Consolidated fault for

fw uRmtDARTDwnCon1SynLockFault, fw uRmtDARTDwnCon2SynLockFault, fw uRmtDARTUpConSynLockFault, fw uRmtDARTDCS

Indicate the hardware mismatch for the RF DART card between Host and Remotes

Host cannot auto-range a connected Remote anymore

upplyFault and DARTFPGAStatus

SNMP Interface

fwuRmtDARTOverTempFault

fwuRmtDARTUnderTempFault

fwuRmtGPSFault

fwuRmtLPADisableFault

fwuRmtLPAOverPowerFault

fwuRmtLPAHighTempFault

fwuRmtLPAVswrFault

fwuRmtLPADcFault

fwuRmtLPALoopFault

fwuRmtLPALowPowerFault

fwuRmtLPADetectFault

fwuRmtSystemVswrFault

fwuRmtNoRFPowerFault

fwuRmtLNAPowerFault

fwuRmtFanFault

fwuRmtACPowerSupplyMon4Fault

fwuRmtACPowerSupplyMon1Fault

fwuRmtACPowerSupplyMon2Fault

fwuRmtACPowerSupplyMon3Fault

fwuHstSysCardPrimaryCPFault

fwuHstSysCardSecondaryCPFault

Table 12-3. FlexWave-URH Agent MIB Traps (Cont.)

Trap Object Description

indicates a Remote DART Card Over Temperature Fault

Indicate the Remote DART Card Under Temperature Fault

Remote GPS fault

Disable state of the linear power amplifier

Internal over power fault state of linear power amplifier (power level is high enough to damage LPA)

Remote LPA High Temperature fault

Internal VSWR fault state of linear power amplifier (greater than 3:1)

Remote LPA DC fault

Remote LPA Loop fault

Internal low power fault state of linear power amplifier (the gain of one or more internal amplifiers does not meet specification)

Presence fault state of linear power amplifier (the LPA is missing)

Remote system Vswr fault

Remote No RF Power fault

Remote LNA power fault

Remote system VSWR fault. This object hasn't been implemented in this release

AC Power monitor 4 Fault

AC Power monitor 1 Fault

AC Power monitor 2 Fault

AC Power monitor 3 Fault

Primary Clock Priority Fault

Secondary Clock Priority Fault

PART IV

APPENDICES

Intentionally Blank Page

ADC PRSM070A, PRSM084A, PRSM074C, PRSMAW4A, PRSM070C User Manual

Specifications and Main Features

Frequently Asked Questions

User Manual