Do you have a question about the CPC324 and is the answer not in the manual?
Questions and answers
Summary of Contents for Performance CPC324
Page 1
Artisan Technology Group is your source for quality new and certified-used/pre-owned equipment. • FAST SHIPPING AND SERVICE CENTER REPAIRS WE BUY USED EQUIPMENT! DELIVERY Experienced engineers and technicians on staff Sell your excess, underutilized, and idle used equipment. at our full-service, in-house repair center We also offer credit for buy-backs and trade-ins! •...
Page 3
Errors and Omissions Although diligent efforts are made to supply accurate technical information to the user, occasionally errors and omissions occur in manuals of this type. Refer to the Performance Technologies, Inc. Web site to obtain manual revisions or current customer information: http://www.pt.com.
19” Break Out Box. Chapter 7, “References,” on page 115 lists standards and specifications pertinent to the CPC324 and provides links to datasheets for components used on the CPC324. Artisan Technology Group - Quality Instrumentation ... Guaranteed | (888) 88-SOURCE | www.artisantg.com...
Performance Technologies' complete position statements on the RoHS and WEEE Directives can be viewed on the Web at: http://pt.com/page/about-us/ehsms/. RoHS/Non-RoHS Versions This manual covers only the RoHS version of the CPC324. The following table lists the RoHS and Non-RoHS related part numbers. Item...
(Monday to Friday, 8 a.m. to 8 p.m. Eastern Standard Time) Eastern Standard Time) If you are located outside North America, we encourage you to contact the local Performance Technologies’ distributor or agent for support. Many of our distributors or agents maintain technical support staffs.
Performance Technologies within 12 months of shipment, or in the case of software and integrated circuits within ninety (90) days of shipment and provided said nonconforming products are returned F.O.B.
C h a p t e r Introduction Overview This chapter provides an introduction to the CPC324 24-Port T1/E1/J1 Edge Processor. It includes a product definition, Figure 2-1, “CPC324 Front Panel,” on page 19, a list of product features, Figure 2-2, “CPC324 Functional Block Diagram,” on page 21 and a description of each functional block.
Page 19
• Switch Line Carrier - 96 (SLC-96) A Zarlink MT90866 digital timeslot switch provides switching capacities of: • 4,096 x 2,432 channels between the H.110 backplane and the CPC324’s local streams • 2,432 x 2,432 channels among local streams •...
The 10/100/1G Ethernet is pinned on J4 with pin assignments defined the same as PTMC Configuration 5. See Chapter 5, “Connectors,” on page 79 for more information. Figure 2-1: CPC324 Front Panel PTMC Slot PTMC Slot 10/100/1G BASE-T Ethernet Management...
CPC324 Functional Blocks CPC324 Functional Blocks Figure 2-2, “CPC324 Functional Block Diagram,” presents the functional blocks of the CPC324. The topics following the figure provide an overview of each functional block found on the CPC324. Figure 2-2: CPC324 Functional Block Diagram •...
Chapter 6, “Rear Transition Module,” on page The CPC324 is a universal I/O blade, with no key on J1, accepting either 5V or 3.3V for the PCI I/O signals. Three on-board octal T1/E1/J1 LIU and framers receive and transmit framed, serialized T1/E1/ J1 bit streams, recover timing information, and demultiplex the T1/E1/J1 data directly to the DS0 level.
PTMC sites and the external CompactPCI 2.16 backplane connections. An option on the RTM allows the 2.16 connections to be routed out the RTM's face plate to allow connection to external connections. The CPC324 also supports an Ethernet management port on its front panel.
Chapter 2: Introduction Local CompactPCI Bus Devices The AMCC 440GX processor performs PCI configuration cycles to assign addresses to its devices. This is implemented by connecting the higher order PCI address/data bits to the IDSEL inputs of the devices. This is summarized in Table 2-1, “Local Bus Devices,”...
CPC324 Functional Blocks Table 2-2: AMCC 440GX Processor Interrupts (Continued) Interrupt Source Request IRQ10 BCM5388 IRQ11 Not used (pin shared with PCI Request) IRQ12 Not used (pin shared with PCI Grant) IRQ13 PMC INT A 1 IRQ14 PMC INT A 2...
Memory Components Boot Flash The CPC324 has one 8 MB boot flash device, an Intel StrataFlash 28F640J3-120. This part is 64 Mb, organized 8 M x 8, with 120 ns access time. Boot flash is supported on the peripheral bus only. The PCI bus boot option is not supported and expansion ROM is disabled on the PCI bus.
Figure 2-3: Ethernet Block Diagram The CPC324 uses an 8-port, gigabit Ethernet switch, implementing seven ports of IP connectivity between the processor, the two PTMC mezzanines, the two PICMG 2.16 link ports (or rear I/O) and the management port. The Broadcom BCM5388 is used for this function. The BCM5388 integrates the switch with four 10/100/1000 Mbps PHYs and four RGMII ports.
Normal SPI and fast SPI are supported. These two mechanisms should not be mixed in the implementation – the master should always initiate transfers consistently with only one of the two mechanisms. The EEPROM interface is not supported on the CPC324. Processor peripheral support by the SPI interface is outlined in “SPI Interface,”...
Page 30
PTMC Ethernet Ports Two PTMC configuration 2 mezzanine sites are provided on the CPC324. Each site provides support for MAC based RMII interfaces and 10/100/1000Base-T interfaces. The RMII interfaces are pinned on J3 per the PTMC Configuration 2 definition. The 10/100/1G Ethernet is pinned on the configuration 2 user defined J4 connector, with pin assignments defined the same as PTMC configuration 5.
Chapter 2: Introduction T1/E1/J1 Framers and LIU Three IDT 82P2288 octal transceivers provide framing and line interface functionality for 24- port connectivity on 24 T1, E1 or J1 telecom trunks. Each octal transceiver has the capability of providing any two of eight recovered clocks to the local reference (LREF) inputs of the Zarlink H.110 switch.
Page 32
CPC324 Functional Blocks Line Transmit Signal Path In the transmit path LIU data is encoded using AMI or B8ZS (for T1/J1) and HDB3 (for E1) line code rules. A transmit jitter attenuator is available to provided a FIFO in the transmit data path.
Page 33
Chapter 2: Introduction LOCAL TDM Connections On the local side of the TDM bus the IDT82P2288 is hardware configured to operate in the transmit/receive multiplexed mode. Two 128 TS input (MRSDA1_x and MRSDA2_x) and two 128 TS output (MTSDA1_x and MTSDA2_x) buses are used to transfer data between the Zarlink MT90866 TDM switch and the eight links of the IDT framer.
The IDT82P2288 itself supports two modes of parallel bus operation, Motorola or Intel. The CPC324 makes use of the Motorola mode of operation. Each framer has an interrupt output that is connected directly to the 440GX.
Page 35
Chapter 2: Introduction Table 2-5: H.110 DPLL Operating Specifications (Continued) Parameter Value Jitter Transfer Rate limited by Phase Slope Limiter to 4.6 ns/125 µs. Jitter Transfer Function Cutoff frequency 1.52 Hz with slope of 20 db/decade. Refer to the datasheet for the actual curves and the UI calculations.
CPC324 Functional Blocks The MT90866 has two interrupts that are associated with the detection of the primary or secondary reference loss. They are FAIL_PRI and FAIL_SEC. They are connected directly to the AMCC 440GX’s external interrupt inputs. CT Clock and Frame Monitor Circuits These monitor circuits check the period of the CTC8_A and the CTC8_B clocks and the CTFRMA# and CTFRMB# frame pulses.
Page 37
Chapter 2: Introduction When it is operating in CT bus master mode, the H.110 switch accepts two of several local clock references that may be recovered by the E1/T1/J1 framers, provided by the PTMC module or generated by an optional local precision oscillator. These are divided down to create an 8 KHz clock reference.
On the CPC324 the MT90866 switch connects to the IDT 82P2288 framers local side TDM bus, the mindspeed multichannel communications controllers TDM connections, and the CPLD TDM mux, which ultimately allow both PTMC slots to have a flexible TDM I/O connection.
Chapter 2: Introduction Processor Interface There is a parallel connection to the AMCC 440GX CPU. This connection is used for the configuration and control of the TDM switch. For information on how to use the registers in the H.110 TDM switch, refer to the Zarlink Semiconductor MT9866 WAN Access Switch Datasheet.
CPC324 Functional Blocks T1/E1/J1 Layer 2 Communications Controller The CPC324 utilizes three Mindspeed CN8478 8-port multichannel synchronous communications controllers (MUSYCC) that manage linked lists of channel data buffers in host memory by performing direct memory access (DMA) on HDLC channels. Each MUSYCCs chip formats and de-formats up to 256 HDLC channels.
Chapter 2: Introduction System Interconnection Figure 2-9, “MUSYCC Block Diagram,” illustrates how the three MUSYCCs are connected on the CPC324. Figure 2-9: MUSYCC Block Diagram Artisan Technology Group - Quality Instrumentation ... Guaranteed | (888) 88-SOURCE | www.artisantg.com...
CPC324 Functional Blocks Interrupts The MUSYCC provides an interrupt pin that must be programmed using the interrupts of the AMCC 440GX processor to use this function. The MUSYCC should be taken out of reset prior to setting the local enable (or clearing the local mask) of the interrupt.
Page 45
The IPMC includes support for storing and accessing multiple sets of non-volatile field replaceable unit (FRU) information for CPC324. The FRU data includes information such as serial number, part number, and model. IPMC FRU information can be made accessible via the IPMB and IPMC.
CPC324 Functional Blocks • Two identical master/slave I2C supporting a variety of bus speed modes • One I2C interface supports the IPMB backplane connection • One I2C interface supports the local resources and Local CPU communication connection. Bus is 3.3V, 7-bit addressing at 400 KHz clock rate.
Chapter 2: Introduction Power Distribution The power input block consists of the backplane power connections, voltage regulators for operating, I/O and core voltages and a 3.3 V power monitor. See Figure 2-11, “Power Distribution Block Diagram,” below. Figure 2-11: Power Distribution Block Diagram The primary power is sourced from the CompactPCI VSM pin on J1-A4.
CPC324 Functional Blocks Flash Memory The memory block consists of an AM 29LV800B-90 flash device from the Spansion line of Advanced Micro Devices (AMD). It has a 512Kx16 bit data configuration, which is also the maximum address capability of the Zircon’s external bus for an individual chip selection. The memory read mode access time is 90 ns maximum.
Page 49
Chapter 2: Introduction UL I2C Bus Operation The Zircon UL provides two I2C ports, each port having master and slave capability. A master- slave port contains a master engine and a slave engine where each engine contains one 8-byte deep physical FIFO used for sending (TX) and receiving (RX) bytes to and from the I2C bus. For the FIFO of each master and slave engine, hardware generates a set of FIFO status flags that are relevant when the FIFO is receiving data, and a separate set of status flags that are relevant when the FIFO is transmitting data.
Page 50
CPC324 Functional Blocks The I2C1 also has a unique feature that allows it to isolate itself from the parts of the entire local I2C bus. This is done primarily to enable the Zircon UL to operate and perform the PM function while the main part of the PCB is in a powered down or failed mode.
Chapter 2: Introduction Serial EEPROM The Serial EEPROM is located on the local I2C bus. It is a 1-megabit device that is used to store the custom Field Replacement Unit (FRU) data. It also be used to store blade-specific data and records as the need arises. The EEPROM is powered from the PM V3V bus. The EEPROM operates at the local bus rate of 400 KHz and offers the required 7-bit addressing mode.
Chapter 2: Introduction IPMI Custom Commands The Zircon UL PM supports the following IPMI commands that are issued by PM on the local I2C bus to the local CPU. Table 2-11, “Custom Command Structure,” outlines the custom command structure: Table 2-11: Custom Command Structure Command Name Comment OEM Commands (NetFN=0x30)
FRNT PNL EJECT Front Panel Eject Switch Interpreting Sensor Events Performance Technologies adopts the following philosophy with respect to threshold sensor event severity levels: • Non-critical — A warning that things are somewhat out of normal range, but not really a “problem”...
Page 55
This section describes the front panel LED indicators on the CPC324. Hot-Swap LED The blue hot-swap LED, when illuminated, indicates that the CPC324 can safely be hot swapped (electrically). The impact on system operation depends on the application software being run.
Page 56
CPC324 Functional Blocks Figure 2-4, “RJ45 Management Port and LED Location,” on page CPSB Link Ports A and B There is a separate ACT/LNK LED for the Link Ports A and B. The LEDs are PICMG 2.16 CPSB connected directly to the BCM5388 Ethernet Switch and illuminate green when an Ethernet link is established.
Page 58
15). Caution: To reduce the risk of damage to the CPC324, this equipment must be protected from electrostatic discharge (EMC) and physical shock. Never remove any of the socketed parts except in a static-free environment. Use the anti-static bag shipped with the product to handle the blade.
System Requirements Rear Access In a rear access configuration, the CPC324 is installed in the front of the card cage and an RTM324 is installed in the rear part of the card cage. For more information about the RTM, see Chapter 6, “Rear Transition Module,”...
FORCE POWER ON - This switch bypasses the CompactPCI hot- Disabled Enabled swap BDSEL# signal. It is used to force the CPC324 to power on regardless of backplane or chassis type. It should be normally disabled. • Enabled - Force blade to power on.
Switches PTMC Ethernet Ports Two PTMC Configuration 2 mezzanine sites are provided on the CPC324. Each site provides support for MAC based RMII interfaces and 10/100/1000Base-T interfaces. The interface is selected by user switch SW1 positions 4, 5, and 6, described in Table 3-2, “SW1 Settings,”...
Off = 1 On = 0 BUSMODE 4 signal to PTMC A slot. SW3-4 PMEN - CPC324 power management may be controlled by the Disable Enable CPC324's on board Intelligent Platform Management Controller (IPMC) or off board by an Intelligent Shelf Manager (ISM) located elsewhere in the same card rack.
Switches Table 3-6: SW4 Settings Switch Description Off (1) On (0) SW4-1 Off = 1 On = 0 PMC BUSMODE 2 signal to PTMC B slot (see Table 3-7 below). SW4-2 Off = 1 On = 0 PMC BUSMODE 3 signal to PTMC B slot (see Table 3-7 below).
Enabled generate HEALTHY# in non-standard systems. When enabled, HEALTHY# will be generated, but only if the if the CPC324’s hot- swap controller has established that blade power is good. • On = Generate override HEALTHY#. • Off = Generate normal HEALTHY#. Normal position.
Switches Power Control Switch Configurations The CPC324 offers the following types of power control on the blade: • Option override - blade powers up regardless of any other option settings • ISM power control • IPMC power control Option Override Setting switch SW1-2 to the ON position forces the blade to power up regardless of any other option settings.
Ordinary amounts of static electricity generated by your clothing or work environment can damage the electronic equipment. It is required that when installing the CPC324 in a system that anti-static grounding straps and anti-static mats are used to help prevent damage due to electrostatic discharge.
Page 68
3. Select an available 6U, 32-bit (or 64-bit) CompactPCI slot. 4. Cock the ejector handles into the open position and slide the CPC324 into the chassis. Make sure the front plate on the CPC324 blade mounts flush with the chassis panel opening by using the ejector/ injector handle to firmly seat the blade by locking the ejectors into the latched position.
Following is the installation procedure for the CPC324: 1. Configure the CPC324 as described in the following tables: • Table 3-2, “SW1 Settings,” on page 60 • Table 3-3, “PTMC A /B Ethernet Port Configuration Options,” on page 61 •...
Page 70
7. Reconnect any cables from peripheral devices. Blade Extraction Hot-Swap Extraction Following are instructions for extracting the CPC324: 1. Locate the blade to be removed. 2. Unscrew the front plate screws. 3. Open the ejector/injector handle just enough to unlock the handle but not enough to actually remove the blade.
Following are instructions on installing a PMC module: 1. This view of the CPC324 shows the front panel opening, the voltage key post and the PMC signal connectors. Remove the filler plate from the front panel of the CPC324.
Installing a PMC/PTMC/PPMC Module Figure 3-8: PMC Card Side View Figure 3-9: Side View PMC Card Installation Front Panel CPC324 PMC Card Key Post PMC Connectors 3. The plastic cover must be removed to apply the PMC card screws. Begin by removing the two plastic rivets that hold the plastic cover in place.
Figure 3-11: Side View of PMC Card Mounting Screws Front Panel PMC Card Connectors CPC324 Mounting Screws 6. Rotate the plastic cover back into proper position and reinstall the screws and plastic rivets. We suggest using fresh rivets rather than struggling with the deformed barrels of the used rivets. The rivet barrel must be positioned first, then using the handle of a large screwdriver apply pressure to the rivet center pin until it snaps into place.
Handle Keys The CPC324 is shipped with no handle keys installed. A bag of eight handle keys (Rittal 3684325) is provided with the CPC324. If it is desired to differentiate slot-specific, user-defined I/O functions, these keys can be installed by the user per PICMG 2.10 Keying of CompactPCI...
Page 77
Chapter 3: Getting Started Artisan Technology Group - Quality Instrumentation ... Guaranteed | (888) 88-SOURCE | www.artisantg.com...
Page 78
“Push-button Reset,” on page 78 Reset This section describes the initial state of the CPC324 after power-up reset or hardware reset, and describes the initialization of CPC324 peripherals and configuration registers required for application execution. In general, the contents of registers and other facilities within the 440GX core and external devices are configured to reset default states.
Page 79
Chapter 4: Reset Reset Operation All devices on the CPC324, with the exception of the IPMC management controller may be reset by depressing the momentary push-button reset switch, SW6 located behind the front panel faceplate. This switch is connected to the system reset input on the 440GX MPU. When the system reset signal is asserted the 440GX responds by performing a board-level system reset.
C h a p t e r Connectors Overview The CPC324 includes several connectors to interface with application-specific devices. A brief description of each connector is given in Table 5-1, “Connector Assignments,” below. A detailed description and pinout for each connector is given in the following topics.
An RS232 interface to the 440GX MPU and the Zircon UL IPMC management controller is provided by a 9-pin micro D connector, located on the CPC324 front panel. Use PTI console port cable part number PT-ACC324-11977 (included with the software connectivity kit). The factory default console port baud rate is 9600.
Front Panel Connectors 10/100/1G BASE-T Ethernet Management Port Port 6 of the Broadcom BCM5388 Ethernet switch can be accessed through J7, an RJ45 connector located on the CPC324 faceplate. See Figure 2-4, “RJ45 Management Port and LED Location,” on page 29.
The local PCI interface signals to the PTMC slots originate from the secondary PCI bus. A PCI bus controller is provided by a PLX PCI6254 dual PCI bridge. The CPC324 acts as the host processor and operates with PTMC mezzanine and PMC Processor cards configured as non- monarchs.
Table 5-5, “Connector PTMC Signal Support List,” outlines how the Processor PMC (PrPMC) signals are supported on the CPC324 PTMC J11/J21 and J12/J22 connectors for each PTMC slot. These signals are generally per the PCI local bus specification except where noted.
Page 87
RESETOUT# Open drain PrPMC output signal indicating that the PrPMC Pulled up by the CPC324 module is signaling the CPC324 to reset itself and read by a register location. 3.3V 3.3V power 5V power V3V(VI/O) PCI VIO hard wired to 3.3V...
These signals are generally per the PCI Telecom Mezzanine/Carrier Card Specification, PICMG 2.15 and its ECN. The major exception to the standard is that the CPC324 supports type 2 mapping on J13/J23 and the type 5 mapping on J14/J24. The type 2 mapping was chosen to support the existing RMII type interface between the PTMC and the baseboard.
Internal Connectors The CPC324 internal TDM operates at 8.192 MHz and each bus bit stream can carry 128 TDM timeslots. On the TDM switch there are seven input and seven output streams allocated for PTMC operation. This allows for 896 TDM inputs and 896 TDM outputs. These available streams can be divided between the two PTMC slots on a stream-by-stream basis.
Page 91
Figure 5-3, “PTMC Slot and Connector Locations,” on page Caution: The CPC324 contains a lithium battery. There is a danger of explosion if the battery is incorrectly replaced or handled. Do not disassemble or recharge the battery. Do not dispose of the battery in fire.
Chapter 5: Connectors CompactPCI J1/J2 The CompactPCI J1/J2 connectors are implemented as a standard 64-bit CompactPCI interface. Refer to the CompactPCI Specification PICMG 2.0 Revision 3.0 for the definition of the signals. The pinout is listed in Table 5-9, “CompactPCI J1 Pinouts,” Table 5-10, “CompactPCI J2 Pinout,”...
CompactPCI Connectors CompactPCI J4 The CompactPCI J4 connector carries the H.110 CT Bus, which is implemented according to the CompactPCI Computer Telephony Specification, PICMG 2.5 R1.0. Refer to the specification for signal details. Table 5-12, “CompactPCI J4 Pinout,” lists the J4 pinouts. Table 5-12: CompactPCI J4 Pinout Number SGA4...
Transition Module (RTM). The RTM provides transient voltage suppression, fuses, and isolation transformers to insure galvanic isolation from harmful electrical impulses that might occur on the trunk wires under fault cases. The CPC324 provides the first eight of 24 trunk connections.
Page 98
“Cabling Reference,” on page 111 • “19" Break Out Box (BOB),” on page 113 Feature Summary The CPC324 uses the 24-port RTM324 (PT-RTM324-11965) for I/O connectivity. See Figure 6-1, “RTM324 Front Panel,” on page 98 for connector locations on the RTM324. The RTM324 contains the following features: •...
Figure 6-4: Magnetics and Protection for T1/E1/J1 Ports In addition, two RJ45 connectors on the RTM faceplate provide 10/100/1G Ethernet connectivity. The magnetics for Ethernet reside on the CPC324 blade. An 8-bit RTM identifier code is determined by factory installed zero ohm resistors and a switch for Ethernet routing.
Chapter 6: Rear Transition Module Switches and Jumper 10/100/1G BASE-T Ethernet Interface Configuration The RTM324 has two Ethernet port connections that can be set to exit through a pair of RJ45 connectors mounted on the rear panel or through the RJ3 backplane connections. See Figure 6-5, “RTM Switch Flow Diagram,”...
Chapter 6: Rear Transition Module Switch Settings The following tables (Table 6-2 Table 6-3) show the switch settings for Port A options. Table 6-2: SW1 for Ethernet Port A Routing Switch Section CPSB 2.16 Backplane Connection External (Rear Exit) SW1-1 SW1-2 SW1-3 SW1-4...
Chapter 6: Rear Transition Module Connector Pinouts • “CompactPCI RJ3 Pinout,” on page 106 • “CompactPCI J5 Pinout,” on page 107 • “Ethernet J1 and J2 Pinout,” on page 108 • “RJ21 P1 and P2 Pinout,” on page 109 CompactPCI RJ3 Pinout The RJ3 accepts the PICMG 2.16 dual Ethernet bus and RTM ID bits.
T1/E1/J1 trunks and their pin assignments. The addition of the dark shaded cells are a trunk configuration for the CPC324, which allow J5 to carry all 24 trunks. The table cells not shaded are PICMG recommended pinouts to meet TNV1-SELV requirements.
Chapter 6: Rear Transition Module Ethernet J1 and J2 Pinout The RTM Ethernet port A and port A are wired as MDI. Table 6-9, “CompactPCI J5 Pinout,” Table 6-11, “J2 Ethernet Connector Pinout,” show the pinout for these connections. Figure 6-1, “RTM324 Front Panel,” on page 98 for connector location information.
Connector Pinouts RJ21 P1 and P2 Pinout Applicable to the 24-port RTM324, 50-pin female RJ21 connectors P1 and P2 permit attachment to a pair of T1/E1/J1 Hydra cables, each terminating in 12 RJ48C receptacles. P1 supports ports 1-12 and P2 supports ports 13-24. The P1 pinout is shown in Table 6-12, “RJ21 P1 Pinout,”...
Chapter 6: Rear Transition Module Table 6-13: RJ21 P2 Pinout Pin Number Signal Signal Pin Number Channel 13 TX1 Ring Channel 13 TX1 Tip Channel 13 RX1 Ring Channel 13 RX1 Tip Channel 14 TX1 Ring Channel 14 TX1 Tip Channel 14 RX1 Ring Channel 14 RX1 Tip Channel 15 TX1 Ring...
RTM324 to the two RJ21 connections on the BOB via two RJ21-to-RJ21 cables (ACC324- 11968). This permits the use of RJ48C jacks from the 24 ports of the CPC324. The BOB could also be used with the CPC308, if desired, utilizing the first eight ports only. The BOB is shown in Figure 6-9, “Front and Back View of 19"...
Page 116
C h a p t e r References Overview The following topics are covered in this chapter: • “Standards/Specifications,” on page 115 • “Additional Reference Documents,” on page 116 Standards/Specifications • ECTF H.110 Hardware Compatibility Specification: CT Bus revision 1.0 •...
Page 117
Chapter 7: References Additional Reference Documents Broadcom Components For more information about the following Broadcom components, refer to the Broadcom Web site: • Broadcom BCM5388 Single-chip 8-port Gigabit Switch Datasheet • Broadcom BCM5461s 10/100/1000 BASE-T Gigabit Ethernet Transceiver with SerDes •...
Page 118
Artisan Technology Group is your source for quality new and certified-used/pre-owned equipment. • FAST SHIPPING AND SERVICE CENTER REPAIRS WE BUY USED EQUIPMENT! DELIVERY Experienced engineers and technicians on staff Sell your excess, underutilized, and idle used equipment. at our full-service, in-house repair center We also offer credit for buy-backs and trade-ins! •...
Need help?
Do you have a question about the CPC324 and is the answer not in the manual?
Questions and answers