This chapter introduces the key features of the switch and RTMs. This chapter includes a product definition, a list of product features, and functional block diagrams with brief descriptions. This chapter can be used to compare the features of the switch against the needs of a specific application.
This chapter contains the following topics:
2.1 Features
Part of Sun’s ATCA platform, the Sun Netra CP3240 switch complies with PICMG 3.0 R2.0 ECN002 and PCIMG 3.1 Option 1 and Option 9. The Sun Netra CP3240 switch implements two separate switched networks on a single PCB. By separating the Base and Fabric networks, the Sun Netra CP3240 switch provides a separate control plane and data plane. It provides 1Gigabyte Ethernet switching on the 3.0 Base Fabric, and the 3.1 Expansion Fabric provides 1Gigabyte/10Gigabyte Ethernet switching. Both of these networks are fully managed with the robust FASTPATH management suite. Both networks support Layer 2 switching as well as Layer 3 routing.
The Sun Netra CP3240 switch can host three AdvancedMC mid-size modules. A variety of different AMC types can be used, including AMC.1, AMC.2, and AMC.3. Netra CP3240 switch supports connectivity to three AMCs and to RTMs with multiple 10Gigabyte-Ethernet links.
The XCP3240H-RTM-CU-Z (copper) and XCP3240H-RTM-OP-Z (fiber optic) are Sun’s RTMs that are paired with the Sun Netra CP3240 switch.
The following sections briefly outline the features of the Sun Netra CP3240 switch.
2.1.1 General
- PICMG 3.0 AdvancedTCA form factor
- PICMG 3.0 R2.0 ECN002 compliant
- PICMG 3.0 compliant 10/100/1000Base-T Ethernet Base Fabric hub board
- PICMG 3.1 Option 1 (1000Base-BX) and Option 9 (10GBase-BX4) compliant Ethernet Expansion Fabric hub board
- Two separate subsystems providing two separate networks on a single PCB
- 14-slot shelf supported
- Manage both switches with a single serial port and Ethernet management port
- Low power < 100 watts under heavy load (without AMCs)
- Operates with or without an RTM
- Changeable RTM to support different technologies (for example, RJ-45 versus SFP, XFP versus CX4)
- AdvancedTCA and AdvancedMC IPMI support with Pigeon Point Systems BMR-H8S-AMCc Board Manager
- Dual-image IPMI firmware
2.1.2 Base Interface
- Broadcom BCM56503-based design
- Full gigabit non-blocking, wire-speed switching/routing
- Layer 2 switching
- Layer 3 routing
- 27 ports:
- 14 10/100/1000Base-T Ethernet ports for node slots
- 1 10/100/1000Base-T Ethernet port for redundant switch
- 2 10/100/1000Base-T Ethernet ports for front panel access
- 2 10/100/1000Base-T Ethernet ports for rear panel access (with RTM)
- 3 1000Base-BX Ethernet ports for AMC sites (AMC.2 Type E1 compliant)
- 1 10/100/1000Base-T Ethernet port primary shelf manager
- 1 10/100Base-TX Ethernet port for redundant shelf manager (cross-connect)
- 1 10GBase-BX4 Ethernet port to the redundant hub board via the Update Channel
- 2 10GBase-CX4 Ethernet ports for rear-panel access (with RTM)
- 400MHz Freescale MPC8247 control CPU
- 256MB PC100 SDRAM
- 64MB on-board flash
- Hardware redundant flash for guaranteed flash recovery
- 10/100BaseTX out-of-band management Ethernet port
- Front- and rear-access RJ-45 serial management port
- Full IPv6 support
- L2 and L3 Multicast support
2.1.3 Fabric Gigabit Interface
- Broadcom BCM56800-based design
- Full gigabit non-blocking, wire-speed switching/routing
- Layer 2 switching
- Layer 3 routing
- 20 total ports:
- 14 10GBase-BX4 Ethernet ports for node slots
- 1 10GBase-BX4 Ethernet port for redundant switch
- 1 10GBase-BX4 for AMC site (AMC.2 Type 5)
- 4 10GBase-CX4 for rear-panel access (with RTM)
- Auto-negotiation between 1GbE (1000Base-BX 3.1 Option 1) and 10GbE (10GbEBase-BX4 3.1 Option 9)
- 400MHz Freescale MPC8247 control CPU
- 256MB PC100 SDRAM
- 64MB on board flash
- Hardware redundant flash for guaranteed flash recovery
- 10/100BaseTX out-of-band RJ-45 management Ethernet port
- Front- and rear-access RJ-45 serial management port
- Full IPv6 support
- L2 and L3 multicast support
2.1.4 AMC Sites
- Site 1 1000Base-BX to 3.0 network (AMC port 0) is ethernet port 22
- Site 2 1000Base-BX to 3.0 network (AMC port 0) is ethernet port 23
- Site 2 10GBase-BX to 3.1 network (AMC port 8-11) is ethernet port 16
- Site 3 1000Base-BX to 3.0 network (AMC port 0) is ethernet port 24
Site 1: AMC.0 Mid-size, AMC.2 Type E1
- 1000Base-BX to 3.0 network (AMC port 0)
- AMC ports 4-7 connected to AMC site 2
- SAS/SATA ports routed between AMCs (AMC port 2-3)
Site 2: AMC.0 Mid-size, AMC.2 Type 5 and E1
- 10GBase-BX4 to 3.1 network (AMC port 8-11)
- 1000Base-BX to 3.0 network (AMC port 0)
- AMC ports 4-7 connected to AMC site 1
- SAS/SATA ports routed between AMCs (AMC port 2-3)
Site 3: AMC.0 Mid-size, AMC.2 Type E1
- 1 1000Base-BX to 3.0 network (AMC port 0)
- SAS/SATA ports routed between AMCs (AMC port 2-3)
- Update channel support for redundant master clock generators (AMC port 15)
- PCI-E Fabric clock support
2.2 Switch Components
The following sections list and describe key components of the Sun Netra CP3240 switch.
2.2.1 Broadcom StrataXGS 3 BCM56503 Ethernet Switch
The Sun Netra CP3240 switch uses Broadcom StrataXGS 3 BCM56503 for Base Ethernet switching/routing. This chip is an Ethernet switch with 24 1Gigabyte ports and 3 10Gigabyte ports. It provides non-blocking, wire-speed switching and routing on all ports under 100% load. The BCM56503 features many advanced features presented to the user via the FASTPATH software. See the Section 4.10, FASTPATH for more information.
2.2.2 Broadcom StrataXGS 3 BCM56800 Ethernet Switch
The Sun Netra CP3240 switch uses Broadcom StrataXGS 3 BCM56800 for Fabric Ethernet switching/routing. This chip is an Ethernet switch with 20 10Gigabyte ports. It provides non-blocking, wire-speed switching and routing on all ports under 100% load. The BCM56800 features many advanced features presented to the user via the FASTPATH software. See Section 4.10, FASTPATH for more information.
2.2.3 Broadcom BCM5464R and BCM5461S 10/100/1000Base-T Ethernet PHY
Quad and single ports respectively, the Broadcom PHYs provide the physical interfacing for 10/100/1000Base-T. They are low-power devices and provide features such as jumbo frames support, auto-MDIX, and cable testing.
2.2.4 Freescale PowerQUICC II MPC8247 Communications Processor
The Freescale MPC8247 is a microprocessor designed for maximum flexibility. It features a dual core architecture with a PPC G2 LE core and a RISC core controlling the peripherals. Running at 400MHz with only 1 watt of power, the MPC8247 provides high performance with incredibly low power consumption. Paired with the 256MB PC100 SDRAM and 64MB flash, the CPU subsystem of the Sun Netra CP3240 switch is more than enough to handle the switching application and future upgrades.
2.2.5 Pigeon Point BMR-H8S-AMCc AdvancedTCA IPMI Subsystem
The Sun Netra CP3240 switch uses the near-industry standard Pigeon Point Systems BMR-H8S-AMCc for dedicated IPMI management. It controls all interaction between the Sun Netra CP3240 switch and the shelf management controller. It fully supports the PICMG 3.0 R2.0 ECN002 and the AMC.0 R2.0 specifications. The BMC-H8S-AMCc provides all required management for the AMC modules, in addition to the voltage monitoring, temperature monitoring, e-Keying, and other services it provides for the Sun Netra CP3240 switch. Pigeon Point Systems is the leading provider of IPMI firmware for AdvancedTCA, and the firmware has been thoroughly tested to be fully compliant with the specification.
2.3 Protocols, RFCs, and MIBs Support
The Sun Netra CP3240 switch features Level7 FastPath 2340 switching software, version 4.4.4 and newer. This software provides layer 2 switching, quality of service, IPv4 routing, IPv6 routing, and IP multicast.
2.3.1 FASTPATH Switching
- IEEE 802.1ab--Link Level Discovery
- IEEE 802.1D--Spanning Tree
- IEEE 802.1p--Ethernet Priority with User Provisioning and Mapping
- IEEE 802.1Q--Virtual LANs with Port-based VLANs
- IEEE 802.1S--Multiple Spanning Tree
- IEEE 802.1v--Protocol-based VLANs
- IEEE 802.1W--Rapid Spanning Tree
- IEEE 802.1X--Port-based Authentication
- IEEE 802.3--10 Base-T
- IEEE 802.3ab--1000 Base-T
- IEEE 802.3ac--VLAN Tagging
- IEEE 802.3ad--Link Aggregation
- IEEE 802.3ae--10 Gigabyte
- IEEE 802.3u--100 Base-T
- GARP--Generic Attribute Registration Protocol: Clause 12, 802.1D-2004
- GMRP--Dynamic L2 Multicast Registration: Clause 10, 802.1D-2004
- GVRP--Dynamic VLAN Registration: Clause 11.2, 802.1Q-2003
- IEEE 802.3x--Flow Control
- draft-ietf-magma-snoop-10.txt--Considerations for IGMP and MLD Snooping Switches
2.3.1.1 Additional Layer 2 Functionality
- Broadcast/Multicast/Unknown Unicast storm recovery
- Double VLAN/vMAN tagging
- DHCP filtering
- Jumbo Ethernet frames
- Many-to-one port mirroring (Tx, Rx, both)
- Static MAC filtering
- MAC-based VLANs
- IP subnet-based VLANs
- Port description
- Protected ports
- Network and host DoS attack suppression
2.3.1.2 System Facilities
- Event and Error Logging Facility
- Run-time and configuration download capability
- PING utility
- XMODEM
- RFC 768--UDP
- RFC 783--TFTP
- RFC 791--IP
- RFC 792--ICMP
- RFC 793--TCP
- RFC 951--BootP
- RFC 1321--Message Digest Algorithm
- RFC 1534--Interoperation between BootP and DHCP
- RFC 2030--Simple Network Time Protocol (SNTP) V4 for IPv4, IPv6, and OSI
- RFC 2131--DHCP client/server
- RFC 2132--DHCP options and BootP vendor extensions
- RFC 2865--RADIUS client
- RFC 2866--RADIUS accounting
- RFC 2868--RADIUS attributes for Tunnel protocol support
- RFC 2869--RADIUS extensions
- rfc2869bis--RADIUS support for Extensible Authentication Protocol (EAP)
- RFC 3164--BSD Syslog protocol
- RFC 3396--Encoding long options in the Dynamic Host Configuration Protocol (DHCPv4)
- RFC 3580--802.1X RADIUS usage guidelines
2.3.1.3 Switching MIBs
- RFC 1213 -- MIB-II
- RFC 1493 -- Bridge MIB
- RFC 1643 -- Ethernet-like MIB
- RFC 2233 -- The Interfaces Group MIB using SMI v2
- RFC 2618 -- RADIUS authentication client MIB
- RFC 2620 -- RADIUS accounting MIB
- RFC 2674 -- VLAN MIB
- RFC 2737--Entity MIB version 2
- RFC 2819--RMON groups 1, 2, 3 and 9
- RFC 3291--Textual conventions for Internet Network Addresses
- RFC 3635--Definitions of managed objects for the Ethernet-like interface types
- IEEE 802.1X MIB (IEEE802.1-PAE-MIB)
- IEEE 802.3AD MIB (IEEE802.3-AD-MIB)
- FASTPATH Enterprise MIBs supporting switching features
2.3.1.4 Routing MIBs
- RFC 1724--RIP v2 MIB extension
- RFC 1850--OSPF MIB
- RFC 2096--IP forwarding table MIB
- RFC 2787--VRRP MIB
- RFC 2863--The Interfaces Group MIB
- FASTPATH Enterprise MIBs supporting routing features
2.3.2 FASTPATH Routing
- RFC 826--Ethernet ARP
- RFC 894--Transmission of IP Datagrams over Ethernet networks
- RFC 896--Congestion control in IP/TCP networks
- RFC 919--IP Broadcast
- RFC 922--IP Broadcast in the presence of subnets
- RFC 950--IP subnetting
- RFC 1027--Using ARP to implement Transparent Subnet Gateways (proxy ARP)
- RFC 1058--RIP v1
- RFC 1256--ICMP router discovery messages
- RFC 1321--Message Digest Algorithm
- RFC 1765--OSPF database overflow
- RFC 1812--Requirements for IP version 4 routers
- RFC 2082--RIP-2 MD5 authentication
- RFC 2131--DHCP relay
- RFC 2328--OSPFv2 (FASTPATH supports Broadcast interfaces.)
- RFC 2453--RIP v2
- RFC 3046--DHCP/BootP relay
- RFC 3101--OSPF “Not So Stubby Area” (NSSA) option
- RFC 3768--Virtual Router Redundancy Protocol
- Route redistribution across RIP and OSPF
- VLAN routing
- Weighted static routes
2.3.3 FASTPATH Quality of Service
2.3.3.1 DiffServ
- RFC 2474--Definition of the Differentiated Services field (DS field) in the IPv4 and IPv6 headers
- RFC 2475--Architecture for differentiated services
- RFC 2597--Assured Forwarding PHB Group
- RFC 3246--Expedited forwarding PHB (Per-Hop Behavior)
- RFC 3260--New terminology and clarifications for DiffServ
Optional policy attributes:
- Assign matching traffic flow to a specific queue
- Redirect or mirror (flow-based mirroring) matching traffic flow to a specific port
2.3.3.2 Access Control Lists (ACLs)
Permit/Deny actions for inbound or outbound IP traffic classification based on:
- Type of Service (TOS) or Differentiated Services (DS) DSCP field
- Source IP address
- Destination IP address
- TCP/UDP source port
- TCP/UDP destination port
- IP protocol number
Permit/Deny actions for inbound or outbound Layer 2 traffic classification based on:
- Source MAC address
- Destination MAC address
- Ethertype
- 802.1p user priority (outer and/or inner VLAN tag)
- VLAN identifier value or range (outer and/or inner VLAN tag)
Optional rule attributes:
- Assign matching traffic flow to a specific queue
- Redirect or mirror (flow-based mirroring) matching traffic flow to a specific port
- Generate trap log entries (ACL logging) containing rule hit counts
2.3.3.3 Class of Service (CoS)
Direct user configuration of the following:
- IP DSCP to traffic-class mapping
- Interface trust mode: 802.1p, IP DSCP, or untrusted
- Interface traffic-shaping rate
- Minimum and maximum bandwidth per queue
- Strict priority versus weighted (WRR/WFQ) scheduling per queue
- Tail drop versus weighted random early detection (WRED) queue depth management
2.3.3.4 Quality of Service MIBs
- RFC 3289--MIB for the Differentiated Services Architecture (read-only)
- Private MIBs for full configuration of DiffServ, ACL, and CoS functionality
2.3.4 FASTPATH Multicast
- RFC 1112--Host Extensions for IP multicasting
- RFC 2236--IGMPv2
- RFC 2362--PIM-SM
- RFC 2365--Administratively scoped boundaries
- RFC 3376--IGMPv3
- IP multicast traceroute
- Draft-ietf-pim-v2-dm-03--PIM-DM
- Draft-ietf-idmr-dvmrp-v3-10--DVMRP
- Static RP configuration
- Draft-holbrook-idmr-igmpv3-ssm-08.txt--IGMPv3/MLDv2 for SSM
- Draft ietf-magma-igmp-proxy-06.txt--IGMP/MLD-based multicast forwarding (IGMP/MLD Pproxying)
- Draft ietf-smm-arch-06.txt--Source specific multicast for IP
- Draft ietf-magma-igmpv3-and-routing-05.txt--IGMPv3 and Multicast Routing Protocol interaction
2.3.4.1 Multicast MIBs
- RFC 2932--IPv4 multicast routing MIB
- RFC 2933--IGMP MIB
- RFC 2934--PIM MIB for IPv4
- Draft-ietf-magma-mgmd-mib-03.txt--Multicast Group Membership Discovery MIB
- Draft-ietf-idmr-dvmrp-mib-11.txt--DVMRP MIB
- IANA-RTP-PROTO-MIB
- FASTPATH Enterprise MIBs supporting multicast features
2.3.5 FASTPATH IPv6 Routing
- RFC 1981--Path MTU for IPv6
- RFC 2373--IPv6 addressing
- RFC 2460--IPv6 protocol specification
- RFC 2461--Neighbor discovery
- RFC 2462--Stateless autoconfiguration
- RFC 2463--ICMPv6
- RFC 2464--IPv6 over Ethernet
- RFC 2711--IPv6 router alert
- RFC 2740--OSPFv3 (FASTPATH supports Broadcast and Point-to-Point interfaces.)
- RFC 2893--Transition mechanisms for IPv6 hosts and routers (6over4 configured)
- RFC 3315--DHCPv6 (stateless + relay)
- RFC 3484--Default address selection for IPv6
- RFC 3493--Basic Socket Interface for IPv6
- RFC 3513--Addressing architecture for IPv6
- RFC 3542--Advanced Sockets API for IPv6
- RFC 3587--IPv6 Global Unicast Address format
- RFC 3736--Stateless DHCPv6
- Dual IPv4/IPv6 TCP/IP stack
2.3.5.1 IPv6 Routing MIBs
- RFC 2465--IPv6 MIB
- RFC 2466--ICMPv6 MIB
- FASTPATH Enterprise MIBs supporting IPv6 features
2.3.6 FASTPATH Management
- RFC 854--Telnet
- RFC 855--Telnet option specifications
- RFC 1155--SMI v1
- RFC 1157--SNMP
- RFC 1212--Concise MIB definitions
- RFC 1867--HTML/2.0 forms with file upload extensions
- RFC 1901--Community based SNMP v2
- RFC 1908--Coexistence between SNMP v1 and SNMP v2
- RFC 2068--HTTP/1.1 protocol as updated by draft-ietf-http-v11-spec-rev-03
- RFC 2271--SNMP framework MIB
- RFC 2295--Transparent content negotiation
- RFC 2296--Remote variant selection; RSVA/1.0 state management cookies draft-ietf-http-state-mgmt-05
- RFC 2570--Introduction to SNMPv3
- RFC 2576--Coexistence between SNMP v1, v2 and v3
- RFC 2578--SMI v2
- RFC 2579--Textual conventions for SMI v2
- RFC 2580--Conformance statements for SMI v2
- RFC 3410--Introduction and applicability statements for Internet-Standard Management Framework
- RFC 3411--Architecture for describing SNMP management frameworks
- RFC 3412--Message processing and dispatching for SNMP
- RFC 3413--SNMP applications
- RFC 3414--User-based security model for SNMP v3
- RFC 3415--View-based access control model for SNMP
- RFC 3416--Version 2 of the protocol operations for SNMP
- RFC 3417--Transport mappings for SNMP
- RFC 3418--MIB for SNMP
- Configurable management VLAN
2.3.6.1 SSL 3.0 and TLS 1.0
- RFC 2246--TLS protocol, version 1.0
- RFC 2346--AES Ciphersuites for transport layer security
- RFC 2818--HTTP over TLS
2.3.6.2 SSH 1.5 and 2.0
- Draft-ietf-secsh-transport-16--SSH Transport Layer Protocol
- Draft-ietf-secsh-userauth-17--SSH Authentication Protocol
- Draft-ietf-secsh-connect-17--SSH Connection Protocol
- Draft-ietf-secsh-architecture-14--SSH protocol architecture
- Draft-ietf-secsh-publickeyfile-03--SECSH Public Key File format
- Draft-ietf-secsh-dh-group-exchange-04--Diffie-Hellman Group Exchange for the SSH Transport Layer Protocol
- HTML 4.0 Specification--December, 1997
- Java and Java Script 1.3
2.3.6.3 Additional Management Features
- Industry Standard CLI with the following features:
- Scripting capability
- Command completion
- Context sensitive help
- User password encryption
- Multi-session Telnet server
- TACACS+
- Dual firmware image support
2.4 Functional Diagrams and Port Maps2.4.1 Switch
FIGURE 2-1 Switch Functional Block Diagram
TABLE 2-1 Switch External Ports
Front Panel
|
Port Type
|
Fiber Optic AMC
|
Module
|
Logical Port
|
Comments
|
RJ-45 #1
|
Serial RS-232
|
RS-232
|
RJ-45
|
|
|
RJ-45 #2
|
Management
|
10/100 Base T
|
RJ-45
|
|
|
RJ-45 #3
|
Base 1GBE
|
10/100/1000Base T
|
RJ-45
|
Base - 18
|
Standard I/F is copper
|
RJ-45 #4
|
Base 1GBE
|
10/100/1000Base T
|
RJ-45
|
Base - 19
|
Standard I/F is copper
|
2.4.2 Rear Transition Modules (RTM)s
The Sun Netra CP3240 switch supports RTMs through ATCA Zone 3 connectors (see TABLE 2-2). The Sun Netra CP3240 switch was designed to support multiple RTM designs.
4 Fabric 10Gigabyte, 2 Base 10Gigabyte, 2 Base 1Gigabyte, AMC I/O, and management ports are run to the RTM. Several voltage rails are supplied, and all of the signals needed to design an ECN002 compliant RTM are present.
TABLE 2-2 Zone 3 RTM Ports
Base Ports 1G Infrastructure 10G Infrastructure
|
Base Port 20 1G SGMII None
|
Base Port 21 1G SGMII None
|
Base Port 26 None 10G XAUI
|
Base Port 27 None 10G XAUI
|
Fabirc Port 17 1G SGMII 10G XAUI
|
Fabirc Port 18 1G SGMII 10G XAUI
|
Fabirc Port 19 1G SGMII 10G XAUI
|
Fabirc Port 20 1G SGMII 10G XAUI
|
The Sun Netra CP3240 switch is paired with either a copper or fiber optic RTM. The following sections describe each RTM.
2.4.2.1 Copper RTM
The XCP3240H-RTM-CU-Z is the Sun Netra CP3240 switch’s copper RTM pairing. This RTM supports all the ports the Sun Netra CP3240 switch provides using 10GBase-CX4 for the 10Gigabyte and 10/100/1000Base-T for the 1Gigabyte ports.
FIGURE 2-2 Copper RTM Functional Block Diagram
TABLE 2-3 Copper RTM External Ports
Port Type
|
RTM
|
Module
|
Logical Port
|
Comments
|
Base 10GBE
|
XAUI
|
CX4
|
Base - 27
|
|
Base 10GBE
|
XAUI
|
CX4
|
Base - 26
|
|
Base 1GBE
|
10/100/1000Base T
|
RJ-45
|
Base - 20
|
Standard I/F is copper
|
Base 1GBE
|
10/100/1000Base T
|
RJ-45
|
Base - 21
|
Standard I/F is copper
|
Management
|
10/100 Base T
|
RJ-45
|
|
|
Serial RS-232
|
RS-232
|
RJ-45
|
|
|
Fabric 10GBE
|
XAUI
|
CX4
|
Fabric - 17
|
|
Fabric 10GBE
|
XAUI
|
CX4
|
Fabric - 18
|
|
Fabric 10GBE
|
XAUI
|
CX4
|
Fabric - 19
|
|
Fabric 10GBE
|
XAUI
|
CX4
|
Fabric - 20
|
|
TABLE 2-4 Copper RTM Port Restrictions
Port
|
1G Infrastructure
|
1G Port
|
10G Infrastructure
|
10G Port
|
Base Port 20
|
SERDES
|
1000Base-T RJ45
|
None
|
None
|
Base Port 21
|
SERDES
|
1000Base-T RJ45
|
None
|
None
|
Base Port 26
|
None
|
None
|
XAUI
|
10GBase-CX4
|
Base Port 27
|
None
|
None
|
XAUI
|
10GBase-CX4
|
Fabirc Port 17
|
None
|
None
|
XAUI
|
10GBase-CX4
|
Fabirc Port 18
|
None
|
None
|
XAUI
|
10GBase-CX4
|
Fabirc Port 19
|
None
|
None
|
XAUI
|
10GBase-CX4
|
Fabirc Port 19
|
None
|
None
|
XAUI
|
10GBase-CX4
|
Fabirc Port 20
|
None
|
None
|
XAUI
|
10GBase-CX4
|
2.4.2.2 Fiber Optic RTM
The XCP3240H-RTM-OP-Z is the Sun Netra CP3240 switch’s fiber optic RTM pairing. This RTM supports all the ports the Netra CP3240 switch provides using 10GBase-X for the 10Gigabyte and 1000Base-X for the 1Gigabyte ports.
FIGURE 2-3 Fiber Optic RTM Functional Block Diagram
TABLE 2-5 Fiber Optic External RTM Ports
Port Type
|
Fiber Optic RTM
|
Module
|
Logical Port
|
Comments
|
Management
|
10/100 Base T
|
RJ-45
|
|
Not a module, 10/100Base T
|
Base 10GBE
|
10GBase-X
|
SFP+
|
Base - 27
|
Cannot Support 1G Operation
|
Base 10GBE
|
10GBase-X
|
SFP+
|
Base - 26
|
Cannot Support 1G Operation
|
Base 1GBE
|
1000Base-X
|
SFP
|
Base - 20
|
Can Support 1G SFP Copper
|
Base 1GBE
|
1000Base-X
|
SFP
|
Base - 21
|
Can Support 1G SFP Copper
|
Serial RS-232
|
10GBase-X
|
SFP+
|
Fabric - 17
|
Can Support 1G SFP Copper
|
Fabric 10GBE
|
10GBase-X
|
SFP+
|
Fabric - 18
|
Can Support 1G SFP Copper
|
Fabric 10GBE
|
10GBase-X
|
SFP+
|
Fabric - 19
|
Can Support 1G SFP Copper
|
Fabric 10GBE
|
10GBase-X
|
SFP+
|
Fabric - 20
|
Can Support 1G SFP Copper
|
Serial RS-232
|
Serial RS232
|
RJ-45
|
|
Not a module, RS232 Serial
|
TABLE 2-6 Fiber Optic RTM Port Restrictions
Port
|
1G Infrastructure
|
1G Port
|
10G Infrastructure
|
10G Port
|
Base Port 20
|
SERDES
|
SFP LX SX
|
None
|
None
|
Base Port 21
|
SERDES
|
SFP LX SX
|
None
|
None
|
Base Port 26
|
None
|
None
|
XAUI
|
SFP+ LX SX LRM
|
Base Port 27
|
None
|
None
|
XAUI
|
SFP+ LX SX LRM
|
Fabric Port 17
|
SERDES
|
SFP LX SX
|
XAUI
|
SFP+ LX SX LRM
|
Fabric Port 18
|
SERDES
|
SFP LX SX
|
XAUI
|
SFP+ LX SX LRM
|
Fabric Port 19
|
SERDES
|
SFP LX SX
|
XAUI
|
SFP+ LX SX LRM
|
Fabric Port 20
|
SERDES
|
SFP LX SX
|
XAUI
|
SFP+ LX SX LRM
|
2.4.3 Base Fabric Switch Subsystem
FIGURE 2-4 Base Fabric Switch Subsystem
PICMG 3.0 AdvancedTCA defines 10/100/1000Base-T Ethernet over the Base Fabric, called “Base” in this guide. The Base is designed to be the control plane for the shelf. Scaling from 10Mbps to 1000Mbps, the Base interface can accommodate a wide variety of node boards. The Base interface on the Sun Netra CP3240 switch is based around three main components: the Broadcom BCM56503, the Broadcom BCM5464x, and the Freescale MPC8247.
2.4.4 Expansion Fabric Switch Subsystem
FIGURE 2-5 Expansion Fabric Switch Subsystem
PICMG 3.0 AdvancedTCA provides an agnostic mesh on the backplane called the Expansion Fabric. This interface is the data plane in the shelf. The Expansion Fabric is called “Fabric” in this guide. This fabric can be several different technologies defined by AdvancedTCA sub-specifications. The Sun Netra CP3240 switch is designed to comply with PICMG 3.1 Ethernet/Fibre Channel for AdvancedTCA Systems, options 1 and option 9. That means the Sun Netra CP3240 switch provides a single 1/10Gigabyte port to each node board.
The Fabric uses 10GBase-BX4 Ethernet to provide connectivity between boards though the backplane. The Fabric can scale down to 1Gigabyte and work with 1000Base-BX boards. The Fabric subsystem is based around two main components: the Broadcom BCM56800 and the Freescale MPC8247.
2.4.5 AdvancedMC Sites
PICMG AdvancedMC AMC.0 defines hot-swappable daughter cards to be used in PICMG architectures. The Sun Netra CP3240 switch supports three AMC sites so that the functionality of the Sun Netra CP3240 switch can be expanded. AMC.2 (Ethernet) AMCs are supported with direct connections to the Base and Fabric subsystems. Other types of AMCs, such as AMC.1 (PCI-Express) or AMC.3 (SAS/SATA), can be used as well. Nearly any type of AMC can be supported, because the Sun Netra CP3240 switch connects the AMCs sites directly together on certain ports.
2.4.5.1 AMC Port Maps
FIGURE 2-6 AMC Port Map Diagram
TABLE 2-7 AMC Ethernet Port Availability
Slot
|
Location
|
1G Infrastructure
|
10G Infrastructure
|
AMC 1
|
Top
|
1G Base SGMII
|
None
|
AMC 2
|
Middle
|
1G Base SGMII
|
XAUI from BCM56800 Fabric Port 16
|
AMC 3
|
Bottom
|
1G Base SGMII
|
None
|
TABLE 2-8 AMC Site 1: AMC.0 Mid-size, AMC.2 Type E1, AMC.2 Type 5 (Optional), LED Module Support
Port
|
Type
|
Connected
|
0
|
GB
|
Base (3.0) switch
|
1
|
Any
|
Not connected
|
2
|
Any
|
Port 3 of AMC #3, usually used for SAS/SATA
|
3
|
Any
|
Port 3 of AMC #2, usually used for SAS/SATA
|
4
|
Any
|
Ports 4-7 of AMC #2, usually used for PCIE
|
5
|
6
|
7
|
8
|
|
Not connected
|
9
|
10
|
11
|
12
|
|
Custom LED board support
|
13
|
|
Not connected
|
14
|
|
Not connected
|
15
|
|
Not connected
|
17
|
Any
|
RTM for future use
|
18
|
Any
|
RTM for future use
|
19
|
Any
|
RTM for future use
|
20
|
Any
|
RTM for future use
|
TCLK1
|
CLK IN
|
FPGA and Zarlink
|
TCLK2
|
CLK OUT
|
FPGA and Zarlink
|
TCLK3
|
CLK IN
|
FPGA and Zarlink
|
TCLK4
|
CLK OUT
|
FPGA and Zarlink
|
FCLK
|
100MHz
|
100MHz
|
TABLE 2-9 AMC Site #2 AMC.0 Mid-Size, AMC.2 Type E1, AMC.2 Type 5, Double module support, LED Module Support
Port
|
Type
|
Connected
|
0
|
GbE
|
Base (3.0) switch
|
1
|
Any
|
Port 1 of AMC #3, usually used for GbE
|
2
|
Any
|
Port 2 of AMC #3, usually used for SAS/SATA
|
3
|
Any
|
Port 3 of AMC #1, usually used for SAS/SATA
|
4
|
Any
|
Ports 4-7 of AMC #1, usually used for PCIE
|
5
|
6
|
7
|
8
|
10GbE
|
Fabric (3.1) switch.
|
9
|
10
|
11
|
12
|
|
custom LED board support
|
13
|
|
Not connected
|
14
|
|
Not connected
|
15
|
|
Not connected
|
17
|
Any
|
RTM for future use
|
18
|
Any
|
RTM for future use
|
19
|
Any
|
RTM for future use
|
20
|
Any
|
RTM for future use
|
TCLK1
|
CLK IN
|
FPGA & Zarlink
|
TCLK2
|
CLK OUT
|
FPGA & Zarlink
|
TCLK3
|
CLK IN
|
FPGA & Zarlink
|
TCLK4
|
CLK OUT
|
FPGA & Zarlink
|
FCLK
|
PCIE CLK
|
100MHz
|
TABLE 2-10 AMC Site 3: AMC.0 Mid-size, AMC.2 Type E1, Master Clock Generator Support, LED Support
Port
|
Type
|
Connected
|
0
|
GB
|
Base (3.0) switch
|
1
|
Any
|
Port 1 of AMC #2, usually used for GB
|
2
|
Any
|
Port 2 of AMC #2, usually used for SAS/SATA
|
3
|
Any
|
Port 2 of AMC #1, usually used for SAS/SATA
|
4
|
|
Not connected
|
5
|
|
Not connected
|
6
|
|
Not connected
|
7
|
|
Not connected
|
8
|
|
Not connected
|
9
|
|
Not connected
|
10
|
|
Not connected
|
11
|
|
Not connected
|
12
|
|
custom LED board support
|
13
|
|
Not connected
|
14
|
|
Not connected
|
15
|
Any
|
Update channel, usually used for clock sync
|
17
|
Any
|
RTM for future use
|
18
|
Any
|
RTM for future use
|
19
|
Any
|
RTM for future use
|
20
|
Any
|
RTM for future use
|
TCLK1
|
CLK IN
|
FPGA and Zarlink
|
TCLK2
|
CLK OUT
|
FPGA and Zarlink
|
TCLK3
|
CLK IN
|
FPGA and Zarlink
|
TCLK4
|
CLK OUT
|
FPGA and Zarlink
|
FCLK
|
100MHz
|
100MHz
|
2.4.5.2 AMC Module Support by Site
TABLE 2-11 AMC Modules by Site
AMC Module
Site 1 (top most when the board is vertical)
Site 2 (middle)
Site 3 (bottom most site when the board is vertical)
AMC10G-XFP
No*
Yes
No
AMC10G-CX4
No*
Yes
No
AMCLED001
Yes
Yes
Yes
PCI-Express AMC
Yes
Yes
No
1G Common Options Ethernet AMC
Yes
Yes
Yes
10G Fat Pipe Ethernet AMC
No*
Yes
No
|
2.4.5.3 AMC Port Restrictions for RTMs
The following tables list AMC port restrictions for RTMs
TABLE 2-12 AMC Port Restrictions for Copper RTMs
1G Infrastructure
|
1G Base Ports
|
10G Infrastructure
|
10G Fabric Ports
|
BCM5464R Copper PHY Port 22
|
10/100/1000 BaseT/RJ-45
|
XAUI Pass through
|
10G Fabric XAUI CX4
|
BCM5464R Copper PHY Port 23
|
10/100/1000 BaseT/RJ-45
|
None
|
None
|
BCM5464R Copper PHY Port 24
|
10/100/1000 BaseT/RJ-45
|
None
|
None
|
Front panel Base Port 18
|
J13 3rd
|
BCM5464R Copper PHY
|
|
Front panel Base Port 19
|
J13 Bottom
|
BCM5464R Copper PHY
|
|
TABLE 2-13 AMC Port Restrictions for Fiber Optic RTMs
1G Infrastructure
|
1G Base Ports
|
10G Infrastructure
|
10G Fabric Ports
|
SERDES
|
SFP - LX SX
|
|
SFP+ LRM
|
SERDES
|
SFP - LX SX
|
|
None
|
SERDES
|
SFP - LX SX
|
|
None
|
10/100/1000 BaseT/RJ-45
|
|
|
|
10/100/1000 BaseT/RJ-45
|
|
|
|
Sun Netra CP3240 Switch Installation Guide
|
820-3251-13
|
|
Copyright © 2009 Sun Microsystems, Inc. All rights reserved.