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Fibre Channel Protocol-Related Differences, ddnn+4xx

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Firmware Summary Table B-4 E/OS versus E/OSn and E/OSi - System-Related Differences (Continued) Feature Misaligned word generation Flexible partition (FlexPar) feature support Maintenance port access E/OS 7.0 E/OSn 6.0 E/OSi 4.6 Misaligned words not generated. Misaligned word is generated when the port state machine (PSM) transitions from inactive to active state or from active to inactive state. This anomaly has no effect on Fibre Channel device behavior. Misaligned words not generated. Flexpar feature not supported. Up to four FlexPars supported Flexpar feature not supported. for each Intrepid 10000 Director chassis. For directors, one 9-pin, RS-232 serial port shared between two CTP cards. Port-attached device communicates only with the active card. For fabric switches, one 9-pin, RS-232 serial port per switch. Each CTP card has an independent 9-pin, RS-232 serial port that provides access to engineering-level interfaces. Maintenance mode and command line interface (CLI) available through the active CTP card port. One 9-pin, RS-232 serial port per SAN router. Fibre Channel Protocol-Related Differences Table B-5 summarizes Fibre Channel protocol-related differences between the E/OS 7.0, E/OSn 6.0, and E/OSi 4.6 firmware versions. Table B-5 E/OS versus E/OSn and E/OSi - Fibre Channel Protocol-Related Differences Feature E/OS 7.0 E/OSn 6.0 E/OSi 4.6 Node port (N_Port) ID assignment N_Port ID assigned based on port number plus offset of four. Device attached to port nn obtains N_Port ID of dd(nn+4)xx, where dd is the switch domain ID and xx is hexadecimal 13. N_Port ID assigned based on port number. Device attached to Port nn obtains N_Port ID of ddnnxx, where dd is the switch domain ID and xx is hexadecimal 13. N_Port ID assigned based on port number. Device attached to Port nn obtains N_Port ID of ddnnxx, where dd is the switch domain ID (always 01) and xx is hexadecimal 13. Exchange switch support (ESS) sequence transmission ESS not transmitted until fabric shortest path first (FSPF) algorithm obtains best hop to target domain. ESS transmitted at the moment adjacency to the target domain is detected (link at FSPF FULL state). Therefore, ESS always transmitted sooner for an Intrepid 10000 Director. ESS transmitted only in response to an ESS received from another fabric element. Firmware Summary B-3

Section	Page
Contents	3
Preface	13
Introduction to McDATA Multi-Protocol Products	27
Product Overview	28
Multi-Protocol Hardware	28
SAN Management Applications	31
Directors	32
Director Performance	33
Intrepid 6064 Director	34
Intrepid 6140 Director	36
Intrepid 10000 Director	38
Fabric Switches	41
Fabric Switch Performance	41
Sphereon 3232 Fabric Switch	42
Sphereon 4300 Fabric Switch	43
Sphereon 4500 Fabric Switch	44
SAN Routers	46
SAN Router Performance	47
Eclipse 1620 SAN Router	48
Eclipse 2640 SAN Router	50
Product Features	51
Connectivity Features	52
Security Features	54
Serviceability Features	55
Product Management	61
Product Management	62
Out-of-Band Management	62
Inband Management	65
Management Interface Summary	66
Management Server Support	67
Management Server Specifications	68
Ethernet Hub	70
Remote User Workstations	70
Product Firmware	71
Firmware Services	72
Backup and Restore Features	73
SAN Management Applications	75
SANavigator and EFCM Applications	75
SANvergence Manager Application	81
SANpilot Interface	84
Command Line Interface	86
Planning Considerations for Fibre Channel Topologies	87
Fibre Channel Topologies	87
Characteristics of Arbitrated Loop Operation	88
Shared Mode Versus Switched Mode	89
Public Versus Private Devices	92
Public Versus Private Loops	94
FL_Port Connectivity	96
Planning for Private Arbitrated Loop Connectivity	96
Planning for Fabric-Attached Loop Connectivity	97
Connecting FC-AL Devices to a Switched Fabric	97
Server Consolidation	98
Tape Device Consolidation	99
Fabric Topologies	100
Mesh Fabric	100
Core-to-Edge Fabric	102
SAN Islands	104
Planning for Multiswitch Fabric Support	104
Fabric Topology Limits	105
Factors to Consider When Implementing a Fabric Topology	106
General Fabric Design Considerations	115
Fabric Initialization	116
Fabric Performance	117
Fabric Availability	123
Fabric Scalability	125
Obtaining Professional Services	126
Mixed Fabric Design Considerations	126
FCP and FICON in a Single Fabric	127
Multiple Data Transmission Speeds in a Single Fabric	137
FICON Cascading	138
High-Integrity Fabrics	139
Minimum Requirements	140
FICON Cascading Best Practices	141
Implementing SAN Internetworking Solutions	145
SAN Island Consolidation	146
Flexible Partitioning Technology	148
SAN Routing	152
Implementing BC/DR Solutions	180
Extended-Distance Operational Modes	181
SAN Extension Transport Technologies	183
Distance Extension Through BB_Credit	193
Intelligent Port Speed	195
Distance Extension Best Practices	199
Consolidating and Integrating iSCSI Servers and Storage	202
iSCSI Protocol	203
iSCSI Server Consolidation	204
iSCSI Storage Consolidation	205
Physical Planning Considerations	207
Port Connectivity and Fiber-Optic Cabling	207
Port Requirements	208
SFP Optical Transceivers	209
Extended-Distance Ports	212
High-Availability Considerations	212
Fibre Channel Cables and Connectors	212
Routing Fiber-Optic Cables	214
Management Server, LAN, and Remote Access Support	215
Management Server	215
Remote User Workstations	217
SNMP Management Workstations	219
SANpilot Interface	220
Security Provisions	221
Password Protection	221
SANtegrity Authentication	222
SANtegrity Binding	225
PDCM Arrays	226
Preferred Path	229
Zoning	231
Server and Storage-Level Access Control	235
Security Best Practices	236
Optional Feature Keys	239
Inband Management Access	241
Flexport Technology	242
SANtegrity Authentication	243
SANtegrity Binding	243
OpenTrunking	243
Full Volatility	244
Full Fabric	245
Remote Fabric	245
CNT WAN Support	246
Element Manager Application	246
Configuration Planning Tasks	249
Task 1: Prepare a Site Plan	250
Task 2: Plan Fibre Channel Cable Routing	251
Task 3: Consider Interoperability with Fabric Elements and End Devices	252
Task 4: Plan Console Management Support	253
Task 5: Plan Ethernet Access	254
Task 6: Plan Network Addresses	255
Task 7: Plan SNMP Support (Optional)	258
Task 8: Plan E-Mail Notification (Optional)	259
Task 9: Establish Product and Server Security Measures	259
Task 10: Plan Phone Connections	260
Task 11: Diagram the Planned Configuration	261
Task 12: Assign Port Names and Nicknames	261
Task 13: Complete the Planning Worksheet	262
Task 14: Plan AC Power	276
Task 15: Plan a Multiswitch Fabric (Optional)	277
Task 16: Plan Zone Sets for Multiple Products (Optional)	278
Task 17: Plan SAN Routing (Optional)	279
Task 18: Complete Planning Checklists	282
Product Specifications	287
Director, Fabric Switch, and SAN Router Specifications	287
Dimensions	287
Power Requirements	289
Heat Dissipation	290
Clearances	290
Acoustical Noise and Physical Tolerances	292
Storage and Shipping Environment	292
Operating Environment	293
FC-512 Fabricenter Cabinet Specifications	293
Dimensions	293
Power Requirements	294
Clearances	294
Cabinet Footprint	294
Firmware Summary	297
System-Related Differences	297
Fibre Channel Protocol-Related Differences	299
Management-Related Differences	301

Match case Limit results 1 per page

Firmware Summary

B-3

Firmware Summary

Fibre Channel Protocol-Related Differences

Table B-5

summarizes Fibre Channel protocol-related differences

between the E/OS 7.0, E/OSn 6.0, and E/OSi 4.6 firmware versions.

Misaligned word

generation

Misaligned words not generated.

Misaligned word is generated

when the port state machine

(PSM) transitions from inactive

to active state or from active to

inactive state. This anomaly has

no effect on Fibre Channel

device behavior.

Misaligned words not generated.

Flexible partition

(FlexPar) feature

support

Flexpar feature not supported.

Up to four FlexPars supported

for each Intrepid 10000 Director

chassis.

Flexpar feature not supported.

Maintenance port

access

For directors, one 9-pin, RS-232

serial port shared between two

CTP cards. Port-attached device

communicates only with the

active card. For fabric switches,

one 9-pin, RS-232 serial port per

switch.

Each CTP card has an

independent 9-pin, RS-232 serial

port that provides access to

engineering-level interfaces.

Maintenance mode and

command line interface (CLI)

available through the active CTP

card port.

One 9-pin, RS-232 serial port

per SAN router.

Table B-4

E/OS versus E/OSn and E/OSi - System-Related Differences (Continued)

Feature

E/OS 7.0

E/OSn 6.0

E/OSi 4.6

Table B-5

E/OS versus E/OSn and E/OSi - Fibre Channel Protocol-Related Differences

Feature

E/OS 7.0

E/OSn 6.0

E/OSi 4.6

Node port (N_Port) ID

assignment

N_Port ID assigned based on

port number plus offset of four.

Device attached to port

obtains N_Port ID of

dd(nn+4)xx

, where

is the

switch domain ID and

hexadecimal 13.

N_Port ID assigned based on

port number. Device attached to

Port

obtains N_Port ID of

ddnnxx

, where

is the switch

domain ID and

hexadecimal 13.

N_Port ID assigned based on

port number. Device attached to

Port

obtains N_Port ID of

ddnnxx

, where

is the switch

domain ID (always 01) and

is hexadecimal 13.

Exchange switch

support (ESS)

sequence transmission

ESS not transmitted until fabric

shortest path first (FSPF)

algorithm obtains best hop to

target domain.

ESS transmitted at the moment

adjacency to the target domain is

detected (link at FSPF FULL

state). Therefore, ESS always

transmitted sooner for an

Intrepid 10000 Director.

ESS transmitted only in

response to an ESS received

from another fabric element.