General Platform Enhancement

The CSP card updates, as listed below, are customer initiated by manually setting the DIP switch positions on the cards listed below.

Refer to the API changes, in the Converged Services Platform API Reference, for detailed information on the DIP switch settings in the Hardware Information field in the Card Status Report 0x00A6 message.

These feature enables the cards listed below to be able to force the Ethernet links to a 100 Mbps/full duplex mode instead of the default auto-negotiate mode. In certain cases, the auto-negotiation fails to achieve the highest possible rate when customers routers are in force full 100 configurations.

Important! If you use the Ethernet Link, Force100 Mbps/Full Duplex mode with a hub/switch/router that is not in a forced full 100 Mbps configuration, the results can vary and a link connection may not be possible.

To set the Ethernet Link, Force100 Mbps/Full Duplex mode on any of the above cards, refer to the DIP switch settings in the Converged Services Platform Hardware Product Descriptions.

This feature allows the cards listed below to enable the No Static IP Address mode instead of using the default Static IP mode.

In the No static IP Address mode, RARP or BOOTP must retrieve an IP address for the Matrix Controller Series 3 card or IP Signaling Series 3 card. This feature is enabled by setting DIP switch S1 (SW1/IP Signaling) position 8 on either card to OFF to enable the following functionality:

• If RARP or BOOTP can not obtain an IP address, the static IP address will not be used.

This allows the Matrix Controller Series 3 or IP Signaling Series 3 cards to reset and try RARP or BOOTP again to obtain the correct IP address, rather than use the static IP address that is stored in RAM.

When DIP switch S1 (SW1/IP Signaling) position 8 is set to ON (default) the following functionality is enabled:

• If RARP or BOOTP can not obtain an IP address, the static IP address will be used.

To set the No Static IP Address mode on any of the above cards, refer to the DIP switch settings later in this chapter.

This feature allows the card listed below to use the second Ethernet port if the first port (default) cannot obtain the software load.

If you want to include the second Ethernet port in obtaining an IP address, set DIP switch S1, position 7, to OFF prior to booting up. To use this feature, refer to the sequence of events described below:

• The Matrix Controller Series 3 card tries to retrieve an IP address from the I/O card default Ethernet port ETH1 to obtain the software load.

• If this attempt is unsuccessful, the Matrix Controller Series 3 card then tries to obtain the software load through Ethernet port ETH2.

• If still unsuccessful, the Matrix Controller Series 3 card uses the stored static IP address for ETH1 to obtain the software load.

Important! To enable the static IP address, ensure DIP switch S1, position 8 is set to ON.

To set the Software Loading Using the Second Ethernet mode on the above card, refer to the DIP switch settings later in this chapter.

Important! The cards listed below with model numbers require ROM upgrades to support the Ethernet Link, Force100 Mbps/Full Duplex mode

CSP Card	Model Number	ROM Revision Number
Matrix Controller Series 3 Card	CSP - BDL - 1310 CSP - BDL - 1314 CSP - BDL - 1331 EXS - CPU - 1301 EXS - CPU - 1351	03.04:02 03.04:02 03.04:02 03.04:02 03.04:02
IP Signaling Series 3 Card	MGC - SCS - 1002	03.04:02

On the CSP platform, the DSP Series 2 card functionality has been updated to support the IP Address Configure (0x00E7) message in order to enable Ethernet Link Redundancy.

Refer to the API and TLV information below, for changes in the Alarm (0x00B9) message. Also refer to the modified Ethernet Link Redundancy (0x09) and Active Ethernet Port (0x0A) TLVs.

To enable this feature, IP Address Configure message includes the following TLVs:

• Ethernet Link Redundancy (0x09) TLV to enable and disable Ethernet Link Redundancy

• Activate Ethernet Port (0x0A) TLV to select the active port with the values being 1 (NET1/upper port), 2 (NET2/middle port), or 3 (NET3/lower port).

While the DSP Series 2 card is in Ethernet Link Redundancy mode, all three external ports NET1, NET2 and NET3, located on the Multi-Function Media I/O card, can be used.

Important! By default, Ethernet Link Redundancy will be disabled to provide complete backwards compatibility.

• Enable/disable Ethernet port redundancy using the Ethernet Link Redundancy (0x09) TLV within the IP Address Configure (0x00E7) message.

• Force an Ethernet Link Switchover using the Activate Ethernet Port TLV (0x0A) within the IP Address Configure (0x00E7) message.

• Query the Ethernet Mode and Active Link via IP Address Query (0x00E6) message.

When a Link is detected as being down on the Active port, the DSP Series 2 card automatically detects the condition and switches over to an available Standby port without host intervention. The switchover response time is less than two seconds, so that NFS file read and write functions are not impacted.

• The DSP Series 2 card generates the following alarms when relating to the status of the ports. Refer to the Alarm (0x00B9) message, 0x02 Card Alarms. When resolved, these alarms are cleared by sending the Alarm Clear (0x00C1) message.

• An Ethernet Link Failure (Major, 0x22) alarm when the link is detected as being down on any of the three Ethernet ports.

• An Ethernet Link-Up (Informative, 0x39) alarm, when the link is detected as being up on any of the three Ethernet ports.

Important! The Ethernet Link-Up (0x39) alarm is not cleared, and is sent only when an Ethernet port link has been detected for the first time.

• An Ethernet Port Switchover (Informative, 0x4F) alarm is sent if the active Ethernet port configuration changes while in Redundant Port mode. This alarm can not be cleared.

The Ethernet mode and Active port configured via IP Address Configure (0x00E7) message is retained after a soft reset.

The protocol used in most local area PC networks. Typically, most Ethernet networks support data transmission speeds up to 10 Mbps, but 100 Mbps is also possible.

Internet Protocol. Part of the TCP/IP family of protocols used to route messages and tracks the addresses of nodes.

The point in the Excel platform where a DS0 connects to a network. Also known as a "socket."

An Internet Protocol enhanced service node that supports the deployment of voice and data services in circuit, packet, and converged networks. The Converged Services Platform (CSP) features an open and multi-functional platform design that enables developers to quickly create and deliver new revenue-generating services for both legacy and next-generation networks.

The Matrix Controller Series 3 card is based on Motorola’s 750 PowerPC processor (68750). It is often referred to as the Matrix Controller.

See Signaling System Number Seven.

See Integrated Services Digital Network.

Digital Signal Processor

A 32-bit address, used in IP routing, which includes a Network address identifier assigned by a central authority and a Host ID (an end station identifier assigned by a LAN administrator).

See Reverse Address Resolution Protocol.

Boot protocol for TCP/IP

Random Access Memory

Tag-Length-Value block. A standardized block that allows data to inserted in a standard way into API messages.

A computer, attached to the Excel platform through an RS-232 or Ethernet link, from which you run the telecommunications application that controls the Excel platform.

Network Protocol Data Intelligence. Also called “Interworking,” it is a software product that operates within Excel’s Call Control (Layer 4) and Services (Layer 5) call processing layers. NPDI is meant to enhance Excel’s call processing product offering by allowing call processing layers (specifically Layers 4 and 5) to perform advanced analysis, generation, and conversion of Network Signaling (NS) Layer 3 information.

See Information Control Block.

Outgoing call setup during real-time call processing on a specific channel.

See Programmable Protocol Language.

A condition that, when met, drives a state machine from one state to another. A condition that drives a Component out of its current state by invoking an associated primitive.