Table Of Contents
A - B - C - D - E - F - G - H - I - L - M - N - O - P - Q - R - S - T - U - V - W -
index
A
AAL
in ATM reference model 1-12
service-dependent (table) 1-14
anycast signaling 2-4
ATM
addressing 1-12, 2-4
cell format 1-2, 1-4
description 1-1
device types 1-2
fundamentals 1-2
network interfaces 1-3, 3-2to 3-6
physical interfaces 1-15to 1-16
services 1-5
signaling 2-1
switch operation 1-9
virtual connection types 1-5
ATM adaptation layer. See AAL
ATM addresses
ATM switch router 2-6
autoconfigured scheme 2-7
automatic assignment for LANE components 6-11
components 2-4
formats
choosing 2-6
DCC 2-6
default 2-8
E.164 2-6, 2-11
figure 2-5
ICD 2-6
global uniqueness 7-15
ILMI 2-7, 2-9
ILMI address considerations 2-9
LANE 2-10
LANE templates 6-11
manually configured 2-10
obtaining 2-17
PNNI
autoconfigured 2-10
autoconfigured for single-level 7-13
hierarchical nature 7-15
planning 7-15
scalability 7-16
used by 2-7
registered 2-17
SVCs 1-12
See also E.164 addresses
ATM Address Resolution Protocol. See ATMARP
ATMARP
and ILMI 2-10
and RFC 1577 5-3
ATM network interfaces
autoconfiguration of 3-1
example 3-2
IISP 3-5
NNI 3-4
UNI 3-3
ATM reference model
ATM adaptation layer (AAL) 1-12
ATM layer 1-11
figure 1-11
OSI model 1-11
physical layer 1-11
service-dependent AAL 1-14
ATM switch router
default address 2-6
inband management of
overview 5-8
PVCs with InATMARP 5-10
PVCs with static address mapping 5-10
SVCs with ATMARP 5-9
SVCs with static address mapping 5-10
LANE requirements 6-12
traffic management capabilities 10-1
autoconfiguration
ATM address
format 2-7
ATM addresses
PNNI, single-level 7-13
interface types 3-1
B
best-effort connection limits 10-11
broadcast-and-unknown server. See BUS
BUS
connection setup, example 6-9
function 6-4
multicast traffic, sending 6-8
C
CAC
algorithm 10-7
configurable parameters 10-8
description 10-5to 10-6
parameter definitions 10-6
PNNI 7-7
resource management for tag switching 11-13
CAS 9-8
CDVT and MBS interface defaults 10-5
cell format
general 1-2
header 1-4
NNI format (figure) 1-5
UNI format (figure) 1-5
CES
advantages 9-10
applications 9-1
configuring
CDV 9-15
prerequisites 9-15
E1 port adapters 9-2to 9-10
features 9-2
hard PVCs 9-18to 9-19, 9-21to 9-22
interworking function (CES-IWF) 9-3
limitations 9-10
on-hook detection 9-8
overview 9-1
soft PVCs 9-16to 9-20, 9-22to 9-27
structured services
bandwidth usage 9-20
channel-associated signaling 9-8
digital access and crossconnect system functionality 9-5
support 9-5
time slots 9-6
T1 port adapters 9-2to 9-10
unstructured services
bandwidth usage 9-17
support 9-4
CES-IWF 9-3
channel-associated signaling. See CAS
channelized DS3 port adapter
configuration
channel groups 12-5
guidelines 12-4
overview 12-4
physical interface 12-4
T1 lines 12-4
description 12-3
channelized E1 port adapter
configuration
channel groups 12-7
guidelines 12-6
overview 12-6
physical interface 12-7
description 12-5
time slot mapping 12-5
circuit emulation services. See CES
classical IP over ATM
description 5-2
example (figure) 5-3
RFC 1577, defined in 5-3
clocking. See network clocking
closed user groups. See CUGs
complex node representation
aggregation modes compared 7-38
exception thresholds 7-37
implementation guidelines 7-38
routing accuracy of 7-36
simple node representation, compared 7-35
terminology 7-36
Connection Admission Control. See CAC
connection traffic table. See CTT
controlled link sharing 10-9
conventions xvii
CoS
CTT rows 11-12
resource management CAC not supported 11-13
service class to weight mapping
hierarchical VP tunnels 11-10
physical ports 11-10
threshold group for TBR classes 11-11
crankback mechanism 7-8
CTT
Frame Relay to ATM interworking 12-10
row allocations and defaults 10-3
rows for tag switching virtual connections 11-12
traffic and service contract 10-3
CUGs
configuration overview 2-21
example (figure) 2-20
interlock codes for 2-19
overview 2-18
D
data rate for physical interfaces 1-15
documentation
CD-ROM xviii
online xvii
printed xvii
document conventions xvii
DS0 channels. See DS0 time slots
DS0 time slots
Frame Relay to ATM interworking
channel groups, forming 12-5
DS3 interfaces 12-3
E1 interfaces 12-5
mapping example (figure) 12-3
structured CES
example (figure) 9-6
mapping 9-6
E
E.164 addresses
autoconversion
AESA example (figure) 2-16
comparison (table) 2-14
description 2-13
ZDSP example (figure) 2-15
conversion options 2-12
encoding for PNNI 7-13
gateway translation
description 2-12
example (figure) 2-12
NSAP encoded format 2-6
one-to-one translation 2-16
signaling of 2-11
types 2-11
E1 port adapters
CES
description 9-2
structured services 9-5
time slots, example 9-7
unstructured services 9-4
time slots
CES 9-6
Frame Relay to ATM interworking 12-5
See also DS0 time slots
ELANs
address resolution in 6-7
joining 6-7
virtual LANs, compared 6-5
See also LANE
emulated LANs. See ELANs
exception thresholds 7-37
explicit paths for soft PVCs
description 4-10
PNNI 7-29
F
FIB 11-3
Forwarding Information Base. See FIB
Frame Relay to ATM interworking
channelized DS3 port adapter 12-3to 12-5
channelized E1 port adapter 12-5to 12-7
configuring
encapsulation 12-8
overview 12-7
serial interface type 12-8
LMI 12-8to 12-9
network interworking 12-2
overview 12-1
resource management
configuration overview 12-9
CTT description 12-10
interface configuration overview 12-11
service interworking 12-2
virtual connections 12-11to 12-19
framing overhead 10-14
framing type for physical interfaces 1-15
funnel signaling
description 2-21
example (figure) 2-21
G
GCAC
and PTSP exchanges 7-5
description 7-7
in call routing, example 7-8
Generic Call Admission Control algorithm. See GCAC
H
hard PVCs
structured services 9-21
unstructured services 9-18
hardware-dependent features 10-16
Hello protocol 7-5
hierarchical VP tunnels
description 4-16
restrictions 4-17
service category support 10-11
service class to TBR class mapping 11-10
I
IISP
description 3-5
example (figure) 3-5
interface configuration 3-6
routing
advantages 7-3
description 7-1
limitations 7-3
ILMI
ATM addresses 2-9
ATM address migration 2-9
autoconfiguration with 3-1
InATMARP 5-4
individual traffic parameter maximums 10-11
Integrated Local Management Interface. See ILMI
interface category support 10-11
interface output pacing 10-21
interface overbooking 10-12
interface queue thresholds per service category 10-17
Interim Interswitch Signaling Protocol. See IISP
Inverse ATM address resolution protocol. See InATMARP
L
LANE
address assignment for components 6-11
addressing requirements 6-10
address resolution 6-7
advantages 6-12
applications 6-2
assigning components 6-12
ATM addresses 2-10
broadcast-and-unknown server (BUS) 6-4to 6-9
client (LEC) 6-4to 6-9
components 6-4
configuration server (LECS) 6-5to 6-11
configuring
overview 6-13
worksheet 6-15
description 6-1
example 6-8
fault tolerance 6-17
function of network devices in 6-3
implementation considerations 6-10
limitations 6-12
multicast traffic 6-8
operation 6-3
protocol stack 6-3
router and switch requirements 6-12
server (LES) 6-4to 6-7
SSRP 6-17
VCC types 6-5
LANE configuration server. See LECS
LAN emulation. See LANE
LAN emulation client. See LEC
LAN emulation configuration server. See LECS
LAN emulation server. See LES
Layer 3 protocols over ATM 5-1to 5-5
LEC
address resolution 6-8
connection setup, example 6-9
function 6-4
joining an emulated LAN 6-7
VCCs for 6-6
LECS
address database 6-11
function 6-5
joining an emulated LAN 6-7
LES
function 6-4
joining an emulated LAN 6-7
VCCs for 6-6
LGNs
complex node representation 7-35
configuring 7-23
description 7-10
LMI configuration
keepalive interval 12-9
LMI type 12-8
overview 12-8
polling and timer interval 12-9
Local Management Interface. See LMI
logical group nodes. See LGNs
M
map lists. See static map lists
MaxCR
in framing overhead 10-14
in interface overbooking 10-12
maximum cell rate. See MaxCR
maximum queue size per interface 10-17
MPOA
advantages 6-21
configuration overview 6-21
description 6-19
limitations 6-21
operation 6-20
multiprotocol encapsulation over ATM
description 5-2
RFC 1483, defined in 5-4
Multiprotocol Label Switching (MPLS). See tag switching
Multiprotocol over ATM. See MPOA
N
NCDP
consideration when using 8-8
description 8-6
operation, example 8-6
network clocking
CBR and VBR-RT traffic 8-1
CES 8-2
clock distribution modes 8-3
clocking modes for CES
adaptive 9-14
characteristics 9-11
description 9-11
SRTS 9-12
synchronous 9-12
clock sources
network clock module 8-5
quality 8-2
revertive behavior 8-4
configuring
manual 8-11
NCDP 8-10
definition 8-1
example 8-3
NCDP 8-6to 8-8
overview 8-1
Network Clocking Distribution Protocol. See NCDP
network clock module
BITS derived clocking 8-6
oscillator quality 8-6
resilience 8-5
Network-Network Interface. See NNI
NNI
cell header format 1-5
configuring 3-5
example 3-4
example (figure) 3-4
nondefault PVCs
configuring 4-11
uses 4-11
well-known values 4-11
O
outbound link distance 10-10
oversubscription factor 10-16
P
peer group leaders. See PGLs
permanent virtual connections. See PVCs
permanent virtual paths. See PVPs
PGLs 7-10
physical interfaces
common (table) 1-16
description 1-15to 1-16
media types 1-15
PNNI
aggressive aggregation mode 7-34, 7-38
ATM addresses 2-10, 7-13to 7-17
best link aggregation mode 7-34, 7-38
CAC 7-7
call routing 7-8
complex node representation 7-35to 7-39
crankback mechanism 7-8
database synchronization 7-5
E.164 addresses
encoding 7-13
justification 7-13
GCAC 7-7
Hello protocol 7-5
hierarchical
implementation considerations 7-12
hierarchical topology 7-9to 7-12
higher levels
implementation considerations 7-22
LGNs 7-23
node election leadership priority 7-24
node names 7-24
overview 7-21
parent node designation 7-24
PGLs 7-23
summary addresses 7-25
LGNs 7-10, 7-23, 7-35
lowest level
ATM address 7-18
node level 7-18
overview 7-18
scope mapping 7-20
static routes 7-19
summary addresses 7-19
metrics and attributes 7-6
operation 7-8
overview 7-4
peer groups 7-10
PGLs 7-10
protocol parameters
Hello exchanges 7-39
resource management poll interval 7-40
PTSP exchanges 7-5, 7-39
reachability information 7-6
route selection tuning
background route computation 7-26
links, parallel, and alternate 7-27
manually configured explicit paths 7-29
maximum administrative weight percentage 7-28
precedence of reachable addresses 7-28
routing features 7-4
signaling features 7-4
single-level
autoconfigured addresses 7-13
configuration 7-18
when suitable 7-9
topology attributes
administrative weight 7-30
aggregation mode 7-33
aggregation tokens 7-32
route redistribution 7-32
significant change thresholds 7-34
transit call restriction 7-32
point-to-multipoint connections
ATM solutions 1-7
description 1-6
signaling 2-4, 2-21
port adapters
CES 9-2
Frame Relay to ATM interworking 12-1
Private Network-Network Interface. See PNNI
PTSP exchanges
description 7-5
tuning 7-39
PVCs
applications 4-4
configuration overview 4-5
connecting to VP tunnels 4-18
Frame Relay to ATM interworking
network interworking 12-13
service interworking 12-14
terminating service interworking 12-14
transit 12-15
nondefault well-known 4-11
point-to-multipoint 4-6
terminating 4-5
with InATMARP 5-6, 5-10
with static address mapping 5-7, 5-10
See also hard PVCs
See also soft PVCs
PVPs
network example 4-7
point-to-multipoint 4-7
Q
QoS
default objective table 10-4
parameters 1-13
parameters per service category (table) 10-2
PNNI 7-5
quality of service. See QoS
R
resource management. See traffic management
RFC 1483 5-4
RFC 1577
ATMARP mechanism 5-3
InATMARP mechanism 5-4
provisions 5-3
route optimization for soft PVCs 4-9
routing
IISP 7-1to 7-3
PNNI 7-4to 7-9
S
scheduler and service class 10-22
service categories
characteristics 1-14
description 1-13
table 1-13
service category limit 10-17
service category parameters 10-2
SGCP
advantages 9-29
description 9-27
operation 9-29
shaped VP tunnels
description 4-15
restrictions 4-16
signaling
about 2-1
ABR connections 2-4
anycast 2-4
connection setup 2-2
E.164 addresses 2-11
features 2-18
NNI 2-3
point-to-multipoint connections 2-4
point-to-multipoint funnel 2-21
proxy 2-4
QoS parameters 2-4
UNI 2-3
virtual UNI 2-4
signaling VPCI 4-18
Simple Gateway Control Protocol. See SGCP
Simple Server Redundancy Protocol. See SSRP
soft PVCs
advantages 2-2, 4-4
CES
configuration guidelines 9-16
structured services 9-22, 9-24, 9-26
unstructured services 9-19
example 4-8
explicit paths 4-10, 7-29
Frame Relay to ATM interworking
configuration overview 12-16
network interworking 12-17
respecifying 12-19
route optimization 12-19
service interworking 12-18
route optimization 4-9
soft PVPs
advantages 2-2, 4-4
example 4-9
SSRP
configuration overview 6-18
considerations 6-18
description 6-17
operation 6-17
static map lists
description 5-5
PVCs 5-7
SVCs 5-7
sustained cell rate margin factor 10-9
SVCs
applications 4-4
ATMARP 5-6, 5-9
static address mapping 5-7, 5-10
VPI/VCI ranges 4-11
switched virtual connections. See SVCs
T
T1 port adapters
description 9-2
structured services 9-5
time slots, example 9-7
unstructured services 9-4
Tag Distribution Protocol. See TDP
Tag Forwarding Information Base. See TFIB
Tag Information Base. See TIB
tag switching (MPLS)
advantages 11-4
components 11-2
configuring
interfaces 11-6
loopback interface 11-6
overview 11-5
routing protocol 11-6
TDP control channel 11-7
VPI range 11-7
VP tunnels 11-7
CoS 11-9to 11-13
FIB 11-3
hardware and software restrictions 11-5
hierarchical VP tunnels 11-10
limitations 11-5
network example (figure) 11-2
operation 11-3
overview 11-1
tag edge routers in 11-2
tag switches in 11-2
TDP 11-2, 11-7
TFIB 11-3
TIB 11-3
VC merge 11-8
TDP
control channels 11-7
used by tag edge routers 11-2
TFIB 11-3
threshold groups 10-18
TIB 11-3
time slots. See DS0 time slots
traffic management
best-effort connection limits 10-11
CAC
description 10-5to 10-6
tag switching not supported 11-13
capabilities 10-1
cell queuing 10-16
interface queue thresholds per service category 10-17
maximum queue size per interface 10-17
oversubscription factor 10-16
service category limit 10-17
threshold groups 10-18
congestion notification 10-20
controlled link sharing 10-9
Frame Relay to ATM interworking 12-9
framing overhead 10-14
hardware resource mechanisms 10-14
individual traffic parameter maximums 10-11
interface category support 10-11
interface overbooking 10-12
outbound link distance 10-10
output scheduling
interface output pacing 10-21
scheduler and service class 10-22
sustained cell rate margin factor 10-9
threshold groups
defaults 10-18
operation 10-19
traffic and service contract
CDVT and MBS interface defaults 10-5
configurable parameters 10-3
connection setup 1-13
CTT 10-3
default QoS objective table 10-4
service category parameters 10-2
traffic policing 10-15
traffic shaping 10-21
UPC
default behavior 10-15
default CDVT and MBS 10-16
purpose 10-15
traffic parameters 1-13
traffic policing 10-15
traffic shaping 10-21
U
UNI
autoconfiguration with ILMI 2-7, 3-1
cell header format 1-4
configuration 3-3
example (figure) 3-3
signaling 2-3
specifications 2-3
virtual 4-18
UPC 10-15
Usage Parameter Control. See UPC
User-Network Interface. See UNI
V
virtual channel identifier. See VPI/VCI
virtual connections
applications 4-4
autoconfigured parameters 4-3
components 4-2
Frame Relay to ATM interworking
characteristics 12-12
configuration overview 12-11
configuration prerequisites 12-12
PVCs 12-13to 12-16
soft PVCs 12-16to 12-19
point-to-multipoint 1-6
supported types (table) 4-3
transit and terminating 4-2
types 1-5, 4-2
See also PVCs
See also PVPs
virtual path. See VP switching and VP tunnels
virtual path identifier. See VPI/VCI
virtual UNI
signaling 2-4
signaling VPCI 4-18
voice over ATM
with CES 9-1
with SGCP 9-27
VPI/VCI
purpose 1-6
ranges for SVPs and SVCs
description 4-11
maximum (table) 4-12
VP switching
description 1-9
figure 1-9
VP tunnels
between source and destination switches (figure) 11-8
CES through 9-22
example (figure) 4-14
general description 4-13
PVC connection to 4-18
signaling VPCI 4-18
single service category 4-14
tag switching on 11-7
types 4-14
See also hierarchical VP tunnels
See also shaped VP tunnels
W
well-known PVCs
nondefault 4-11
well-known virtual channels (table) 4-11