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Table of Contents

Structure
 Data Types
 Database Tables
 Additional Card Types
 Statistic Types

Column Name Unique Identifier Field Data Type Description

l_node_id

integer

num_segs

short

termination

short

l_slot

short

l_line

short

l_port

short

l_logical_port

short

l_subchnl_1

short

l_subchnl_2

Yes

integer

Second local-end subchannel number
Set to -1 for FR, Voice, and data end-points
Set to VCI for ATM end-points

lr_slot

short

Local slot number

lr_port

short

Local port number

lr_subchnl_1

short

First local subchsnnel number

lr_subchnl_2

integer

Second local subchsnnel number

lc_node_id

integer

Local hub CWM node ID.
(Same as local node ID for connections that originate in a routing node)

lc_slot

short

Local hub slot number.
(Same as local slot ID for connections that originate in a routing node)

lc_port

short

Local hub port number
(Same as local port ID for connections that originate in a routing node)

lc_subchnl_1

short

First local hub subchannel number.
(Same as first local subchannel number for connections that originate in a routing node)

lc_subchnl_2

integer

Second local hub subchannel number.
(Same as second local subchannel number for connections that originate in a routing node)

rc_node_id

integer

Remote hub CWM node ID.
(Same as remote node ID for connections that originate in a routing node)

rc_slot

short

Remote hub slot number.
(Same as remote slot ID for connections that originate in a routing node)

rc_port

short

Remote hub port number.
(Same as remote port ID for connections that originate in a routing node)

rc_subchnl_1

short

First remote hub subchannel number.
(Same as first remote subchannel number for connections that originate in a routing node)

rc_subchnl_2

integer

Second remote hub subchannel number.
(Same as second remote subchannel number for connections that originate in a routing node)

rr_slot

short

Remote slot number.
(Same as remote slot ID for connections that originate in a routing node)

rr_port

short

Remote port number.
(Same as remote port ID for connections that originate in a routing node)

rr_subchnl_1

short

First remote subchannel number.
(Same as first remote subchannel number for connections that originate in a routing node)

rr_subchnl_2

integer

Second remote subchannel number.
(Same as second remote subchannel number for connections that originate in a routing node)

r_node_id

integer

Remote end CWM node ID.

r_slot

short

Remote end slot number.

r_line

short

Remote end line number.

r_port

short

Remote end port number (logical port except for fRSM);
logical port = physical port (ASI/FRP)
logical port = physical line (AUSM4/CESM)
logical port (UFM/AUSM8)
physical port (FRSM/FRASM/CESM)

r_logical_port

short

remote logical port

r_subchnl_1

short

First remote subchannel number

r_subchnl_2

integer

Secondremote subchannel number.
Set to -1 for FR, Voice, and data end-points
Set to VCI for ATM end-points

parm_type

short

Flag used to indicate if Cisco StrataCom or standard FR parameters are used

state

short

Connection state:
1 = Clear
2 = Fail
3 = Down
4 = Incomplete
ninth bit in state field (1000000000) used to indicate aBit failure:
257 = clear plus aBit failure
258 = fail plus aBit failure

proc_state

short

Processing state (used by data broker).

con_type

short

Connection type:
1 = V_COMPR_CON
2 = V_ADPCM_CON
3 = V_PCM
4 =Data
5 = FR
6 = ATM
7 = CE
9 = Voice

subtype

short

Service type:
1 = ATF
2 = VBR
3 = CBR
4 =unknown
5 = ABR
6 = ATFST
7 = CE
8 = FR_VBR
9 = FR_ABR_FS
10 = UBR

l_endpt_obj_id

integer

Local end-point object ID.

lc_endpt_obj_id

integer

Local hub end-point object ID.

rc_endpt_obj_id

integer

Remote hub end-point object ID.

r_endpt_obj_id

integer

Remote endpoint object ID.

master_node_id

integer

Master end node ID.

master_lcon_obj_id

integer

Master end logical connection object ID.

l_rate_info

short

Local end combination field of rate information:
Bit 7: Fast EIA enabled = 1

Bit 6: DFM enabled = 1

Bits 5 - 3: Encoding
0 = undefined
1 = 7/8
2 = 8/8
3 = 8/81
4 = 7/8E

Bits 2 - 0: Load Type
0 = undefined
1 = Voice
2 = non-TS
3 = TS
4 = Bursty Data A
5 = Bursty Data B

l_mir

integer

Local end minimum guaranteed bandwidth in hundreds of bits per second (256 Kbps displays as 2560)

l_qir

integer

Local end QIR in hundreds of bits per second

l_pir

integer

Local end PIR in hundreds of bits per second

l_vc_q_depth

integer

Local end VC queue depth in bytes

l_vc_q_thresh

integer

Local end VC queue threshold

l_vc_de_thresh

integer

Local end VC queue DE threshold in bytes

l_eg_q_depth

integer

Local end Egress queue depth in bytes

l_eg_q_de_thresh

integer

Local end Egress queue DE threshold in bytes

l_eg_q_ecn_thresh

integer

Local end Egress queue ECN threshold in bytes

l_de_tag_ena

integer

Local end DE tagging enable/disable

l_cmax

int (9.1)

Local end maximum threshold for FRP credit manager in packets

l_per_util

short

Local end percent utilization parameter taken from routing segment.

l_con_info_flag

short

Local end connection information flags:
Bit 7: Forsight enabled = 1
Bit 6: Hight Priority enabled = 1
Bits 5 - 0 unused

l_cir

integer

Local end CIR in hundreds of bits per second

l_bc

integer

Local end committed burst in bytes.

l_be

integer

Local end excess burst in bytes

l_eg_q_select

short

Egress queue selection.

l_qbin_num

short

Default value is 1.

l_ibs

integer

Local end initial burst size (IBS) in bytes.

l_channel_type

short

Loal channel type (currently used by connections terminating on FRSM).
1 = FR-NetworkingInterWorking
2 = FR-ServiceInterWorkingTransparent
3 = FR-ServiceInterWorkingTranslate
4 = FR-FUNI
5 = Frame forwarding

l_fecn

short

Local forward explicit congestion notification

l_de_to_clp_map

short

Local DE to CLP map
2 = Set DE 0 and set CLP 0
3 = Set DE 1 and set CLP 1

l_clp_to_de_map

short

Local CLP to DE map
2 = Set DE 0 and set CLP 0
3 = Set DE 1 and set CLP 1

l_efci_q_thresh

short

Local end EFCI queue threshold

l_cbs

integer

Local end CBS

l_mfs

integer

Local end MFS

l_ccdv

integer

Local end CCDV

l_clp_hi

short

Local end CLP High threshold

l_clp_lo

short

Local end CLP Low threshold

l_fst_rate_up

integer

Local ForeSight Rate up

l_fst_rate_dn

integer

Local ForeSight Rate down

l_fst_fast_dn

short

Local ForeSight Fast down

l_fst_qir_to

integer

Local ForeSight QIR timeout

l_fst_max_adj

integer

Local ForeSight Maximum adjustment

l_clp_tagging

integer

Local End CLP Tagging
1 = disable
2 = enable

l_upc_enable

integer

Local End UPC Enable:
1 = disable
2 = enable

l_rm_enable

integer

Local End RM Enable
1 = disable
2 = enable

l_u_fgcra

integer

Local End FGCRA
1 = disable
2 = enable

l_u_scr_policing

short

Local End SCR Policing

l_u_pcr01

integer

Local End PCR0+1 in 100 bps unit

l_u_ccdv01

integer

Local End CCDV0+1

l_u_ccdv0

integer

Local End CCDV0

l_max_buf_size

integer

Local End Maximum Buffer Size

l_cell_loss_period

integer

Local End Cell Loss Period

l_cdv_rx_t

integer

Local End CDV Rx

l_nrm

short

Local End NRM

l_tbe

integer

Local End TBE

l_frtt

short

Local End FRTT

l_vsvd

short

Local End VSVD

r_rate_info

short

Remote End combination field of rate information:
Bit 7, Fast EIA enabled = 1
Bit 6, DFM enabled = 1
Bits 5 - 3, Encoding:
0 = undefined
1 = 7/8
2 = 8/8
3 = 8/81
4 = 7/8E
Bits 2 - 0, Load Type:
0 = undefined
1 = Voice
2 = non-TS
3 = TS
4 = Bursty Data A
5 = Bursty Data B

r_mir

integer

Remote end minimum guaranteed bandwidth in hundreds of bits per second (256 Kbps displays as 2560)

r_qir

integer

Remote end QIR in 100 bps unit

r_pir

integer

Remote end PIR in 100 bps unit

r_vc_q_depth

integer

Remote end VC queue depth

r_vc_q_thresh

integer

Remote end VC queue threshold

r_vc_de_thresh

integer

Remote end VC queue DE threshold

r_eg_q_depth

integer

Remote end Egress queue depth

r_eg_q_de_thresh

integer

Remote end Egress queue DE threshold

r_eg_q_ecn_thresh

integer

Remote end Egress queue ECN threshold

r_de_tag_ena

integer

Remote end DE tagging enable/disable

r_cmax

int (9.1)

Remote end maximum threshold for FRP credit manager

r_per_util

short

Remote end percent utilization parameter taken from routing segment.

r_con_info_flag

short

Remote end connection information flags:
Big 7, ForeSight enabled = 1
Bit 6, High Priority enabled = 1
Bits 5 - 0, unused

r_cir

integer

Remote end CIR in 100 bps unit

r_bc

integer

Remote end committed burst

r_be

integer

Remote end excess burst

r_eg_q_select

short

Eqress queue selection

r_qbin_num

short

r_ibs

integer

Remote end initial burst size

r_channel_type

short

Remote channel type

r_fecn

short

Remote forward explicit congestion notification

r_de_to_clp_map

short

Remote DE to CLP map
2 = Set DE 0 and set CLP 0
3 = Set DE 1 and set CLP 1

r_clp_to_de_map

short

Remote CLP to DE map
2 = Set DE 0 and set CLP 0
3 = Set DE 1 and set CLP 1

r_efci_q_thresh

short

Remote end EFCI queue threshold

r_cbs

integer

Remote end CBS

r_mfs

integer

Remote end MFS

r_ccdv

integer

Remote end CCDV

r_clp_hi

short

Remote end CLP High threshold

r_clp_lo

short

Remote end CLP Low threshold

r_fst_rate_up

integer

Remote ForeSight Rate up

r_fst_rate_dn

integer

Remote ForeSight Rate down

r_fst_fast_dn

short

Remote ForeSightFast down

r_fst_qir_to

integer

Remote ForeSight QIR timeout

r_fst_max_adj

integer

Remote ForeSight Maximum adjustment

r_clp_tagging

integer

Remot End CLP Tagging

r_upc_enable

integer

Remote End UPC Enable

r_rm_enable

integer

Remote End RM Enable

r_u_fgcra

integer

Remote End FGCRA

r_u_scr_policing

short

Remote End SCR Policing

r_u_pcr01

integer

Remote End PCR0+1 in 100 bps unit

r_u_ccdv01

integer

Remote End CCDV0+1

r_u_ccdv0

integer

Reote End CCDV0

r_max_buf_size

integer

Remote End Maximum Buffer size

r_cell_loss_period

integer

Remote End Cell Loss Period

r_cdv_rx_t

integer

Remote End CDV Rx

r_nrm

short

Remote End NRM

r_tbe

integer

Remote End TBE

r_frtt

short

Remote End FRTT

r_vsvd

short

Remote End VSVD

l_rate_type

short

Local Rate Type (for Voice/Data connections only)
Rate type: (0-13)
Set to -1 for other connection types.

l_rate_fctr

short

Local Rate Factor (for Data connections only)
Rate type: (0-8)
Set to -1 for other connection types.

l_smpl_per_pckt

short

Local Sample per packet (for Data connections only)
Sample per packet: 1, 2, 4, 5, 10
Set to -1 for other connection types.

r_rate_type

short

Remote Rate Type (for Voice/Data connections only)
Rate type: (0-13)
Set to -1 for other connection types.

r_rate_fctr

short

Remote Rate Factor (for Data connections only)
Rate type: (0-8)
Set to -1 for other connection types.

r_smpl_per_pckt

short

Remote Sample per packet (for Data connections only)
Sample per packet: 1, 2, 4, 5, 10
Set to -1 for other connection types.

l_cbr_clock_mode

short

Local End CBR Clock Mode - CESM Values
1 = Synchronous
2 = SRTS
3 = Adaptive

l_cas

short

Local End Signalling Pass - CESM Values
1 = Basic
2 = e1Cas
3 = ds1SfCas
4 = ds1EsfCas
5 = ccs

l_partial_fill

short

Local End Partial Fill - CESM Value range 0 - 47

l_idle_detection

short

Local End Idle Detection - CESM-8 Values
1 = disable
2 = onhook

l_onhook_code

short

Local End Onhook Code - CESM-8 Values range: 0 - 15

l_idle_suppression

short

Local End Idle Suppression - CESM-8 Values

1 = disable
2 = enable

r_cbr_clock_mode

short

Local End CBR Clock Mode - CESM Values
1 = Synchronous
2 = SRTS
3 = Adaptive

r_cas

short

Remote End Signalling Pass - CESM Values
1 = Basic
2 = e1Cas
3 = ds1SfCas
4 = ds1EsfCas
5 = ccs

r_partial_fill

short

Remote End Partial Fill - CESM Value range: 0 - 47

r_idle_detection

short

Remote End Idle Supppression - CESM-8 Values
1 = disable
2 = enable

r_onhook_code

short

Remote End Onhook Code - CESM-8 Value range: 0 - 15

r_idle_suppression

short

Remote End Idle Suppression - CESM-8 Values:
1 = disable
2 = enable

l_mc_type

short

Local multicast type flag (for multicast connections)
0 = normal
1 = root
2 = leaf

r_mc_type

short

Remote multicast type flag (for multicast connections)
0 = normal
1 = root
2 = leaf

l_peak

integer

r_peak

integer

l_average

integer

r_average

integer

l_burst

integer

r_burst

integer

l_aal_encap

short

r_aal_encap

short

l_midhigh

short

r_midhigh

short

l_midlow

short

r_midlow

short

l_oam

short

r_oam

short

l_inarp

short

r_inarp

short

l_end_nni

short

-1 = unknown port type
1 = nni port
0 = non-nni port

r_end_nni

short

-1 = unknown port type
1 = nni port
0 = non-nni port
For incomplete PVD, this field is always -1 (unknown)

snmp_index

integer

SNMP Proxy index for user connection

This chapter describes the structure and content of the Cisco WAN Manager (CWM) Informix OnLine database tables.

Structure

The database is an Informix SQL database consisting of the following tables:

    1. SV_SYSTEM---contains CWM name and system parameters.

    2. SV_VERSION---contains CWM release number and date.

    3. NETWORK---contains ID and name of each managed network in the database.

    4. NODE---contains name and status of each node in each network.

    5. PACKET_LINE---contains information about all trunks in all networks.

    6. CIRCUIT_LINE---contains information about all circuit lines in all networks.

    7. FRP---contains information about all Frame Relay (FR) and FRASM ports in all networks.

    8. USER_CONNECTION---contains details of each user connection in each network.

    9. CONNECTION---contains details of each Frame Relay, voice, and data connection segment in each network.

    10. STAT_ENABLE---contains details of which and what type of network statistics are to be collected.

    11. PACKET_LN_DATA---contains packet line statistic data.

    12. CIRCUIT_LN_DATA---contains circuit line statistic data.

    13. FRP_DATA---contains Frame Relay port statistic data.

    14. CONNECTION_DATA---contains connection statistic data.

    15. SERIAL_LN_DATA---contains serial line statistic data.

    16. LOGICAL_CONN---contains details of logical connections.

    17. ROUTES---contains network routing information (table remains in the database, but is no longer used).

    18. ATM_CONNECTION---contains ATM connection segment information.

    19. ASI_LINE---contains information about BPX ASI/BXM lines and physical lines.

    20. ASI_PORT---contains information about ATM (ASI/BXM/UXM) ports.

    21. FPD_CONNECTION---contains information about FastPAD connections.

    22. FTC_PORT---contains information about FastPAD IPX ports.

    23. FPD_NODE---contains information about FastPAD nodes.

    24. FPD_CONN_DATA---contains information about FastPAD statistics.

    25. ASI_LN_DATA---contains information about ASI/BXM line statistics.

    26. ASI_PORT_DATA---contains information about BPX ASI/BXM port statistics.

    27. FTC_PORT_DATA---contains information about FastPAD IPX port statistics.

    28. BIS_OBJECT---contains information about BPX Interface shelf (BIS) object (8.1 or later).

    29. SHELF---contains information about AXIS Shelves (8.1 or later).

    30. PERIPHERAL---contains information about AXIS Peripherals (8.1 or later).

    31. CARD---contains information about AXIS Cards (For CWM version 8.1 or later). It also contains information of IPX/BPX/IGX cards (CWM version 8.4 or later).

    32. LINE---contains information about AXIS Lines (CWM version 8.1 or later).

    33. PLCP---contains information about AXIS PLCPs (CWM version 8.1 or later).

    34. AUSM_PORT---contains information about AUSM ports (CWM version 8.2 or later).

    35. AUSM_PORT_DATA---contains information about AUSM port statistics (CWM version 8.2 or later).

    36. CESM_CONNECTION---contains information about CESM connections (CWM version 8.2 or later; AXIS only).

    37. DNS_NODE---contains information about DNS nodes (CWM version 8.2 or later).

    38. REDUNDANT_CARD---contains information about redundant cards (CWM version 8.4 or later; AXIS only).

    39. LINE_DISTRIBUTION---contains information about line distribution (CWM version 8.4 or later; AXIS only).

    40. VP_RANGE---contains information about VP range (CWM version 8.4 or later; AXIS only).

    41. VOICE_CHANNEL---contains information about the voice channel (CWM version 9.0 or later).

    42. DATA_CHANNEL---contains information about the data channel (CWM version 9.0 or later).

    43. ACCESS_NODE---contains information about access devices such as Rincon, 3810, etc.

    44. PROTOCOL_GROUP---contains information about protocol groups of FRASM.

    45. LINK_STATION---Link station table for FRASM.

    46. CHANNEL_ROUTE---Channel route table for FRASM.

    47. STATION_DATA---contains FRASM station statistics.

    48. RPM_CONNECTION---contains information about RPM connections.

    49. RSC_PART---contains information about .

    50. RPM_PORT---contains information about RPM ports.

    51. PHY_LINE---contains information about physical lines.

    52. PHY_LN_DATA---contains physical line statistics data.

Each row in a table may be referenced (accessed) through a unique identifier which is made up of one or more fields in the row. The fields making up the unique identifier are indicated in bold in each of the following database table descriptions.

Data Types

The tables use the following datatypes:

Database Tables


Table 3-1: SV_SYSTEM
Column Name Unique Identifier Field Data Type Description

name

yes

char (8+1)

Name of the CWM parameter.

val

char (20+1)

Character string including revision number of database.
Table 3-2: SV_VERSION
Column Name Unique Identifier Field Data Type Description

release

yes

char (20+1)

CWM release number.

release_date

char (32+1)

CWM release date.
Table 3-3: NETWORK
Column Name Unique Identifier Field Data Type Description

netw_id

yes

short

CWM network ID.

ipx_netw_id

short

Routing domain network ID.

netw_name

char (8+1)

CWM network name.

active

short

Active state flag:

0 = inactive
1 = active

Inactive indicates the entry was deleted.

upgrade_status

short

Network upgrade status:

0 = unknown

1 = upgrading

2 = not upgrading

mgmt_comm

smallint

0 = NWIP_OFF

1 = NWIP_ON

2 = NWIP_OFF

-1 = default value

reserved

int

Reserved for future use.


Table 3-4: NODE
Column Name Unique Identifier Field Data Type Description

node_id

yes

int

CWM node ID, assigned by CWM.

netw_id

short

CWM network ID.

node_name

char (10+1)

Node name.

ipx_netw_id

short

Network ID.

For IPX, IGX, BPX nodes only. AXIS, DAS, DNS nodes are assigned the network ID of their attached IPX/IGX/BPX node.

ipx_node_id

short

Node ID.

For IPX, IGX, BPX nodes only; for AXIS, DAS, DNS nodes this field is set to 0.

net_ip_address

int

Access IP address for the node.

lan_ip_address

int

LAN IP address for the node.

Both net_ip_address and lan_ip_address have same value for releases of strataView Plus 9.1 and earlier.

nw_ip_address

int

Network IP address for the node.

Default value = -1

model

int

Model number for the node.

8 = IGX 8410

16 = IGX 8420

32 = IGX 8430

8220 = Cisco MGX Concentrator

8600 = Cisco BPX wide area switch

8620 = BPX

8650 = BPX tag switch

Default value = 0

alarm_state

short

Node alarm state:
0 = clear
Bit 1 = minor (1)
Bit 2 = major (2)
Bit 1 and 2 = unreachable (3)
Bit 8 = CWM mode (64)

gateway

short

Flag for node acting as a junction node between two network domains:
0 = not a gateway
1 = gateway

Valid for structured networks only.

active

short

Node active state flag:
0 = inactive
1 = active

Inactive indicates the entry was deleted.

platform

short

Flag for platform type (also referred to as node_type in other tables):
0 = IPX

1 = BPX

2 = IGX

3 = AXIS

4 = INS (DAS)

5 = DNS

6 = INSD

11 = Rincon

12 = ESP

13 = 3810

14 = MGX

subtype

short

Flag for a shelf:
0 = Routing node
1 = Feeder (Shelf) node

release

char (11+1)

Node software release revision (for example, "9.1.0.0" indicates node is running 9100 software version).

fs_inc_rate

short

FRP Foresight increase rate.

fs_dec_rate

short

FRP Foresight decrease rate.

fs_fdec_rate

short

FRP Foresight fast decrease rate.

rst_timeout

short

Timeout for setting PVC rate to QIR.

mode

short

Node mode (for AXIS only):
0 = unknown
1 = init-sync
2 = syncing
3 = synced

mgmt_state

short

Node management state.

0 = Link unknown

1 = Link up

2 = Link Down

manager

smallint

Default value = 0

reserved

int

Reserved for future use.


Table 3-5: PACKET_LINE
Column Name Unique Identifier Field Data Type Description

pln_obj_id

Yes

int

Object ID.

l_network_id

short

Local-end SV+ network ID.

l_node_id

Yes

int

Local-end SV+ node ID.

l_line

short

Local-end trunk number.

1_slot

short

Local-end slot number.

l_port

short

Local-end logical port number.

l_vtrk

short

Local-end virtual trunk number.

l_num_phy_line

short

Local number of physical lines:

-1 for trunks not having physical lines.

1 for Normal and virtual trunks having physical lines.

2-8 for IMA trunks.

Default value for upgrade to SV+ 9.2 is -1

l_primary_phy_line

smallint

Local-end primary physical line ID.

l_phy_line_bitmap

smallint

Local-end physical line bitmap.

card_type

short

Card type:
3 = TXR
22 = NTC
34 = AIT
35 = FTC
41 = UXM
103 = BNI_T3
104 = BNI_E3
110 = BNI_OC3

For BXM card types, see Section, "BXM and BME Card Types".

interface

short

Interface type:
0 = unknown
1 = T1
2 = not used
3 = not used
4 = OC3
5 = E1
6 = subrate
7 = broadband (for backward compatibility, 8.1 and 8.2 network)
8 = E3
9 = T3
10 = OC12
11 = E2 (IPX/IGX)
12 = HSSI (IPX/IGX)

line_load

int

Trunk load in cells/packets per second.

For BPX/IGX, trunk units are cps.

For IPX, trunk units are pps.

r_network_id

short

Remote-end SV+ network ID.

r_node_id

int

Remote-end SV+ node ID.

r_line

short

Remote-end trunk number.

r_slot

short

Remote-end slot number.

r_port

short

Remote-end logical port number.

r_vtrk

short

Remote-end virtual trunk ID.

r_num_phy_line

short

Remote number of physical lines:
-1 for trunks not having physical lines.

1 for normal and virtual trunks having physical lines.

2 to 8 for IMA Trunks.

Default value for upgrade to CWM 9.2 is -1.

r_phy_line_bitmap

smallint

Remote-end physical line bitmap.

r_primary_phy_line

smallint

Remote-end primary physcial line ID.

aps_flag

smallint

Default value is 0.

alarm_state

short

Alarm state:
0 = clear
1 = minor
2 = major

commentc

char (20)

Comment field.

active

short

Active state:
0 = inactive
1 = active

This field is unused.

status

short

Status field:
1 = clear

2 = failed

stat_reserve

int

Statistical reserve field in packets per second.

b_bq_depth

int

Bursty data B queue depth.

b_bq_efcn

int

Bursty data B EFCN/ENCI threshold.

clp_h_thresh

short

CLP high dropping threshold.

clp_l_thresh

short

CLP low dropping threshold.

time_load

int

Time stamped load units.

non_time

int

Non-time stamped load units.

v_load

int

Voice load units.

bursty_a_load

int

Bursty data A load units.

bursty_b_load

int

Bursty data B load units.

bursty_a_cmax

short

Bursty data A Credit Max.

bursty_b_cmax

short

Bursty data B Credit Max.

max_chan_per_port

integer

Default value is = -1

reserved

int

Reserved for future use.


Table 3-6: CIRCUIT_LINE
Column Name Unique Identifier Field Data Type Description

cln_obj_id

yes

int

Object ID.

l_network_id

short

SV+ network ID.

l_node_id

yes

int

SV+ node ID.

l_slot

short

Slot number.

l_line

short

Logical line number unique per node.

l_port

short

Physical line number unique per slot.

card_type

short

Card type:
3 = TXR ASI_T3 = 106
21 = CIP ASI_E3 = 107
29 = CDP ASI_OC3= 111

25 = FRP UXM = 41

interface

short

Interface type:
0 = unknown
1 = T1
3 = T3/E3
5 = E1

commentc

char (20+1)

Comment field used to further qualify the circuit line.

active

short

Active state:
0 = inactive
1 = active

status

short

Status field:
1 = clear
2 = failed

line_info

short

line info flag:
bit7-3: spare

bit2-Coding: 0=U-law, 1=A-law

bit1-CAS: 0=FALSE, 1=TRUE

bit0-CCS: 0=FALSE, 1=TRUE

reserved

int

Reserved for future use.


Table 3-7: FRP
Column Name Unique Identifier Field Data Type Description

frp_obj_id

yes

int

Object ID.

l_network_id

short

CWM network ID.

l_node_id

yes

int

CWM node ID.

Column Name Unique Identifier Field Data Type Description

frp_obj_id

yes

int

Object ID.

l_network_id

short

CWM network ID.

l_node_id

yes

int

CWM node ID.

shelf

int

Shelf number:
set to 1 for AXIS ports, set to 0 for all other ports.

l_slot

short

Slot number.

l_port

short

Physical port number:
(logical port for UFM only)

port_speed

int

Port speed in hundreds of bits per second (for example, 256 kbps displays as 2560).

commentc

char (20+1)

Comment field used to further qualify the FRP port.

active

short

Active state:
0 = inactive
1 = active

status

short

Status field:
1 = clear

2 = failed

3 = down

4 = Remote LPBK (FRSM only)

6 = Signaling fail (FRSM only)

Fourth bit is used to indicate line failure for FRSM only. This bit in combination with first 3 bits gives different values, from 9 - 15.

port_type

short

Type of port:
1 = FR

4 = FRSM

5 = FUNI

6 = Frame Forward

7 = Port Concentrator

8 = Channelized UFM

9 = SDLC-STUN

10 = SDLC-FRAS

11 = BSC-BSTUN

12 = CESM-STRUC (CESM8 only)

13 = CESM-UNSTRUC (CESM 8 only)

14=BSC-PORT (partial BSC-BSTUN)

15=CESM-FRAMING-ON-VCDISCONNECT

queue_depth

int

Port queue depth.

ecn_thresh

int

ECN queue depth.

de_thresh

short

DE threshold.

logical_port

short

Logical port number used in the MIB (for FRSM, FRASM and CESM-8 only). For FRP port it is 0.

line

short

Line number associated with this port (for FRSM/UFM/FRASM/CESM-8 port only).

Default value for IPX/IGX is 1.

timeslot_num

short

Number of timeslots (for FRSM, FRASM & CESM-8 port only).

Default value for IPX/IGX is 0.

timeslot_speed

short

Timeslot speed (for AXIS/FRSM/FRASM/CESM-8 port only):
1 - speed = 56k
2 - speed = 64k

Default value for IPX/IGX is 0.

port_bitmap

int

Port bitmap (for AXIS/FRSM/UFM/FRASM/CESM-8 port only).

Default value for IPX is 0.

port_equ

short

Port Equeue service ratio (for AXIS/FRSM port only).

Default value for IPX/IGX is 0.

port_flag

short

Port flags between frames (for AXIS/FRSM port only).

Default value for IPX/IGX is 0.

protocol_type

short

Signalling protocol type:
1 = other

2 = noSignalling

3 = strataLMI

4 = annexAUNI

5 = annexDUNI

6 = annexANNI

7 = annexDNNI

9 = Enhanced LMI (ELMI).

asyn_upd

short

Asynchronous Updates (for AXIS/FRSM port only).

Default value for IPX/IGX is 0.

link_timer

short

t391 Line Integrity Timer (for AXIS/FRSM port only).

Default value for IPX/IGX is 0.

poll_timer

short

t392 Polling Verification Timer (for AXIS/FRSM port only).

Default value for IPX/IGX is 0.

poll_counter

short

n391 Full Status Polling Counter (for AXIS/FRSM port only).

Default value for IPX/IGX is 0.

err_thresh

short

n392 Error Threshold (for AXIS/FRSM port only).

Default value for IPX/IGX is 0.

event_count

short

n393 Monitored Event Count (for AXIS/FRSM port only).

Default value for IPX/IGX is 0.

xmt_timer

short

Xmt CLLM Status Timer (for AXIS/FRSM port only).

Default value for IPX/IGX is 0.

rcv_timer

short

Rcv CLLM Status Timer (for AXIS/FRSM port only).

Default value for IPX/IGX is 0.

cllm_ena

short

CLLM enable/disable (for AXIS/FRSM port only).

Default value for IPX/IGX is 0.

signal_state

int

Port signalling state (for AXIS/FRSM port only):
1 = LMI failure
2 = CLLM failure

Default value for IPX/IGX is 0.

elmi

short

1 = ELMI enabled

-1 = ELMI disabled or this field is not applicable.

This field was earlier used only for Axis nodes.

Beginning with CWM version 9.1, it is also used for IGX.

subrate_speed

short

Port subrate speed (for FRASM only):
1 = speed2400
2 = speed4800
3 = speed9600
4 = speed56000
5 = speed64000

interface

short

Port interface (for FRASM only): ds0, ds0a or ds0b.

encoding

short

Port encoding: nrz or nrzi (for FRASM only).

role

short

Port role: primary, secondary or negotiable (for FRASM only).

max_frame

short

Maximum number of bits expected in an inbound frame (for FRASM SDLC port only).

retry_cnt

short

Number of retry attempts (for FRASM SDLC and BSC port only).

ack_wait_time

int

Number of milliseconds the software waits for an ack before attempting recovery (for FRASM SDLC port only).

vmac

char (15)

Virtual mac address for BAN group addressing. It is 6 bytes in hex. The format is "0000.0000.0000" (for FRASM SDLC port only).

poll_cycle

short

Number of 1/10 of a second intervals to wait between the start of a polling cycle (for FRASM BSC port only).

poll_intv

short

Number of 1/10 second intervals between polls (for FRASM BSC port only).

group

short

Protocol group number (for FRASM STUN or BSTUN port only).

reserved

int

This field is currently used to store ELMI for FRSM (AXIS only):
1 = ELMI Disabled
2 = ELMI Enabled


Table 3-8: USER CONNECTION
Column Name Unique Identifier Field Data Type Description

l_node_id

Yes

int

Local-end CWM node ID.

num_segs

short

Number of segments.

termination

short

Type of local and remote end-points:
Bit 0:

0 = Local end is terminated

1 = Local end is not terminated

Bit 1:

0 = Remote end is terminated

1 = Remote end is not terminated

Bit (2-4) - RPM

l_slot

Yes

short

Local-end slot number.

l_line

Yes

short

Local-end line number (for FRSM, FRASM and CESM connection only).

l_port

Yes

short

Local-end port number (logical port except for FRSM).

Logical port = physical port (ASI/BXM/FRP).

Logical port = physical line (AUSM4/CESM).

Logical port (UFM/AUSM8).

Physical port (FRSM/FRASM/CESM).

Value range: as there are many cards it is very difficult to add ranges here. Refer to the AXIS MIBs or switch software interface document for valid ranges of these fields. Also, depending on number of segments, the meaning of this field changes, making it difficult to specify ranges which are valid for all cards.

l_logical_port

smallint

Popeye RPM endpoints.

Logical port number (FRSM, AUSM, CESM, FRASM).

1 = RPM

Default value is -1.

l_subchnl_1

Yes

short

First local-end sub-channel number.

For Frame Relay end-points this is set to DLCI (Data Link Control Identifier).

For ATM end-points this is set to VPI (Virtual Path Identifier). For Voice and data end-points this is set to -1.

l_subchnl_2

Yes

int

Second local-end sub-channel number.

For Frame Relay, voice and data end-points this is set to -1.

For ATM end-points this is set to VCI.

lr_slot

short

Local slot number.

lr_port

short

Local port number.

lr_subchnl_1

short

First local sub-channel number.

lr_subchnl_2

int

Second local sub-channel number.

lc_node_id

int

Local hub CWM node ID.

(Same as local node ID for connections originating in a routing node.)

lc_slot

short

Local hub slot number.

(Same as local slot ID for connections originating in a routing node.)

lc_port

short

Local hub port number.

(Same as local port ID for connections originating in a routing node.)

lc_subchnl_1

Yes

short

First local hub sub-channel number.

(Same as first local sub-channel number for connections originating in a routing node.)

lc_subchnl_2

Yes

int

Second local hub sub-channel number.

(Same as second local sub-channel number for connections originating in a routing node.)

rc_node_id

int

Remote hub CWM node ID.

(Same as remote node ID for connections originating in a routing node.)

rc_slot

short

Remote hub slot number.

(Same as remote slot ID for connections originating in a routing node.)

rc_port

short

Remote hub port number.

(Same as remote port ID for connections originating in a routing node.)

rc_subchnl_1

short

First remote hub sub-channel number.

(Same as first remote sub-channel number for connections originating in a routing node.)

rc_subchnl_2

int

Second remote hub sub-channel number.

(Same as second remote sub-channel number for connections originating in a routing node.)

rr_slot

short

Remote slot number.

(Same as remote slot ID for connections originating in a routing node.)

rr_port

short

Remote port number.

(Same as remote port ID for connections originating in a routing node.)

rr_subchnl_1

short

First remote sub-channel number.

(Same as first remote sub-channel number for connections originating in a routing node.)

rr_subchnl_2

int

Second remote sub-channel number.

(Same as second remote sub-channel number for connections originating in a routing node.)

r_node_id

int

Remote-end CWM node ID.

r_slot

short

Remote-end slot number.

r_line

short

Remote-end line number.

(For FRSM connection only).

r_port

short

Remote-end port number (logical port except for FRSM).

Logical port = physical port (ASI/FRP).

Logical port = physical line (AUSM4/CESM).

Logical port (UFM/AUSM8).

Physical port (FRSM/FRASM/CESM).

r_logical_port

smallint

Default value is -1.

r_subchnl_1

short

First remote sub-channel number

r_subchnl_2

int

Second remote sub-channel number. For Frame Relay, voice and data end-points this is set to -1. For ATM end-points this is set to VCI.

parm_type

short

A flag to indicate when Cisco or standard FR parameters are used.

state

short

Connection state:
1 = Clear
2 = Fail
3 = Down
4 = Incomplete
9th bit in state field (100000000) is used to indicate aBit failure.

257 = clear + abit fail
258 = fail + abit fail

proc_state

short

The processing state (used by data broker).

con_type

short

Connection type:
0 = V_COMPR_CON
1 = V_ADPCM_CON
2 = V_CON
3 = V_PCM
4 = DATA
5 = Frame Relay, ATM-FR
6 = ATM
7 = CE
9 = VOICE
10 = ATM-CE

sub_type

short

Service type:
1 = ATF
2 = VBR
3 = CBR
4 = unknown
5 = ABR
6 = ATFST
7 = CE
8 = ATMFR_VBR3
9 = ATMFR_ABR_FS
10= UBR
11 = VBR1
12 = VBR2
13 = VBR3
14 = ABR1
15 = ABR.FS
16 = UBR1
17 = UBR2
18 = VOICE
19 = DATA

l_endpt_obj_id

int

Local endpoint Object ID.

lc_endpt_obj_id

int

Local hub endpoint Object ID.

rc_endpt_obj_id

int

Remote hub endpoint Object ID.

r_endpt_obj_id

int

Remote endpoint Object ID.

l_per_util

short

Local end percent utilization.

This parameter is taken from the routing segment.

r_per_util

short

Remote end percent utilization.

This parameter is taken from the routing segment.

l_mc_type

short

Local multicast type flag (for multicast connections). The values are normal (0), root (1) and leaf (2).

r_mc_type

short

Remote multicast type flog (for multicast connections). Values are as per local multicast type flag.

l_end_nni

short

-1: unknown port type.

1: nni port type.

0: non nni port type.

r_end_nni

short

-1: unknown port type.

1: nni port type.

0: non nni port type.

For incomplete PVC, this field is always -1 (unknown).

inseg_tbl_1

smallint

0 = First segment not received
1 = First segment of PVC already received
2 = Save channel of Popeye not received
3 = Master
Default value is -1.

inseg_tbl_2

short

1 = Segment already received
Default value is -1.

inseg_tbl_3

short

1 = Third segment received
Default value is -1.

snmp_index

Yes

int

The SNMP-Proxy index for user connection.

The USER_CONNECTION table has the following indexes:
rcon_idx - (r_node_id, r_slot, r_port, r_subchnl_1, r_subchnl_2)
lc_con_idx - (lc_node_id, lc_slot, lc_port, lc_subchnl_1, lc_subchnl_2)
rc_con_idx - (rc_node_id, rc_slot, rc_port, rc_subchnnl_1, rc_subchnl_2)
master_lcon_idx - (master_node,_id, master_lcon_obj_id)


Table 3-9: CONNECTION
Column Name Unique Identifier Field Data Type Description

con_obj_id

Yes

int

Local-end connection Object ID.

rcon_obj_id

int

Remote-end connection Object ID.

lcon_obj_id

int

Local-end logical connection Object ID.

master_flag

short

Flag indicating whether this end is the master:
0 = False
1 = True

l_network_id

short

Local-end CWM network ID.

l_node_id

Yes

int

Local-end CWM node ID.

shelf

int

Local-end shelf number.

termination

short

Type of local and remote end-points:

Bit (0) - Local end has feeder
Bit (1) - Remote end has feeder
Bit (2-4) - Local endpoint type
Voice_Data (0)
Frame-Relay (1)
ATM (2)

Bit (5-7) - Remote endpoint type:
Voice_Data (0)
Frame-Relay(1)
ATM (2)
Voice (3)
Data (4)

l_slot

short

Local-end slot number.

l_line

short

Local-end line number (for FRSM and FRASM connection only). It is set to 0 for all other cards.

l_channel

short

Local-end logical port (physical port for FRSM and FRASM).

l_dlci

short

Local-end DLCI number.

l_vci

int

Local-end VCI number for AIT endpoint only (not valid for FRP/FRSM/UFM).

r_network_id

short

Remote-end CWM network ID.

r_node_id

int

Remote-end CWM node ID.

r_slot

short

Remote-end slot number.

r_line

short

Remote-end line number.

r_channel

short

Remote-end logical port (physical port for FRSM and FRASM).

r_dlci

short

Remote-end DLCI number.

r_vci

int

Remote-end VCI for AIT endpoint only (not valid for FRP/FRSM/UFM).

con_type

short

Connection type:

0 = ADPCM voice
1 = ADPCM no voice activation detection (VAD)
2 = PCM voice
3 = transparent voice
4 = data (SDP)
5 = Frame Relay
6 = ATM

rate_info

short

Combination field of rate info:
bit (7) Fast EIA Enabled (1) / Disabled (0)
bit (6) DFM Enabled (1) / Disabled (0)

bits (5-3) Encoding:
undefined (0)
7/8 (1)
8/8 (2)
8/8l (3)
7/8E (4)

bit (2-0) Load type:
undefined (0)
voice (1)
non-TS (2)
TS (3)
Bursty Data A (4)
Bursty Data B (5)

l_load_unit

short

Local-end maximum number of packets per second allocated to the connection.

r_load_unit

short

Remote-end maximum number of packets per second allocated to the connection.

min_bw

int

Minimum guaranteed bandwidth in hundreds of bits per second.

dax_con

short

DAX connection flag:
0 = non DAX
1 = DAX

txr_card

short

Flag to identify voice connection end point card is TXR card type:
0 = non TXR
1 = TXR

commentc

char (20)

Comment field.

active

short

Connection active state:
0 = inactive
1 = active

status

short

Connection status:
1 = clear
2 = failed
3 = down
15 = Upper-level alarm

qir

int

Quiescent information rate in hundreds of bits per second.

pir

int

Peak information rate in hundreds of bits per second.

vc_q_depth

int

VC queue depth in bytes.

vc_q_thresh

int

VC queue threshold in bytes (Ingress queue ECN threshold).

vc_de_thresh

int

Ingress queue DE threshold.

eg_q_depth

int

Egress queue depth.

eg_q_de_thresh

int

Egress queue DE threshold.

eg_q_ecn_thresh

int

Egress queue ECN threshold.

de_tag_ena

int

DE tagging enable/disable.

cmax

int

Credit max for a connection in packets.

lper_util

short

Local percent utilization.

rper_util

short

Remote percent utilization.

conn_info_flag

short

Connection information flag:
bit (7) Foresight:
Enabled (1)
Disabled (0)

bit (6) SNA priority:
High (1)
Low (0)

bit (5-0) unused.

cir

int

Committed information rate in hundreds of bits per second.

a_bit_status

short

Connection a bit status field:
Bit 7 is 1 when NNI a-bit status is OK.

Bit 6 is 1 when NNI remote PVC does not exist.

Bit 5 to Bit 0 unused.

ibs

int

Initial burst size.

bc

int

Burst-committed in bytes.

be

int

Burst-excess in bytes.

eg_q_select

short

Egress queue selection.

card_type

short

Local-end card type:
1 = CDP_SDP

2 = FRP

3 = AIT

4 = FRSM

5 = AUSM

6 = CESM

7 = ASI

8 = BNI

9 = AUSM_8

10 = BXM

11 = UVM

12 = CVM

13 = HDM

14 = LDM

15 = CDP

16 = SDP

17 = LDP

channel_type

short

Channel type (currently used by connections terminating on FRSM):
1= FR-NetworkInterWorking

2= FR-ServiceInterWorking-Transparent

3= FR-ServiceInterWorking-Translate

4= FR-FUNI

5= Frame-Forwarding

fecn

short

Forward explicit congestion notification.

de_to_clp_map

short

DE to CLP map:
2 = set DE 0 and set CLP 0
3 = set DE 1 and set CLP 1

clp_to_de_map

short

CLP to DE map:
2 = set DE 0 and set CLP 0
3 = set DE 1 and set CLP 1

rate_type

short

For voice/data connections only:
Rate type: (0-13)

Set to -1 for other connection types.

rate_fctr

short

For data connections only:
Rate factor: (1-8)

Set to -1 for other connection types.

smpl_per_pckt

short

For data connections only:

Sample per packet: (1, 2, 4, 5, 10). Set to -1 for other connection types.

retry_cnt

short

Number of retry attempts before declaring failure (for FRASM llc port only).

ack_wait_time

int

Number of millisecond intervals the implementation waits before resending unacknowledged information frames (for FRASM llc port only).

par_subtype

short

Default value is -1.

par_rout_pri

short

Default value is -1.

par_max_cost

short

Default value is -1.

par_res_trk_typ

short

Default value is -1.

par_chan_pcr

int

Default value is -1.

par_chan_mcr

int

Default value is -1.

qbin_num

short

Default value is -1.

reserved

int

Reserved for future use.


Table 3-10: STAT_ENABLE
Column Name Unique Identifier Field Data Type Description

obj_id

yes

int

Object ID.

l_node_id

yes

int

CWM node ID.

object_type

yes

short

Object type:
0 = connection
1 = circuit line (service line)
2 = packet line (trunk line)
3 = Frame Relay port

stat_type

yes

short

Statistic type.

bucket_type

yes

short

Duration, in minutes, of the bucket.

owner_netw_id

short

IPX network ID of node to which CWM is connected.

owner_node_id

short

IPX node ID to which CWM is connected.

num_buckets

short

Maximum number of buckets residing in the IPX real-time memory.

bucket_size

short

Size of bucket in bytes.

retain_peak

short

Flag to indicate to have peak saved. A two byte value where:

High order byte has the format:

bit 7 (high)

0 = interval in minutes
1 = interval in seconds
bits 0 -6 = peak interval

Low order byte has the format:

0 = don't save peak
1 = save peak

auto_stat

short

Flag to indicate whether the statistic is enabled by system by default:

0 = not enabled by default
1 = enabled by fault

enable_flag

short

Flag to indicate the active status of the statistic type:

0 = inactive
1 = active

collect_interval

int

The time interval in minutes to collect statistical data.

enable_time

int

The UNIX time when the statistic was enabled.

retain_period

int

The duration period in minutes of the records saved in the CWM database.

reserved

int

Reserved for future use.

Only used by `statsenable' when invoked from IPX command line.


Table 3-11: PACKET_LN_DATA
Column Name Unique Identifier Field Data Type Description

timestamp

yes

long

Timestamp of the statistical record.

pln_obj_id

yes

int

Packet line Object ID.

l_node_id

yes

int

CWM node ID.

stat_type

yes

short

Statistic type.

bucket_type

yes

short

Duration, in minutes, of each bucket.

totald

float

Total of raw data collected in the sample interval.

peak

float

Peak rate of raw data in the sample interval.
Table 3-12: CIRCUIT_LN_DATA
Column Name Unique Identifier Field Data Type Description

timestamp

yes

int

Timestamp of the statistical record.

cln_obj_id

yes

int

Circuit line Object ID.

l_node_id

yes

int

CWM node ID.

stat_type

yes

short

Statistic type.

bucket_type

yes

short

Duration, in minutes, of each bucket.

totald

float

Total of raw data collected in the sample interval.

peak

float

Peak rate of raw data in the sample interval.
Table 3-13: FRP_DATA
Column Name Unique Identifier Field Data Type Description

timestamp

yes

int

Timestamp of the statistical record.

frp_obj_id

yes

int

Frame Relay port Object ID.

l_node_id

yes

int

CWM node ID.

stat_type

yes

short

Statistic type.

bucket_type

yes

short

Duration, in minutes, of each bucket.

totald

float

Total of raw data collected in the sample interval.

peak

float

Peak rate of raw data in the sample interval.
Table 3-14: CONNECTION_DATA
Column Name Unique Identifier Field Data Type Description

timestamp

yes

int

Timestamp of the statistical record.

con_obj_id

yes

int

Connection Object ID.

l_node_id

yes

int

CWM node ID.

stat_type

yes

short

Statistic type.

bucket_type

yes

short

Duration, in minutes, of each bucket.

totald

float

Total of raw data collected in the sample interval.

peak

float

Peak rate of raw data in the sample interval
Table 3-15: SERIAL_LN_DATA
Column Name Unique Identifier Field Data Type Description

timestamp

yes

long

Timestamp of the statistical record

sln_obj_id

yes

int

Serial line Object ID

l_node_id

yes

int

CWM node ID.

stat_type

yes

short

Statistic type.

bucket_type

yes

short

Duration, in minutes, of each bucket.

totald

float

Total of raw data collected in the sample interval.

peak

float

Peak rate of raw data in the sample interval.
Table 3-16: LOGICAL_CONN
Column Name Unique Identifier Field Data Type Description

lcon_obj_id

yes

int

Logical connection Object ID.

src_node_id

yes

int

Source CWM node ID in the routes.

lcon_type

yes

short

Type of logical connection:
0 = lcon
1 = junction lcon

round_trip_delay

short

Round trip delay (only applicable to local lcon).

dst_node_id

int

Destination CWM node ID in the local routes.

l_lcon_index

short

Local-end logical connection index.

r_lcon_index

short

Remote-end logical connection index.

r_lcon_p_index

short

Remote-end logical partner connection index.

j_dst_node_id

int

Destination CWM node in the junction route.

cos

short

Class of Service:
0 = False
1 = True

group_flag

short

Grouped connection:
0 = False
1 = True

avoid_trk_type

short

Trunk types to avoid:
1 = None
2 = Satellite
3 = Terrestrial

avoid_zcs

short

Avoid ZCS trunks:
0 = False
1 = True

pref_route

char (255)

Preferred route.

curr_route

char (255)

Current route.
Table 3-17: ROUTES
Column Name Unique Identifier Field Data Type Description (table no longer in use, as of release 9.1)

l_con_id

yes

int

The logical connection Object ID. It can be either a junction logical connection ID or a non-junction connection ID.

owner_node_id

yes

int

The CWM node ID that owns the route.

hop_node_id

yes

int

The source CWM node ID.

route_type

yes

short

Current or preferred route:
current (1)
preferred (2)
junction current (3)
junction preferred (4)

hop_number

short

The hop number.

src_line_number

short

The source trunk line number.


Table 3-18: ATM_CONNECTION---AUSM/BNI/ASI/BTM/BXM/UXM/PXM Segments
Column Name Unique Identifier Field Data Type Description

con_obj_id

yes

int

ATM Connection segment Object ID.

rcon_obj_id

int

Remote Connection Object ID.

lcon_obj_id

int

Logical Connection Object ID.

master_flag

short

Flag indicating whether this end is the master:
True (1)

False (0)

l_network_id

short

Local CWM network ID.

l_node_id

yes

int

Local CWM node ID.

termination

short

Type of local and remote end-points:

Bit(0) - Local end has feeder
Bit(1) - Remote end has feeder
Bit(2-4) - Local endpoint type
Voice_Data (0)
Frame-Relay (1)
ATM (2)
Bit(5-7) -Remote endpoint type.

Voice_Data (0)
Frame-Relay (1)
ATM (2)

l_slot

short

Local slot number.

l_port

short

Local logical port number.

l_vpi

short

Local VPI number.

l_vci

int

Local VCI number.

r_network_id

short

Remote CWM network ID.

r_node_id

int

Remote CWM node ID.

r_slot

short

Remote slot number.

r_port

short

Remote logical port number.

r_vpi

short

Remote VPI number.

r_vci

int

Remote VCI number.

con_type

short

Connection type (for example, voice, data, Frame Relay, ATM connection etc.)

ATM = 6.

sub_type

short

Service type:
1 = ATF

2 = VBR

3 = CBR

4 = unknown

5 = ABR

6 = ATFST

7 = CE

8 = FR_VBR

9 = FR_ABR_FS

10= UBR

mir

int

Minimum information rate in 100 bits per second.

qir

int

Quiescent information rate in 100 bits per second.

pir

int

Peak information rate in 100 bits per second.

cir

int

Committed information rate in 100 bits per second.

lper_util

short

Local Percent Utilization.

rper_util

short

Remote Percent Utilization.

commentc

char (20 + 1)

Comment field to be used to further qualify the ATM connection.

active

short

Connection active state:
0 = inactive
1 = active

status

short

Connection status field:
1 = OK/A-Bit alarm
2 = Failed/A-Bit alarm
3 = Down/A-Bit alarm
15 = Upper-level alarm
129 = OK
130 = Failed
131 = Down

con_info_flag

short

Connection information flag:

This is bit field:
bit (7) Foresight:
Enabled (1)
Disabled (0)

bit (6) SNA priority:
High (1)
Low (0)

bits (5-0) are unused.

ibs

int

Initial burst size.

vc_q_depth

int

VC queue depth in bytes.

efci_q_thresh

short

EFCI queue threshold.

cbs

int

CBS.

mfs

int

MFS.

ccdv

int

CCDV.

clp_hi

short

CLP high threshold.

clp_lo

short

CLP low threshold.

fst_rate_up

int

ForeSight rate up.

fst_rate_dn

int

ForeSight rate down.

fst_fast_dn

short

ForeSight fast down.

fst_qir_to

short

ForeSight QIR timeout.

fst_max_adj

int

ForeSight maximum adjustment.

clp_tagging

int

CLP tagging (enable = 2, disable = 1).

upc_enable

int

UPC enable (enable = 2, disable = 1).

rm_enable

int

RM enable (enable = 2, disable = 1).

u_fgcra

int

FGCRA (enable = 2, disable = 1.

u_scr_policing

short

SCR Policing (CLP0 = 1, CLP0 and 1 = 2, off = 3).

u_pcr01

int

PCR0+1.

u_ccdv01

int

CCDV0+1.

u_ccdv0

int

CCDV0.

lcn

int

Logical connection number.

nrm

short

NRM.

tbe

int

TBE.

frtt

short

FRTT.

vsvd

short

VSVD.

mc_type

short

Multicast type:
Normal (0)
Root (1)
Leaf (2)

par_subtype

short

Default value is -1.

par_rout_pri

short

Default value is -1.

par_max_cost

short

Default value is -1.

par_res_trk_typ

short

Default value is -1.

par_chan_pcr

int

Default value is -1.

par_chan_mcr

int

Default value is -1.

reserved

int

Reserved for future use.

The ATM_CONNECTION table has the following additional indexes:
lcon_idx - (lcon_obj_id, l_node_id)
lslot_idx - (l_node_id, l_slot, l_port, l_vpi)
rslot_idx - (r_node_id, r_slot, r_port, r_vpi)

Table 3-19: ASI_LINE---ASI/BXM/BME/USM
Column Name Unique Identifier Field Data Type Description

asiLine_obj_id

Yes

int

UXM physical line Object ID.

l_network_id

queue

short

CWM network ID.

l_node_id

Yes

int

CWM node ID.

card_type

short

41 = UXM (SV+ 9.1)
106 = ASI_T3
107 = ASI_E3
110 = ASI_0C3_SMF
111 = ASI_OC3_MMF

For BXM and BME card types, see Section, "BXM and BME Card Types".

interface

short

Interface type:
0 = unknown
1 = T1
2 = not used
3 = subrate
4 = OC3
5 = E1
7 = broadband
8 = E3
9 = T3

1_slot

short

Slot number.

l_port

short

Port number. For physical lines: (trunk number -1). For example, for IMA trunk 11.3-5. For this trunk's 3 physical lines (3, 4, and 5) the port number is (3-1 = 2).

l_trk

short

Logical Trunk number for trunks having physical lines. For non physical lines it is -1. Default value for upgrade to CWM 9.2 is -1.

l_vtrk

short

When trunks have physical lines and it is a virtual trunk, it contains the virtual trunk number, otherwise it is -1. Default value for upgrade to CWM 9.2 is -1.

l_line

short

Physical line number. This is unique per card. For example, when physical lines are 2, 3 for one trunk and 6, 7 for another trunk on the same card, this field is 2, 3 for the first trunk and 6, 7 for the second trunk. For non physical lines it is -1. Default value for upgrade to CWM 9.2 is -1.

aps_flag

short

Reserved for future use. Default value is -1.

commentc

char (20)

Comment field.

active

short

Active state:

0 = inactive
1 = active

This field is unused.

status

short

Status field:

1 = clear

2 = failed

reserved

int

Reserved for future use.
Table 3-20: ASI_PORT---ASI/BXM/BME/UXM
Column Name Unique Identifier Field Data Type Description

asiport_obj_id

yes

int

ASI port BPX Object ID.

l_network_id

short

CWM Network ID.

l_node_id

yes

int

Local CWM node ID.

l_slot

short

Slot number.

l_port

short

Physical port number.

port_speed

int

Port speed (baud rate) in 100 bps.

port_type

short

Port Type:
UNI = 1
NNI = 2
MC_UNI = 3
MC_NNI = 4

svc_in_use

short

SVC used (0 = unused, 1 = used).

svc_lcn_lo

int

SVC LCN Low value.

svc_lcn_hi

int

SVC LCN High value.

svc_vpi_lo

int

SVC VPI Low value.

svc_vpi_hi

int

SVC VPI High value.

svc_vci_lo

int

SVC VCI Low value.

svc_vci_hi

int

SVC VCI High value.

commentc

char (20 + 1)

Comment field to be used to further qualify the ASI port.

active

short

Port active state:
0 = inactive
1 = active

status

short

Port status field:
1 = Clear
2 = Failed.

reserved

int

Reserved for future use.


Table 3-21: FPD_CONNECTION
Column Name Unique Identifier Field Data Type Description

fpdcon_obj_id

yes

int

FastPAD Connection FastPAD Object ID.

lcon_obj_id

int

Logical connection Object ID.

l_network_id

short

Local CWM network ID.

l_node_id

yes

int

Local CWM node ID.

l_slot

short

Local slot number.

l_port

short

Local port number.

l_subtype

short

Local FastPAD connection subtype (for example, voice, data, session).

l_fpdslot

short

Local FastPAD slot number.

l_fpdport

short

Local FastPAD port number.

l_fpddlci

int

Local FastPAD DLCI number.

r_network_id

short

Remote CWM network ID.

r_node_id

int

Remote CWM node ID.

r_slot

short

Remote slot number.

r_port

short

Remote port number.

r_subtype

short

Remote FastPAD connection subtype (for example, voice, data, session, etc.)

r_fpdslot

short

Remote FastPAD slot number.

r_fpdport

short

Remote FastPAD port number.

r_fpddlci

int

Remote FastPAD DLCI number.

con_type

short

Connection type:
0 = ADPCM voice
1 = ADPCM no voice activation detection (VAD)
2 = PCM voice
3 = transparent voice
4 = data (SDP)
5 = Frame Relay
6 = ATM

rate_info

short

Combination field of rate info:
bit (7) Fast EIA Enabled (1) / Disabled (0)
bit (6) DFM Enabled (1) / Disabled (0)

bits (5-3) Encoding:
undefined (0)
7/8 (1)
8/8 (2)
8/8l (3)
7/8E (4)

bit (2-0) Load type:
undefined (0)
voice (1)
non-TS (2)
TS (3)
Bursty Data A (4)
Bursty Data B (5)

l_load_unit

short

Local max number of packets per second allocated.

r_load_unit

int

Remote max number of packets per second allocated.

mir

short

Minimum Information Rate in hundreds of bits per second.

commentc

char (20 + 1)

Comment field to be used to further qualify the FastPAD connection.

active

short

Connection active state.

status

short

Connection status field:
1 = Clear
2 = Failed
3 = Down

con_info_flag

short

Connection information flag:
bit (7) Foresight:
Enabled (1)
Disabled (0)

bit (6):
High Priority (1)
bit (5-0) unused

reserved

int

Reserved for future use.


Table 3-22: FTC_PORT
Column Name Unique Identifier Field Data Type Description

ftcport_obj_id

yes

int

FTC port IPX Object ID.

l_network_id

short

Local CWM network ID.

l_node_id

yes

int

Local CWM node ID.

l_slot

short

FTC slot number.

l_port

short

FTC port number.

port_speed

int

Port speed (baud rate in 100 bps).

commentc

char (20 + 1)

Comment field to be used to further qualify the FTC port.

active

short

FTC port active state.

status

short

FTC port status field:
1 = Clear
2 = Failed

reserved

int

Reserved for future use.
Table 3-23: FPD_NODE
Column Name Unique Identifier Field Data Type Description

fpdnode_obj_id

yes

int

FastPAD node Object ID.

network_id

short

CWM network ID.

node_id

yes

int

CWM node ID.

ipx_netw_id

short

IPX network ID.

ipx_node_id

int

IPX node ID.

l_slot

short

FastPAD slot number.

l_port

short

FastPAD port number.

fpd_name

char (9 + 1)

FastPAD name.

active

short

FastPAD active state.

status

short

FastPAD status field.

reserved

int

Reserved for future use.
Table 3-24: FPD_CONN_DATA
Column Name Unique Identifier Field Data Type Description

timestamp

yes

int

Timestamp of the statistical data record.

fpdcon_obj_id

yes

int

FastPAD connection IPX Object ID.

l_node_id

yes

int

Local CWM node ID.

stat_type

yes

short

Statistic type (object dependent field).

bucket_type

yes

short

Bucket type (duration in minutes of each collection bucket).

totald

float

Total raw data collected in the sample interval.

peak

float

Peak raw data in the sample interval.
Table 3-25: ASI_LN_DATA
Column Name Unique Identifier Field Data Type Description

timestamp

yes

int

Timestamp of the statistical data record.

asiline_obj_id

yes

int

ASI line BPX Object ID.

l_node_id

yes

int

Local CWM node ID.

stat_type

yes

short

Statistic type (object dependent field).

bucket_type

yes

short

Bucket type (duration in minutes of each collection bucket).

totald

float

Total raw data collected in the sample interval.

peak

float

Peak raw data in the sample interval.
Table 3-26: ASI_PORT_DATA
Column Name Unique Identifier Field Data Type Description

timestamp

yes

int

Timestamp of the statistical data record.

asiport_obj_id

yes

int

ASI port BPX Object ID.

l_node_id

yes

int

Local CWM node ID.

stat_type

yes

short

Statistic type (object dependent field).

bucket_type

yes

short

Bucket type (duration in minutes of each collection bucket).

totald

float

Total raw data collected in the sample interval.

peak

float

Peak raw data in the sample interval.
Table 3-27: FTC_PORT_DATA
Column Name Unique Identifier Field Data Type Description

timestamp

yes

int

Timestamp of the statistical data record.

ftcport_obj_id

yes

int

FTC port IPX Object ID.

l_node_id

yes

int

Local CWM node ID.

stat_type

yes

short

Statistic type (object dependent field).

bucket_type

yes

short

Bucket type (duration in minutes of each collection bucket).

totald

float

Total raw data collected in the sample interval.

peak

float

Peak raw data in the sample interval.
Table 3-28: BIS_OBJECT
Column Name Unique Identifier Field Data Type Description

obj_id

int

Feeder (BIS) Object ID.

name

char (11)

Name of BIS.

type

short

Feeder type.

subtype

short

Flag indicating whether this BIS is a feeder.
True (feeder only) (1)
False (routing only) (0)

ipaddress

yes

int

IP address of Feeder shelf.

p_ipaddress

yes

int

IP address of Feeder's parent node.

p_slot

short

Parent slot number.

p_port

short

Parent port number.

f_slot

short

Feeder slot number.

f_port

short

Feeder port number.

status

short

Alarm status of a BIS object:
0 = clear

1 = minor

2 = major

3 = unreachable

active

short

BIS object active state.

model

integer

8410 = IGX 8
8420 = IGX 16
8430 = IGX 32
8220 = Cisco MGX Concentrator
8620 = BPX
8650 = BPX Tag switch
Default value is -1.
Table 3-29: SHELF
Column Name Unique Identifier Field Data Type Description

node_id

yes

int

CWM node ID of the AXIS node.

network_id

short

CWM network ID.

name

char (10)

Name of shelf.

mac_addr

char (6)

MAC address.

routing_ip_addr

int

IP address for routing.

lan_ip_addr

int

IP address of Feeder shelf.

slip_ip_addr

int

SLIP IP address.

shelf

yes

int

Shelf number.

serial_id

char (21)

Backplane serial number.

shelf_type

short

Shelf type based on number of slots:
1 = 16 slot shelf (currently only used by AXIS)

status

short

ASM Alarm status of the shelf object:
ASM alarm off (1)
ASM alarm on (2)

reserved

int

Reserved for future use.
Table 3-30: PERIPHERAL---IPX/BPX/IGX/AXIS/POPEYE Nodes
Column Name Unique Identifier Field Data Type Description

obj_id

int

CWM Object ID of the AXIS node.

node_id

yes

int

CWM node ID of the AXIS node.

network_id

short

CWM network ID.

node_type

short

CWM node type.

shelf

yes

int

Shelf number.

peri_type

yes

short

Alarm status of the shelf:
Other (1)
Temperature (2)
Power Supply (3)
DC level (4)
Fan unit (5)

unit_num

yes

short

Unit numbers.

status

int

Physical alarm state.

severity

short

Alarm severity:
minor (1)
major (2)

alarm_num

short

Alarm number.

reserved

int

Reserved for future use.


Table 3-31: CARD---IPX/BPX/IGX/AXIS/POPEYE
Column Name Unique Identifier Field Data Type Description

obj_id

int

CWM Object ID of the AXIS node.

node_id

yes

int

CWM node ID of the AXIS node.

network_id

short

CWM network ID.

node_type

short

CWM node type.

shelf

yes

int

Shelf number.

slot

yes

short

Slot number.

fc_type

short

Front card type:
ASC (2),
BNM-T3 (10),
BNM-E3 (11),
BNM-155 (12),
SRM-4T1E1 (20),
SRM-3T3 (21),
FRSM-4T1 (30),
FRSM-4E1 (31),
FRSM-4T1-C (32),
FRSM-4T1-C (33),
FRSM-HS1 (34),
FRSM-8T1 (35),
FRSM-8E1 (36),
AUSM-4T1 (40),
AUSM-4E1 (41),
AUSM-8T1 (50),
AUSM-8E1 (51),
CESM-4T1 (60),
CESM-4E1 (61),
IMATM-T3T1 (70),
IMATM-E3E1 (71)
IMATMB-8T1 (72)
IMATMB-8E1 (73)
FRASM-8T1 (80)
CESM-8T1 (90),
CESM-8E1 (91)
BSCSM-2 (100)
BSCSM-4 (101)
ATMT-8T1 (110)
ATMT-8E1 (111)
FRT-8T1 (120)
FRT-8E1 (121)

For IPX/BPX/IGX, see Section, "Front Card Types".

fc_dscrp

char (21)

Front card description (AXIS only).

fc_serial_num

char (12)

Front card serial number.

fc_hw_rev

char (3)

Front card hardware revision.

fc_fw_rev

char (21)

Front card firmware revision (AXIS Only).

fc_reset_reason

int

Front card Reset reason:
Power Up (1),
Parity Error (2),
watchDog (3),
Resource Overflow (4),
Clear All Config (5),
Missing Task (6)
(AXIS only)

fc_fab_num

char (21)

Front card FAB number.

fc_state

int

Front card state:

Unititialized (0)
No Card (1)
Standby (2)
Active (3)
Failed (4)
Self Test (5)
Held in Reset (6)
Boot (7)
Mismatch (8)
Unknown (9)
Corecard Mismatch (10)
Failed, no backup(11)
Reserved (12)
Down (13)
Update (14)
Cleared (15)
Unavailable (16)
Downloading (17)
Downloader (18)
Downloaded (19)
Locked (20)
Program (21)
Upgrading (22)
Upgaraded (23)
Frozen (24)
Blocked (101)

mib_version

int

MIB version number (AXIS only).

bc_type

short

Back card type:
lm-ASC (2),
lm-DB15-4T1 (16),
lm-DB15-4E1 (17),
lm-BNC-4E1 (18),
lm-DB15-4T1-R(19),
lm-DB15-4E1-R(20),
lm-BNC-4E1-R (21),
lm-RJ48-8T1 (22),
lm-RJ48-8E1 (23),
lm-SMB-8E1 (24),
lm-RJ48-T3T1 (25),
lm-RJ48-E3E1 (26),
lm-RJ48-T3E1 (27),
lm-SMB-E3E1 (28),
lm-RJ48-E3T1 (29),
lm-T3-E3-D (32),
lm-T3-E3-B (33),
lm-155-SMF (34),
lm-155-UTP (35),
lm-RJ48-8T1-R(48),
lm-RJ48-8E1-R(49),
lm-SMB-8E1-R (50),
lm-3T3-B (51),
lm-HS1-4X21 (60),
lm-HS1-2HSSI (61)
For IPX/BPX/IGX, see Section, "Back Card Types".

bc_dscrp

char (21)

Back card description (AXIS only).

bc_serial_num

char (12)

Back card serial number.

bc_hw_rev

char (3)

Back card hardware revision.

bc_fw_rev

char (21)

Back card firmware revision (AXIS Only).

bc_state

short

Back card state:
Not Present (1)
Present (2)

sec_bc_type

smallint

Default value is -1.

sec_bc_dscrp

char (21)

Default value is -1.

sec_bc_serial_num

char (12)

Default value is -1.

sec_bc_hw_rev

char (6)

Default value is -1.

sec_bc_fw_rev

char (21)

Default value is -1.

sec_bc_state

smallint

Default value is -1.

rate_up

int

Rate up (FRSM/AUSM only).

rate_dn

int

Rate down (FRSM/AUSM only).

fast_dn

int

Rate fast down (FRSM/AUSM only)

measure_time

int

RTD measure time (FRSM/AUSM only).

qir_timeout

int

QIR timeout (FRSM only).

chan_allowed

short

Channelized data allowed:
1 = Not channelized
2 = Channelized

(FRSM only).

rate_ctrl_allowed

short

Rate control allowed (FRSM only).

clk_conn_type

short

Clock connector type.

curr_clk_src

short

Current clock source.

pri_clk_src

short

Primary clock source.

sec_clk_src

short

Secondary clock source.

clk_impedence

short

Clock impedance.

out_of_sync

short

Configuration upload failed during last resynchronization.

bnm_ln_format

short

BNM Cell Format (Possible values 1-STI, 2-UNI, 3-NNI).

aps_info

short

Default value is -1.

ml_chan_state

smallint

Multi-level channel statistics

reserved

int

Reserved for future use.


Table 3-32: LINE---AXIS/POPEYE Only
Column Name Unique Identifier Field Data Type Description

node_id

yes

int

CWM node ID of the AXIS.

obj_id

yes

int

dsx1 or dsx3 line Object ID.

network_id

short

CWM network ID.

shelf

int

Shelf number.

slot

short

Slot number.

line

short

Line number.

line_type

short

Line type:
DS1_LINE (T1/E1) = 1
DS3_LINE (T3/E3) = 2

connector

short

dsx1 line connector type (dsx1 only):
DB-15 (1)
BNC (2)

enable

short

dsx1 line enable/disable(dsx1 only):
enable (1)
disable (2)

subtype

short

dsx1 or dsx3 line type.

For dsx1-line:
dsx1ESF (1),
dsx1D4 (2),
dsx1E1 (3),
dsx1E1CRC (4),
dsx1E1MF (5),
dsx1E1CRC-MF (6),
dsx1E1clearchannel (7)

For dsx3-line:
dsx3 Cbit Parity (1),
g834-g804 (2)

coding

short

Line coding:
dsx1JBZS (1),

dsx1B8ZS (2),

dsx1HDB3 (3),

dsx1AMI (4)

length

short

Line length.

For T1 lines:
0 To 110 Feet (1),
110 To 220 Feet (2),
220 To 330 Feet (3),
330 To 440 Feet (4),
440 To 550 Feet (5),
550 To 660 Feet (6),
660 Feet Plus (7),

For E1 lines:
lineLength-75-Ohm (8),
lineLength-120-Ohm (9)

clock_src

short

Line Xmt clock source (dsx1 only):
LoopTiming (1),
LocalTiming (2)

loopback

short

Line loopback command.

line_bitmap

int

Bit map of used DS0 for line (bit 0 corresponds to timeslot1, bit 31 corresponds to timeslot 32, FRSM only).

oof_criteria

short

Line Out of Frame Criteria (dsx3 only):
1 = 3 of 8 Framing bits in error.
2 = 3 0f 16 Framing bits in error.

aisc_check

short

Line AISc Bits Check (dsx3 only):
1 = Check `C' bits.
2 = Ignore `C' bits.

tx_timing_marker

short

Transmit timing marker.

tx_payload_type

short

Transmit payload type.

commentc

char (21)

Comment field to be used to further qualify the line.

red_severity

short

Received LOS/OOF alarm severity:
1 = Minor
2 = Major

rai_severity

short

RAI alarm severity:
1 = Minor
2 = Major

stat_severity

short

Statistical alarm severity:
1 = Minor
2 = Major

alarm_state

int

Line alarm state.Its represented by bitmap:

0 = No Alarm
1 = Receiving RAI
2 = Transmitting RAI
4 = Receiving AIS
8 = Transmitting AIS
16= Receiving OOF
32= Receiving LOS
64= Near End Local Loopback in effect
128= Near End Remote Loopback in effect
256= Receiving test pattern

stat_alarm_state

int

Statistical Alarm state (currently unused in CWM).

agg_state

short

Aggregate Alarm state:
0 = No alarm
15 = One of the parents in object hierarchy (such as card) is in alarm.

rate

short

Rate.

hcs_masking

short

HCS masking.

payload_scramble

short

Payload scramble.

frame_scramble

short

Frame scramble.

section_state

short

Section state.

section_stat_sev

short

Section status severity.

section_stat_state

short

Section status state.

line_state

short

Line state.

line_stat_sev

short

Line status severity.

line_stat_state

short

Line status state.

path_state

short

Path state.

path_stat_sev

short

Path status severity.

path_stat_state

short

Path status state.

reserved

int

Reserved for future use.


Table 3-33: PLCP---AXIS/POPEYE Only
Column Name Unique Identifier Field Data Type Description

node_id

yes

int

CWM node ID of the AXIS.

obj_id

yes

int

PLCP Object ID.

network_id

short

CWM network ID.

shelf

int

Shelf number.

slot

short

Slot number.

line

short

Line number.

plcp

short

PLCP number.

enable

short

Not used in Release 8.4 or above.

cell_frm

short

PLCP Cell framing (PLCP, ATM).

scramble

short

PLCP payload scramble enable/disable:
1 = enable Scrambling
2 = disable Scrambling

loopback

short

PLCP loopback configuration:
1 = No loopback
2 = Remote loopback
3 = Local loopback

commentc

char (21)

Comment field to be used to further qualify the line.

red_severity

short

Received LOS/OOF alarm severity:
1 = Minor
2 = Major

rai_severity

short

RAI alarm severity:
1 = Minor
2 = Major

lss_severity

short

LSS alarm severity:
1 = Minor
2 = Major

stat_severity

short

Statistical alarm severity:
1 = Minor
2 = Major

alarm_state

int

PLCP alarm state. Its represented by bitmap:
0 = No Alarm.
1 = Receiving RAI.
2 = Transmitting RAI.
4 = Receiving OOF State.
8 = Receiving LSS Link UP.
16 = Transmitting LSS Link UP.
32 = Receiving LSS Link Down.
64 = Transmitting LSS Link Down.
128 = Local Loopback state.
256 = Remote Line Loopback state.

stat_alarm_state

int

Statistical Alarm state.

agg_state

short

Aggregate alarm state:
0 = No alarm
15 = One of the parents in object hierarchy (such as card) is in alarm.

bit_err_corr

short

Bit error correction:
1 = Disabled
2 = Enabled

reserved

int

Reserved for future use.


Table 3-34: AUSM_PORT---AXIS/POPEYE Only
Column Name Unique Identifier Field Data Type Description

ausmp_obj_id

yes

int

CWM Object ID of the AXIS.

l_network_id

yes

short

Local network ID.

l_node_id

yes

int

CWM local node ID.

shelf

int

Shelf number.

l_slot

short

Local slot number.

line

short

Line number associated with this port.

l_port

short

Physical port number for AUSM port.

port_speed

int

Port speed.

commentc

char (21)

Comment field to be used to further qualify the line.

active

short

Port active state.

status

short

Alarm state field.

signal_state

int

Port signalling state.

port_type

short

Type of port.

interface_type

short

Type of interface.

protocol_type

short

Signalling protocol type (no signalling, ILMI).

poll_timer

short

T491 polling interval.

err_thresh

short

N4991 error threshold.

signalling_vpi

int

Signalling VPI.

signalling_vci

int

Signalling VCI.

ilmi_trap_enable

short

ILMI trap enabled.

trap_interval

short

Minimum interval between traps.

keep_alive

short

Keep alive polling state.

event_thresh

short

N492 event threshold.

min_enquiry

short

T493 minimum enquiry interval.

svc_in_use

short

SVC used.

svc_lcn_lo

short

SVC LCN Low.

svc_lcn_hi

short

SVC LCN High.

svc_vpid_lo

short

SVC VPID Low.

svc_vpid_hi

short

SVC VPID High.

svc_vci_lo

int

SVC VCI Low.

svc_vci_hi

int

SVC VCI High.

svc_vpi_lo

short

SVC VPI Low.

svc_vpi_hi

short

SVC VPI High.

addr_prefix

char (20)

Network prefix for the ATM address.

ima_port

int

IMA Port number.

line_map

int

Line mapping.

num_red_links

short

Number of redundancy links.

max_delay

short

Maximum delay.

ima_master

short

IMA Master number.

lcl_ima_id

short

Local IMA ID.

rmt_ima_id

short

Remote IMA ID.

line_order

char (16)

Line order list.

obs_delay

short

OBS Dela.y

oversubscribed

short

Over subscribed indicator.

logical_port

short

Logical port number for AUSM port.

reserved

int

Reserved for future use.

ilmi_enable

short

Default value is -1.

ima_symmetry

short

Default value is -1.

bbif_vpi_low

int

The lower limit of VPI range to be reserved for this logical interface.

bbif_vpi_high

int

The upper limit of VPI range to be reserved for this logical interface.

min_rx_links

short

Default value is -1.

min_tx_links

short

Default value is -1.

reserved

int

Reserved for future use.


Table 3-35: AUSM_PORT_DATA---AXIS/POPEYE Only
Column Name Unique Identifier Field Data Type Description

timestamp

yes

int

Timestamp of the statistical data record.

ausmp_obj_id

yes

int

AUSM port ATM Object ID.

l_node_id

yes

int

Local CWM node ID.

stat_type

yes

short

Statistic type (object dependent field).

bucket_type

yes

short

Bucket type (duration in minutes of each collection bucket).

totald

float

Total raw data collected in the sample interval.

peak

float

Peak raw data in the sample interval.


Table 3-36: CESM_CONNECTION---AXIS/POPEYE Only
Column Name Unique Identifier Data Type Description

con_obj_id

Yes

int

Connection Object ID (also known as VC/End-Point Index).

master_flag

short

Flag indicating whether this end is the master:
True (1)
False (0)

l_network_id

short

Local CWM network ID.

l_node_id

Yes

int

Local CWM node ID for IPX or AXIS.

shelf

int

Shelf number.

termination

short

Local and remote termination type.

l_slot

short

Local slot number.

l_line

short

Local line number.

l_port

short

Local port number which is physical port number.

l_vpi

short

Local VPI number.

l_vci

int

Local VCI number.

r_network_id

short

Remote CWM network ID.

r_node_id

int

Remote CWM node ID.

r_slot

short

Remote slot number.

r_line

short

Remote line number.

r_port

short

Remote port number.

r_vpi

short

Remote DLCI number or VPI number.

r_vci

int

Remote VCI.

con_type

short

Connection type (for example, voice, data, CESM, Frame Relay etc.)

max_buf_size

int

Maximum size of reassembly buffer (in octets).

cell_loss_period

int

Cell loss integration period (milliseconds).

cdv_rx_t

int

Maximum cell arrival jitter tolerated by reassembly process (in 10 microsecond increments).

commentc

char (20+1)

Comment field to be used to further qualify the connection.

active

short

Connection active state.

status

short

Connection status field:
1 = Clear
2 = Failed
3 = Down
15 = Upper-level alarm

cbr_clock_mode

short

Specifies clocking mode of the CBR service:
Values:
synchronous (1)
srts (2)
adaptive (3)

cas

short

Specifies when CAS bits are carried by the service.

Values:
basic (1)

e1Cas (2)

ds1SfCas (3)

ds1EsfCas (4)

ccs (5)

partial_fill

short

Number of user octets per cell, when partial cell fill is used.

Value range: 0-47

idle_detection

short

Idle Detection (CESM-8).

Values: disable (1) and onhook (2).

onhook_code

short

Onhook Code (CESM-8).

Value Range: 0-15

par_subtype

short

Default value is -1.

par_rout_pri

short

Default value is -1.

par_max_cost

short

Default value is -1.

par_res_trk_typ

short

Default value is -1.

par_chan_pcr

int

Default value is -1.

par_chan_mcr

int

Default value is -1.

par_chan_per_util

short

Default value is -1.

lcn

int

Default value is -1.

idle_suppression

short

Idle Suppression (CESM-8).

Values: disable (1) and enable (2).

The CESM_CONNECTION table has the following additional indexes:
celslot_idx - (l_node_id, l_slot, l_port, l_vpi)
cerslot_idx - (r_node_id, r_slot, r_port, r_vpi)

Table 3-37: DNS_NODE
Column Name Unique Identifier Field Data Type Description

node_id

Yes

int

CWM node ID of DNS node.

name

char (10+1)

DNS node name.

ip_addr

int

IP address of DNS node.

p_node_name

char (10+1)

Parent node name of DNS node.

redun_name

char (10+1)

Redundant node name.

redun_ip_addr

int

Redundant IP address.

alarm_status

short

Alarm state field.

oper_status

short

Current operation status of DNS node (active or standby).
Table 3-38: REDUNDANT_CARD
Column Name Unique Identifier Field Data Type Description

network_id

short

CWM network ID.

node_id

Yes

int

CWM node ID.

pri_slot

Yes

short

Primary slot number.

pri_type

short

Primary card type.

pri_status

short

Primary card status.

sec_slot

short

Secondary slot number.

sec_type

short

Secondary card type.

sec_status

short

Secondary card status.

covered_slot

short

Covered slot number.

red_type

short

Redundancy type:
1-to-1 = 1 (y-cable)
1-to-n = 2
Table 3-39: LINE_DISTRIBUTION
Column Name Unique Identifier Field Data Type Description

dist_idx

Yes

short

Distribution index.

network_id

short

CWM network ID.

node_id

Yes

int

CWM node ID.

t3line

short

T3 line number.

t1line

short

T1 line number.

target_slot

short

Targeted slot number.

target_line

short

Targeted line.
Table 3-40: VP_RANGE
Column Name Unique Identifier Field Data Type Description

network_id

short

CWM network ID.

node_id

Yes

int

CWM node ID.

slot

Yes

short

Slot number.

rangenum

Yes

short

Range number.

port

short

Port number.

min_vpi

int

Minimum VPI value.

max_vpi

int

Maximum VPI value.


Table 3-41: VOICE_CHANNEL
Column Name Unique Identifier Field Data Type Description

chnl_obj_id

Yes

int

Voice channel Object ID.

l_node_id

Yes

int

CWM node ID.

1_slot

short

Slot number.

l_line

short

Port number.

l_chnl

short

Channel number.

per_util

short

Percent utilization (0 - 100).

cos

short

Class of service.

eia

short

EIA rate (0 - 20).

dfm_len

short

DFM length (0, 1, 7, 8, 16).

chnl_info

short

Data channel info:
Bit7-6: spare

Bit5: OCU: 0 = reset, 1 = Set

Bit4: DS0A, UCS: 0 = reset, 1 = Set

Bit3: DTE: 0 = DCE, 1 = DTE

Bit2-1: Clocking: 0 = normal, 1 = split, 2 = looped

Bit0: DFM flag: 0 = Off, 1 = On

input_loss

short

Input loss.

output_loss

short

Output loss.

onhook_ab

short

Onhook AB:
Bit7-5: Onhook A: 0 = 0, 1 = 1, 2 = don't care, 3 = unknown, 4 = not used.

Bit4-2: Onhook B: 0 = 0, 1 = 1, 2 = don't care, 3 = unknown, 4 = not used.

Bit1-0: Dial type: 0 = Inband, 1 = pulse, 2 = User Dial.

onhook_cd

short

Onhook CD:
Bit7-5: Onhook C: 0 = 0, 1 = 1, 2 = don't care, 3 = unknown, 4 = not used.

Bit4-2: Onhook D: 0= 0, 1 = 1, 2 = don't care, 3 = unknown, 4 = not used.

Bit1: Sig Inject.

BIt0: Sig Extract.

chnl_type

short

Channel type.

cndt_crtr_indx

short

Conditioning criterion index.

tx_ab_sgnl

short

Transmit AB signalling:
(This applies to Tx/Rcv XY sig)

Bit7-5: Tx/Rcv X signalling

Bit4-2: Tx/Rcv Y signalling

0=sig. bit is 0, 1= sig. bit is 1, 2=tx sig. bit transparently, 3=don't tx sig. bit, 4=Reverse/Inverse sig. bit.

Bit1=0: Spare

tx_cd_sgnl

short

Transmit CD signalling.

Same as tx_ab_sgnl.

rcv_ab_sgnl

short

Receive AB signalling (same as tx_ab_sgnl).

rcv_cd_sgnl

short

Receive CB signalling (same as tx_ab_sgnl).

sgnl_intgr_time

short

Signalling integration time(ms).

min_wink

int

Minimum wink (ms) (100 - 300).

playout_delay

short

Playout_delay (120 - 200).

iec

short

IEC parms:
Bit7: echo cancel: 0 = Disabled, 1 = Enabled.

Bit6: non-linear proc: 0 = Disabled, 1 = Enabled.

Bit5: conv.: 0 = Disabled, 1 = Enabled.

Bit4: echo return loss: 0 = Low, 1 = High.

Bit3: tone disabler: 0 = Disabled, 1 = Enabled.

Bit2: bkcd prefer: 0 = Disabled, 1 = Enabled.

Bit1: bkgnd filter: 0 = Disabled, 1 = Enabled.

Bit0: spare.


Table 3-42: DATA_CHANNEL
Column Name Unique Identifier Field Data Type Description

chnl_obj_id

yes

int

Data channel Object ID.

l_node_id

yes

int

CWM node ID.

1_slot

short

Slot number.

l_line

short

Line number.

l_channel

short

Channel number.

per_util

short

Percent utilization (0 - 100).

cos

short

Class of service.

eia

short

EIA rate (0 - 20).

dfm_len

short

DFM length (0, 1, 7, 8, 16).

chnl_info

short

Data channel info:
Bit7-6: spare.

Bit5: OCU: 0 = reset, 1 = Set.

Bit4: DS0A, UCS: 0 = reset, 1 = Set.

Bit3: DTE: 0 = DCE, 1 = DTE.

Bit2-1: Clocking: 0 = normal, 1 = split, 2 = looped.

Bit0: DFM flag: 0 = Off, 1 = On.
Table 3-43: ACCESS_NODE
Column Name Unique Identifier Field Data Type Description

node_id

yes

int

CWM node ID.

obj_id

int

Object ID.

type

short

Access node type.

subtype

short

Access node subtype.

ipaddress

int

Access node IP address.

p_ipaddress

int

Access node parent IP address.

p_slot

short

Parent slot number.

p_port

short

Parent port number.

r_slot

short

Access node slot number.

r_port

short

Access node port number.

device_id

short

Device ID.
Table 3-44: PROTOCOL_GROUP
Column Name Unique Identifier Field Data Type Description

node_id

Yes

int

CWM node ID.

slot

Yes

short

Slot number.

type

Yes

short

Protocol type:
STUN 1
BSTUN 2

group

Yes

short

Group number.

config_type

short

Config type:
sdlc 1
sdlctg 2
bsc 3

local_ack

short

Local ack flag:
disabled 1
enabled 2

state

short

Operational status:
inactive 1
active 2

(FRASM Support for 9.1)
Table 3-45: LINK_STATION
Column Name Unique Identifier Field Data Type Description

obj_id

Yes

int

Object ID.

node_id

Yes

int

CWM node ID.

slot

short

Slot number.

line

short

Line number.

port

short

Port number.

logical_port

short

Logical port number.

address

short

Address.

mac_address

char (15)

Physical address. It is 6 bytes in hex as format "0000.0000.0000".

max_frame

short

Maximum size of a frame on this station. Value is given in bytes.

xid

int

XID value to be exchanged for this station.

state

short

Operational status:
1 = disconnect
2 = discpend
3 = snrmseen
4 = error
5 = xidsent
6 = xidstop
7 = snrmsent
8 = connect
9 = thembusy
10 = usbusy
11 = bothbusy

(FRASM Support for 9.1)
Table 3-46: CHANNEL_ROUTE
Column Name Unique Identifier Field Data Type Description

obj_id

Yes

int

Object ID.

node_id

Yes

int

CWM node ID.

slot

short

Slot number.

line

short

Line number.

port

short

Port number.

logical_port

short

Logical port number.

dlci

short

DLCI number.

lcn

short

Logical channel number.

address

short

Station address number (for BSTUN, it is CU address. For FRASBAN, it is route ID. For others, it is Link Station address).

type

short

Route type:
STUN 1
BSTUN 2
FRASBNN 3
FRASBAN 4

lsap

short

The LSAP used to differentiate between tunnels on this DLCI (for STUN/BSTUN/FRAS-BNN only).

rsap

short

The RSAP used to differentiate between connections on this DLCI (for FRAS-BNN only).

th_type

short

th_type (for FRASBNN only):

none 1
pfid 2
afid 10
fid4 4

bni

char (15)

The BNI used for this BAN addressing scheme. It is 6 bytes in hex as format "0000.0000.0000" (for FRAS-BAN only).

state

short

operational status:
inactive 1
active 2
Table 3-47: STATION_DATA
Column Name Unique Identifier Field Data Type Description

timestamp

Yes

integer

Time stamp.

l_node_id

Yes

integer

Node ID.

stn_obj_id

Yes

integer

Station Object ID.

stat_type

Yes

short

Statistics Type.

bucket_type

Yes

short

Bucket interval in minutes.

totald

float

Total count.

peak

float

Peak count.
Table 3-48: RPM_CONNECTION
Column Name Unique Identifier Field Data Type Description

con_obj_id

integer

master_flag

short

l_network_id

short

l_node_id

integer

l_slot

short

l_line

short

l_port

short

l_vpi

short

l_vci

integer

r_network_id

short

r_node_id

integer

r_slot

short

r_line

short

r_port

short

r_vpi

short

r_vci

integer

sub_type

short

status

short

peak

integer

average

integer

burst

integer

mid_low

short

mid_high

short

oam

short

inverse_arp

short

aal_encap

short

vcd

integer

commentc

char (20)
Table 3-49: RSC_PART
Column Name Unique Identifier Field Data Type Description

obj_id

integer

Assigned by emc F (slot, port, ctrlr_type)

network_id

smallint

Assigned by emc

node_id

integer

Assigned by emc

slot

smallint

Assigned by emc

line

smallint

Line number associated with the logical interface. for PXM, four physical lines (currently)

port

integer

Logical interface number for RPM; value is -1

ctrlr_type

smallint

Index for controller using the interface:
1 = PAR
2 = PNNI
3 = TAG

ingr_pctbw

integer

Percentage of logical interface bandwidth available for UNI channels (bbIfIngrPctBandwidth)

egr_pctbw

integer

Percentage of aggregate physical line bandwidth available for this broadband interface - Egress.
Default value is 0%.

vpi_low

integer

Beginning of the VPI range reserved for this partition

vpi_high

integer

End of the VPI range reserved for this partition

vci_low

integer

Beginning of the VCI range reserved for this partition; only valid for logical interfaces configured with a single VPI

vci_high

integer

End of the VCI rnage reserved for this partition; only valid for logical interfaces configured with a single VPI

max_chans

integer
Table 3-50: RPM_PORT
Column Name Unique Identifier Field Data Type Description

port_obj_id

integer

Port Object ID

l_network_id

short

Network ID

l_node_id

integer

Node ID

l_slot

short

rpmPortSlotNumber (1 - 30)

l_line

short

One ATM interface, value currently is 1

l_port

short

rpmPortSubInterface (0 - 255)

ip_address

integer

rpmPortIpAddress: IP address of the subinterface

subnet_mask

integer

rpmPortSubNetMask: Subnet mask of the subinterface

status

short

1 = clear
2 = failed (not configured is an issue)

commentc

char (20)

Comment field
Table 3-51: PHY_LINE
Column Name Unique Identifier Field Data Type Description

phyline_obj_id

integer

Object ID

l_network_id

short

Network ID

l_node_id

integer

Node ID of integer

card_type

short

41 = UXM (SV+ 9.1)
106 = ASI_T3
107 = ASI_E3
110 = ASI_0C3_SMF
111 = ASI_OC3_MMF

For BXM and BME card types, see Section, "BXM and BME Card Types".

interface

short

Interface type:
0 = unknown
1 = T1
2 = not used
3 = subrate
4 = OC3
5 = E1
7 = broadband
8 = E3
9 = T3

1_slot

short

Slot number.

l_port

short

Port number. For physical lines: (trunk number -1). For example, for IMA trunk 11.3-5. For this trunk's 3 physical lines (3, 4, and 5) the port number is (3-1 = 2).

l_trk

short

Logical Trunk number for trunks having physical lines. For non physical lines it is -1. Default value for upgrade to CWM 9.2 is -1.

l_vtrk

short

When trunks have physical lines and it is a virtual trunk, it contains the virtual trunk number, otherwise it is -1. Default value for upgrade to CWM 9.2 is -1.

l_line

short

Physical line number. This is unique per card. For example, when physical lines are 2, 3 for one trunk and 6, 7 for another trunk on the same card, this field is 2, 3 for the first trunk and 6, 7 for the second trunk. For non physical lines it is -1. Default value for upgrade to CWM 9.2 is -1.

primary_phy_line

short

Primary physical line number

aps_flag

short

Auto-protection switch flag

commentc

char (20)

Comment field.

active

short

Active state:

0 = inactive
1 = active

This field is unused.

status

short

Status field:

1 = clear

2 = failed

reserved

int

Reserved for future use.

Additional Card Types

This section describes the additional front and back card types supported.

Front Card Types

This subsection describes the additional front card types supported.


Table 3-52: Front Card Types
Front Card Type Value (fc_type)

NULL_CD

0

IPX_PCC_CD

1

VDP_CD

2

TXR_CD

3

PIC_CD

4

VCD_CD

5

VDP_VCD_CD

6

PSM_CD

7

PS_CD

8

SDP_CD

9

BSLOT_CD

10

MBACK_CD

11

SDP_BACK_CD

12

TXR2_CD

13

XDP_CD

14

LDP_CD

15

XDP_BACK_CD

16

LDP_BACK_CD

17

SBACK_CD

18

LBACK_CD

19

FDP_CD

20

CIP_CD

21

NTC_CD

22

UBACK_CD

23

UNI_CD

24

FRP_CD

25

FBACK_CD

26

FRP_BACK_CD

27

MT3_CD

28

CDP_CD

29

E1T1_PORT_CD

30

ATM_CD

31

NPC_CD

32

ARC_CD

33

AIT_CD

34

FTC_CD

35

FTCBACK_CD

36

UFM1_CD

37

UFM1_U_CD

38

BTM_HP_CD

39

UVM_CD

40

UXM_CD

41

BCC_CD

101

ASM_CD

102

BNI_T3_CD

103

BNI_E3_CD

104

MFRP_CD

105

ASI_T3_2_CD

106

ASI_E3_2_CD

107

ASI0_T3_CD

108

ASI0_E3_CD

109

BNI_OC3_CD

110

ASI_OC3_CD

111

BPX_BSLOT_CD

112

BCC3_CD and BCC4_CD1

113

Not Used

114

Reserved for GIM Cards

115

Reserved for GIM Cards

116

MNCH_CD (BXM BPX only)

117. See Section, "BXM and BME Card Types" for BXM and BXE card types.

UNKWN_CD

118

1The switch does not distinguish between BCC32 and BCC. To identify BCC card type, uniquely use the first character of fc_hw_rev field in card table.

Back Card Types

This subsection describes the additional back card types supported.


Table 3-53: Back Card Types
Back Card Type Value (bc_type)

NULL_BCD

0

RS232_BCD

1

RS449_BCD

2

V35_BCD

3

RS232D_BCD

4

RS232_8_BCD

5

RS232_4_BCD

6

FRIV35_4_BCD

7

E1_BCD

8

T1_BCD

9

PCCB_BCD

10

DDS_4_BCD

11

DDS_8_BCD

12

SR_BCD

13

MT3_BCD

14

FRI_E1_BCD

15

FRI_T1_BCD

16

J1_BCD

17

Y1_BCD

18

IPX_T3_BCD

19

IPX_E3_BCD

20

FRI_X21_BCD

21

ARI_BCD

22

AIT_T3_BCD

23

AIT_E3_BCD

24

FTIV35_4_BCD

25

FTI_X21_BCD

26

FTI_E1_BCD

27

FTI_T1_BCD

28

AIT_E2_BCD

29

AIT_HSSI_BCD

30

UFI_T1D_BCD

31

UFI_E1D_BCD

32

UFI_E1B_BCD

33

UFI_HSSI_BCD

34

UFI_V35_BCD

35

UFI_X21_BCD

36

BTM_HP_T3_BCD

37

BTM_HP_E3_BCD

38

T1_2_IGXBCD

39

E1_2_IGXBCD

40

J1_2_IGXBCD

41

UAI_T1_BCD

42

UAI_E1_BCD

43

UAI_OC3_BCD

44

BTI_E1_BCD

45

UAI_T3_BCD

46

UAI_E3_BCD

47

BCC_BCD

101

LM_ASM_BCD

102

T3_BCD

103

E3_BCD

104

T3_2_BCD

105

E3_2_BCD

106

SMF_BCD

107

MMF_BCD

108

BCCLM2_BCD

109

STM1_BCD

110

UTP_BCD

111

STP_BCD

112

MNCH_BCD

113

SMFLR_BCD

114

UNKWN_BCD

115

INIT_BCD

116

UXM_4C3_4_MMF

150

UXM_OC3_4_SMF

151

UXM_OC3_2_SMF

152

UXM_T3_6

153

UXM_T3_3

154

UXM_E3_6

155

UXM_E3_3

156

UXM_T1_8_IMA

157

UXM_E1_8_IMA_DB15

158

UXM_E1_8_IMA_BNC

159

UXM_T1_4_IMA

160

UXM_E1_4_IMA_DB15

161

UXM_E1_4_IMA_BNC

162

BXM and BME Card Types

This subsection describes the BXM and BXE card types supported. "BXM/BME Card Types" uses these values:


Table 3-54: BXM/BME Card Types
Card Type Value

BXM T3 8 Ports

180

BXM T3 8 Ports MMF

181

BXM T3 8 Ports SMFLR

182

BXM T3 8 Ports SNM

183

BXM T3 12 Ports SMF

184

BXM T3 12 Ports MMF

185

BXM T3 12 Ports SMFLR

186

BXM T3 12 Ports SNM

187

BXM E3 8 Ports SMF

188

BXM E3 8 Ports MMF

189

BXM E3 8 Ports SMFLR

190

BXM E3 8 Ports SNM

191

BXM E3 12 Ports SMF

192

BXM E3 12 Ports MMF

193

BXM E3 12 Ports SMFLR

194

BXM E3 12 Ports SNM

195

BXM OC3 4 Ports SMF

196

BXM OC3 4 Ports MMF

197

BXM OC3 4 Ports SMFLR

198

BXM OC3 4 Ports SNM

199

BXM OC3 8 Ports SMF

200

BXM OC3 8 Ports MMF

201

BXM OC3 8 Ports SMFLR

202

BXM OC3 8 Ports SNM

203

BXM OC12 1 Port SMF

204

BXM OC12 1 Port MMF

205

BXM OC12 1 Port SMFLR

206

BXM OC12 1 Port SNM

207

BXM OC12 2 Ports SMF

208

BXM OC12 2 Ports MMF

209

BXM OC12 2 Ports SMFLR

210

BXM OC12 2 Ports SNM

211

BME OC12 1 Port SMF

212

BME OC12 1 Port MMF

213

BME OC12_1 Port SMFLR

214

BME OC12_1 Port SNM

215

BME OC12_2 Ports SMF

216

BME OC12_2 Ports MMF

217

BME OC12_2 Ports SMFLR

218

BME OC12 2 Ports SNM

219

BXM OC3 4 Ports STM1E

220

BXM OC3 8 Ports STM1E

221

BXM OC3 4 Ports XLR

222

BXM OC3 8 Ports XLR

223

BXM OC12 1 Port XLR

224

BXM OC12 2 Ports XLR

225

Statistic Types

The value in the statistic type field depends upon the object type and the type of statistic as follows:

Connections (Object type = 0)

This subsection provides the connection sub-type values.

Voice (Sub-type = 0)

4 = packets received.
5 = receive packets discarded.
6 = packets transmitted.
7 = projected packets transmitted.
8 = supervisory packets transmitted.
13 = seconds V.35 modem on.
14 = seconds DSI enabled.
15 = seconds off-hook.
16 = seconds in service.
19 = supervisory packets received.

Data (Sub-type = 1)

6 = packets transmitted.
7 = projected packets transmitted.
8 = supervisory packets transmitted.
16 = seconds in service.
19 = supervisory packets received.

Frame Relay (Sub-type = 2)

0 = frames received.
1 = received frames discarded.
2 = frames transmitted.
3 = transmitted frames discarded.
4 = packets received.
6 = packets transmitted.
9 = bytes received.
10 = receive bytes discarded.
11 = bytes transmitted.
12 = transmit bytes discarded.
16 = seconds in service.
17 = frames transmitted with FECN.
18 = frames transmitted with BECN.
20 = minutes congested.
21 = DE frames received.
22 = DE frames transmitted.
23 = DE frames dropped.
24 = DE bytes received.
25 = frames received in excess of CIR.
26 = bytes received in excess of CIR.
27 = frames transmitted in excess of CIR.
28 = bytes transmitted in excess of CIR.
29 = IWF Frames received and Aborted.
30 = IWF Frames received with the EFCI bit set.
31 = Rx frames discarded-deroute/down.
32 = Rx bytes discarded-deroute/down.
33 = Rx frames discarded VC Q overflow.
34 = Rx bytes discarded VC Q overflow.
35 = Tx frames discarded Q overflow.
36 = Tx bytes discarded Q overflow.
37 = Tx frames discarded Ingress CRC.
38 = Tx bytes discarded Ingress CRC.
39 = Tx frames discarded trunk discard.
40 = Tx bytes discarded trunk discard.
41 = Tx frames during Egress LMI fail.
42 = Tx bytes during Egress LMI fail.

FastPAD Voice (Sub-type = 3)

Same as Frame Relay (sub-type 2), except the "29 = IWF frames received and aborted" and

"30 = IWF Frames received with the EFCI bit set" statistic types are not supported.

FastPAD Switched Voice (Sub-type = 4)

Same as Frame Relay (sub-type 2), except the "29 = IWF frames received and aborted" and

"30 = IWF Frames received with the EFCI bit set" statistic types are not supported.

FastPAD Data (Sub-type = 5)

Same as Frame Relay (sub-type 2), except the "29 = IWF frames received and aborted" and

"30 = IWF Frames received with the EFCI bit set" statistic types are not supported.

FastPAD Frame Relay (Sub-type = 6)

Same as Frame Relay (sub-type 2), except the "29 = IWF frames received and aborted" and

"30 = IWF Frames received with the EFCI bit set" statistic types are not supported.

Detailed Explanation of Statistics for Sub-types 2, 3, 4, 5, and 6

1) Frames Received (Ingress)---This statistic provides a count of the number of frames received from the attached equipment. This statistic is incremented even when the received frame is invalid or discarded for any reason. (See possible reasons below.)

2) Receive Frames Discarded (Ingress)---This statistic provides a count of the number of frames received from the attached equipment which were discarded before being sent into the network or aborted after some portion had been already sent into the network. Possible reasons for discard are:

This statistic is a subset of the PVC Frames Received statistic.

3) Frames Transmitted (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment.

4) Transmit Frames Discarded (Egress)---This statistic provides a count of the number of frames which were not able to be transmitted to the attached equipment. Possible reasons for discard are:

5) Packets Received (Egress)---This statistic provides a count of the number of packets received across the network. These are the packets used to re-create all the frames which are counted in the PVC Frames Transmitted and Transmit Frames Discarded statistics (above).

6) Receive Packets Discarded (Egress)---This statistic provides a count of the number of packets received across the network but whose payload was ultimately discarded because they contained portions of the frames which are discarded and counted in the Transmit Frames Discarded statistic (above).

7) Packets Transmitted (Ingress)---This statistic provides a count of the number of packets submitted to the network. These are all the packets generated from the "non-errored" received frames (Frames Received minus Receive Frames Discarded) as well as some of the packets from the "errored" received frames (Receive Frames Discarded). Some packets from "errored" receive frames may be submitted to the network because the IPX/IGX does not wait to receive the entire frame before starting to packetize the frame and send it through the network. Consequently, when an error is detected at the end of the frame (for example, CRC error, alignment error, length error), the frame is aborted only after some packets may have been sent.

10 Bytes Received (Ingress)---This statistic provides a count of the number of octets in the frames counted in the Frames Received statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

11) Receive Bytes Discarded (Ingress)---This statistic provides a count of the number of octets in the frames counted in the Receive Frames Discarded statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

12) Bytes Transmitted (Egress)---This statistic provides a count of the number of octets in the frames counted in the Frames Transmitted statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

13) Transmit Bytes Discarded (Egress)---This statistic provides a count of the number of octets in the frames counted in the Transmit Frames Discarded statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

17) Seconds In Service---This statistic provides a count of the number of seconds during which the PVC was "in service". The PVC is considered in service any time the PVC is not "failed" (due to endpoint hardware failure/absence or inability to find a route through the network) or "downed" (intentionally out of service due to operator action).

18) Frames Transmitted with FECN (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment with the Forward Explicit Congestion Notification (FECN) bit set, regardless of where in the network the congestion was experienced.

This statistic is a subset of the PVC Frames Transmitted statistic.
This statistic is also a subset of the port Frames Transmitted with FECN statistic.

19) Frames Transmitted with BECN (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment with the Backward Explicit Congestion Notification (BECN) bit set, regardless of where in the network the congestion was experienced.

This statistic is a subset of the PVC Frames Transmitted statistic. This statistic is also a subset of the port Frames Transmitted with BECN statistic.

21) Minutes Congested---This statistic provides a count of the number of minutes during which 50% or more of the frames transmitted to the attached equipment have the Forward Explicit Congestion Notification (FECN) bit set.

The threshold (default: 50%) which defines congestion is configurable (by a SuperUser) using the cnffstparm command.

22) DE Frames Received (Ingress)---This statistic provides a count of the number of frames received from the attached equipment with the Discard Eligible (DE) bit already set.

This statistic is a subset of the PVC Frames Received statistic.

23) DE Frames Transmitted (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment with the Discard Eligible (DE) bit set, regardless of why or where the DE bit was set.

When IDE-to-DE mapping is enabled on the port, this statistic includes those frames which have their DE bit set by the IDE-to-DE mapping function.

This statistic is a subset of the PVC Frames Transmitted statistic.

24) DE Frames Dropped (Ingress)---This statistic provides a count of the number of frames received from the attached device which were discarded because the frame's DE bit is set and the PVC's Ingress buffer has reached the DE threshold. The DE threshold is configured as part of the port configuration (cnfport command).

This statistic is a subset of the PVC Frames Received statistic. This statistic is a subset of the PVC Receive Frames Discarded statistic. This statistic is a subset of the PVC DE Frames Received statistic.

25) DE Bytes Received (Ingress)---This statistic provides a count of the number of octets in the frames counted in the DE Frames Received statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the PVC Bytes Received statistic.

26) Frames Received in Excess of CIR (Ingress)---This statistic provides a count of the number of frames received from the attached equipment which exceed the configured Committed Information Rate (CIR) for the PVC. Whether a frame is considered "in excess of CIR" depends on whether the DE feature is enabled (using the cnfsysparm command).

When the DE feature is enabled, only frames with DE = 0 are counted against Bc. Thus, this statistic only counts those frames which exceeded Bc and had DE = 0. (When a frame is received with DE = 1, only the DE Frames Received statistic is incremented and the frame is not counted against Bc.)

When the DE feature is not enabled, all frames are counted against Bc. When the frame exceeds Bc, it is included in this statistic.

This statistic is a subset of the PVC Frames Received statistic.

27) Bytes Received in Excess of CIR (Ingress)---This statistic provides a count of the number of octets in the frames counted in the Frames Received in Excess of CIR statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the PVC Bytes Received statistic.

28) Frames Transmitted in Excess of CIR (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment which:

Common to all of these conditions, is the packets carrying these frames all have CLP = 1. It is actually the status of the CLP bits in the arriving packets monitored at Egress.

This statistic is a subset of the PVC Frames Transmitted statistic.

29) Bytes Transmitted in Excess of CIR (Egress)---This statistic provides a count of the number of octets in the frames counted in the Frames Transmitted in Excess of CIR statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the PVC Bytes Transmitted statistic.

32) Rx Frames Discarded - Deroute/Down (Ingress)---This statistic provides a count of the number of frames received from the attached equipment which are discarded because the PVC is "derouted" (due to endpoint hardware failure/absence or inability to find a route through the network) or "downed" (intentionally out of service due to operator action).

This statistic is a subset of the PVC Frames Received statistic.

33) Rx Bytes Discarded - Deroute/Down (Ingress)---This statistic provides a count of the number of octets in the frames counted in the Rx Frames Discarded - Deroute/Down statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the PVC Bytes Received statistic.
This statistic is also a subset of the PVC Receive Bytes Discarded statistic.

34) Rx Frames Discarded - VC Q Overflow (Ingress)---This statistic provides a count of the number of frames received from the attached equipment which are discarded because the PVC Ingress buffer (VC Q) is full.

This statistic is a subset of the PVC Frames Received statistic.

35) Rx Bytes Discarded - VC Q Overflow (Ingress)---This statistic provides a count of the number of octets in the frames counted in the Rx Frames Discarded - VC Q Overflow statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the PVC Bytes Received statistic.
This statistic is also a subset of the PVC Receive Bytes Discarded statistic.

36) Tx Frames Discarded - Q Overflow (Egress)---This statistic provides a count of the number of frames which were not able to be transmitted to the attached equipment because the port's Egress buffer is full. The port's Egress buffer may fill (and overflow) due to oversubscription.

This statistic is a subset of the PVC Transmit Frames Discarded statistic.
This statistic is a subset of the port Tx Frames Discarded - Q Overflow statistic.

37) Tx Bytes Discarded - Q Overflow (Egress)---This statistic provides a count of the number of octets in the frames counted in the Tx Frames Discarded - Q Overflow statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the PVC Transmit Bytes Discarded statistic.
This statistic is a subset of the port Tx Bytes Discarded - Q Overflow statistic.

38) Tx Frames Discarded - Ingress CRC (Egress)---This statistic provides a count of the number of frames which were not able to be transmitted to the attached equipment because the frame is incomplete. Specifically, this statistic is incremented any time an end-of-frame (EOF) packet is missing. In other words:

The most likely cause of any of these conditions is a CRC error detected at Ingress causing the end of the frame (including at least the end-of-frame packet and maybe one or more middle-of-frame packets) to not be sent.

A less likely cause for the missing EOF packet, is the packet was dropped due to a transmission bit error in the packet header, detected by a trunk along the PVC's path. Such conditions are included in this statistic.

This statistic is a subset of the PVC Transmit Frames Discarded statistic.

39) Tx Bytes Discarded - Ingress CRC (Egress)---This statistic provides a count of the number of octets in the frames counted in the Tx Bytes Discarded - Ingress CRC statistic (above). The octets counted include the Frame Relay header octets as well as any octets which arrived successfully.

This statistic is a subset of the PVC Transmit Bytes Discarded statistic.

40) Tx Frames Discarded - Trunk Discard (Egress)---This statistic provides a count of the number of frames which were not able to be transmitted to the attached equipment because the frame:

In any of the cases above, a packet could be discarded on a network trunk either due to extreme trunk congestion or a detected transmission bit error on the packet header.

This statistic is a subset of the PVC Transmit Frames Discarded statistic.

41) Tx Bytes Discarded - Trunk Discard (Egress)---This statistic provides a count of the number of octets in the frames counted in the Tx Bytes Discarded - Trunk Discard statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the PVC Transmit Bytes Discarded statistic.

42) Tx Frames During Ingress LMI Failure (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment while the signaling protocol on the local port was failed (that is, when the port was in a "Port Communication Failure" state).

This statistic is a subset of the PVC Frames Transmitted statistic.

43) Tx Bytes During Ingress LMI Failure (Egress)---This statistic provides a count of the number of octets in the frames counted in the Tx Frames During Ingress LMI Failure statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.


Table 3-55: AT INGRESS (Before FRP Firmware Release FDS/FES)
DE Feature Enabled DE = 1 > CIR VC_Q > DE Thresh Action

No

Don't care

No

Don't care

Send

No

Don't care

Yes

Don't care

Set CLP = 1 in all packets.

Yes

No

No

No

Send

Yes

No

No

Yes

Set CLP = 1 in all packets.

Yes

No

Yes

No

Set CLP = 1 in all packets.

Yes

No

Yes

Yes

Set CLP = 1 in all packets.
Set IDE = 1 in last packet.

Yes

Yes

Don't care

No

Set CLP = 1 in all packets.

Yes

Yes

Don't care

Yes

Discard frame.
Table 3-56: AT INGRESS (FRP Firmware Release FDS/FES and Later)
DE Feature Enabled DE = 1 > CIR VC_Q > DE Thresh Action

No

Don't care

No

Don't care

Send

No

Don't care

Yes

Don't care

Set CLP = 1 in all packets.

Don't care

No

No

No

Send

Don't care

No

No

Yes

Set CLP = 1 in all packets.

Don't care

No

Yes

No

Set CLP = 1 in all packets.

Don't care

No

Yes

Yes

Set CLP = 1 in all packets.
Set IDE = 1 in last packet.

Yes

Yes

Don't care

No

Set CLP = 1 in all packets.

Yes

Yes

Don't care

Yes

Discard frame.
Table 3-57: AT EGRESS (DE Bit Setting)
DE = 1 IDE = 1 IDE to DE Mapping Enabled Action

Yes

Don't care

Don't care

DE = 1 (No change to DE bit) --> Tx_Q.

No

No

Don't care

DE = 0 (No change to DE bit) --> Tx_Q.

No

Yes

No

DE = 0 (No change to DE bit) --> Tx_Q.

No

Yes

Yes

DE = 1 (Change to DE bit) --> Tx_Q.
Table 3-58: AT EGRESS (Transmit Queue Behavior)
DE Feature Enabled DE = 1 Tx_Q > DE Threshold Action

No

Don't care

Don't care

When space is available, put frame into Tx_Q.

Yes

No

Don't care

When space is available, put frame into Tx_Q.

Yes

Yes

No

When space is available, put frame into Tx_Q.

Yes

Yes

Yes

Discard frame.

ASI Connection (Sub-type = 7)

1 = Received frames discarded.
6 = Packets transmitted.
12 = Transmitted bytes discarded.
16 = Seconds in service.
18 = Frames Transmitted with BECN.
21 = DE frames receive.
25 = Frames Rx in Excess of CIR.
28 = Bytes transmitted in excess of CIR.
29 = Cells Rx port.
30 = Frames Rx port.
31 = Cells Tx network.
32 = CLP Rx port.
33 = Non-comp CLP Rx port.
34 = Discard CLPth Rx port.
35 = Discard Qfull Rx port.
36 = EFCI Rx port.
37 = AAL5 Rx port.
38 = Non-comp Rx port.
39 = Discarded failed Rx port.
40 = AAL5 discarded Qfull Rx port.
41 = Average Cell Q Depth.
42 = Discarded Rsrc overflow Rx port.
43 = Discarded Sbin full Rx port.
44 = EFCI Tx port.
45 = Cells Tx port.
46 = Cells Rx network.
47 = Discarded Qbin full.
48 = Discarded Qbin CLPth port.
49 = CLP Tx port.
50 = BCM Rx port.
51 = BCM Tx network.
52 = OAM Tx network.
53 = AIS Rx port.
54 = FERF Rx port.
55 = Cells Rx discarded due to rsrc overflow.
56 = Cells Rx discarded due to VC thresh vol.
57 = Current Egress VC Queue Depth.
58 = Number of good PDUs Rx by SAR.
59 = Number of good PDUs Tx by SAR.
60 = Rx PDUs discarded on Ingress by SAR.
61 = Tx PDUs discarded on Egress by SAR.
62 = Invalid crc32 PDU Rx by SAR.
63 = Forward abort PDU Rx by SAR.
64 = Invalid-length PDU Rx by SAR.
65 = Invalid CPI snap PDUs Rx by SAR.
66 = Invalid Lc snap PDUs Rx by SAR.
67 = Frames Rx by SAR.
68 = Short-length failures detected by SAR.
69 = Long-length failures detected by SAR.

AXIS Frame Relay (Sub-type = 8)

0 = Frames received.
1 = Received frames discarded.
2 = Frames transmitted.
3 = Transmitted frames discarded.
9 = Bytes received.
10 = Receive bytes discarded.
11 = Bytes transmitted.
12 = Transmitted bytes discarded.
16 = Seconds In Service.
17 = Frames transmitted with FECN.
18 = Frames transmitted with BECN.
21 = DE frames received.
22 = DE frames transmitted.
23 = DE frames dropped.
24 = DE bytes received.
33 = Rx frames discarded-VC-Q-overflow.
34 = Rx bytes discarded-VC-Q-overflow.
35 = Tx frames discarded-Q-overflow.
36 = Tx bytes discarded-Q-overflow.
37 = Tx frames discarded-Ingress CRC.
39 = Tx frames discarded-trunk discard.
41 = Tx frames during Ingress LMI fail.
42 =Tx bytes during Ingress LMI fail.
43 = Rx Frames Discarded UPC.
44 = Tx Bytes Tagged DE.
45 = Tx Frames Tagged DE.
46 = Tx Frames Invalid CPIs.
47 = Tx Frames Length Violations.
48 = Tx Frames Oversize SDUs.
49 = Tx Frames Unknown Protocols.
50 = Rx Frames Unknown Protocols.

0) Frames Received (Ingress)---This statistic provides a count of the number of frames received from the attached equipment. This statistic is incremented even when the received frame is invalid or discarded for any reason. (See possible reasons below.)

1) Receive Frames Discarded (Ingress)---This statistic provides a count of the number of frames received from the attached equipment which were discarded before being sent into the network or aborted after some portion had been already sent into the network. Possible reasons for discard are:

This statistic is a subset of the PVC Frames Received statistic.

2) Frames Transmitted (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment.

3) Transmit Frames Discarded (Egress)---This statistic provides a count of the number of frames which were not able to be transmitted to the attached equipment. Possible reasons for discard are:

4) Packets Received (Egress)---This statistic provides a count of the number of packets received across the network. These are the packets used to re-create all the frames which are counted in the PVC Frames Transmitted and Transmit Frames Discarded statistics (above).

5) Receive Packets Discarded (Egress)---This statistic provides a count of the number of packets received across the network but whose payload was ultimately discarded because they contained portions of the frames which are discarded and counted in the Transmit Frames Discarded statistic (above).

6) Packets Transmitted (Ingress)---This statistic provides a count of the number of packets submitted to the network. These are all the packets generated from the "non-errored" received frames (Frames Received minus Receive Frames Discarded) as well as some of the packets from the "errored" received frames (Receive Frames Discarded). Some packets from "errored" receive frames may be submitted to the network because the IPX/IGX does not wait to receive the entire frame before starting to packetize the frame and send it through the network. Consequently, when an error is detected at the end of the frame (for example, CRC error, alignment error, length error), the frame is aborted only after some packets may have been sent.

9) Bytes Received (Ingress)---This statistic provides a count of the number of octets in the frames counted in the Frames Received statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

10) Receive Bytes Discarded (Ingress)---This statistic provides a count of the number of octets in the frames counted in the Receive Frames Discarded statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

11) Bytes Transmitted (Egress)---This statistic provides a count of the number of octets in the frames counted in the Frames Transmitted statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

12) Transmit Bytes Discarded (Egress)---This statistic provides a count of the number of octets in the frames counted in the Transmit Frames Discarded statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

16) Seconds In Service---This statistic provides a count of the number of seconds during which the PVC was "in service". The PVC is considered in service any time the PVC is not "failed" (due to endpoint hardware failure/absence or inability to find a route through the network) or "downed" (intentionally out of service due to operator action).

17) Frames Transmitted with FECN (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment with the Forward Explicit Congestion Notification (FECN) bit set, regardless of where in the network the congestion was experienced.

This statistic is a subset of the PVC Frames Transmitted statistic.

This statistic is also a subset of the port Frames Transmitted with FECN statistic.

18) Frames Transmitted with BECN (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment with the Backward Explicit Congestion Notification (BECN) bit set, regardless of where in the network the congestion was experienced.

This statistic is a subset of the PVC Frames Transmitted statistic.

This statistic is also a subset of the port Frames Transmitted with BECN statistic.

20) Minutes Congested---This statistic provides a count of the number of minutes during which 50% or more of the frames transmitted to the attached equipment have the Forward Explicit Congestion Notification (FECN) bit set.

The threshold (default: 50%) which defines congestion is configurable (by a SuperUser) using the cnffstparm command.

21) DE Frames Received (Ingress)---This statistic provides a count of the number of frames received from the attached equipment with the Discard Eligible (DE) bit already set.

This statistic is a subset of the PVC Frames Received statistic.

22) DE Frames Transmitted (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment with the Discard Eligible (DE) bit set, regardless of why or where the DE bit was set.

When IDE-to-DE mapping is enabled on the port, this statistic includes those frames which have their DE bit set by the IDE-to-DE mapping function.

This statistic is a subset of the PVC Frames Transmitted statistic.

23) DE Frames Dropped (Ingress)---This statistic provides a count of the number of frames received from the attached device which were discarded because the frame's DE bit is set and the PVC's Ingress buffer has reached the DE threshold. The DE threshold is configured as part of the port configuration (cnfport command).

This statistic is a subset of the PVC Frames Received statistic.
This statistic is a subset of the PVC Receive Frames Discarded statistic.
This statistic is a subset of the PVC DE Frames Received statistic.

24) DE Bytes Received (Ingress)---This statistic provides a count of the number of octets in the frames counted in the DE Frames Received statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the PVC Bytes Received statistic.

25) Frames Received in Excess of CIR (Ingress)---This statistic provides a count of the number of frames received from the attached equipment which exceed the configured Committed Information Rate (CIR) for the PVC. Whether a frame is considered "in excess of CIR" depends on whether the DE feature is enabled (using the cnfsysparm command).

This statistic is a subset of the PVC Frames Received statistic.

26) Bytes Received in Excess of CIR (Ingress)---This statistic provides a count of the number of octets in the frames counted in the Frames Received in Excess of CIR statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the PVC Bytes Received statistic.

27) Frames Transmitted in Excess of CIR (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment which:

Common to all of these conditions, is the packets carrying these frames have CLP = 1. It is actually the status of the CLP bits in the arriving packets monitored at Egress.

This statistic is a subset of the PVC Frames Transmitted statistic.

28) Bytes Transmitted in Excess of CIR (Egress)---This statistic provides a count of the number of octets in the frames counted in the Frames Transmitted in Excess of CIR statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the PVC Bytes Transmitted statistic.

31) Rx Frames Discarded - Deroute/Down (Ingress)

This statistic provides a count of the number of frames received from the attached equipment which are discarded because the PVC is "derouted" (due to endpoint hardware failure/absence or inability to find a route through the network) or "downed" (intentionally out of service due to operator action).

This statistic is a subset of the PVC Frames Received statistic.

32) Rx Bytes Discarded - Deroute/Down (Ingress)---This statistic provides a count of the number of octets in the frames counted in the Rx Frames Discarded - Deroute/Down statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the PVC Bytes Received statistic.
This statistic is also a subset of the PVC Receive Bytes Discarded statistic.

33) Rx Frames Discarded - VC Q Overflow (Ingress)---This statistic provides a count of the number of frames received from the attached equipment which are discarded because the PVC Ingress buffer (VC Q) is full.

This statistic is a subset of the PVC Frames Received statistic.

34) Rx Bytes Discarded - VC Q Overflow (Ingress)---This statistic provides a count of the number of octets in the frames counted in the Rx Frames Discarded - VC Q Overflow statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the PVC Bytes Received statistic.
This statistic is also a subset of the PVC Receive Bytes Discarded statistic.

35) Tx Frames Discarded - Q Overflow (Egress)---This statistic provides a count of the number of frames which were not able to be transmitted to the attached equipment because the port's Egress buffer is full. The port's Egress buffer may fill (and overflow) due to oversubscription.

This statistic is a subset of the PVC Transmit Frames Discarded statistic.
This statistic is a subset of the port Tx Frames Discarded - Q Overflow statistic.

36) Tx Bytes Discarded - Q Overflow (Egress)---This statistic provides a count of the number of octets in the frames counted in the Tx Frames Discarded - Q Overflow statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the PVC Transmit Bytes Discarded statistic.

This statistic is a subset of the port Tx Bytes Discarded - Q Overflow statistic.

37) Tx Frames Discarded - Ingress CRC (Egress)---This statistic provides a count of the number of frames which were not able to be transmitted to the attached equipment because the frame is incomplete. Specifically, this statistic is incremented any time an end-of-frame (EOF) packet is missing. In other words:

The most likely cause of any of these conditions is a CRC error detected at Ingress causing the end of the frame (including at least the end-of-frame packet and maybe one or more middle-of-frame packets) to not be sent.

A less likely cause for the missing EOF packet, is the packet was dropped due to a transmission bit error in the packet header, detected by a trunk along the PVC's path. Such conditions are included in this statistic.

This statistic is a subset of the PVC Transmit Frames Discarded statistic.

38) Tx Bytes Discarded - Ingress CRC (Egress)---This statistic provides a count of the number of octets in the frames counted in the Tx Bytes Discarded - Ingress CRC statistic (above). The octets counted include the Frame Relay header octets as well as any octets which arrived successfully.

This statistic is a subset of the PVC Transmit Bytes Discarded statistic.

39) Tx Frames Discarded - Trunk Discard (Egress)---This statistic provides a count of the number of frames which were not able to be transmitted to the attached equipment because the frame:

In any of the cases above, a packet could be discarded on a network trunk either due to extreme trunk congestion or a detected transmission bit error on the packet header.

This statistic is a subset of the PVC Transmit Frames Discarded statistic.

40) Tx Bytes Discarded - Trunk Discard (Egress)---This statistic provides a count of the number of octets in the frames counted in the Tx Bytes Discarded - Trunk Discard statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the PVC Transmit Bytes Discarded statistic.

41) Tx Frames During Ingress LMI Failure (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment while the signaling protocol on the local port was failed (that is, when the port was in a "Port Communication Failure" state).

This statistic is a subset of the PVC Frames Transmitted statistic.

42) Tx Bytes During Ingress LMI Failure (Egress)---This statistic provides a count of the number of octets in the frames counted in the Tx Frames During Ingress LMI Failure statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.


Table 3-59: AT INGRESS (Before FRP Firmware Release FDS/FES)
DE Feature Enabled DE = 1 > CIR VC_Q > DE Thresh Action

No

Don't care

No

Don't care

Send

No

Don't care

Yes

Don't care

Set CLP = 1 in all packets.

Yes

No

No

No

Send

Yes

No

No

Yes

Set CLP = 1 in all packets.

Yes

No

Yes

No

Set CLP = 1 in all packets.

Yes

No

Yes

Yes

Set CLP = 1 in all packets.
Set IDE = 1 in last packet.

Yes

Yes

Don't care

No

Set CLP = 1 in all packets.

Yes

Yes

Don't care

Yes

Discard frame.
Table 3-60: AT INGRESS (FRP Firmware Release FDS/FES and Later)
DE Feature Enabled DE = 1 > CIR VC_Q > DE Thresh Action

No

Don't care

No

Don't care

Send

No

Don't care

Yes

Don't care

Set CLP = 1 in all packets.

Don't care

No

No

No

Send

Don't care

No

No

Yes

Set CLP = 1 in all packets.

Don't care

No

Yes

No

Set CLP = 1 in all packets.

Don't care

No

Yes

Yes

Set CLP = 1 in all packets.
Set IDE = 1 in last packet.

Yes

Yes

Don't care

No

Set CLP = 1 in all packets.

Yes

Yes

Don't care

Yes

Discard frame.
Table 3-61: AT EGRESS (DE Bit Setting)
DE = 1 IDE = 1 IDE to DE Mapping Enabled Action

Yes

Don't care

Don't care

DE = 1 (No change to DE bit) --> Tx_Q.

No

No

Don't care

DE = 0 (No change to DE bit) --> Tx_Q.

No

Yes

No

DE = 0 (No change to DE bit) --> Tx_Q.

No

Yes

Yes

DE = 1 (Change to DE bit) --> Tx_Q.
Table 3-62: AT EGRESS (Transmit Queue Behavior)
DE Feature Enabled DE = 1 Tx_Q > DE Threshold Action

No

Don't care

Don't care

When space is available, put frame into Tx_Q.

Yes

No

Don't care

When space is available, put frame into Tx_Q.

Yes

Yes

No

When space is available, put frame into Tx_Q.

Yes

Yes

Yes

Discard frame.

ATM Connection (Sub-type = 9)

16 = Seconds In Service.
34 = Discard CLPth Rx Port.
35 = Discard Qfull Rx Port.
55 = Number of Cells Rx with CLP Set.
56 = Number Of Cells Rx with EFCI Set.
57 = Number of Cells Rx with UPC CLP Set.
58 = AAL1 Sequence Mismatch.
59 = Discarded Cells for Shelf Alarm.
61 = Total Cells Tx from Line.
70 = VC queue flushed by SAR.

CE Connection (Sub-type = 10)

58 = AAL1 Sequence Mismatch.
60 = Rx Buffer Overflows.
62 = Rx Buffer Underflows.
63 = Rx Buffer Overflows.
64 = HCS Correctable Error.
65 = Loss of Pointer.
66 = Loss of Cell Delineation.
69 = Tx Bytes Discarded-Q-Overflow.
70 = Tx Cells Inserted-Q-Underflow.
71 = Total Cells Tx to Line.
72 = Total Cells Rx to Line.
73 = Channel up time in seconds.

Data Connection (Object type = 1)

This subsection provides the data connection sub-type values.

T1 (Sub-type = 0)

0 = bipolar violations.
1 = frame slips.
2 = out of frames.
3 = losses of signal.
4 = frame bit errors.
5 = CRC errors.

E1/J1 (Sub-type = 1)

0 = bipolar violations.
1 = frame slips.
2 = out of frames.
3 = losses of signal.
4 = frame bit errors.
5 = CRC errors.
6 = out of multi-frames.
16 = all ones in timeslot 0.

ASI (Sub-type = 2)

28 = B3ZS Line Code Violations.
29 = Line Errored Seconds.
30 = Line Severely Errored Seconds.
31 = P-bit Line Parity Errors.
32 = Errored Seconds - Parity.
33 = Severely Errored Seconds - Parity.
39 = Unavailable Seconds.
40 = PLCP BIP-8 Errors.
41 = BIP-8 Errored Seconds.
42 = BIP-8 Severely Errored Seconds.
43 = PLCP Severely Errored Framing Seconds.
44 = PLCP Unavailable Seconds.
45 = HCS Errors.
142 = PLCP FEBE Error Seconds.
143 = PLCP FEBE Severely Error Secs.
144 = PLCP FE Counts.
145 = PLCP FEBE Counts.
146 = HCS Errored Seconds.
147 = HCS Severely Errored Seconds.
150 = YEL Transitions.
152 = Alarm Indication Signal.
169 = Loss of Cell Delineation.
170 = Loss of Pointer.
171 = OC3 Path AIS.
172 = OC3 Path YEL.
173 = Section BIP-8.
174 = Line BIP-24.
175 = Line FEBE.
176 = Path BIP-8.
177 = Path FEBE.
178 = Section BIP-8 Errored Seconds.
179 = Line BIP-24 Errored Seconds.
180 = Line FEBE Errored Seconds.
181 = Path BIP-8 Errored Seconds.
182 = Path FEBE Errored Seconds.
184 = Section Severely Errored Framing Seconds.
185 = Line BIP-24 Severely Errored Seconds.
186 = Line FEBE Severely Errored Seconds.
187 = Path BIP-8 Severely Errored Seconds.
188 = Path FEBE Severely Errored Seconds.
189 = Line Unavailable Seconds.
190 = Line Far End Unavailable Seconds.
191 = Path Unavailable Seconds.
192 = Path Far End Unavailable Seconds
193 = HCS Correctable Error.
194 = HCS Correctable Error Errored Seconds.
195 = HCS Correctable Error Severely Errored Seconds.

AXIS E1/T1 (Sub-type = 3)

 2 = out of frames.
 3 = losses of signal.
 4 = frame bit errors.

Trunk Lines (Object type = 2)

This subsection provides the trunk line sub-type values.

Narrowband (Sub-type = 0)

0 = bipolar violations.
1 = frame slips.
2 = out of frames.
3 = losses of signal.
4 = frame bit errors.
5 = CRC errors.
8 = packet out of frames.
9 = packet CRC errors.
10 = bad clock errors.
11 = voice packets dropped.
12 = TS packets dropped.
13 = non-TS packets dropped.
14 = High Priority packets dropped.
15 = BData A packets dropped.
16 = BData B packets dropped.
17 = voice packets transmitted.
18 = TS packets transmitted.
19 = non-TS packets transmitted.
20 = High Priority packets transmitted.
21 = BData A packets transmitted.
22 = BData B packets transmitted.
23 = total packets transmitted.
24 = BData A CLP packets dropped.
25 = BData B CLP packets dropped.
26 = BData A EFCN packets transmitted.
27 = BData B EFCN packets transmitted.
148 = BData A CLP packets transmitted.
149 = BData B CLP packets transmitted.

IPX_ATM (Sub-type = 1)

2 = out of frames.
3 = losses of signal.
9 = packet CRC errors.
11 = voice packets dropped.
12 = TS packets dropped.
13 = non-TS packets dropped.
14 = high priority packets dropped.
15 = BData A packets dropped.
16 = BData B packets dropped.
17 = voice packets transmitted.
18 = TS packets transmitted.
19 = non-TS packets transmitted.
20 = high priority packets transmitted.
21 = BData A packets transmitted.
22 = BData B packets transmitted.
23 = total packets transmitted.
24 = BData A CLP packets dropped.
25 = BData B CLP packets dropped.
26 = BData A EFCN packets transmitted.
27 = BData B EFCN packets transmitted.
28 = line code violations.
29 = line errored seconds.
30 = line severely errored seconds.
31 = P-bit parity code violations.
32 = errored seconds - line.
33 = severely errored seconds - line.
34 = C-bit parity code violations.
35 = errored seconds - path.
36 = severely errored seconds - path.
37 = severely errored framing seconds.
38 = alarm indication signal seconds.
39 = unavailable seconds.
45 = ATM cell header HEC errors.
47 = Tx voice cells dropped.
48 = Tx TS cells dropped.
49 = Tx non-TS cells dropped.
50 = Tx high priority cells dropped.
51 = Tx Bdata A cells dropped.
52 = Tx Bdata B cells dropped.
53 = voice cells transmitted to line.
54 = TS cells transmitted to line.
55 = non TS cells transmitted to line.
56 = high priority cells transmitted to line.
57 = Bdata A cells transmitted to line.
58 = Bdata B cells transmitted to line.
59 = half full cells transmitted to line.
60 = full cells transmitted to line.
61 = total cells transmitted to line.
62 = Tx Bdata A CLP cells dropped.
63 = Tx Bdata B CLP cells dropped.
64 = Bdata A EFCN cells transmitted to line.
65 = Bdata B EFCN cells transmitted to line.
66 = half full cells received from line.
67 = full cells received from line.
68 = total cells received from line.
69 = total packets received from line.
70 = Rx voice packets dropped.
71 = Rx TS packets dropped.
72 = Rx non-TS packets dropped.
73 = Rx high priority packets dropped.
74 = Rx Bdata A packets dropped.
75 = Rx Bdata B packets dropped.
82 = Rx Bdata A CLP packets dropped.
83 = Rx Bdata B CLP packets dropped.
87 = Rx voice cells dropped.
88 = Rx TS cells dropped.
89 = Rx non-TS cells dropped.
90 = Rx high priority cells dropped.
91 = Rx Bdata A cells dropped.
92 = Rx Bdata B cells dropped.
93 = Rx Bdata A CLP cells dropped.
94 = Rx Bdata B CLP cells dropped.
140 = FEBE counts.
141 = FERR counts (M-bit or F-bit).
142 = PLCP FEBE errored seconds.
143 = PLCP FEBE severely errored seconds.
144 = PLCP FEBE counts.
145 = PLCP FE counts.
146 = ATM HEC errored second.
147 = ATM HEC severely errored seconds.
148 = BData A CLP packets transmitted.
149 = BData B CLP packets transmitted.
160 = CGW Packets received from the IPX network.
161 = CGW cells transmitted to line.
162 = CGW Frames relayed to line.
163 = CGW Aborted frames transmitted to line.
166 = CGW Packets transmitted to the IPX network.
167 = CGW Cells received from Line.
171 = CGW Bad CRC-32 frames received from line.
173 = CGW Bad CRC-16 frames received from IPX.
177 = OAM Loopback cells transmitted.
178 = OAM AIS cells transmitted.
179 = OAM FERF cells transmitted.
180 = OAM RTD cells transmitted.
181 = OAM RA cells transmitted.
183 = OAM CC cells transmitted.
185 = OAM Loopback cells received.
186 = OAM AIS cells received.
187 = OAM FERF cells received.
188 = OAM RTD cells received.
189 = OAM RA cells received.
191 = OAM CC cells received.

BPX_ATM (Sub-type = 2)

2 = out of frames
3 = losses of signal
28 = B3ZS line code violations
29 = line errored seconds
30 = line severely errored seconds
31 = P-bit parity code violations
32 = errored seconds - line
33 = severely errored seconds - line
34 = C-bit parity code violations
35 = errored seconds - path
36 = severely errored seconds - path
37 = severely errored framing seconds
38 = alarm indication signal seconds.
39 = unavailable seconds.
45 = ATM cell header HEC errors.
47 = Tx voice cells dropped.
48 = Tx TS cells dropped.
49 = Tx non-TS cells dropped.
50 = Tx high priority cells dropped.
51 = Tx Bdata A cells dropped.
52 = Tx Bdata B cells dropped.
53 = voice cells transmitted to line.
54 = TS cells transmitted to line.
55 = non TS cells transmitted to line.
56 = high priority cells transmitted to line.
57 = Bdata A cells transmitted to line.
58 = Bdata B cells transmitted to line.
61 = total cells transmitted to line.
62 = Tx Bdata A CLP cells dropped.
63 = Tx Bdata B CLP cells dropped.
64 = Bdata A EFCN cells transmitted to line.
65 = Bdata B EFCN cells transmitted to line.
68 = total cells received from line.
87 = Rx voice cells dropped.
88 = Rx TS cells dropped.
89 = Rx non-TS cells dropped.
90 = Rx high priority cells dropped.
91 = Rx Bdata A cells dropped.
92 = Rx Bdata B cells dropped.
93 = Rx Bdata A CLP cells dropped.
94 = Rx Bdata B CLP cells dropped.
140 = FEBE counts.
141 = FERR counts (M-bit or F-bit).
142 = PLCP FEBE errored seconds.
143 = PLCP FEBE severely errored seconds.
144 = PLCP FEBE counts.
145 = PLCP FE errored seconds.
146 = ATM HEC errored counts.
147 = ATM HEC severely errored counts.
150 = DS3 yellow transition counts.
151 = PLCP yellow transition counts.
152 = AIS transition counts.
155 = Tx voice CLP cells dropped.
156 = Tx TS CLP cells dropped.
157 = Tx non-TS CLP cells dropped.
158 = Tx high priority CLP cells dropped.
160 = Tx CBR cells served.
161 = Tx VBR cells served.
162 = Tx ABR cells served.
163 =Tx CBR CLP cells dropped.
164 =Tx VBR CLP cells dropped.
165 =Tx ABR CLP cells dropped.
166 =Tx CBR overflow cells dropped.
168 =Tx ABR overflow cells dropped.
169 = Loss of cell delineation.
170 = Loss of pointer.
171 = OC3 Path AIS.
172 = OC3 Path YEL.
173 = Section BIP-8.
174 = Line BIP-24.
175 = Line FEBE.
176 = Path BIP-8.
177 = Path FEBE.
178 = Section BIP-8 errored seconds.
179 = Line BIP-24 errored seconds.
180 = Line FEBE errored seconds.
181 = Path BIP-8 errored seconds.
182 = Path FEBE errored seconds.
184 = Section Severely errored framing seconds.
185 = Line BIP-24 severely errored seconds.
186 = Line FEBE severely errored seconds.
187 = Path BIP-8 severely errored seconds.
188 = Path FEBE severely errored seconds.
189 = Line unavailable seconds.
190 = Line far end unavailable seconds.
191 = Path unavailable seconds.
192 = Path far end unavailable seconds.
193 = HCS correctable error.
194 = HCS correctable errored seconds.
195 = HCS correctable error severely errored seconds.

AXIS Narrowband (Sub-type = 3)

2 = out of frames.
3 = losses of signal.
4 = frame bit errors.

AXIS ATM (Sub-type = 4)

2 = out of frames.
3 = losses of signal.
51 = Tx BData A cells dropped.
61 = Total Cells transmitted to line.
142 = PLCP FEBE errored seconds.
143 = PLCP FEBE severely errored seconds
144 = PLCP FEBE counts.
145 = PLCP FE counts.
150 = DS3 yellow transition counts.

Ports (Object type = 3)

This subsection provides the port sub-type values.

Frame Relay Port (Sub-type = 0)

0 = frames received.
1 = frames transmitted.
2 = bytes received.
3 = bytes transmitted.
4 = frames transmitted with FECN.
5 = frames transmitted with BECN.
6 = receive frame CRC errors.
7 = invalid format receive frames.
8 = receive frame alignment errors.
9 = illegal length receive frames.
10 = number of DMA overruns.
11 = LMI status enquiries.
12 = LMI status transmit count.
13 = LMI status update count.
14 = LMI invalid status enquiries.
15 = LMI link timeout errors.
16 = LMI keepalive sequence errors.
17 = receive frames undefined DLCI errors.
18 = DE frames dropped.
19 = transmit status enquiries.
20 = received status counter.
21 = asynchronous status counter.
22 = invalid sequence number count.
23 = transmit protocol timeout count.
24 = CLLM messages frames transmitted.
25 = CLLM messages bytes transmitted.
26 = CLLM messages frames received.
27 = CLLM messages bytes received.
28 = CLLM failures.
29 = Tx frames discarded queue overflow.
30 = Tx bytes discarded queue overflow.
31 = Tx frames while Ingress LMI fail.
32 = Tx bytes while Ingress LMI fail.

0) Frames Received (Ingress)---This statistic provides a count of the number of frames received from the attached equipment. This statistic is incremented even when the received frame is invalid or discarded for any reason (see possible reasons below). This count also includes signaling protocol frames received from the attached equipment.

1) Frames Transmitted (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment. This count also includes signaling protocol frames transmitted to the attached equipment.

2) Bytes Received (Ingress)---This statistic provides a count of the number of octets in the frames counted in the Frames Received statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

3) Bytes Transmitted (Egress)---This statistic provides a count of the number of octets in the frames counted in the Frames Transmitted statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

4) Frames Transmitted with FECN (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment with the Forward Explicit Congestion Notification (FECN) bit set, regardless of where in the network the congestion was experienced.

This statistic is a subset of the Frames Transmitted statistic.

5) Frames Transmitted with BECN (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment with the Backward Explicit Congestion Notification (BECN) bit set, regardless of where in the network the congestion was observed.

This statistic is a subset of the Frames Transmitted statistic.

6) Receive Frame CRC Errors (Ingress)---This statistic provides a count of the number of frames received from the attached equipment in which the CRC calculated by the IPX/IGX does not match the CRC provided by the attached equipment in the last 2 octets of the frame.

Any frame received with an incorrect CRC is discarded by the network.

However, the IPX/IGX does not wait to receive the entire frame before starting to packetize the frame and send it through the network. As long as the frame header format is valid (see Invalid Format Receive Frames statistic below) and the DLCI field in the frame header is recognized (see Receive Frames Undefined DLCI Count statistic below), packets containing the beginning of the frame are created (one start-of-frame (SOF) packet and subsequent middle-of-frame (MOF) packets) and sent as soon as possible.

When the frame is short or when there are other packets already waiting to be sent, the detection of the CRC error causes all the packets of the frame to be discarded. However, when the frame is long and there is no congestion in the Ingress VC queue, some packets are sent through the network before the CRC error is detected. As soon as the CRC error is detected, any portion of the frame which has not yet been sent is discarded. In particular, no end-of-frame (EOF) packet is ever sent. When the next frame arrives, a new SOF packet is sent, etc. At the far end, when a SOF packet arrives that does not immediately follow an EOF packet, the incomplete frame is discarded and counted in the PVC statistic of Transmit Frames Discarded.

When the CRC is incorrect because of a bit error in the DLCI field in the frame header, the error is also recorded as a Receive Frame with Undefined DLCI (see below) unless the "errored" DLCI is also configured on the port.

This statistic is a subset of the Frames Received statistic.

7) Invalid Format Receive Frames (Ingress)---This statistic provides a count of the number of frames received from the attached equipment in which the Extended Address (EA) bits (the least significant bit in each of the two Frame Relay header octets) is incorrect. The IPX/IGX must see a "0" as the least significant bit of the first octet and a "1" as the least significant bit of the second octet.

Any frame received with incorrect EA bits is discarded immediately.

This statistic is a subset of the Frames Received statistic.

8) Receive Frame Alignment Errors (Ingress)---This statistic provides a count of the number of frames received from the attached equipment in which the total frame length is not an integral number of octets.

Any frame received with an incorrect alignment is discarded by the network.

However, the IPX/IGX does not wait to receive the entire frame before starting to packetize the frame and send it through the network. As long as the frame header format is valid (see Invalid Format Receive Frames statistic above) and the DLCI field in the frame header is recognized (see Receive Frames Undefined DLCI Count statistic below), packets containing the beginning of the frame are created (one start-of-frame (SOF) packet and subsequent middle-of-frame (MOF) packets) and sent as soon as possible.

When the frame is short or when there are other packets already waiting to be sent, the detection of the alignment error causes all the packets of the frame to be discarded. However, when the frame is long and there is no congestion in the Ingress VC queue, some packets are sent through the network before the alignment error is detected. As soon as the alignment error is detected, any portion of the frame which has not yet been sent is discarded. In particular, no end-of-frame (EOF) packet is ever sent. When the next frame arrives, a new SOF packet is sent, etc. At the far end, when a SOF packet arrives that does not immediately follow an EOF packet, the incomplete frame is discarded and counted in the PVC statistic of Transmit Frames Discarded.

This statistic is a subset of the Frames Received statistic.

9) Illegal Length Receive Frames (Ingress)---This statistic provides a count of the number of frames received from the attached equipment in which the total frame length is either too short or too long.

To be accepted, a frame must be at least five octets, but no more than 4510 octets, long, including the header and frame check sequence (FCS, or CRC) octets. Any frame received with an invalid length is discarded by the network.

A frame that is too short is immediately detected and discarded.

For a frame that is too long, the IPX/IGX does not wait to receive the entire frame before starting to packetize the frame and send it through the network. As long as the frame header format is valid (see Invalid Format Receive Frames statistic above) and the DLCI field in the frame header is recognized (see Receive Frames Undefined DLCI Count statistic below), packets containing the beginning of the frame are created (one start-of-frame (SOF) packet and subsequent middle-of-frame (MOF) packets) and sent as soon as possible.

As the frame is very long, it is very likely some packets are sent through the network before the length error is detected. As soon as the length error is detected, any portion of the frame which has not yet been sent is discarded. In particular, no end-of-frame (EOF) packet is ever sent. When the next frame arrives, a new SOF packet is sent, etc. At the far end, when a SOF packet arrives that does not immediately follow an EOF packet, the incomplete frame is discarded and counted in the PVC statistic of Transmit Frames Discarded.

This statistic is a subset of the Frames Received statistic.

10) Number of DMA Overruns (Ingress)---This statistic provides a count of the number of times the DMA process failed to transfer the received frames from the back card (FRI) to the front card (FRP/FRM) because of the lack of available buffer space.

In order to buffer frames received from the attached equipment, each Frame Relay port is allocated a certain amount of buffer space.

On the FRP/FRM Model D (which supports the FRI-V.35 and the FRI-X.21), each port is allocated 1500 buffers of 100 octets each.

On the FRP/FRM Model E (which supports the FRI-T1 and the FRI-E1), each port is allocated buffers of 120 octets each based on the number of T1 or E1 circuit line timeslots which constitute the port. For a T1 circuit line, each timeslot is allocated 250 buffers. (Thus, a 256 kbps port on a T1 circuit line is allocated 1000 buffers total.) For an E1 circuit line, each timeslot is allocated 200 buffers. (Thus, a 256 kbps port on an E1 circuit line is allocated 800 buffers total.)

When the DMA controller has one or more received frames to transfer to the front card, it secures buffers into which it places the received frames. When no buffers are available, the back card discards all received frames on the port until 90% of the allocated buffers are free again. During this time, frames from any PVC on the port are discarded. No count is kept of:

11) LMI UNI Status Enquiries (Ingress)---This statistic provides a count of the number of status enquiry frames received from the attached equipment as part of the selected signaling protocol.

This statistic is valid for any UNI signaling protocol chosen (StrataLMI, ANSI Annex D, or CCITT Annex A). This statistic is also valid for any NNI signaling protocol chosen (ANSI Annex D, or CCITT Annex A).

This statistic is a subset of the Frames Received statistic.

12) LMI UNI Status Transmit Count (Egress)---This statistic provides a count of the number of status frames transmitted to the attached equipment as part of the selected signaling protocol.

This statistic is valid for any UNI signaling protocol chosen (StrataLMI, ANSI Annex D, or CCITT Annex A). This statistic is also valid for any NNI signaling protocol chosen (ANSI Annex D, or CCITT Annex A).

This statistic is a subset of the Frames Transmitted statistic.

13) LMI UNI Status Update Count (Egress)---This statistic provides a count of the number of asynchronous status update frames transmitted to the attached equipment as part of the selected signaling protocol.

This statistic is valid for any UNI signaling protocol chosen (StrataLMI, ANSI Annex D, or CCITT Annex A). This statistic is also valid for any NNI signaling protocol chosen (ANSI Annex D, or CCITT Annex A).

When enabled as part of the port configuration (cnfport command), an asynchronous status update frame is generated any time a PVC is "failed" or "downed" and again any time a PVC is "repaired" or "upped".

This statistic is a subset of the Frames Transmitted statistic.

14) LMI Invalid Status Enquiries (Ingress)---This statistic provides a count of the number of status enquiry frames with an invalid format received from the attached equipment as part of the selected signaling protocol.

This statistic is valid for any UNI signaling protocol chosen (StrataLMI, ANSI Annex D, or CCITT Annex A). This statistic is also valid for any NNI signaling protocol chosen (ANSI Annex D, or CCITT Annex A).

This statistic is a subset of the Frames Received statistic.

15) LMI UNI Link Timeout Errors---This statistic provides a count of the number of times the "T392 Polling Verification Timer" times out without a Status Enquiry frame having been received.

This statistic is valid for any UNI signaling protocol chosen (StrataLMI, ANSI Annex D, or CCITT Annex A). This statistic is also valid for any NNI signaling protocol chosen (ANSI Annex D, or CCITT Annex A).

The "T392 Polling Verification Timer" is configured as part of the port configuration (cnfport command).

16) LMI UNI Keepalive Sequence Errors---This statistic provides a count of the number of times a discontinuity existed in the (normally consecutive) sequence numbers contained in the Status Enquiry frames received from the attached equipment.

This statistic is valid for any UNI signaling protocol chosen (StrataLMI, ANSI Annex D, or CCITT Annex A). This statistic is also valid for any NNI signaling protocol chosen (ANSI Annex D, or CCITT Annex A).

17) Received Frames Undefined DLCI Count (Ingress)---This statistic provides a count of the number of frames received with a DLCI for which no PVC is provisioned on this port. This count includes any signaling protocol frames received while no signaling protocol is enabled or the wrong signaling protocol is enabled (such as by enabling the StrataLMI signaling protocol while the attached equipment is generating Annex A or Annex D signaling protocol frames, or vice versa).

Any frame received with an undefined DLCI is discarded immediately.

This statistic is a subset of the Frames Received statistic.

18) DE Frames Dropped (Egress)---This statistic provides a count of the number of frames to be transmitted to the attached device which were discarded because the frame's DE bit is set and the port's Egress buffer has reached the DE threshold. The DE threshold is configured as part of the port configuration (cnfport command).

This statistic is a subset of the corresponding PVC's Transmit Frames Discarded statistic.

19) LMI NNI Status Enquiries (Egress)---This statistic provides a count of the number of status enquiry frames transmitted to the attached equipment as part of the selected signaling protocol.

This statistic is valid for any NNI signaling protocol chosen (ANSI Annex D or CCITT Annex A).

This statistic is a subset of the Frames Transmitted statistic.

20) LMI NNI Status Receive Count (Ingress)---This statistic provides a count of the number of status frames received from the attached equipment as part of the selected signaling protocol.

This statistic is valid for any NNI signaling protocol chosen (ANSI Annex D or CCITT Annex A).

This statistic is a subset of the Frames Received statistic.

21) LMI NNI Status Update Count (Ingress)---This statistic provides a count of the number of asynchronous status update frames received from the attached equipment as part of the selected signaling protocol.

This statistic is valid for any NNI signaling protocol chosen (ANSI Annex D or CCITT Annex A).

This statistic is a subset of the Frames Received statistic.

22) LMI NNI Link Timeout Errors---This statistic provides a count of the number of times the "T392 Polling Verification Timer" times out without a Status frame having been received from the attached equipment.

This statistic is valid for any NNI signaling protocol chosen (ANSI Annex D, or CCITT Annex A).

The "T392 Polling Verification Timer" is configured as part of the port configuration (cnfport command).

23) LMI NNI Keepalive Sequence Errors---This statistic provides a count of the number of times a discontinuity existed in the (normally consecutive) sequence numbers contained in the Status frames received from the attached equipment.

This statistic is valid for any NNI signaling protocol chosen (ANSI Annex D or CCITT Annex A).

24) CLLM Frames Transmitted (Egress)---This statistic provides a count of the number of Consolidated Link Layer Management (CLLM) frames transmitted to the attached equipment.

CLLM frames are used to exchange PVC congestion information over an NNI port to allow the ForeSight algorithm to regulate the flow of traffic on each PVC based on congestion in the local network as well as congestion in an attached network. This is not intended to be a full implementation of the CLLM suite.

The CLLM mechanism is enabled as part of the port configuration (cnfport command).

This statistic is a subset of the Frames Transmitted statistic.

25) CLLM Bytes Transmitted (Egress)---This statistic provides a count of the number of octets in the frames counted in the CLLM Frames Transmitted statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the Bytes Transmitted statistic.

26) CLLM Frames Received (Ingress)---This statistic provides a count of the number of Consolidated Link Layer Management (CLLM) frames received from the attached equipment.

CLLM frames are used to exchange PVC congestion information over an NNI port to allow the ForeSight algorithm to regulate the flow of traffic on each PVC based on congestion in the local network as well as congestion in an attached network. This is not intended to be a full implementation of the CLLM suite.

The CLLM mechanism is enabled as part of the port configuration (cnfport command).

This statistic is a subset of the Frames Received statistic.

27) CLLM Bytes Received (Ingress)---This statistic provides a count of the number of octets in the frames counted in the CLLM Frames Received statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the Bytes Received statistic.

28) CLLM Failures---This statistic provides a count of the number of times:

29) Tx Frames Discarded - Queue Overflow (Egress)---This statistic provides a count of the number of frames discarded because the port's transmit queue (Egress queue) was full.

The size of the port's transmit queue is configured as part of the port configuration (cnfport command).

30) Tx Bytes Discarded - Queue Overflow (Egress)---This statistic provides a count of the number of octets in the frames counted in the Tx Frames Discarded - Queue Overflow statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

31) Tx Frames while Ingress LMI Failure (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment while the signaling protocol at the port on the remote end of a PVC was failed (that is, when the port was in a "Port Communication Failure" state).

This statistic is a subset of the Frames Transmitted statistic.

32) Tx Bytes while Ingress LMI Failure (Egress)---This statistic provides a count of the number of octets in the frames counted in the Tx Frames while Ingress LMI Failure statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the Bytes Transmitted statistic.

ASI Port (Sub-type = 1)

0 = Unknown VPI/VCI.
1 = Cell buffer overflow.
2 = Non-zero GFC count.
5 = AIS cells received.
6 = Ex FERF cell.
7 = Number of cells received.
8 = Number of cells received with CLP set.
9 = Number of cells received with EFCI set.
10 = Number of BCM cells received.
11 = Number of cells transmitted.
12 = OAM cells received count.
13 = Tx Payload error due to BIP-16 error.
14 = Number of cells transmitted with CLP set.
15 = Number of cells transmitted with EFCI set.
16 = Tx header error discard.
17 = Get Request received.
18 = GetNextReq received.
19 = GetNextReq transmitted.
20 = SetRequest received.
21 =Traps received.
22 = GetResp received.
23 = GetRequest transmitted.
24 = GetResp transmitted.
25 = Trap transmitted.
26 = Unknown received.
27 = Status transmitted.
28 = UpdtStatus transmitted.
29 = Status Ack transmitted.
30 = Status Enq received.
31 = Status Enq transmitted.
32 = Status received.
33 = UpdtStatus received.
34 = Status Ack received.
35 = Invalid LMI received.
36 = Invalid LMI length received.
37 = Unknown LMI received.
38 = Invalid LMI IE received.
39 = Invalid transaction IDs.
64 = Cells received with CLP 0.
65 = Cells received with CLP 0 discarded.
66 = Cells received with CLP discarded.
67 = Cells transmitted with CLP 0.
68 = Egress OAM cell count.
69 = Ingress RM cell count.
70 = Egress RM cell count.

FastPAD Port (Sub-type = 2)

0 = Frames received.
1 = Frames transmitted.
2 = Bytes received.
3 = Bytes transmitted.
4 = Frames transmitted with.FECN.
5 = Frames transmitted with.BECN.
6 = Receive frame CRC errors.
7 = Invalid format receive frames.
8 = Receive frame alignment errors.
9 = Illegal length receive frames.
10 = Number of DMA overruns.
11 = LMI status enquiries.
12 = LMI status transmit count.
13 = LMI status update count.
14 = LMI invalid status enquiries.
15 = LMI link timeout errors.
16 = LMI keepalive sequence errors.
17 = Receive frame undefined DLCI errors.
18 = DE frames dropped.
19 = Transmit status enquiries.
20 = Receive status counter.
21 = Asynchronous status counter.
22 = Invalid sequence number count.
23 = Transmit protocol timeout count.
24 = CLLM message frames transmitted.
25 = CLLM message bytes transmitted.
26 = CLLM message frames received.
27 = CLLM message bytes received.
28 = CLLM failures.
29 = Tx frames discarded-queue overflow.
30 = Tx bytes discarded-queue overflow.
31 = Tx frames while Ingress LMI fail.
32 =Tx bytes while Ingress LMI fail.

See detailed explanations under sub-type 0.

AXIS Frame Relay Port (Sub-type = 3)

0 = Frames received.
1 = Frames transmitted.
2 = Bytes received.
3 = Bytes transmitted.
4 = Frames transmitted with.FECN.
5 = Frames transmitted with.BECN.
6 = Receive frame CRC errors.
7 = Invalid format receive frames.
8 = Receive frame alignment errors.
9 = Illegal length receive frames.
11 = LMI status enquiries.
12 = LMI status transmit count.
13 = LMI status update count.
14 = LMI invalid status enquiries.
15 = LMI link timeout errors.
17 = Receive frame undefined DLCI errors.
18 = DE frames dropped.
19 = Transmit status enquiries.
20 = Received status counter.
21 = Asynchronous status counter.
22 = Invalid sequence number count.
23 = Transmit protocol timeout count.
29 = Tx frames discarded-queue overflow.
30 = Tx bytes discarded-queue overflow.
31 = Tx frames while Ingress LMI fail.
32 =Tx bytes while Ingress LMI fail.
33 = Receive NNI sequence mismatch.

0) Frames Received (Ingress)---This statistic provides a count of the number of frames received from the attached equipment. This statistic is incremented even when the received frame is invalid or discarded for any reason (see possible reasons below). This count also includes signaling protocol frames received from the attached equipment.

1) Frames Transmitted (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment. This count also includes signaling protocol frames transmitted to the attached equipment.

2) Bytes Received (Ingress)---This statistic provides a count of the number of octets in the frames counted in the Frames Received statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

3) Bytes Transmitted (Egress)---This statistic provides a count of the number of octets in the frames counted in the Frames Transmitted statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

4) Frames Transmitted with FECN (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment with the Forward Explicit Congestion Notification (FECN) bit set, regardless of where in the network the congestion was experienced.

This statistic is a subset of the Frames Transmitted statistic.

5) Frames Transmitted with BECN (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment with the Backward Explicit Congestion Notification (BECN) bit set, regardless of where in the network the congestion was observed.

This statistic is a subset of the Frames Transmitted statistic.

6) Receive Frame CRC Errors (Ingress)---This statistic provides a count of the number of frames received from the attached equipment in which the CRC calculated by the IPX/IGX does not match the CRC provided by the attached equipment in the last 2 octets of the frame.

Any frame received with an incorrect CRC is discarded by the network.

However, the IPX/IGX does not wait to receive the entire frame before starting to packetize the frame and send it through the network. As long as the frame header format is valid (see Invalid Format Receive Frames statistic below) and the DLCI field in the frame header is recognized (see Receive Frames Undefined DLCI Count statistic below), packets containing the beginning of the frame are created (one start-of-frame (SOF) packet and subsequent middle-of-frame (MOF) packets) and sent as soon as possible.

When the frame is short or when there are other packets already waiting to be sent, the detection of the CRC error causes all the packets of the frame to be discarded. However, when the frame is long and there is no congestion in the Ingress VC queue, some packets are sent through the network before the CRC error is detected. As soon as the CRC error is detected, any portion of the frame which has not yet been sent is discarded. In particular, no end-of-frame (EOF) packet is ever sent. When the next frame arrives, a new SOF packet is sent, etc. At the far end, when a SOF packet arrives that does not immediately follow an EOF packet, the incomplete frame is discarded and counted in the PVC statistic of Transmit Frames Discarded.

When the CRC is incorrect because of a bit error in the DLCI field in the frame header, the error is also recorded as a Receive Frame with Undefined DLCI (see below) unless the "errored" DLCI is also configured on the port.

This statistic is a subset of the Frames Received statistic.

7) Invalid Format Receive Frames (Ingress)---This statistic provides a count of the number of frames received from the attached equipment in which the Extended Address (EA) bits (the least significant bit in each of the two Frame Relay header octets) is incorrect. The IPX/IGX must see a "0" as the least significant bit of the first octet and a "1" as the least significant bit of the second octet.

Any frame received with incorrect EA bits is discarded immediately.

This statistic is a subset of the Frames Received statistic.

8) Receive Frame Alignment Errors (Ingress)---This statistic provides a count of the number of frames received from the attached equipment in which the total frame length is not an integral number of octets.

Any frame received with an incorrect alignment is discarded by the network.

However, the IPX/IGX does not wait to receive the entire frame before starting to packetize the frame and send it through the network. As long as the frame header format is valid (see Invalid Format Receive Frames statistic above) and the DLCI field in the frame header is recognized (see Receive Frames Undefined DLCI Count statistic below), packets containing the beginning of the frame are created (one start-of-frame (SOF) packet and subsequent middle-of-frame (MOF) packets) and sent as soon as possible.

When the frame is short or when there are other packets already waiting to be sent, the detection of the alignment error causes all the packets of the frame to be discarded. However, when the frame is long and there is no congestion in the Ingress VC queue, some packets are sent through the network before the alignment error is detected. As soon as the alignment error is detected, any portion of the frame which has not yet been sent is discarded. In particular, no end-of-frame (EOF) packet is ever sent. When the next frame arrives, a new SOF packet is sent, etc. At the far end, when a SOF packet arrives that does not immediately follow an EOF packet, the incomplete frame is discarded and counted in the PVC statistic of Transmit Frames Discarded.

This statistic is a subset of the Frames Received statistic.

9) Illegal Length Receive Frames (Ingress)---This statistic provides a count of the number of frames received from the attached equipment in which the total frame length is either too short or too long.

To be accepted, a frame must be at least five octets, but no more than 4510 octets, long, including the header and frame check sequence (FCS, or CRC) octets. Any frame received with an invalid length is discarded by the network.

A frame that is too short is immediately detected and discarded.

For a frame that is too long, the IPX/IGX does not wait to receive the entire frame before starting to packetize the frame and send it through the network. As long as the frame header format is valid (see Invalid Format Receive Frames statistic above) and the DLCI field in the frame header is recognized (see Receive Frames Undefined DLCI Count statistic below), packets containing the beginning of the frame are created (one start-of-frame (SOF) packet and subsequent middle-of-frame (MOF) packets) and sent as soon as possible.

As the frame is very long, it is very likely some packets are sent through the network before the length error is detected. As soon as the length error is detected, any portion of the frame which has not yet been sent is discarded. In particular, no end-of-frame (EOF) packet is ever sent. When the next frame arrives, a new SOF packet is sent, etc. At the far end, when a SOF packet arrives that does not immediately follow an EOF packet, the incomplete frame is discarded and counted in the PVC statistic of Transmit Frames Discarded.

This statistic is a subset of the Frames Received statistic.

10) Number of DMA Overruns (Ingress)---This statistic provides a count of the number of times the DMA process used to transfer the received frames from the back card (FRI) to the front card (FRP/FRM) failed because of the lack of available buffer space.

In order to buffer frames received from the attached equipment, each Frame Relay port is allocated a certain amount of buffer space.

When the DMA controller has one or more received frames to transfer to the front card, it secures buffers into which it places the received frames. When no buffers are available, the back card discards all received frames on the port until 90% of the allocated buffers are free again. During this time, frames from any PVC on the port are discarded. No count is kept of:

11) LMI UNI Status Enquiries (Ingress)---This statistic provides a count of the number of status enquiry frames received from the attached equipment as part of the selected signaling protocol.

This statistic is valid for any UNI signaling protocol chosen (StrataLMI, ANSI Annex D, or CCITT Annex A). This statistic is also valid for any NNI signaling protocol chosen (ANSI Annex D, or CCITT Annex A).

This statistic is a subset of the Frames Received statistic.

12) LMI UNI Status Transmit Count (Egress)---This statistic provides a count of the number of status frames transmitted to the attached equipment as part of the selected signaling protocol.

This statistic is valid for any UNI signaling protocol chosen (StrataLMI, ANSI Annex D, or CCITT Annex A). This statistic is also valid for any NNI signaling protocol chosen (ANSI Annex D, or CCITT Annex A).

This statistic is a subset of the Frames Transmitted statistic.

13) LMI UNI Status Update Count (Egress)---This statistic provides a count of the number of asynchronous status update frames transmitted to the attached equipment as part of the selected signaling protocol.

This statistic is valid for any UNI signaling protocol chosen (StrataLMI, ANSI Annex D, or CCITT Annex A). This statistic is also valid for any NNI signaling protocol chosen (ANSI Annex D, or CCITT Annex A).

When enabled as part of the port configuration (cnfport command), an asynchronous status update frame is generated any time a PVC is "failed" or "downed" and again any time a PVC is "repaired" or "upped".

This statistic is a subset of the Frames Transmitted statistic.

14) LMI Invalid Status Enquiries (Ingress)---This statistic provides a count of the number of status enquiry frames with an invalid format received from the attached equipment as part of the selected signaling protocol.

This statistic is valid for any UNI signaling protocol chosen (StrataLMI, ANSI Annex D, or CCITT Annex A). This statistic is also valid for any NNI signaling protocol chosen (ANSI Annex D, or CCITT Annex A).

This statistic is a subset of the Frames Received statistic.

15) LMI UNI Link Timeout Errors---This statistic provides a count of the number of times the "T392 Polling Verification Timer" times out without a Status Enquiry frame having been received.

This statistic is valid for any UNI signaling protocol chosen (StrataLMI, ANSI Annex D, or CCITT Annex A). This statistic is also valid for any NNI signaling protocol chosen (ANSI Annex D, or CCITT Annex A).

The "T392 Polling Verification Timer" is configured as part of the port configuration (cnfport command).

16) LMI UNI Keepalive Sequence Errors---This statistic provides a count of the number of times a discontinuity existed in the (normally consecutive) sequence numbers contained in the Status Enquiry frames received from the attached equipment.

This statistic is valid for any UNI signaling protocol chosen (StrataLMI, ANSI Annex D, or CCITT Annex A). This statistic is also valid for any NNI signaling protocol chosen (ANSI Annex D, or CCITT Annex A).

17) Received Frames Undefined DLCI Count (Ingress)---This statistic provides a count of the number of frames received with a DLCI for which no PVC is provisioned on this port. This count includes any signaling protocol frames received while no signaling protocol is enabled or the wrong signaling protocol is enabled (such as by enabling the StrataLMI signaling protocol while the attached equipment is generating Annex A or Annex D signaling protocol frames, or vice versa).

Any frame received with an undefined DLCI is discarded immediately.

This statistic is a subset of the Frames Received statistic.

18) DE Frames Dropped (Egress)---This statistic provides a count of the number of frames to be transmitted to the attached device which were discarded because the frame's DE bit is set and the port's Egress buffer has reached the DE threshold. The DE threshold is configured as part of the port configuration (cnfport command).

This statistic is a subset of the corresponding PVC's Transmit Frames Discarded statistic.

19) LMI NNI Status Enquiries (Egress)---This statistic provides a count of the number of status enquiry frames transmitted to the attached equipment as part of the selected signaling protocol.

This statistic is valid for any NNI signaling protocol chosen (ANSI Annex D or CCITT Annex A).

This statistic is a subset of the Frames Transmitted statistic.

20) LMI NNI Status Receive Count (Ingress)---This statistic provides a count of the number of status frames received from the attached equipment as part of the selected signaling protocol.

This statistic is valid for any NNI signaling protocol chosen (ANSI Annex D or CCITT Annex A).

This statistic is a subset of the Frames Received statistic.

21) LMI NNI Status Update Count (Ingress)---This statistic provides a count of the number of asynchronous status update frames received from the attached equipment as part of the selected signaling protocol.

This statistic is valid for any NNI signaling protocol chosen (ANSI Annex D or CCITT Annex A).

This statistic is a subset of the Frames Received statistic.

22) LMI NNI Link Timeout Errors---This statistic provides a count of the number of times the "T392 Polling Verification Timer" times out without a Status frame having been received from the attached equipment.

This statistic is valid for any NNI signaling protocol chosen (ANSI Annex D, or CCITT Annex A).

The "T392 Polling Verification Timer" is configured as part of the port configuration (cnfport command).

23) LMI NNI Keepalive Sequence Errors---This statistic provides a count of the number of times a discontinuity existed in the (normally consecutive) sequence numbers contained in the Status frames received from the attached equipment.

This statistic is valid for any NNI signaling protocol chosen (ANSI Annex D or CCITT Annex A).

24) CLLM Frames Transmitted (Egress)---This statistic provides a count of the number of Consolidated Link Layer Management (CLLM) frames transmitted to the attached equipment.

CLLM frames are used to exchange PVC congestion information over an NNI port to allow the ForeSight algorithm to regulate the flow of traffic on each PVC based on congestion in the local network as well as congestion in an attached network. This is not intended to be a full implementation of the CLLM suite.

The CLLM mechanism is enabled as part of the port configuration (cnfport command).

This statistic is a subset of the Frames Transmitted statistic.

25) CLLM Bytes Transmitted (Egress)---This statistic provides a count of the number of octets in the frames counted in the CLLM Frames Transmitted statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the Bytes Transmitted statistic.

26) CLLM Frames Received (Ingress)---This statistic provides a count of the number of Consolidated Link Layer Management (CLLM) frames received from the attached equipment.

CLLM frames are used to exchange PVC congestion information over an NNI port to allow the ForeSight algorithm to regulate the flow of traffic on each PVC based on congestion in the local network as well as congestion in an attached network. This is not intended to be a full implementation of the CLLM suite.

The CLLM mechanism is enabled as part of the port configuration (cnfport command).

This statistic is a subset of the Frames Received statistic.

27) CLLM Bytes Received (Ingress)---This statistic provides a count of the number of octets in the frames counted in the CLLM Frames Received statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the Bytes Received statistic.

28) CLLM Failures---This statistic provides a count of the number of times:

29) Tx Frames Discarded - Queue Overflow (Egress)---This statistic provides a count of the number of frames discarded because the port's transmit queue (Egress queue) was full.

The size of the port's transmit queue is configured as part of the port configuration (cnfport command).

30) Tx Bytes Discarded - Queue Overflow (Egress)---This statistic provides a count of the number of octets in the frames counted in the Tx Frames Discarded - Queue Overflow statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

3`) Tx Frames while Ingress LMI Failure (Egress)---This statistic provides a count of the number of frames transmitted to the attached equipment while the signaling protocol at the port on the remote end of a PVC was failed (that is, when the port was in a "Port Communication Failure" state).

This statistic is a subset of the Frames Transmitted statistic.

31) Tx Bytes while Ingress LMI Failure (Egress)---This statistic provides a count of the number of octets in the frames counted in the Tx Frames while Ingress LMI Failure statistic (above). The octets counted include the Frame Relay header octets as well as the frame check sequence (FCS, or CRC) octets.

This statistic is a subset of the Bytes Transmitted statistic.

AXIS ATM Port (Sub-type = 4)

0 = Unknown VPI/VCI.
2 = Non-zero GFC count.
5 = Rx FERF cells.
6 = SNMP PDU received.
14 = Number of cells transmitted with CLP set.
15 = Number of cells transmitted with EFCI set.
17 = Get request received.
18 = GetNext request received.
20 = Set request received.
21 = Trap received.
22 = Get response received.
23 = Get request transmitted.
24 = Get response transmitted.
25 = Tx AIS cells.
40 = Total cells received from line.
41 = Total cells transmitted to line.
42 = OAM loopback cells received.
43 = OAM loopback cells transmitted.
44 = OAM CRC error cells received.
45 = Tx AIS cells.
46 = Discard cells transmitted for port alarm.
47 = SNMP PDU received.
48 = Invalid PDU received.
49 = ASN1 parse error.
50 = No such name error.
51 = Too Big error.
52 = ACP cells received.
53 = ACP cells received with CRC-10 error.
54 = ACP cells transmitted.
55 = ACP cell transmission failures.
56 = HEC errored cells received per IMA group.

SDLC Station (sub-type = 6)

1 = Total basic link units received.
2 = Total basic link units transmitted.
3 = Total octets received.
4 = Total octets transmitted.

BSC Station (sub-type = 7)

5 = Total bytes transmitted.
6 = Total bytes received.
7 = Total frames transmitted.
8 = Total frames received.


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Posted: Wed Mar 31 15:41:11 PST 1999
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