Intel IXF1104 User Manual

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Datasheet

The Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller (hereafter referred to as the IXF1104 MAC) supports IEEE 802.3* 10/100/1000 Mbps applications. The IXF1104 MAC supports a System Packet Interface Phase 3 (SPI3) system interface to a network processor or ASIC, and concurrently su pports copper and fiber physical layer devices (P HYs).

The copper PHY interface suppo rts the standard and reduced pin-count Gigabit Media Independent Interface (GMII and RGMII) for high-port-count applications. For fiber applications the integrated Serializ er/Deseriali zer (SerDes) on each port sup p o r ts direct connection to opt ical modules to reduce PCB area requirements and s ystem cost.

Product Features



Four Indepe ndent Ethernet MAC Ports for Copper or Fiber Physical layer connectivity.

—IEEE 802.3 compliant —Independent Enable/Disable of any port



Copper Mode:

—RGMII for 10/100/1000Mbps links —GMII for 1000 Mbps ful l-duplex links —IEEE 802.3 MDIO interface



Fiber Mode:

—Integrated SerDes interface for direct

connection to 1000BASE-X optical modules —IEEE 802.3 auto-negotiation or forced mode —Supports SFP MSA-compatible transceivers



SPI3 interface supports data transfers up to 4 Gbps in both mode s:

—32-bit Multi-PHY mode (133 MHz) —4 x 8-bit Single-PHY mode (125 MHz)



IEEE 802.3-compliant Flow Control

—Loss-less up to 9.6 KB packets and 5 km links —Jumbo frame suppor t for 9.6 KB packets



Internal per-channel FIFOs: 32 KB Rx, 10 KB Tx



Flexible 32/ 16/8-bit CPU interface



Programmable Packet handling

—Filter broad cast, multicast, unicast, VLAN

and erro red packets —Automatically pad undersized Tx packets —Remove CRC from Rx packets



Perform ance Monitoring and Diagnostics

— RMON Statistics —CRC calculation and error detec tion —Detection of length error, runt, or overly

larg e packets —Counters for dropped and errored packets —Loopback modes —JTAG boundary scan



.18 μ CMOS process technology

— 1 .8 V core, 2.5 V RGMII, GMII, OMI, and

3.3 V SPI3 and CPU



Operating Temperature Ranges:

—Copper Mode: -40°C to +85°C —Fiber Mode: 0°C to +70°C



Packag e O p tions:

—552-ball Ceramic BGA (st andard) —

552-ball Ceramic BGA —552-ball Plastic FC- B G A

(RoHS-compliant)

(contact your Intel

Sales Representative)

Applications



Load Balancing Systems



MultiService Switches



Web Caching Appliance s



Intelligent Backplane Interfaces



Edge Routers



Redundant Line Cards



Base Station Controllers and Transceivers



Serving GPRS Support Nodes (SGSN)



Gateway GPRS Support Nodes (GGSN)



Packet Data Serving Nodes (PDSN)



DSL Access Multiplexers (DSLAM)



Cable Modem Termination Systems (CMTS)

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

INFORMATION IN THIS DOCUMENT IS PROVIDED IN CONNECTION WITH INTEL ESTOPPEL OR OTHERWISE, TO ANY INTELLECTUAL PROPERTY RIGHTS IS GRANTED BY THIS DOCUMENT. EXCEPT AS PROVIDED IN INTEL'S TERMS AND CONDITIONS OF SALE FOR SUCH PRODUCTS, INTEL ASSUMES NO LIABILITY WHA TSOEVER, AND INTEL DISCLAIMS ANY EXPRESS OR IMPLIED WARRANTY, RELATING TO SALE AND/OR USE OF INTEL PRODUCTS INCLUDING LIABILITY OR WARRANTIES RELATING TO FITNESS FOR A PARTICULAR PURPOSE, MERCHANTABILITY, OR INFRINGEMENT OF ANY PATENT, COPYRIGHT OR OTHER INTELLECTUAL PROPERTY RIGHT. Intel products are not intended for use in medical, life saving, life sustaining, critical control or safety sy ste m s, o r in nuclear facility applications.

Intel may make changes to specifications and product descriptions at any time, without notice. Designers must not rely on the absence or characteristics of any features or instructions marked “reserved” or “undefined.” Intel reserves these for

future definition and shall have no responsibility whatsoever for conflicts or incompatibilities arising from future changes to them. The IXF1104 MAC Media Access Controller may contain design defects or errors known as errata which may cause the product to deviate from

published specifications. Current characterized errata are available on request. Contact your local Intel sales office or your distributor to obtain the latest specifications and before placing your product order. Copies of documents which have an ordering number and are referenced in this document, or other Intel literature may be obtained by calling

1-800-548-4725 or by visiting Intel's website at http://www.intel.com. Intel and the Intel logo are trademarks or registered trademarks of Intel Corporation or its subsidiaries in the United States and other countries. *Other names and brands may be claimed as the property of others. Copyright © 2005, Intel Corporation

PRODUCTS. NO LICENSE, EXPRESS OR IMPLIED, BY

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Document Number: 278757

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Contents

1.0 Introduction..................................................................................................................................20

1.1 What You Will Find in This Document ................................................................................20

1.2 Related Documents............................................................................................................20

2.0 General Description ....................................................................................................................21

3.0 Ball Assign ments and Ball List Tables......................................................................................23

3.1 Ball Assignments................................................................................................................23

3.2 Ball List Tables...................................................................................................................24

3.2.1 Balls Listed in Alphabetic Order by Signal Name ..................................................24

3.2.2 Balls Listed in Alphabetic Order by Ball Location ..................................................30

4.0 Bal l Assignm ents and Sign al Descrip tions ..............................................................................37

4.1 Naming Conventions ..........................................................................................................37

4.1.1 Signal Name Conventions .....................................................................................37

4.1.2 Regi ste r Ad d ress Conventions ............ ..................................................................37

4.2 Interface Signal Groups........................................... ............ ............ ......... ....... ............ .......38

4.3 Signal Description Tables............................................... ....... ................. ......... ............ .......39

4.4 Ball Usage Summary..........................................................................................................57

4.5 Multiplexed Ball Connections.............................................................................................. 58

4.5.1 GMII/RGMII/SerDes/OMI Multiplexed Ball Connections................................. .......58

4.5.2 SPI3 MPHY/SPHY Ball Connections.....................................................................59

4.6 Ball State During Reset ......................................................................................................61

4.7 Powe r Su p ply Se q uen cing.... ..............................................................................................63

4.7.1 Power-Up Sequence........................................................... .. ....... ....... ..... ....... .......63

4.7.2 Power-Down Sequence................................ .........................................................63

4.8 Pul l-Up/Pull-Down Ball Guide li n e s................................................................. .....................64

4.9 Analog Power Filtering........................................................................................................64

5.0 Function al Descriptions.............................................................................................................. 66

5.1 Me dia Access Controller (MAC) .........................................................................................66

5.1.1 Features for Fiber and Copper Mode ............................................................. .......67

5.1.1.1 Padding of Undersized Frames on Transmit .........................................67

5.1.1.2 Automatic CRC Generation ...................................................................67

5.1.1.3 Filtering of Rece ive Packets ..................... .............................................67

5.1.1.4 CRC Error Detection..............................................................................69

5.1.2 Flow Control.................................................................................... .......................69

5.1.2.1 802.3x Flo w Control (Full-Duplex Operation).........................................70

5.1.3 Mixed-Mode Operation..........................................................................................75

5.1.3.1 Configuration ..........................................................................................75

5.1.3.2 Key Configuration Registers..................................................................75

5.1.4 Fiber Mode.............................................................................................................76

5.1.4.1 Fiber Auto-Negotiation...........................................................................77

5.1.4.2 D eterm ining If Link Is Established in Auto-Negotiation Mode ................77

5.1.4.3 Fiber Forced Mode.................................................................................77

5.1.4.4 Determination of Link Establishment in Forced Mode ...........................77

5.1.5 Copper Mode................................................ .........................................................77

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Contents

5.1.5.1 Speed.....................................................................................................78

5.1.5.2 Duplex....................................................................................................78

5.1.5.3 C opper Auto -Negot iation ....................................................................... 78

5.1.6 Jumbo Packet Support ..........................................................................................78

5.1.6.1 Rx Statisti cs...........................................................................................79

5.1.6.2 TX Statistics...........................................................................................79

5.1.6.3 Loss-less Flo w Contro l.............................................................. .............79

5.1.7 Packet Buffer Dimensions........................... ..........................................................80

5.1.7.1 TX and RX FIF O Operation ...................................................................80

5.1.8 RMON Statis tics Support..... ..................................................................................80

5.1.8.1 Conventions...........................................................................................82

5.1.8.2 Advantages............................................................................................83

5.2 SPI3 In te rface.....................................................................................................................83

5.2.1 MPHY Operati o n ....................................................................................................84

5.2.1.1 SPI3 RX Round Robin Data Transmission ............................................84

5.2.2 MPHY Logical Tim i ng........ ....................................................................................84

5.2.2.1 Transmit Timi n g........ .............................................................................85

5.2.2.2 Receive Timing...................................................................................... 85

5.2.2.3 Clock Rates............................................................................................87

5.2.2.4 Parity......................................................................................................87

5.2.2.5 SPHY Mode........................................................................................... 87

5.2.2.6 S PHY Logical Tim ing.............................. ...............................................88

5.2.2.7 Transmit Timi n g (S PHY)............ ............................................................88

5.2.2.8 Receive Timing (SPHY).........................................................................88

5.2.2.9 SPI3 Flow Control..................................................................................91

5.2.3 Pre-Pending Function....................................................... ....... ....... ....... ............ ....93

5.3 Gigabit Media Independent Interface (GMII) ......................................................................93

5.3.1 GMII Signal Multiplexing........................................................................................94

5.3.2 GMII Interface Signal Definition......................................................................... ....94

5.4 Reduced Gigabit Media Independent Interface (RGMII) ....................................................96

5.4.1 Multiplexing of Data and Control.......................................................................... ..96

5.4.2 Timing Specifics.....................................................................................................97

5.4.3 TX_ER and RX_ER Coding...... .............................................................................97

5.4.3.1 In-Band Status ........ ...............................................................................99

5.4.4 10/100 Mbp s Functionality.....................................................................................99

5.5 MDIO Control and Interface........................................................ ........................................99

5.5.1 MDIO Address.....................................................................................................100

5.5.2 MDIO Register Descriptions................................................................................100

5.5.3 Clear When Done................................................................................................100

5.5.4 MDC Generation..................................................................................................100

5.5.4.1 MDC High-Frequency Operation ..................................................... ....100

5.5.4.2 MDC Low-Frequency Operation................ .............. ....... ................. ....100

5.5.5 Management Frames...........................................................................................101

5.5.6 Single MDI Command Operation .........................................................................101

5.5.7 MDI State Machine.......................... ....................................................................101

5.5.8 Autoscan Operation.............................................................................................103

5.6 SerDes Interface...............................................................................................................103

5.6.1 Features...............................................................................................................103

5.6.2 Functional Description.........................................................................................103

5.6.2.1 Transmitter Operational Overview.......................................................104

5.6.2.2 Transmitter Programmable Driver-Power Levels.................................104

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Contents

5.6.2.3 R ecei ve r Operational Overv iew .... .......................................................105

5.6.2.4 Selective Power-Down.........................................................................105

5.6.2.5 Receiver Jitter Tolerance.....................................................................105

5.6.2.6 Transmit Jitter ...................................................................................... 1 06

5.6.2.7 Receive Jitt e r.......................................................................................106

5.7 Optical Module Interface...................................................................................................107

5.7.1 Intel® IXF1104 MAC-Supported Optical Module Interface Signal s .....................1 07

5.7.2 Functional Descript i ons.......................................................................................108

5.7.2.1 High-Speed Serial Interface.................................................................108

5.7.2.2 Low-S peed Status Signaling Interface.................................................108

5.7.3 I²C Module Configuration Interface................................................................... ...110

5.7.3.1 I

5.7.3.2 I

5.7.3.3 I

C Control and Data Registers............................................................110

C Read Operation..............................................................................110

C Write Operation ..............................................................................111

5.7.3.4 I²C Protocol Specifics........... ................................................................112

5.7.3.5 Port Protocol Operation .......................................................................113

5.7.3.6 C lo ck and Data Transitions. .................................................................113

5.8 LED In te rface....................................................................................................................115

5.8.1 Modes of Operation.............................................................................................115

5.8.2 LED Interface Signal Description.......................................... ..... ....... .. .......... .. .....116

5.8.3 Mode 0: Detailed Operation.................................................................................1 16

5.8.4 Mode 1: Detailed Operation.................................................................................1 17

5.8.5 Power-On, Reset, Initia li za tion ............................................................................118

5.8.6 LED DATA Decodes............................ ................................................................118

5.8.6.1 LE D Si gnaling Beh av ior .......................................................................1 19

5.9 CPU Inte r face ...................................................................................................................120

5.9.1 Functional Descript i on.........................................................................................121

5.9.1.1 Read Access........................................................................................121

5.9.1.2 Write Access ........................................................................................121

5.9.1.3 CPU Timing Parameters......................................................................1 22

5.9.2 Endian ..................................................................................................................122

5.10 TAP Interfa c e (JTAG ).......................................................................................................123

5.10.1 TAP State Machine........... ...................................................................................123

5.10.2 Instruction Register and Supported Instructions..................................................124

5.10.3 ID Register...........................................................................................................125

5.10.4 B oundary Scan Register................................................................ ......................1 25

5.10.5 Bypass Register ...................................................................................................125

5.11 Loopbac k Modes ..............................................................................................................125

5.11.1 S PI3 Interface Loopbac k ..................................................................................... 125

5.11.2 Line S ide Interface Loopba ck .... ..........................................................................126

5.12 Clocks...............................................................................................................................127

5.12.1 System Interface Reference Clocks.....................................................................1 27

5.12.1.1 CLK125................................................................................................ 1 28

5.12.2 S PI3 Receive and Transm it Clocks .................................................................. ...128

5.12.3 RGMII Clocks.......................................................................................................1 28

5.12.4 MDC Clock.......... .................................................................................................128

5.12.5 JTAG Clock..........................................................................................................129

5.12.6 I

C Clock..................................... .........................................................................129

5.12.7 LED Clock...... ......................................................................................................129

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Contents

6.0 Applications...............................................................................................................................130

6.1 Change Port Mode Initialization Sequence.......................................................................130

6.2 Disable and Enable Port Sequences.. .............................................................................. 131

6.2.1 Disable Port Sequence..... ...................................................................................131

6.2.2 Enable Port Sequence.........................................................................................131

7.0 Electrical Specifications ...........................................................................................................132

7.1 DC Speci fi c a ti o n s.............................................................................................................133

7.1.1 Undershoot / Overshoot Specifications ...............................................................135

7.1.2 RGMII Elec tr i c a l Char a cte ristics........ ..................................................................135

7.2 SPI3 AC Ti mi ng Spe c i fications.........................................................................................137

7.2.1 Receive In te r face Timing.....................................................................................137

7.2.2 Transmit Interface Timing....................................................................................139

7.3 RGMII AC Ti mi ng Spe c i fication........................................................................................141

7.4 GMII AC Timi n g Spe cification......... ..................................................................................142

7.4.1 1000 Base-T Operation .......................................................................................142

7.4.1.1 1000 B A SE-T Tran smit Interface................... ......................................142

7.4.1.2 1000BASE-T Receive Interface...........................................................143

7.5 SerDes AC Timing Specification.......................................................................................144

7.6 MDIO AC Timing Specification.........................................................................................145

7.6.1 MDC High-Speed Operation Timing.................................................................... 145

7.6.2 MDC Low-Speed Operation Timing.....................................................................145

7.6.3 MDIO AC Timing..................................................................................................146

7.7 Optical Module and I

7.7.1 I

C Interface Timing.............................................................................................147

C AC Timing Specifi ca tion .............................................................147

7.8 CPU AC Timing Specification........................................................................................... 149

7.8.1 CPU Interface Read Cycle AC Timing.................................................................149

7.8.2 C PU Interface Write Cycle AC Timing.................................................................149

7.9 Transmit Pause Control AC Timing Specification.............................................................151

7.10 JTAG AC Timing Specifi ca tion ......... ................................................................................152

7.11 System AC Timing Specification.......................................................................................153

7.12 LED AC Timing Specification............................................................................................154

8.0 Register Set................................................................................................................................155

8.1 Docu ment Structure..........................................................................................................155

8.2 Graphical Representation................................................................................... .......... .. ..155

8.3 Per Port Registers............................................................................................................156

8.4 Register Map ....................................................................................................................156

8.4.1 MAC Control Registers........................................................................................163

8.4.2 MAC RX Statistics Register Overview.................................................................174

8.4.3 MAC TX Statistics Register Overview.................................................................178

8.4.4 PHY Autoscan Registers.....................................................................................181

8.4.5 Global Status and Configuration Register Overview ...........................................188

8.4.6 R X FIFO Register Overview................................................................................193

8.4.7 TX FIFO Register Over view.................................................................................203

8.4.8 MDIO Register Overview.....................................................................................211

8.4.9 SPI3 Register Overview.......................................................................................213

8.4.10 SerDes Register Overview..................................................................................220

8.4.11 Optical Module Register Overview ...................................................................... 222

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Contents

9.0 Mechanical Specifications........................................................................................................2 24

9.1 Overview...........................................................................................................................224

9.1.1 Features...............................................................................................................224

9.2 Package Specifics ............................................................................................................224

9.3 Package Information.........................................................................................................225

9.3.1 CBGA Package Diagrams ....................................................................... ....... .....225

9.3.2 Flip Chip-Plastic Bal l Gr id Arr a y Pa cka g e Diagra m...................................... .......227

9.3.3 Top Label Marking Example......... .......................................................................229

10.0 Product Ordering Informatio n .................................................................................................. 2 30

Figures

1 Block Diagram ............................................................................................................................21

2 Internal Architecture....................................................................................................................22

3 552-Ball CBGA Assignments (Top View) ...................................................................................23

4 Interface Signals . .......................................................................................................................38

5 Power Supply Sequencing.... ......................................................................................................63

6 Analog Power Supply Filter Network ..........................................................................................65

7 Packet Buffering FIFO................................................................................................................71

8 Ethernet Fram e Forma t..............................................................................................................71

9 PAUSE Frame Format................................................................................................................72

10 Transmit Pause Control Inter fa ce...............................................................................................74

11 MPHY Transmit Logical Timing............... .............................................................................. .....85

12 MPHY Receive Logical Timing....................................................................................... ............86

13 MPHY 32-Bit Interface................................................................................................................86

14 SPHY Transmit Logical Timing...................................................... ................... ................... .......88

15 SPHY Re ce ive Logical Timing....................................................................................................89

16 SPHY Connection for Two Intel

17 MAC GMII Interconnect............................................................. .................................................94

18 RGMII Interface..........................................................................................................................96

19 TX_CTL Behavior........................................... ............................................................................98

20 RX_ C TL Be h av ior...... .................................................................................................................98

21 Management Frame Structure (Single-Frame Format) ............................................................ 101

22 MDI State..................................................................................................................................1 02

23 Se r De s Receiver Jitter Tolerance........ ......................................................................... ............106

24 I

C Random Read Transaction .................................................................................. ...............1 11

25 Data Validity Timing..................................................................................................................1 13

26 Start and Stop Definition Timing...............................................................................................113

27 Ackn o w l e d ge Ti mi n g.. ...............................................................................................................114

28 Random Read...........................................................................................................................115

29 Mode 0 Timing..........................................................................................................................116

30 Mode 1 Timing..........................................................................................................................118

31 Read Timing Diagram - Asynchronous Interface....................................................... ...............121

32 W rite Timing Diagram - Asynchronous Interface......................................................................122

33 SPI3 Interface Loopback Path........................................................................................ ..........126

34 Line Side Interface Loopback Path.................................. ............ ............ ....... ......... ............ .....127

35 SPI3 Receive Interface Timing.................................................................................................137

36 SPI3 Transmit Interface Timing................................................................................................139

IXF1104 MAC Ports (8-Bit Interface).....................................90

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Contents

37 RGMII Interface Timing ............................................................................................................141

38 1000BASE-T Transmit Interface Timing...................................................................................142

39 1000BASE-T Receive In te r face Timing.............................. ......................................................143

40 SerDe s Ti mi n g Diag r a m............. ..............................................................................................144

41 MDC High-Speed Operation Timing................................... ..... .. ....... ..... ....... ..... ....... .. .......... .. ..145

42 MDC Low- Speed Ope ra tion Timing..........................................................................................145

43 MDIO Write Timing Diagram ........... .........................................................................................146

44 MDIO Rea d Timin g Diag r a m............................................................ ........................................146

45 Bus Tim in g Diag ra m.......... ....................................................................................................... 147

46 Write Cycle Diagram.................................................................................................................147

47 CPU Interface Read Cycle AC Timing......................................................................................149

48 CPU Interface Write Cycle AC Timing ......................................................................................149

49 Pause Control Interface Timing....... .........................................................................................151

50 JTAG AC Timing.......................................................................................................................152

51 System Reset AC Timing.........................................................................................................153

52 LED AC Inter fa ce Ti mi n g............ ..............................................................................................154

53 Memory Overview Diagram ......................................................................................................155

54 Regi ste r Overview Diagram.......... ............................................................................................156

55 CBGA Package Diagram.............. ....... ..... ....... ....... ..... ....... ....... ..... ....... ..... ....... .. ....... .......... .. ..225

56 CBGA Package Side View Diagram.........................................................................................226

57 FC-PBGA Package (Top and Bottom Views)...........................................................................227

58 FC-PBGA Mechanical Specific at i ons.......................................................................................228

59 Pack age Mar king Example....................................................................................................... 229

60 Orde r ing Information – Sample ....... .........................................................................................230

Tables

1 Ball List in Alphanumeric Order by Signal Name.......................................... ....... ....... ............ ....24

2 Ball List in Alphanume ric Order by Ball Location........................................................................30

3 SPI3 Interface Signal Descriptions.............................................................................................39

4 SerDes Interface Signal Descriptions......................................................................... .......... .. ....47

5 GMII Interface Signal Descriptions.............................................................................................48

6 RGMII Interface Signal Descriptions ..........................................................................................50

7 CPU Interface Signal Descriptions ............................................................... ..... ....... ....... ....... ....51

8 Transmit Pause Control Interface Signal Descriptions...............................................................53

9 Optical Module Interface Signal Descript ions. ............................................................................53

10 MDIO Interface Signal Descriptions ...........................................................................................54

11 LED Interface Signal Descriptions............ ....... ..... ....... ..... ....... .. ....... ..... ....... ..... ....... .. .......... .. ....55

12 JTAG Interface Signal Descriptions............................................................................................55

13 System Interface Signal Descriptions.................................................................. ....... .......... ......55

14 Power Su p ply Signal Descriptions..............................................................................................56

15 Ball Usage Summary..................................................................................................................57

16 Line Side Interface Multiplexed Balls ..........................................................................................58

17 SPI3 MPHY/SPHY Interface.......................................................................................................59

18 Definition of Output and Bi-directional Balls During Hardware Reset.........................................61

19 Power Supply Sequencing .................................................................... ....... ....... ....... ..... ....... ....64

20 Pull-Up/Pull-Down and Unused Ball Guid e li n e s........................................... ..............................64

21 Analog Power Balls ....................................................................................................................65

22 CRC Errored Packets Drop Enable Behavior.............................................................................69

23 Valid Decodes for TXPAUSEADD[2:0].......................................................................................74

24 Operational Mode Configuration Registers................................................................................76

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Contents

25 RMON Additional Statistics.........................................................................................................81

26 GMII Interface Signal Definitions................................................................................................95

27 RGMII Signal Definitions.............................................................................................................97

28 TX_ER and RX_ER Coding Description .. .................................................... ...............................97

29 SerDes Driver TX Power Levels...............................................................................................104

30 Intel

IXF1104 MAC-to-SFP Optical Module Interface Connections................................. .......107

31 LED Interface Signal Descriptions ............................................................................................116

32 Mode 0 Clock Cycle to Data Bit Relationship ...........................................................................117

33 Mode 1 Clock Cycle to Data Bit Relationship ...........................................................................118

34 LED_DATA# Decodes..............................................................................................................119

35 LED Behavior (Fiber Mode)......................................................................................................1 19

36 LED Behavior (Copper Mode) ..................................................................................................120

37 Byte Swapper Behavior...................... ......................................................................................123

38 Instruction Register Description................................................................................................124

39 Absolute Maximum Ratings......................................................................................................132

40 Recommended Operating Conditions.......................................................................................133

41 DC Specifications.....................................................................................................................134

42 SerDes Transmit Characteristics..............................................................................................134

43 SerDes Receive Characteristics...............................................................................................135

44 Undershoot / Overshoot Limits.................................................................................................135

45 RGMII Power............................................................................................................................136

46 SPI3 Receive Interface Signal Parameters .......................................... ....................................138

47 SPI3 Transmit Interface Signal Parameters ............................................................................. 1 40

48 RGMII Interface Timing Parameters.........................................................................................1 41

49 GMII 1000BASE-T Trans mit Signal Parameters......................................................................142

50 GMII 1000BASE-T Receive Signal Parameters .......................................................................1 43

51 SerDes Timing Parameters ......................................................................................................144

52 MDIO Timing Parameters.........................................................................................................146

53 I

C AC Timing Characteristics..................................................................................................147

54 CPU Interface Write Cycle AC Signal Parameters...................................................................150

55 Transmit Pause Control Inter fa ce Ti mi n g Para me ter s..............................................................151

56 JTAG AC Timing Parameters ...................................................................................................1 52

57 System Reset AC Timing Parameters......................................................................................153

58 LED Interface AC Timing Parameters...................................................................................... 1 54

59 MAC Control Registers ($ Port Index + Offset) ........................... ....... ..... .. ..... ....... .. ..... ..... .......156

60 MAC RX Statistics Registers ($ Port Index + Offset)................................................................ 1 57

61 MAC TX Statistics Registers ($ Port Index + Offset) ................................................................158

62 PHY Autoscan Registers ($ Port Index + Offset)......................................................................159

63 Global Status and Configuration Registers ($ 0x500 - 0X50C)................................................159

64 RX FIFO Registers ($ 0x580 - 0x5 BF)......................................................................................1 59

65 TX FIF O Registers ($ 0x600 - 0x63E)............... .......................................................................160

66 MDIO Registers ($ 0x680 - 0x683)............................................................ ....... ....... ..... ....... .....161

67 SPI3 Registers ($ 0x700 - 0 x716).............................................................................................161

68 SerDes Registers ($ 0x780 - 0x798) ........................................................................................162

69 Optical Module Registers ($ 0x799 - 0x79F) ......................................................... ....... ....... .....162

70 Station Address ($ Port_Index +0x00 – +0x01)........ ................................................................163

71 Desired Duplex ($ Port_Index + 0x02).....................................................................................163

72 FD FC Type ($ Port_Index + 0x03) ....... ...................................................................................163

73 Collision Distance ($ Port_Index + 0x05) .................................................................................1 64

74 Co ll ision Threshold ($ Port_Index + 0x06) ...............................................................................164

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75 FC TX Timer Value ($ Port_Index + 0x07) ...............................................................................164

76 FD FC Address ($ Port_Index + 0x08 – + 0x09)................................................... ...................164

77 IPG Receive Time 1 ($ Port_Index + 0x0A) ............................................................. ............ ....165

78 IPG Receive Time 2 ($ Port_Index + 0x0B) ............................................................. ............ ....165

79 IPG Tr ansm it Time ($ Port_Index + 0x0C)...............................................................................165

80 Pause Threshold ($ Port_Index + 0x0E) ..................................................................................166

81 Max Frame Size (Addr: Port_Index + 0x0F)................ ....... ....... ....... .......... ....... ....... ....... ....... ..166

82 MAC IF Mode and RGMII Speed ($ Port_Index + 0x10)........... ....... .......... ....... ....... ....... .........167

83 Flush TX ($ Port_Index + 0x11)............................................................................. ...................167

84 FC Enable ($ Port_Index + 0x12).............................................................................................168

85 FC Back Pressure Length ($ Port_Index + 0x13)..................................................................... 168

86 Short Runts Threshold ($ Port_Index + 0x14).......................................................................... 169

87 Discard Unknown Control Frame ($ Port_Index + 0x15)..........................................................169

88 RX Config Word ($ Port_Index + 0x16).... ....... ....... .......... .. ....... ....... .......... ....... .. ....... .......... ....169

89 TX Config Word ($ Port_Index + 0x17)....................................................................................170

90 Diverse Config Write ($ Port_Index + 0x18)......... ............ ....... ....... ....... ....... ....... ....... ............ ..171

91 RX Packet Filter Control ($ Port_Index + 0x19) ........................................... ....... ....... .......... ....172

92 Port Multicast Address ($ Port_Index +0x1A – +0x1B) ............................................................ 173

93 MAC RX Statistics ($ Port_Index + 0x20 – + 0x39)..................................................................174

94 MAC TX Statistics ($ Port_Index +0x40 – +0x58)......... ........................................................... 178

95 PHY Control ($ Port Index + 0x60)................................................................. ..........................181

96 PHY Status ($ Port Index + 0x61) ............................................................................................182

97 PHY Identification 1 ($ Port Index + 0x62) ...............................................................................183

98 PHY Identification 2 ($ Port Index + 0x63) ...............................................................................184

99 Auto-Negotiation Advertisement ($ Port Index + 0x64) ............................................................184

100 Auto-Negotiation Link Partner Base Page Ability ($ Port Index + 0x65)...................................185

101 Auto-Negotiation Expansion ($ Port Index + 0x66) . .................................................................186

102 Auto-Negotiation Next Page Transmit ($ Po rt Index + 0x67) ...................................................187

103 Port Enable ($0x500)................................................................................................................188

104 Inte r fa ce Mod e ($0 x5 0 1)..........................................................................................................188

105 Link LED Enable ($0x502) ..................................................................................... ...................189

106 MAC Soft Reset ($0x505).........................................................................................................189

107 MDIO Soft Reset ($ 0 x5 0 6)........... ............................................................................................190

108 CPU Interface ($0x508)................................. ....... ....... ....... ....... ....... .......... ....... ....... ....... .........190

109 LED Contro l ($ 0 x5 0 9)................................................ ...............................................................190

110 LED Flash Rate ( $ 0 x5 0A ).........................................................................................................191

111 LED Fault Disable ($0x50B).....................................................................................................191

112 JTAG ID ($0x50C).................................................................................................................... 192

113 RX FIFO High Watermark Port 0 ($0x580)............................................................ ...................193

114 RX FIFO High Watermark Port 1 ($0x581)............................................................ ...................193

115 RX FIFO High Watermark Port 2 ($0x582)............................................................ ...................193

116 RX FIFO High Watermark Port 3 ($0x583)............................................................ ...................194

117 RX FIFO Low Watermark Port 0 ($0x58A)............................................................................... 194

118 RX FIFO Low Watermark Port 1 ($0x58B)............................................................................... 194

119 RX FIFO Low Watermark Port 2 ($0x58C) ...............................................................................195

120 RX FIFO Low Watermark Port 3 ($0x58D) ...............................................................................195

121 RX FIFO Overflow Frame Drop Counter Ports 0 - 3 ($0x594 – 0x597)....................................195

122 RX FIFO Port Reset ($0x59E)..................................................................................................196

123 RX FIFO Errored Frame Drop Enable ($0x59F) .......................................................................196

124 RX FIFO Overflow Event ($0x5A0) ..........................................................................................197

10 Datasheet

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Contents

125 RX FIFO Errored Frame Drop Counter Ports 0 - 3 ($0x5A2 - 0x5A5)......................................198

126 RX FIFO SPI3 Loopback Enable for Ports 0 - 3 ($0x5B2)........................................................1 99

127 RX FIFO Padding and CRC Strip Enable ($0x5B3) ................................................ .......... .......200

128 RX FIFO Transfer Threshold Port 0 ($0x5B8)..........................................................................201

129 RX FIFO Transfer Threshold Port 1 ($0x5B9)..........................................................................201

130 RX FIFO Transfer Threshold Port 2 ($0x5BA)..........................................................................202

131 RX FIFO Transfer Threshold Port 3 ($0x5BB)..........................................................................202

132 TX FIFO High Watermark Ports 0 - 3 ($0x600 – 0x603)..........................................................203

133 TX FIFO Low Waterma rk Register Ports 0 - 3 ($0x60A – 0x60D)..................................... .......204

134 TX FIFO MAC Threshold Register Ports 0 - 3 ($0x614 – 0x617).............................................205

135 TX FIFO Overflow/Underfl ow/Out of Sequence Event ($0x61E)........ ......................................206

136 Loop RX Data to TX FIFO (Line-Side Loopback) Ports 0 - 3 ($0x6 1F) ................................... 207

137 TX FIFO Port Reset ($0x620)..................... .. ..... ....... ..... .. ....... ..... ....... ..... .. ....... ..... .. .......... .. .....207

138 TX FIFO Overflow Frame Drop Counter Ports 0 - 3 ($0x621 – 0x624)................... .......... .. .....208

139 TX FIFO Errored Frame Drop Counter Ports 0 - 3 ($0x625 – 0x629) ......................................209

140 TX FIFO Occupancy Counter for Ports 0 - 3 ($0x62D – 0x630)...............................................210

141 TX FIFO Port Drop Enable ($0x63D)....................................................... .. ....... ..... .. ..... ....... .....210

142 MDIO Single Command ($0x680).............................................................................................211

143 MDIO Single Read and Write Data ($0x681)............................................................................211

144 Autoscan PHY Address Enable ($0x682)................................................................................. 2 12

145 MDIO Control ($0x683)....... ......................................................................................................212

146 SPI3 Transmit and Global Configuration ($0x700)................... ................................................213

147 SPI3 Receive Configuration ($0x701)......................................................................................2 15

148 Address Parity Error Packet Dr op Counter ($0x70A).... ...........................................................219

149 TX Driver Power Level Ports 0 - 3 ($0x784).............................................................................220

150 TX and RX Power-Down ($0x787) ...........................................................................................220

151 RX Signal Detect Level Ports 0 - 3 ($ 0x793) ............................................... .............................220

152 Clock and Interface Mode Change Enable Ports 0 - 3 ($0x794)..............................................221

153 Optical Module Status Ports 0-3 ($0x799) . ...............................................................................222

154 Optical Module Control Ports 0 - 3 ($0x79A)............................... .. .......... .. ....... ....... ..... ....... .....222

155 I

C Control Ports 0 - 3 ($0x79B)............ .......................................................................... .........223

156 I

C Data Ports 0 - 3 ($0x79F)................................................................................................... 223

157 Product Information ...................................... ....... .......... ....... ....... ....... ....... ....... ....... .................2 30

Datasheet 11

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Contents

Revision History

Page # Description

71 Modified Figure 8 “Ethernet Fra m e Format” [changed Preamb le byte cou nt to 7 bytes].

136 Section 45, “RGMII Power” [cha ng ed V

Added bullet to

110

227 Replaced Figure 57 “FC-PBGA Package (Top and Bottom Views)” on page 227. 215 Modified Table 147 “SPI3 Receive Configuration ($0x701)”. 222 Modified Table154 “Optical Module Control Ports 0 - 3 ($0x79A)”: changed de fa ult values. 223 Modified Table 155 “I 249 Modified Table 208 “I2 C Data Ports 0 - 9 ($0x79F)” (changed address f rom $0x79C to $0x79F). 229 Added Section 9.3.3, “Top Label Marking Example”.

230

supports random single-byte reads and does not guarantee coherency when reading two-byte registers.

Modifed Table 157 “Product Information” and Figure 60 “Ordering Information – Sample” under

Section 10.0, “Product Ordering Information”.

Section 5.7.3, “I²C Module Configuration Interface”: The I2C inter face only

Revision Number: 009

Revision Date: 27-Oct-2005

to V

DD in IIH

C Control Ports 0 - 3 ($0x79B)”.

and IIL]

Revisio n Date: August 1, 2005 (Sh eet 1 of 2)

Page # Description

55 72 Modified Figure 9 “PAUSE Frame Format” [changed Preamble byte count to 7 bytes].

85 Modified Figure 11 “MPHY Transmit Logical Timing” [updated TDAT[31:0]]. 86 Modified Figure 12 “MPHY Receive Logical Timing” [updated RDAT[31:0]]. 88 Modified Figure 14 “SPHY Transmit Logical Timing” [updated TDAT[7:0]].

89 Modified Figure 15 “S PHY Receive Lo gical Timing” [updated R DAT[7:0] and RPRTY]. 121 125 Added paragraphs two and three unde r Section 5.11, “Loopback Modes”.

129 Changed 3.3 V CMOS to 2.5 V CMOS under Section 5.12.5, “JTAG Clock” on page 129. 131 Added Section 6.2, “ Disable and Enable Port Sequences”.

136

138

140

146

Added 552-ball Ceramic Ball Grid Array (CBGA) compl iant with RoHS an d Product Ordering Number information.

Modified Table 12 “JTAG In ter f ace S i gna l D esc rip t ions” : changed Standard to 3.3 V LVTTL from

2.5 V CMOS.

Modified Figure 31 “Read Timing Diagram - Asynchronous Interface”: changed uPx_ADD[12:0] to uPx_ADD[10:0].

Modified Table 45 “RGM II Power” [changed V changed V

Modified Table 46 “SPI3 Re ce iv e In ter f ac e Sig n a l Par a m eters” [changed RFCLK duty cycle to 45 min an d 55 ma x ; Changed Min for R FC L K fre q ue nc y to 90].

Modified Table 47 “SPI3 Transmit Interface Signal Parameters” [changed TFCLK duty cycle to 45 min an d 55 ma x].

Changed MDC to MDIO Output delay max for t3 for 2.5 MHz from 200 to 300 in Ta bl e5 2 “ MDI O

Timing Parameters” on page 146.

value to VDD + .3].

Revision Number: 008

, VOL, VIH, VIL minimum conditions t o V

and

12 Datasheet

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Contents

Revision Date: August 1, 2005 (Sheet 2 of 2)

Page # Description

170

181

182

183

184

185

186

187

211

213

215

222

227 229 Replaced Figure 59 “Package Marking Example”.

229 Added Section 9.4, “RoHS Compliance” on page 229. 230

Modified Table 89 “TX Config Word ($ Port_Index + 0x17)” [changed default value f or the register from “0x00 01A0” to “0x000001A0” and changed default value for bit 6 (Half Duplex) from 1 to 0].

Modified Table 95 “PHY Control ($ Port Index + 0x60)” [added “ Need one-sentence descr iptions of re gister” and register default value].

Modified Table 96 “PHY Status ($ Por t Index + 0x61)” [added “Nee d on e-se nt ence desc r ipt io ns of register” and register default value].

Modified Table 97 “PHY Identification 1 ($ Port Index + 0x62)” [added “Need one-sentence descr iptions of re gister” and register default value].

Modified Table 98 “PHY Identification 2 ($ Port Index + 0x63)” [added “Need one-sentence descr iptions of re gister” and register default value].

Modified Table 99 “Auto-Negotiat ion Advertisement ($ Port Index + 0x64)” [ added “Need on e- sentence descriptions of register” and register default value].

Modified Table 100 “Auto-Negotiation Link Partner Base Page Ability ($ Port Index + 0x65)” [added “Need one-sentence descriptions of register” and register default value].

Modified Table 101 “Auto-Negotiation Expansion ($ Port Index + 0x66)” [added “Need one- sentence descriptions of register” and register default value].

Modified Table 102 “ Aut o- Ne goti at i on Next Page T r ans mit ($ Por t Inde x + 0x6 7) ” [a dd ed “Need one-sentence descr iptions of re gister” and register default value].

Modified Table 143 “MDIO Single Read and Write Data ($0x681)” [changed MDIO write data to “MDIO write data to external device”].

Modified Tabl e 146 “SP I3 Transm it an d Gl ob al Co nfi gu r at io n ($0x700 )” [changed default value for bits 3:0 from “0” to “1” and changed default value for entire register from “0x0020000F” to “0x00200000”].

Modified Table 147 “SPI3 Receive Configuration ($0x701)” [changed default value for bits 11:8 from “0xF” to “0x1”].

Modified Table 154 “Optical Module Control Ports 0 - 3 ($0x79A)” [changed default value for bits 16:13 from “0xF” to “0x1”].

Added Figure 57 “FC-PBGA Package (Top and Bottom Views)” on page 227 and Figure 58

“FC-PBGA Mechanical Specifications” on page 228.

Added CBGA RoHS-compliant and FC-PBGA ordering information under Table 157 “Product

Information”.

Revision Number: 008

Datasheet 13

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Contents

Revision Number: 007

Revision Date: March 24, 2004

Page # Description

All Globally replaced GBIC with Optical Module Interface. All Globally edited signal names.

Globally changed SerDes and PLL analog power ball names as follows: TXAVTT and RXAVTT changed to AVDD1P8_2 TXAV25 and RXAV25 changed to AVDD2P5_2

All

PLL1_V DD A and PLL2_V DD A changed to AVDD1P8_1 PLL3_VDDA changed t o AVDD2P5_1 PLL1_GNDA, PLL2_GNDA, and PLL3_GNDA changed to GND

Reworded and rearranged the Product Features section on page one

Changed Jumbo frame support from “10 kbytes” to “9.6 KB”.

21 Changed heading to Section 2.0, “General Description” [was Section 2.0, “Block Diagram”].

23/37

Revers ed sections as follows: Section 3.0, “Ball Assignments and B all List Tables” Section 4.0, “Ball Assignments and Signal Descriptions”

Modif ied Table 1 “Ball List in Alphanumeric Order by Signal Name”: Changed A10 from VCC to VDD Changed C12 from VCC to VDD Changed D11 from VCC to VDD Changed J20 from GND to VDD

(Sheet 1 of 5)

Changed Ball A1 from NC to No Pad. Changed Balls A2, A3, A22, A23, A24, B1, B2, B23, B24, C1, C24, AB1, AB24, AC1, AC2, AC23, AC24, AD1, AD2, AD3, AD22, AD23, AD24 from NC to No Ball.

Modif ied Table 2 “Ball List in Alphanumeric Order by Ball Location ” Changed A10 from VCC to VDD Changed C12 form VCC to VDD Changed D11 from VCC to VDD Changed J20 from GND to VDD

Changed Ball A1 from NC to No Pad. Changed Balls A2, A3, A22, A23, A24, B1, B2, B23, B24, C1, C24, AB1, AB24, AC1, AC2, AC23, AC24, AD1, AD2, AD3, AD22, AD23, AD24 from NC to No Ball.

Updated Figure 4 “In terface Signals” [modified SPI3 interface signals and ad ded MPHY and SPHY

categories; modif ied signal names]. Broke old T able 1, “IXF1104 Signal Descriptions” into the following:

Table 3 “SPI3 Interface Signal Desc riptions” on page 39 through Table 14 “Power Supply Signal Descriptions” on page 56

Modif ied Table 3 “SPI3 Interface Signal Descripti ons” on page 39 [edited description for DTPA;

added text to TFCLK description; added text to RFCLK description]. Modified Table 6 “RGMII Interface Signal Descriptions” [Added Ball Designators; added notes

under descriptions]. 51 Modified Table 7 “CPU Interface Signal Descriptions” [UPX_DATA[16]: deleted J10, added M10]. 53 M odified Table 9 “Optical Module Interface Si gnal Descriptions” [added Ball Designators]. 54 Modified Table 10 “MDIO Interface Signal Descriptions” [moved note from MDC to MDIO].

Modif ied Table 14 “Power Supply Signal Descriptions” [ad ded Ball Designators A4, A21, and AD21

to GND; added AVDD1P8_1, AVDD1P8_2, AVDD2P5_1, and AVDD2P5_2].

14 Datasheet

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Contents

Revision Number: 007

Revision Date: March 24, 2004

Page # Description

Modified Section 4.3, “Signal Description Tables” [changed he ading from “Signal Naming

Conventions; added new headings Section 4.1.1, “Signal Name Conventions” and Section 4.1.2, “Register Address Conventions”; and added/enhanced material under headings.

Added new Section 4.5, “Multiplexed Ball Connections” with Table16 “Line Side I nterface

Multiplexed Balls” and Table 17 “SPI3 MPH Y/SPHY Interface”. Modifie d S e ctio n 4 .7 , “ Pow er S u pply Se qu en cing ” [c ha nged la ng ua ge unde r thi s se ct io n and a dde d

Section 4.7.1, “Power-Up Sequence” and Section 4.7.2, “Power-Down Sequence”]. Modified Table 5 “Power Supply Sequen cing” [deleted 3.3 V Supplies Stable ; changed Apply 1.8 V

to VDD, AVDD1P8_1, and AVDD1P8_2; changed Apply 2.5 V to AVDD2P5_1 and AVDD2P5_2]. Modified Table 18 “Definition of Out put and Bi-directional Balls During Hardw are Reset” [changed

comments for Optical Modules]. Modif ied Tab le2 0 “Pu ll -Up/ P ul l-D ow n a nd U nu se d Ba ll Gui d el in es” [c ha ng ed TR ST _L to p ul l- dow n ;

added MDIO, UPX_RDY_L, I Added new Section 4.9, “Analog Pow er Filtering” [including Figure 6 “Analog Power Supply Filter

Network” on page 65 a nd Table 21 “Analog Power Balls” on page 65]. Modified/edited text under Section 5.1, “Media A c cess Controller (MAC)” [rearranged and cre ated

new bullets]. 67 Mo dified first paragraph under Section 5.1.1.1, “Padding of Unders ized Frames on Transmit”. 67 Mo dified entire Section 5.1.1.3, “Filte ring of Receive Packets”. 68 Added new Section 5.1.1.3.6, “Filter CRC Error Packets”. 69 Added note under Table 22 “CRC Errored Packets Drop Enable Behavior”.

Added new Section 5.1.2, “Flow Control” including Figure 7 “Packet Buffering FIFO”, Figure 8

“Ethernet Frame Format”, and Figure 9 “PAUSE Frame Format”.

Replace d Sec ti on 5.1. 2. 1.5 , “Transmit Pause Cont rol In ter f ace” [a dded Table2 3 “Valid Deco de s for

TXPAUSEADD [ 2:0 ] ” an d mo dified Table 10 “Transmi t P au se Co ntrol Interf ac e” . 74 Modified Figure 10 “Transmit Pause Control Interface” 75 Added note under Section 5.1.3.1, “Configuration”. 76 Added table note to Table 24 “Oper a tio na l Mo de Conf i gu ration Regi s ters ” . 77 Added note under Section 5.1.4.3, “Fiber Forced Mode”. 79 Mo dified Section 5.1.6.2, “TX Statistics” [added text to third sen tence in first paragraph].

Modified Section 5.1.6.3, “Loss-less Flow Contr ol” [changed “two kilometers” to “five kilometers” in

last sentence. 80 Mo dified Section 5.1.7.1.2, “RX FIFO” [changed 10 KB to 9.6 KB; added text to la st paragraph]. 83 Rewrote/replaced Section 5.2, “SPI3 Interface”. 86 Edited signal names in Figure 13 “ M PHY 32-Bit Interface”.

Edited signal names in Figure 16 “SPHY Connection for Two Intel

Interface)”.

Added new Section 5.2.2.9, “SPI 3 Flow Control ”.

[Removed old “Packet-Level and Byte-Level Transfers” section.} 94 Mo dified Figure 17 “MAC GMII Interconnect” [edited signal names].

Removed old Section 5.3.3 Electrical Requirements and Table 27 “Electrical Requirements” –

changed Input high current Max from 40 to 15 and Input low curren t Min from -600 to -15. 96 Added a note under Section 5.4, “Reduced Gi gabit Media Independent Interface (RGMII)”. 96 Mo dified Figure 18 “RGMII Inte rface” [edited signal names].

(Sheet 2 of 5)

C_DATA_ 3:0, and TX_DISABLE_3:0].

IXF1104 MAC Ports (8-Bit

Datasheet 15

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Contents

Revision Number: 007

Revision Date: March 24, 2004

(Sheet 3 of 5)

Page # Description

98 M odified Figure 19 “TX_CTL Behavior” [chan ged signal names]. 98 Modified Figure 20 “RX_CTL Behavior” [changed signal names].

Modified Section 5.5, “MDIO Control and Interface” [changed 3.3 us to 3.3 ms in fourth paragraph,

third se nt en ce].

103

Modif ied/replaced all text under Section 5.6, “SerDes In terface” on page 103 [added Table29

“SerDes Driver TX Power Levels”]. NA Removed old Section 5.6.2.4 AC/DC Coupling. NA Remo ved old Section 5.6.2.9 System Jitter.

107

Modified Table 30 “Intel

signal names].

Modified/replaced text and deleted old “Figure 19. Typical GBIC Module Functional Diagram” under

Section 5.7, “Optical Module Interface”].

IXF1104 MAC-to-SFP Optical Module Interface Connections” [edited

108 Modifie d se c on d se nt e nc e unde r S e c tio n 5. 7. 2 .2 . 1, “MO D _DEF_0:3”. 109 Modifie d se c on d se nt e nc e unde r S e c tio n 5. 7. 2 .2 . 3, “RX_ LO S _ 0 :3” . 109 Removed third paragraph under Se ction 5.7.2. 2.7, “RX_LOS_INT”. 110 Modified first and seco nd par ag r a ph s un de r Section 5.7.3, “I²C Module Co nfiguratio n I nt er f ac e”.

111 Modified Section 5.7.3.3, “I 116

119

Modified Table 31 “LED Interface Signal Descriptions” [changed 0.5 MHz to 720 Hz for LED_CLK

under Signal Description].

Modified Table 35 “LED Behavior (Fiber Mode)” [changed links under Description to “Link LED

Enable ($0x502)”].

C Write Operation” [edited portions of text].

NA Removed old Figure 30 “CPU – External and Internal Connections”.

123 Modified Table 37 “Byte Swapper Behavior” [edited/added new values]. 123 Modified second paragraph under Section 5.10, “TAP Int erface (JTAG)” 126 Modified Figure 33 “SPI3 Interface Loopback Pat h”. 126 Added note under Section 5.11.2, “Line Side Interface Loopback”. 127 Modified Figure 34 “Line Side Interface Loopback Path”. 127 Changed Section 5.12, “Clocks” [from GBIC output clock to I

129 Changed Section 5.12.6, “I

C Clock” [from GBIC Clock to I2C Clock].

C Clock].

130 Added new Section 6.0, “Applications”.

Modified Table 39 “Absolute Maximum Ratings” [changed SerDes analog power to AVDD1P8_2

132

and AVDD2P5_2; changed “PLL1_VDDA and PLL2_VDDA to AVDD1P8_1; changed PLL3_VDDA

to AVDD2P5_1.

Modif ied Table 40 “Recommended Oper ating Conditions” [changed SerDes analog power to

133

AVDD1P8_2 and AVDD2P5_2; changed “ PLL1_VDDA and PLL2_VDDA to AVDD1P8_ 1; changed

PLL3_VDDA to AVDD2P5_1.

134

142

143

146

Modif ied Table 42 “SerDes Transmit Characteristics” [included SerDes power driver level

information].

Modified Table 49 “ G MII 1000BASE-T Transmit Signal Parameters” (changed Min values f or t1 and

t2.

Modified Table 50 “GMII 1000BASE-T Receive Signal Parameters” (changed Min values for t1 and

t2.

Replaced old MDIO Timing diagram and table with Figure 43 “MD IO Write Timing Dia gram”, Figur e

44 “MDIO Read Timing Diagram”, and Table 52 “MDIO Timing Parameters”.

16 Datasheet

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Revision Number: 009

Revision Date: 27-Oct-2005

Revision Number: 007

Revision Date: March 24, 2004

Page # Description

Broke up the old Register Map into Table59 “MAC Control Registers ($ Port Index + Offset)”, Table 60 “MAC RX Statistics Regist ers ($ Port Index + Offset)”, Table 61 “MAC TX Statistics

156

159 Edited Table 63 “Global Status and Configuration Registers ($ 0x500 - 0X50C)” [no offset]. 159 Edited Table64 “RX FIFO Registers ($ 0x580 - 0x5BF)” [no offset]. 160 Edited Table 65 “TX FIFO Registers ($ 0x600 - 0x63E)” [no offset]. 161 Edited Table66 “MDIO Registers ($ 0x680 - 0x683)” [no offset]. 161 Edited Table 67 “SPI3 Registers ($ 0x700 - 0x716)” [no offset]. 162 Edited Table68 “SerDes Registers ($ 0x78 0 - 0x798)” [no of fset]. 162 Edited Table 69 “Optical Module Registers ($ 0x799 - 0x79F)” [no offset].

163

167 168 Modified Table 84 “FC Enable ($ Port_Index + 0x12)” [changed description for bits 1:0]. 169

170

171

172

174

178

193

195

196

198

199

201

Registers ($ Port Index + Offset)”, Table 62 “PHY Autoscan Registers ($ Port Index + Offset)”, Table 63 “Global Status and Configuration Registers ($ 0x500 - 0X50C)”, Table64 “RX FIFO Registers ($ 0x580 - 0x5BF)”, Table 65 “TX FIFO Registe rs ($ 0x600 - 0x63E)”, Table 66 “MDIO Registers ($ 0x680 - 0x683)”, Table 67 “SPI3 Register s ($ 0x700 - 0x716 )”, Table 68 “SerDes Registers ($ 0x780 - 0x798)”, and Table 69 “Optical Module Registers ($ 0x799 - 0x79F)”.

Modified Table 71 “Desir ed Duplex ($ Por t_Index + 0x02) ” [changed 100 Mbps to 1000 Mb ps in register description.

Modified Table 82 “MAC IF Mode and RGMII Speed ($ Port_Index + 0x10)” [Added text to register description.]

Modified Table 88 “RX Config Word ($ Port_Index + 0x16)” [edited Register Description text; change d description and type for bits 13:12].

Modified Table 89 “TX Con fig Word ($ Port_Index + 0x17)” [edited description and type for bit s 14, 13:12.

Modified Table 90 “Diverse Config Write ($ Port_Index + 0x18)” [edited description and type for bi ts 18:8; cha n ge d bit s 3:1 to R es erv e d; ad de d table note 2].

Renamed/modified Table 91 “RX Packet Filter Control ($ Port_Index + 0x19)” [old register name added RX to heading; added table note 2].

Modified Table 93 “MAC RX Statistics ($ Port_Index + 0x20 – + 0x39)” [added note to RxPauseMacControlReceivedCounter description; edited note 3 and added note 4].

Modified T able 94 “MAC TX Statistics ($ Port_Index +0x40 – +0x58)” [changed “1526-max” to “1523

- max fra me size” for Txpkts1519toMaxOctets descript ion]. Modified Table 113 “RX FIFO High Watermark Por t 0 ($0x580)”, Ta ble 114 “RX FIFO High

Watermark Port 1 ($0x581)”, Table115 “RX FIFO High Watermark Port 2 ( $0x582)”, and Table 116 “RX FIFO High Watermark Port 3 ($0x583)” [changed bits 11:0 description].

Renamed and modified Table 121 “RX FIFO Overflow Frame Drop Counter Ports 0 - 3 ($0x594 – 0x597)” [old register name: RX FIFO Number of Frames Removed Ports 0 to 3; renamed bit names to match register names; removed “This register gets updated after one cycle of sw reset is applied” under D escription] .

Modified Table 123 “RX FIFO Errored Frame Drop Enable ($0x59F)” [renamed bit names to match register name].

Renamed/modified Table 125 “RX FIFO Errored Frame Drop Counter Ports 0 - 3 ($0x5A2 - 0x5A5)” on page 198 [older register name: RX FIFO Dropped Packet Counter for Ports 0 to 3; renamed bit names to match register name].

Modified Table 126 “RX FIFO SPI3 Loopback Enable for Ports 0 - 3 ($0x5B2)” [renamed h eading and bit name; changed description and type for bits 7:0].

Renamed T able 128 “RX FIFO Transfer Threshold Port 0 ($0x5B8)” on page 201 [from “RX FIFO Jumbo Packet Size; changed bit names an d edited/adde d text under description].

(Sheet 4 of 5)

Contents

Datasheet 17

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Contents

Revision Number: 007

Revision Date: March 24, 2004

(Sheet 5 of 5)

Page # Description

207

208

209

Modif ied Table 136 “Loop RX Data to TX FI FO (Line-Side Loopback) Ports 0 - 3 ($0x61F)”

[renamed heading and bit name].

Modif ied Table 138 “TX FIFO Overflow Frame Drop Cou nter Ports 0 - 3 ($0x621 – 0x624)”

[renamed from TX FIFO Number of Frames Removed Ports 3 - 0].

Modified Table 139 “TX FIFO Errored Frame Drop Counter Ports 0 - 3 ($0x625 – 0x629)” [renamed

from TX FIFO Number of Dr opped Packets Ports 0-3 and text under the description].

210 Modified Table 141 “TX FIFO Port Drop Enable ($0x63D)” [changed description for bits 3:0]. 211

Modif ied Table 142 “MDIO Single Command ($0x680)” [changed defau lt; changed description and

default for bits 9:8; changed default for bits 4:0].

212 Modified Table 144 “Autoscan PHY Address Enable ($0x682)” [added note to register description]. 213

215

Modif ied Table 146 “SPI3 Transmit and Global Configuration ($0x700)” [broke out bits 19:16, 7:4,

and 3:0 and changed description te xt].

Modified Table 147 “SPI3 Receive Configuration ($0x701)” [broke out bits and modified all text

adding SPHY and MPHY modes].

Modif ied Table 152 “Clock and Interface Mode Change Enable Ports 0 - 3 ($0x794)” [d eleted

221

second paragraph of the Register Description; renamed bits to match caption; changed text under

Description].

222 Added note under Section 8.4.11, “Optical Module Register Overview”. 222 Modified Table 153 “Optical Module Status Ports 0-3 ($0x799)” [edited register description]. 222 Modified Table 154 “Optical Module Control Ports 0 - 3 ($0x79A)” [changed register description].

NA Removed/Reserved Table 190 “TX and RX AC/DC Coupling Selection ($7x780)”.

Deleted old Figure 19, “Typical GBIC Module Functional Diagram” under Section 5.7, “Optical

Module Interface”. NA Remo ved old Section 5.1.1.5, “Pau se Command Frames.”

180(old)

Removed ol d Table 1 3. TX FI FO Mini F r ame S ize for MAC and Padd in g Ena bl e Por t 0 t o 3 R egi st er

(Addr: 0x63E) and replaced with Reserved.

Revision Number: 006

Revision Date: August 21, 2003

(Sheet 1 of 2)

Page # Description

19 Modified Table 1 “Intel

IXF1104 Signal Descriptions” 53 Modified Section 5.1.1.1, “Padding of Undersized Frames on Transmit”. 60 Modified text for etherStatsCollision in Table 9 “RMON Additional S tatistics”.

87 M o dif ie d Table 1 7 “Intel

IXF1104-to-Optical Module Interface Connections” 65 Modified first paragraph under Section 5.3.1.2, “Clock Rates”. 87 Modified Section 5.8.2.1, “High-Speed Seri al Interfac e”.

100 Modified Figure 27 “Microprocessor — External and Internal Connections”. 110 Changed PECL to LVDS under Section 6.1, “DC Specifications”. 113 Modified table note 4 in Table 32 “SPI3 Receive Interface Signal Parameters”. 119 Modified Ta bl e 37 “SerDes Timi ng Par am e ters”. 125 Modified Table 40 “Mic r op roc es s or Int er f ac e Wr ite Cy cl e A C Si gn al Pa ram e t ers ”.

18 Datasheet

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Contents

Revision Number: 006

Revision Date: August 21, 2003

Page # Description

140

Modif ied Table 53 “IPG Receive and Transmit Time Register (Addr: Port_Index + 0x0A – +

0x0C)”. 143 Modified Table60 “Short Runts Threshold Register (Addr : Port_Index + 0x1 4)”. 143 Modified Table61 “Discard Unknown Control Frame Register (Addr: Port_Index + 0x15)”. 143 Modified Table62 “RX Config Word Register Bit Definition (Addr: Port_Index + 0x16)”. 145 Modified Table64 “DiverseC onfigWrite Register (Addr: Port_Index + 0x18)”. 148 Modified Table67 “RX Statistics Registers (Addr: Port_Index + 0x20 – + 0x39 )”. 163 Modified Table82 “Microprocessor Interface Regist er (Addr: 0x508)”. 164 Modified Table84 “LED Flash Rate Register (Addr: 0x50A)”. 169 Modified Table 93 “RX FIFO Errored Frame Drop Enable Register (Addr: 0x59F)”. 170 Modified Table96 “RX FIFO Loopback Enable fo r Ports 0 - 3 Register (Addr: 0x5B2)”. 171 Added Table 98 “RX FIFO Jumbo Packet Size 0-3 Regis ter (Addr: 0x 5B8 – 0x5BB”. 172 Added Table 99 “RX F IFO Jumbo Packet Size Port 0 Register Bit Defini tions (Addr: 0 x5B8)”. 172 Added Table 100 “RX FIFO Jumbo Packet Size Port 1 Register Bit Definitions (Addr: 0x5B9)”. 172 Added Table 101 “RX FIFO Jumbo Packet Size Port 2 Register Bit Definitions (Addr: 0x5BA)”. 172 Added Table 102 “RX FIFO Jumbo Packet Size Port 3 Register Bit Definitions (Addr: 0x5BB)”.

178

Modified Table 110 “TX FIFO Number of Dropped Packets Register Ports 0-3 (Addr: 0x625 –

0x629)”. 177 Modified Table 108 “TX FIFO Port Reset Register (Addr: 0x620)”. 177 Modified Table 108 “TX FIFO Port Reset Register (Addr: 0x620)”. 177 Modified Table 107 “Loop RX Data to TX FIFO Register Ports 0 - 3 (Addr: 0x61F)”.

179

Added Table 111 “TX FIFO Occupancy Counter for Ports 0 - 3 Registers (Addr: 0x62D –

0x630)”. 180 Added Table 112 “TX FIFO Port Drop Enable Register (Addr: 0x63D)”. 181 Modified Table114 “MDI Single Command Register (A ddr: 0x680) ”. 186 Added Table 122 “Tx and Rx Power-D own Register (Addr: 0x787 )”. 194 Rep la ced Figure 53 “ Int el

(Sheet 2 of 2)

IXF1104 Example Package Marking”.

Revision Date: April 30, 2003

Revision 005

Page # Description

Initial ex te rna l release.

Revisions 001 through 004

Revision Date: April 2001 – December 2002

Page # Description

Internal releases.

Datasheet 19

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

1.0 Introduction

This document contains information on the IXF1104 MAC, a four -port Gigabit Media Access Controller that supports IEEE 802.3 10/100/1000 Mbps applications.

1.1 What You W ill Find in This Document

This document co ntains the following sections :

• Section 2.0, “General Description” on page 21 provides the block diagram system

architecture.

• Section 3.0, “Ball Assignments and Ball List Tables” on page 23 shows the signal naming

methodology and signal descriptions.

• Section 4.0, “Ball Assignments and Signal Descriptions” on pa ge 37 illustrates and lists the

IXF1104 bal l grid diagram with two ball list tables ( by si gnal name and ball location)

• Section 5.0, “Fun ctional Descriptions” on page 66 gives detailed information about the

operation of the IXF1104 including general features, and interface types and descriptions.

• Sect io n 7.0, “E l e c trical S p e c if ications” on page 132 provides information on the product-

operating parameters, electrical specifications, and timing parameters.

• Section 8.0, “Register Set” on page 155 illustrates and lists the memory map, detailed

descriptions , default values for the register set, and detailed information on each register.

• Section 9.0, “Mechanical Specifications” on page 224 illustrates the packaging information.

• Section 10.0, “Product Or dering Information” on page 230 provides orderi ng information.

1.2 Related Documents

Document

Intel

IXF1104 Media Access Controller Design and La yout Guide 278696

IXF1104 Media Access Controller Thermal Design Considerations 278751

Intel

IXF1104 Media Access Controller Development Kit Manual 278785

IXF1104 Media Ac cess Controller Specification Update 278756

Intel

Document

Number

Datasheet 20

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

2.0 General Description

The IXF1104 MAC provides up to a 4.0 Gbps interface to four individual 10/100/1000 Mbps fullduplex or 10/100 Mbps half-duplex-capable Ethernet Media Access Con trollers (MACs). The network process or is supported through a System Packet Interfa ce Phase 3 (SPI3) media interface. The following PHY inte rfaces are selected on a per-port basis:

• Serializer /Deserializer (SerDes) with Optical Module Interface support

• Gigabit Media Indepe ndent Interface (GMII)

• Reduced Gigabit Media Independent Interface (RGMII).

Figure 1 illustrates the IXF1104 MAC block diagram.

Figure 1. Block Diagram

CPU

uP IF

PHY 1 Devic e

PHY 2 Devic e

Intel

IXF1104 M AC

SPI3

Se rD e s /RGMI I/GMI I In t e r fa ce

PHY 3 Devic e

PHY 4 Devic e

Forw ardi n g Engi ne/N etwork Processor

MDIO

B3175-0

21 Datasheet

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Figure 2 illustrates the IXF1104 MAC internal archite cture.

Figure 2. Intern al Arch itec ture

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

SPI3 Interface

CPU Interface RMON Statistics

PLLs

Packet

Buffer

Packet

Buffer

Packet

Buffer

Packet

Buffer

MDIO OMI

Clock Control Block Clock Register Block

10/100/1000 MAC

RGMII/GMII Inte rface

PMA Layer SerDes

RGMII/GMII Inte rface

PMA Layer SerDes

RGMII/GMII Inte rface

PMA Layer SerDes

RGMII/GMII Inte rface

PMA Layer SerDes

B3176-0

Datasheet 22

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

3.0 Ball Assignments and Ball List T abl es

3.1 Ball Assignments

See Figure 3, Table 1 “Ball List in Alphanumeric Order by Signal Name” on page 24, and Table 2

“Ball List in Alphanumeric Order by Ball Location” on page 30 for the IXF1104 MAC ball

assignments.

Figure 3. 552-Ball CBGA Assi gn men ts (Top View)

AD AC AB AA Y W V U T R P N M L K J H G F E D C B A

AD1

AC2

AC3AD3

3 4 5 6 7 8

AD8

9 10 11 12 13 14 15 16

17 18 19 20 21

22 23 24

AD AC AB AA Y W V U T R P N M L K J H G F E D C B A

= No Pad (A1) = No Ball (A2, A3, A22, A23, A24, B1, B2, B23, B24, C1, C24, AB1, AB24, AC1, AC2, AC23, AC24, AD1, AD2, AD3,

AD22, AD23, AD24)

W7Y7AA7AB7AC7AD7

V7 U7 T7 R7 P7 N7 M7 L7 K7 J7 H7 G7 F7 E7 D7 G7 B7 A7

W8Y8AA8AB8AC8

W9Y9AA9AB9AC9AD9

T10

U10

V10

W10Y10AA10AB10AC10AD10

T11

U11

V11

W11Y11AA11AB11AC11AD11

T12

U12

V12

W12Y12AA12AB12AC12AD12

T13

U13

V13

W13Y13AA13AB13AC13AD13

T14

U14

V14

W14Y14AA14AB14AC14AD14

T15

U15

V15

W15Y15AA15AB15AC15AD15

T16

U16

V16

W16Y16AA16AB16AC16AD16

T17

U17

W17Y17AA17AB17AC17AD17

T18

U18

V18

W18Y18AA18AB18AC18AD18

T19

U19

V19

W19Y19AA19AB19AC19AD19

T20

U20

V20

W20Y20AA20AB20AC20AD20

T21

U21

V21

W21Y21AA21AB21AC21AD21

T22

U22

V22

W22

AA22AB22AC22AD22

Y22

T23

U23

V23

W23Y23AA23AB23AC23AD23

T24

U24

V24

W24Y24AA24AB24AC24AD24

R10 R11

R12

R13 R14

R15 R16 R17

R18

R19

R20 R21 R22

R23

R24

N10

P10

N11

P11

N12

P12

N13

P13

N14

P14

N15

P15

N16

P16

N17

P17

N18

P18

N19

P19

N20

P20

N121

P21

N22

P22

N23

P23

N24

P24

M10 M11

M12

M13 M14

M15 M16 M17

M18

M19

M20 M21 M22

M23

M24

L10 L11

L12

L13 L14

L15 L16 L17

L18

L19

L20 L21 L22

L23

L24

K10 K11

K12

K13 K14

K15 K16 K17

K18

K19

K20 K21 K22

K23

K24

J10 J11

J12

J13 J14

J15 J16 J17

J18

J19

J20 J21 J22

J23

J24

J8 J9

G10

H10

G11

H11

G12

H12

G13

H13

G14

H14

G15

H15

G16

H16

G17

H17

G18

H18

G19

H19

G20

H20

G21

H21

G22

H22

G23

H23

G24

H24

F10 F11

F12

F13 F14

F15 F16 F17

F18

F19

F20 F21 F22

F23

F24

B1C1D1E1F1G1H1J1K1L1M1N1P1R1T1U1V1W1Y1AA1AB1AC1

A2B2C2D2E2F2G2H2J2K2L2M2N2P2R2T2U2V2W2Y2AA2AB2AD2

A3B3C3D3E3F3G3H3J3K3L3M3N3P13R3T3U3V3W3Y3AA3AB3

A4B4C4D4E4F4G4H4J4K4L4M4N4P4R4T4U4V4W4Y4AA4AB4AC4AD4

A5B5C5D5E5F5G5H5J5K5L5M5N5P5R5T5U5V5W5Y5AA4AB5AC5AD5

A6B6C6D6F6F6G6H6J6K6L6M6N6P6R6T6U6V6W6Y6AA6AB6AC6AD6

6 7

F8 F9

E10 E11

E12

E13 E14

E15 E16 E17

E18

E19

E20 E21 E22

E23

E24

C10

D10

C11

D11

C12

D12

C13

D13

C14

D14

C15

D15

C16

D16

C17

D17

C18

D18

C19

D19

C20

D20

C21

D21

C22

D22

C23

D23

C24

D24

B28

B10 B11

B12

B13 B14

B15 B16 B17

B18

B19

B20 B21 B22

B23

B24

A8 A9

A10

A11

A12

12 13

A13

A14

A15 A16

A17

A18

A19

A20

A21

A22

A23

A24

B1458-01

23 Datasheet

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

3.2 Ball List Tables

3.2.1 Balls Listed in Alphabetic Order by Signal Name

Table 1 shows the ball locations and s ignal names arranged in alphanumeric ord er by s ignal name.

The following table notes relate to Table 1 and Table 2:

1. GMII Ball Connection:

See T able 16 for connection in RGMII or fiber mode.

2. SPI3 Ball Connection:

See T able 17 for proper SPHY and MPHY connection.

3. Fiber Mode Ball Connection:

See T able 16 for use in RGMII and GMII (copper mode).

Tab le 1. B all Li st in Alp han um eric Order by Si gnal Name

Signal Name

AVDD1P8_1 A5 AVDD1P8_1 A20 AVDD1P8_2 T23 AVDD1P8_2 AB16 AVDD2P5_1 AD20 AVDD2P5_2 R18 AVDD2P5_2 U14

CLK125 AD19

COL_0

COL_1

COL_2

COL_3

CRS_0

CRS_1

CRS_2

CRS_3 DTPA_0 DTPA_1 DTPA_2 DTPA_3

GND B6 GND B10 GND B15 GND B19

Ball

Location

AB6 AB10 AD15 AB17

AA5

AA9 AB15 AC16

D3 L1 A9

Signal Name

GND D4 GND D8 GND D12 GND D13 GND D17 GND D21 GND F2 GND F6 GND F10 GND F15 GND F19 GND F23 GND H4 GND H8 GND H12 GND H13 GND H17 GND H21 GND J10 GND J15 GND K2 GND K6 GND K9 GND K11

Ball

Location

Signal Name

GND K14 GND K16 GND K19 GND K23 GND L10 GND L12 GND L13 GND L15 GND M4 GND M8 GND M11 GND M14 GND M17 GND M21 GND N4 GND N8 GND N11 GND N14 GND N17 GND N21 GND P10 GND P12 GND P13 GND P15

Ball

Location

24 Datasheet

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Signal Name

GND R2 GND R6 GND R9 GND R11 GND R14 GND R16 GND R19 GND R23 GND T10 GND T15 GND U4 GND U8 GND U12 GND U13 GND U17 GND U21 GND W2 GND W6 GND W10 GND W15 GND W19 GND W23 GND AA4 GND AA8 GND AA12 GND AA13 GND AA17 GND AA21 GND AC6 GND AC10 GND AC15 GND AC19 GND AC14 GND L20 GND L5 GND R7 GND AB12 GND A4

Ball

Location

Signal Name

Ball

Location

GND A21 GND AD21

C_CLK L23

C_DATA_0

C_DATA_1

C_DATA_2

C_DATA_3

L24 M24 N24

P24

LED_CLK K24

LED_DATA M22

LED_LATCH L22

MDC

MDIO

W24

V21

MOD_DEF_INT N22

NC D24 NC E12 NC F11 NC G15 NC H7 NC H18 NC J21 NC K7 NC K18 NC K20 NC K22 NC L18 NC L19 NC L21 NC M7 NC M18 NC M20 NC N3 NC N18 NC P2 NC P4 NC P6 NC P7 NC P8 NC P17

Signal Name

NC P18 NC R5 NC R10 NC R12 NC R13 NC R15 NC R20 NC T6 NC T7 NC T8 NC T9 NC T21 NC T22 NC U5 NC U7 NC U9 NC U11 NC U18 NC V9 NC V10 NC V11 NC V13 NC AB18 NC AD4

NC AD5 No Ball A2 No Ball A3 No Ball A22 No Ball A23 No Ball A24 No Ball B1 No Ball B2 No Ball B23 No Ball B24 No Ball C1 No Ball C24 No Ball AB1 No Ball AB24

Ball

Location

Datasheet 25

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Signal Name

No Ball AC1 No Ball AC2 No Ball AC23 No Ball AC24 No Ball AD1 No Ball AD2 No Ball AD3 No Ball AD22 No Ball AD23 No Ball AD24 No Pad A1

PTPA RDAT_0 RDAT_1 RDAT_2 RDAT_3 RDAT_4 RDAT_5 RDAT_6 RDAT_7 RDAT_8 RDAT_9

RDAT_10 RDAT_11 RDAT_12 RDAT_13 RDAT_14 RDAT_15 RDAT_16 RDAT_17 RDAT_18 RDAT_19 RDAT_20 RDAT_21 RDAT_22 RDAT_23 RDAT_24 RDAT_25

Ball

Location

B11 A15 A14 B14 C14 C13 D14 E14 F14 A17 C17 D16 E16 F16 E17 E18 F18 B20 B22 C20 C21 C22 D22 E22 E21 G18 G19

Signal Name

RSX

RDAT_26 RDAT_27 RDAT_28 RDAT_29 RDAT_30 RDAT_31

RENB_0 RENB_1 RENB_2 RENB_3 REOP_0 REOP_1 REOP_2 REOP_3 RERR_0 RERR_1 RERR_2 RERR_3

RFCLK RMOD0 RMOD1

RPRTY_0 RPRTY_1 RPRTY_2 RPRTY_3

RSOP_0 RSOP_1 RSOP_2 RSOP_3

RVAL_0 RVAL_1 RVAL_2 RVAL_3

RX_DV_0 RX_DV_1 RX_DV_2 RX_DV_3

Ball

Location

G20 G21 G22 G23 G24

F24 A13 A18 C19 E24 C16 D18 C23 J19 A16

G17

D20 H20

A19 G14 G13

E15 G16

E20

F20

B16

C18

E23

J18

E13

C15

B18

E19

F22

AB11

Y24

V18

Signal Name

RX_ER_0 RX_ER_1 RX_ER_2 RX_ER_3

RX_LOS_INT

RXC_0 RXC_1 RXC_2 RXC_3

RX_N_0 RX_N_1 RX_N_2 RX_N_3 RX_P_0 RX_P_1 RX_P_2 RX_P_3

RXD0_0 RXD0_1 RXD0_2 RXD0_3 RXD1_0 RXD1_1 RXD1_2 RXD1_3 RXD2_0 RXD2_1 RXD2_2 RXD2_3 RXD3_0 RXD3_1 RXD3_2 RXD3_3 RXD4_0 RXD4_1 RXD4_2 RXD4_3 RXD5_0

Ball

Location

Y12

AA22

U20 P19 R22 U22 R24 V24 P22 V22 T24 U24

V4 AD11 AA24

V23

Y20 Y17

Y11 Y21 Y18

W11

Y22 Y19

Y23

W18

Y6 AD10

W22

T16

26 Datasheet

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Signal Name

RXD5_1

RXD6_1

RXD7_1

STPA

RXD5_2 RXD5_3 RXD6_0

RXD6_2 RXD6_3 RXD7_0

RXD7_2 RXD7_3

Ball

Location

AC11

V20 T17 AB5

AA11

V19 T18 AC5 Y10

W20

T19 C11

SYS_RST_L AD12

TADR0 TADR1

A11

A12

TCLK J22 TDAT0 TDAT1 TDAT2 TDAT3 TDAT4 TDAT5 TDAT6 TDAT7 TDAT8 TDAT9

TDAT10 TDAT11 TDAT12 TDAT13 TDAT14 TDAT15 TDAT16 TDAT17 TDAT18 TDAT19 TDAT20 TDAT21

B3 C2 C3 D1 C4 C5 B5 C6 F1 G1 G2 H1

J3 H3 E5 E6 E7 E8 E9

E10

Signal Name

TDAT22

TDAT23

TDAT24

TDAT25

TDAT26

TDAT27

TDAT28

TDAT29

TDAT30

TDAT31

TDI J24

TDO H24

TFCLK TMOD0 TMOD1

TENB_0 TENB_1 TENB_2 TENB_3 TEOP_0 TEOP_1 TEOP_2 TEOP_3 TERR_0 TERR_1 TERR_2 TERR_3

TMS H22 TPRTY_0 TPRTY_1 TPRTY_2 TPRTY_3

TRST_L J23 TSOP_0 TSOP_1 TSOP_2 TSOP_3

TSX E1

Ball

Location

F9 C8 G4 G5 G6 G7 G8 G9 F5 F7

B7 E2 C9

J4 A7 F3 E4 H5 A8 K1

E11

J8 D7 A6 D9

D5 G3 B9

C7 E3

C10

Signal Name

TX_EN_0 TX_EN_1 TX_EN_2 TX_EN_3 TX_ER_0 TX_ER_1 TX_ER_2 TX_ER_3

TX_FAULT_INT

TX_N_0

TX_N_1

TX_N_2

TX_N_3

TX_P_0

TX_P_1

TX_P_2

TX_P_3

TXC_0

TXC_1

TXC_2

TXC_3

TXD0_0

TXD0_1

TXD0_2

TXD0_3

TXD1_0

TXD1_1

TXD1_2

TXD1_3

TXD2_0

TXD2_1

TXD2_2

TXD2_3

TXD3_0

TXD3_1

TXD3_2

TXD3_3

TXD4_0

Ball

Location

AB2

AC22

V12

AD6

AD17

AB13

P23 Y14

AD14

Y16

AD18

Y13

AD13

W16

AC18

AA1

AD7

AC20

AB14

AC7

AB20

V14

AB7

AB21

V15

AB9

AB22

V16 AA3

AD9

AB23

V17 AB3

Datasheet 27

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Signal Name

TXD4_1

TXD4_2

TXD4_3

TXD5_0

TXD5_1

TXD5_2

TXD5_3

TXD6_0

TXD6_1

TXD6_2

TXD6_3

TXD7_0

TXD7_1

TXD7_2

TXD7_3

Ball

Location

AA7 AD16 AA14

AC3

AB8 AB19

Y15

AB4

AD8 AA20 AA16

AC9 AA18

W14 TXPAUSE_ADD0 N20 TXPAUSE_ADD1 P20 TXPAUSE_ADD2 P21

TXPAUSEFR T20

UPX_ADD0 P3 UPX_ADD1 N1 UPX_ADD2 P1 UPX_ADD3 R1 UPX_ADD4 T1 UPX_ADD5 U1 UPX_ADD6 V1 UPX_ADD7 V2 UPX_ADD8 V3

UPX_ADD9 U3 UPX_ADD10 T3 UPX_BADD0 T2 UPX_BADD1 W3

UPX_CS_L R3 UPX_DATA0 L2 UPX_DATA1 K3 UPX_DATA2 L3 UPX_DATA3 M3 UPX_DATA4 L4

Signal Name

Ball

Location

UPX_DATA5 N5 UPX_DATA6 M5 UPX_DATA7 K5 UPX_DATA8 P5 UPX_DATA9 L6

UPX_DATA10 L7

UPX_DATA11 N7 UPX_DATA12 L8 UPX_DATA13 H9 UPX_DATA14 J9 UPX_DATA15 N10 UPX_DATA16 M10 UPX_DATA17 K10 UPX_DATA18 G10 UPX_DATA19 H11 UPX_DATA20 G11 UPX_DATA21 K12 UPX_DATA22 G12 UPX_DATA23 K13 UPX_DATA24 H14 UPX_DATA25 K15 UPX_DATA26 N15 UPX_DATA27 M15 UPX_DATA28 J16 UPX_DATA29 H16 UPX_DATA30 J17 UPX_DATA31 L17

UPX_RD_L V6

UPX_RDY_L M1 UPX_WIDTH0 U16 UPX_WIDTH1 T5

UPX_WR_L T4

VDD D6 VDD D10 VDD D15 VDD D19 VDD F4 VDD F21

Signal Name

VDD H10 VDD H15 VDD J11 VDD J14 VDD K4 VDD K8 VDD K17 VDD K21 VDD L9 VDD L11 VDD L14 VDD L16 VDD P9 VDD P11 VDD P14 VDD P16 VDD R4 VDD R8 VDD R17 VDD R21 VDD T11 VDD T14 VDD U10 VDD U15 VDD W4 VDD W21 VDD AA6 VDD AA10 VDD AA15 VDD AA19 VDD C12 VDD D11 VDD J20

VDD A10 VDD2 B4 VDD2 B8 VDD2 B12 VDD2 D2

Ball

Location

28 Datasheet

Document Number: 278757

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Signal Name

VDD2 F8 VDD2 F12 VDD2 H2 VDD2 H6 VDD2 J12 VDD2 M2 VDD2 M6 VDD2 M9 VDD2 M12 VDD3 B13 VDD3 B17 VDD3 B21 VDD3 D23 VDD3 F13 VDD3 F17 VDD3 H19 VDD3 H23 VDD3 J13 VDD3 M13 VDD3 M16 VDD3 M19 VDD3 M23 VDD4 N13 VDD4 N16 VDD4 N19 VDD4 N23 VDD4 T13 VDD4 U19 VDD4 U23 VDD4 W13 VDD4 W17 VDD4 AA23 VDD4 AC13 VDD4 AC17 VDD4 AC21 VDD5 N2 VDD5 N6 VDD5 N9

Ball

Location

Signal Name

VDD5 N12 VDD5 T12 VDD5 U2 VDD5 U6 VDD5 W8 VDD5 W12 VDD5 AA2 VDD5 AC4 VDD5 AC8 VDD5 AC12

Ball

Location

Datasheet 29

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

3.2.2 Balls Listed in Alphabetic Order by Ball Location

Table 2 shows the ball locations and s ignal names arranged in order by ball location.

Table 2. Ball List in Alphanumeric Order by Ball Location

Ball

Location

Signal Name

A1 No Pad A2 No Ball A3 No Ball A4 GND A5 AVDD1P8_1 A6 TMOD0 A7 TEOP_0 A8 TERR_0

A9 DTPA_2 A10 VDD A11 TADR0 A12 TADR1 A13 RENB_0 A14 RDAT_1 A15 RDAT_0 A16 RERR_0 A17 RDAT_8 A18 RENB_1 A19 RFCLK A20 AVDD1P8_1 A21 GND A22 No Ball A23 No Ball A24 No Ball

B1 No Ball

B2 No Ball

B3 TDAT0

B4 VDD2

B5 TDAT6

B6 GND

B7 TENB_0

B8 VDD2

B9 TPRTY_2

Ball

Location

Signal Nam e

B10 GND B11 PTPA

B12 VDD2 B13 VDD3 B14 RDAT_2

B15 GND B16 RSOP_0 B17 VDD3 B18 RVAL_1

B19 GND

B20 RDAT_16 B21 VDD3 B22 RDAT_17 B23 No Ball B24 No Ball

C1 No Ball C2 TDAT1 C3 TDAT2 C4 TDAT4 C5 TDAT5 C6 TDAT7 C7 TSOP_0 C8 TDAT23

C9 TENB_2 C10 TSOP_2 C11 STPA

C12 VDD C13 RDAT_4

C14 RDAT_3 C15 RVAL_0

C16 REOP_0 C17 RDAT_9

C18 RSOP_1 C19 RENB_2

Ball

Location

Signal Name

C20 RDAT_18 C21 RDAT_19 C22 RDAT_20 C23 REOP_2 C24 No Ball

D1 TDAT3 D2 VDD2 D3 DTPA_0 D4 GND D5 TPRTY_0 D6 VDD D7 TFCLK D8 GND

D9 TMOD1 D10 VDD D11 VDD D12 GND D13 GND D14 RDAT_5 D15 VDD D16 RDAT_10 D17 GND D18 REOP_1 D19 VDD D20 RERR_2 D21 GND D22 RDAT_21 D23 VDD3 D24 NC

E1 TSX

E2 TENB_1

E3 TSOP_1

E4 TEOP_2

E5 TDAT16

30 Datasheet

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Ball

Location

Signal Name

E6 TDAT17 E7 TDAT18 E8 TDAT19

E9 TDAT20 E10 TDA T21 E11 TERR_2 E12 NC E13 RSX E14 RDAT_6 E15 RPRTY_0 E16 RDAT_11 E17 RDAT_13 E18 RDAT_14 E19 RVAL_2 E20 RPRTY_2 E21 RDAT_23 E22 RDAT_22 E23 RSOP_2 E24 RENB_3

F1 TDAT8 F2 GND F3 TEOP_1 F4 VDD F5 TDAT30 F6 GND F7 TDAT31 F8 VDD2

F9 TDAT22 F10 GND F11 NC F12 VDD2 F13 VDD3 F14 RDAT_7 F15 GND F16 RDAT_12 F17 VDD3 F18 RDAT_15 F19 GND

Ball

Location

F20 RPRTY_3 F21 VDD F22 RVAL_3 F23 GND F24 RDAT_31

G1 TDAT9 G2 T DAT10

G3 TPRTY_1 G4 T DAT24 G5 T DAT25 G6 T DAT26 G7 T DAT27 G8 T DAT28

G9 T DAT29 G10 UPX_DATA18 G11 UPX_DATA20 G12 UPX_DATA22 G13 RMOD1 G14 RMOD0 G15 NC G16 RPRTY_1

G17 RERR_1 G18 RDAT_24

G19 RDAT_25 G20 RDAT_26

G21 RDAT_27 G22 RDAT_28

G23 RDAT_29 G24 RDAT_30

H1 TDAT11

Signal Name

H2 VDD2

H3 TDAT15

H4 GND

H5 TEOP_3

H6 VDD2

H7 NC

H8 GND

H9 UPX_DATA13

Ball

Location

Signal Name

H10 VDD

H11 UPX_DATA19 H12 GND H13 GND H14 UPX_DATA24 H15 VDD H16 UPX_DATA29 H17 GND H18 NC H19 VDD3 H20 RERR_3 H21 GND H22 TMS H23 VDD3 H24 TDO

J1 TDAT12 J2 TDAT13 J3 TDAT14 J4 TENB_3 J5 TSOP_3 J6 TPRTY_3 J7 DTPA_3 J8 TERR_3

J9 UPX_DATA14 J10 GND J11 VDD J12 VDD2 J13 VDD3 J14 VDD J15 GND J16 UPX_DATA28 J17 UPX_DATA30 J18 RSOP_3 J19 REOP_3 J20 VDD J21 NC J22 TCLK J23 TRST_L

Datasheet 31

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Ball

Location

Signal Name

J24 TDI

K1 TERR_1 K2 GND K3 UPX_DATA1 K4 VDD K5 UPX_DATA7 K6 GND K7 NC K8 VDD

K9 GND K10 UPX_DATA17 K11 GND K12 UPX_DATA21 K13 UPX_DATA23 K14 GND K15 UPX_DATA25 K16 GND K17 VDD K18 NC K19 GND K20 NC K21 VDD K22 NC K23 GND K24 LED_CLK

L1 DTPA_1 L2 UPX_DATA0 L3 UPX_DATA2 L4 UPX_DATA4 L5 GND L6 UPX_DATA9 L7 UPX_DATA10 L8 UPX_DATA12 L9 VDD

L10 GND

L11 VDD L12 GND L13 GND

Ball

Location

Signal Nam e

L14 VDD

L15 GND L16 VDD L17 UPX_DATA31 L18 NC L19 NC L20 GND L21 NC L22 LED_LATCH

L23 I L24 I

C_CLK

C_DATA_0

M1 UPX_RDY_L M2 VDD2 M3 UPX_DATA3 M4 GND M5 UPX_DATA6 M6 VDD2 M7 NC M8 GND

M9 VDD2 M10 UPX_DATA16 M11 GND M12 VDD2 M13 VDD3 M14 GND

M15 UPX_DATA27 M16 VDD3 M17 GND M18 NC M19 VDD3 M20 NC M21 GND M22 LED_DATA M23 VDD3 M24 I

C_DATA_1

N1 UPX_ADD1 N2 VDD5 N3 NC

Ball

Location

Signal Name

N4 GND N5 UPX_DATA5 N6 VDD5 N7 UPX_DATA11 N8 GND

N9 VDD5 N10 UPX_DATA15 N11 GND N12 VDD5 N13 VDD4 N14 GND N15 UPX_DATA26 N16 VDD4 N17 GND N18 NC N19 VDD4 N20 TXPAUSE_ADD0 N21 GND N22 MOD_DEF_INT N23 VDD4

N24 I

C_DATA_2 P1 UPX_ADD2 P2 NC P3 UPX_ADD0 P4 NC P5 UPX_DATA8 P6 NC P7 NC P8 NC P9 VDD

P10 GND P11 VDD P12 GND P13 GND P14 VDD P15 GND P16 VDD P17 NC

32 Datasheet

Document Number: 278757

Revision Number: 009

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Ball

Location

Signal Name

P18 NC P19 RX_LOS_INT P20 TXPAUSE_ADD1 P21 TXPAUSE_ADD2 P22 RX_P_0 P23 TX_FAULT_INT P24 I2C_DATA_3

R1 UPX_ADD3 R2 GND R3 UPX_CS_L R4 VDD R5 NC R6 GND R7 GND R8 VDD

R9 GND R10 NC R11 GND R12 NC R13 NC R14 GND R15 NC R16 GND R17 VDD R18 AVDD2P5_2 R19 GND R20 NC R21 VDD R22 RX_N_0 R23 GND R24 RX_N_2

T1 UPX_ADD4 T2 UPX_BADD0 T3 UPX_ADD10 T4 UPX_WR_L T5 UPX_WIDTH1 T6 NC T7 NC

Ball

Location

Signal Name

T8 NC

T9 NC T10 GND T11 VDD

T12 VDD5 T13 VDD4 T14 VDD T15 GND T16 RXD4_3 T17 RXD5_3 T18 RXD6_3 T19 RXD7_3

T20 TXPAUSEFR T21 NC T22 NC T23 AVDD1P8_2 T24 RX_P_2

U1 UPX_ADD5 U2 VDD5 U3 UPX_ADD9 U4 GND U5 NC U6 VDD5 U7 NC U8 GND U9 NC

U10 VDD

U11 NC

U12 GND U13 GND

U14 AVDD2P5_2 U15 VDD U16 UPX_WIDTH0 U17 GND U18 NC U19 VDD4 U20 RX_ER_3

U21 GND

Ball

Location

Signal Name

U22 RX_N_1 U23 VDD4 U24 RX_P_3

V1 UPX_ADD6 V2 UPX_ADD7 V3 UPX_ADD8 V4 RXC_0 V5 RX_DV_0 V6 UPX_RD_L V7 RXD1 _0 V8 RXD0 _0

V9 NC V10 NC V11 NC V12 TX_EN_3 V13 NC V14 TXD0_3 V15 TXD1_3 V16 TXD2_3 V17 TXD3_3 V18 RX_DV_3 V19 RXD6_2 V20 RXD5_2 V21 MDIO V22 RX_P_1 V23 RXC_3 V24 RX_N_3

W1 TX_ER_0 W2 GND W3 UPX_BADD1 W4 VDD W5 RX_ER_0 W6 GND W7 RXD2_0 W8 VDD5

W9 RXD3_1 W10 GND W11 RXD2_1

Datasheet 33

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Ball

Location

Signal Name

W12 VDD5 W13 VDD4 W14 TXD7_3 W15 GND W16 TX_P_2 W17 VDD4 W18 RXD3_3 W19 GND W20 RXD7_2 W21 VDD W22 RXD4_2 W23 GND W24 MDC

Y1 TXD0_0 Y2 TXD1_0 Y3 TXD2_0 Y4 TXD7_0 Y5 RXD5 _0 Y6 RXD4 _0 Y7 RXD3 _0 Y8 TX_EN_1

Y9 RXD0_1 Y10 RXD7_1 Y11 RXD1_1 Y12 RX_ER_1 Y13 TX_P_0 Y14 TX_N_0 Y15 TXD5_3 Y16 TX_N_2 Y17 RXD0_3 Y18 RXD1_3 Y19 RXD2_3 Y20 RXD0_2 Y21 RXD1_2 Y22 RXD2_2 Y23 RXD3_2 Y24 RX_DV_2

AA1 TXC_0

Ball

Location

Signal Nam e

AA2 VDD5 AA3 TXD3_0

AA4 GND AA5 CRS_0

AA6 VDD AA7 TXD4_1

AA8 GND AA9 CRS_1

AA10 VDD

AA11 RXD6_1

AA12 GND

AA13 GND

AA14 TXD4_3 AA15 VDD AA16 TXD6_3 AA17 GND AA18 TXD7_2 AA19 VDD AA20 TXD6_2 AA21 GND AA22 RX_ER_2 AA23 VDD4 AA24 RXC_2

AB1 No Ball AB2 TX_EN_0 AB3 TXD4_0 AB4 TXD6_0 AB5 RX D6_0 AB6 COL_0 AB7 TXD1_1 AB8 TXD5_1 AB9 TXD2_1

AB10 COL_1

AB11 RX_DV_1 AB12 GND AB13 TX_ER_3 AB14 TXC_3 AB15 CRS_2

Ball

Location

Signal Name

AB16 AVDD1P8_2 AB17 COL_3 AB18 NC AB19 TXD5_2 AB20 TXD0_2 AB21 TXD1_2 AB22 TXD2_2 AB23 TXD3_2 AB24 No Ball

AC1 No Ball AC2 No Ball AC3 TXD5_0 AC4 VDD5 AC5 RXD7_0 AC6 GND AC7 TXD0_1 AC8 VDD5

AC9 TXD7_1 AC10 GND AC11 RXD5_1 AC12 VDD5 AC13 VDD4 AC14 GND AC15 GND AC16 CRS_3 AC17 VDD4 AC18 TX_P_3 AC19 GND AC20 TXC_2 AC21 VDD4 AC22 TX_EN_2 AC23 No Ball AC24 No Ball

AD1 No Ball

AD2 No Ball

AD3 No Ball

AD4 NC

AD5 NC

34 Datasheet

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Ball

Location

Signal Name

AD6 TX_ER_1 AD7 TXC_1 AD8 TXD6_1

AD9 TXD3_1 AD10 RXD4_1 AD11 RXC_1 AD12 SYS_RST_L AD13 TX_P_1 AD14 TX_N_1 AD15 COL_2 AD16 TXD4_2 AD17 TX_ER_2 AD18 TX_N_3 AD19 CLK125 AD20 AVDD2P5_1 AD21 GND AD22 No Ball AD23 No Ball AD24 No Ball

Datasheet 35

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

36 Datasheet

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

4.0 Ball Assignments and Signal Descriptions

4.1 N amin g C on ve nt io ns

4.1.1 Signal Name Conventions

Signal names beg in with a Signal Mnem onic, and can also contain one or more of the followi ng designations: a differential pair designation, a serial designation, a port designation (RGMII interface), and an active low designation. Signal naming conve ntions are as follows:

Differential Pair + Port Design at ion. The positive and negative compo nents of differential pairs tied to a specific port are designated by the Signal Mnemonic, immediately followed by an underscore and either P (positive component) or N (negative component), and an underscore followed by the port designation. For example, SerDes interface signals for port 0 are ident ified as TX_P_0 and TX_N_0.

Serial Design ation . A set of signals that are not tied to any specific port are designated by the Signal Mnemoni c, follo wed by a bracketed serial designation. For example, the set of 11 CPU Address Bus signals is identified as UPX_ADD[10:0].

Port Designation. Individual signals that apply to a particular port are designated by the Signal Mnemonic, immediately followed by an underscore and the Port Designation. For example, RGMII Transmit Control signals are identified as TX_CTL_0, TX_CTL_1, TX_CTL_2, and so on.

Port Bus Designatio n. A set of bus signals that apply to a particular port are designated by the Signal Mnemonic, immediately followed by a bracketed bus designation, followed by an underscore and the port desi gnation. For example, RGMII transmit da ta bus signals are identified as TD[3:0]_0, TD[3:0]_1, TD[3:0]_2, and so on.

Active Low Designation. A control input or indicator output that is active Low is designated by a final suf fi x cons isti ng of an unde rscore fol lowe d by an upper ca se “L” . For e xample , the CPU cycl e complete id entifier is shown as UPX_RDY_L.

4.1.2 Register Address Conventions

Registers located in on-chip memory are accessed using a reg ister address, which is provided in Hex notation. A Register Address is indicated by the dollar si gn ($), followed by the memory location in Hex.

37 Datasheet

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

4.2 Inter face Signal Groups

This section descr ibes the IXF1104 MAC signals in g r o u ps according to the associated interface or function. Figure 4 shows the various interfa ces available on the IXF1104 MAC.

Figure 4. Interface Signals

SPI3

Interface

JTA G

Interface

MDIO

Interface

Pause

Control

Interface

CPU

Interface

LED

Interface

TDAT[7:0]_0:3

TFCLK

TENB_0: 3

TERR_0:3

TPR TY _0:3

TSOP_0:3 TEOP_0:3

TADR[1:0]

DTPA_0: 3

PTPA

RDAT[7:0]_0:3

RFCLK

RENB_0:3

RVAL_0:3

RERR_0:3

RPRTY_0:3

RSOP_0: 3 REOP_0: 3

MPHYSPHY

TDA T[ 31: 0]

TFCLK

TENB_0

TERR_0

TPRTY_0

TMOD[1:0]

TSX TSOP_0 TEOP_0

TADR [1:0] DTPA_0:3

STPA PTPA

RD AT[31: 0]

RFCLK

RENB_0

RVAL_0

RERR_0

RPRTY_0

RMOD[1:0]

RSX RSOP_0 REOP_0

TMS

TDO

TCLK

TRST_L

MDIO

MDC

TXPAUSEADD [2:0]

TXPAUSEF R

UPX_WIDTH[1:0]

UPX_D ATA[31:0]

UPX_ADD [10:0] UPX_BADD [1: 0]

UPX_WR_L UPX_RD_L UPX_CS_L

UPX_RD Y_L

LED_CLK

LED_DATA

LED _LATC H

TDI

Intel® IXF1104

Media A ccess

Controller

GMII RGMII

TXC_0:3 TXD[7: 0] _0

TXD[7: 0] _1 TD[ 3:0]_1 TXD[7: 0] _2 TD[ 3:0]_2 TXD[7: 0] _3 TX_EN_0:3 TX_ER_0:3

RXC _0:3 R XC _0: 3 RXD[7:0]_3 RXD[7:0]_2

RXD[7:0]_0 RX_D V_0:3 RX_ER_0:3 CRS_0:3 COL_0:3

* D at a and cloc k bal ls are s ha red f or GMII and RGMII Interf aces

RX_P/N_0:3 TX_P/N_0:3

TX_D ISABLE_0: 3 MOD _DEF_0:3 TX_FAU LT_0:3 RX_LOS_0: 3 TX_FAU LT_IN T RX_LOS_I N T MOD _DEF_INT

C_CLK

C_DATA_0:3

** T h ese opt ica l m odule signals ar e m ult iplex ed on t he G M I I balls .

SYS_RES_L CLK125

TXC _0:3 TD[3:0]_0

TD[3:0]_3 TX_C TL_0:3

RD[3:0]_0 RD[3:0]_1 RD[3:0]_2RXD[7:0]_1 RD[3:0]_3 RX_C T L_0:3

GMII and RGMII In terfaces*

SerDes In terface

Optical Module In terface Si gn al s* *

System In terface

B3181-01

Datasheet 38

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

4.3 Signal Description Ta bles

The I/O signals, power supplies , or ground retur ns assoc iated with e ach IXF1 104 MAC con necti on ball are described in Ta ble 3 through Table 14.

Table 3. SPI3 Interface Signal Descriptions (Sheet 1 of 8)

Signal Name

MPHY SPHY

TDAT31 TDAT30 TDAT29 TDAT28 TDAT27 TDAT26 TDAT25 TDAT24

TDAT23 TDAT22 TDAT21 TDAT20 TDAT19 TDAT18 TDAT17 TDAT16

TDAT15 TDAT14 TDAT13 TDAT12 TDAT11 TDAT10 TDAT9 TDAT8

TDAT7 TDAT6 TDAT5 TDAT4 TDAT3 TDAT2 TDAT1 TDAT0

TFCLK TFCLK D7 Input

TDAT7_3 TDAT6_3 TDAT5_3 TDAT4_3 TDAT3_3 TDAT2_3 TDAT1_3 TDAT0_3

TDAT7_2 TDAT6_2 TDAT5_2 TDAT4_2 TDAT3_2 TDAT2_2 TDAT1_2 TDAT0_2

TDAT7_1 TDAT6_1 TDAT5_1 TDAT4_1 TDAT3_1 TDAT2_1 TDAT1_1 TDAT0_1

TDAT7_0 TDAT6_0 TDAT5_0 TDAT4_0 TDAT3_0 TDAT2_0 TDAT1_0 TDAT0_0

Ball

Designator

F7 F5 G9 G8 G7 G6 G5 G4

C8 F9

E10

E9 E8 E7 E6 E5

H3 J3 J2 J1 H1 G2 G1 F1

C6 B5 C5 C4 D1 C3 C2 B3

Type Standard Description

Input

3.3 V

LVTTL

3.3 V

LVTTL

3.3 V

LVTTL

3.3 V

LVTTL

3.3 V

LVTTL

Transmit D ata Bu s.

Carries payload data to the IXF1104 MAC egres s path.

Mode

32-bit Multi-PHY 4 x 8 Single- PHY

Transmit D ata Bu s.

Carries payload data to the IXF1104 MAC egres s path.

Mode

32-bit Multi-PHY 4 x 8 Single- PHY

Transmit D ata Bu s.

Carries payload data to the IXF1104 MAC egres s path.

Mode

32-bit Multi-PHY 4 x 8 Single- PHY

Transmit D ata Bu s.

Carries payload data to the IXF1104 MAC egres s path.

Mode

32-bit Multi-PHY 4 x 8 Single- PHY

Transmit C loc k.

TFCLK is the clock associated with all transmit signals. Dat a and control lines are samp le d on the r is in g edge of TFCLK (freque ncy operation range 90 - 133 MHz).

Bits

[31:24] [7:0] for port 3

Bits

[23:16] [7:0] for port 2

Bits

[15:8] [7:0] for port 1

Bits

7:0] [7:0] for port 0

39 Datasheet

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Tabl e 3. SPI3 Interface Signal Description s (Sheet 2 of 8)

Signal Name

MPHY SPHY

TPRTY_0 TPRTY_0

TPRTY_1 TPRTY_2 TPRTY_3

TENB_0 TENB_0

TENB_1 TENB_2 TENB_3

TERR_0 TERR_0

TERR_1 TERR_2 TERR_3

TSOP_0 TSOP_0

TSOP_1 TSOP_2 TSOP_3

TEOP_0 TEOP_0

TEOP_1 TEOP_2 TEOP_3

Ball

Designator

D5 G3

B7 E2

A8 K1

E11

C10

A7 F3 E4

Type Standard Description

T ransmit Parity.

TPRTY indicate s odd parit y for the TDAT bus. TPRTY is valid on ly when a channe l asserts either TENB or TSX. Odd parity is the default configuration; however, even parity can be selected (see Table 146 “SPI3

Transmit and Global Configuration ($0x70 0)” on page 213).

32-bit Multi- PHY mode: TPRTY_0 is the parity bit covering all 32 bits.

4 x 8 Single-PHY mode: TPRTY_0:3 bits correspond to the respective TDAT[3:0]_n channels.

T ransmit Write Enable.

TENB_0:3 asserted causes an attach ed PHY to process TDAT[n], TMOD, TSOP, TEOP an d TER R si gn als.

32-bit Multi- PHY mode: TENB_0 is the enable bit for al l 32 bits .

4 x 8 Single-PHY mode: TENB_0:3 bits correspond to the respective TDAT[3:0]_n channels and their associated c ontrol and status signals.

T ransmit Erro r.

TERR indicates that there is an error in the current packet. TERR is valid when simultaneously as serted with TEOP and TENB.

32-bit Multi- PHY mode: TERR_0 is the bit asserted for all 32 bits.

4 x 8 Single-PHY mode: Each bit of TERR_0:3 corresponds to the respective TDAT[3:0]_n channel.

T ransmit Start-of-Packet.

TSOP indicates the start of a packe t an d is valid when asserted simultaneously with TENB.

32-bit Multi- PHY mode: TSOP_0 is the bit asserted for all 32 bits.

4 x 8 Single-PHY mode:

TSOP_0:3 corresponds to the respective TDAT[3:0]_n channel.

T ransmit End-of-Packet.

TEOP indicates the end of a packet and is valid when asserted simultaneously with TENB.

32-bit Multi- PHY mode: TEOP_0 is the bit asserted for all 32 bits.

4 x 8 Single-PHY mode: Each bit of TEOP_0:3 corresponds to the respective TDAT[3:0]_n channel.

Input

3.3 V

LVTTL

3.3 V

LVTTL

3.3 V

LVTTL

3.3 V

LVTTL

3.3 V

LVTTL

Each bit of

Datasheet 40

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Table 3. SPI3 Interface Signal Descriptions (Sheet 3 of 8)

Signal Name

MPHY SPHY

TMOD1 TMOD0

TSX NA E1 Input

TADR1 TADR0

Ball

Designator

D9 A6

A12 A11

Type Standard Description

Input

3.3 V

LVTTL

3.3 V

LVTTL

3.3 V

LVTTL

TMOD[1:0] Transmit Word Modulo. 32-bit Multi-PHY mode: TMOD[1:0]

indicate s the val id da ta byte s of TDA T [31:0 ]. During transmission, TMOD[1:0] should always be “00” until the last double word is transferred on TDAT[31:0]. TMOD[1:0] specifies the valid bytes of TDAT when TEOP is asserted:

TMOD[1:0] – Valid Bytes of TDAT 00 =4 bytes [31:0] 01 =3 bytes [31:8] 10 =2 bytes [31:16] 11 = 1 byte [31:24] TENB must be asserted simultaneously for

TMOD[1: 0] to be valid . 4 x 8 Singl e-PHY mode: MOD[1:0] is not

required.

Transmit St art of Transfer. 32-bit Multi-PHY mode: TSX asserted with

TENB = 1 indicates that the PHY address is present on TDA T[7:0]. The valid values on TDAT[7:0] ar e 3, 2, 1, an d 0. Wh en TENB = 0, TSX is not used by the PHY device. NOTE: Only TDAT[1:0] are relevant; all

other bits are “Don’t Care”.

4 x 8 Singl e-PHY mode: TSX is not used. TADR[1:0] Transmit PHY Address.

The value on TADR[1:0] selects one of the PHY ports that drives the PTPA signal after the rising edge of TFCLK.

41 Datasheet

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Tabl e 3. SPI3 Interface Signal Description s (Sheet 4 of 8)

Signal Name

MPHY SPHY

DTPA_0 DTPA_1 DTPA_2 DTPA_3

STPA NA C11 Output

DTPA_0 DTPA_1 DTPA_2 DTPA_3

Ball

Designator

L1 A9

Type Standard Description

Output

3.3 V

LVTTL

3.3 V

LVTTL

DTPA_0:3 Dir ect Transmit Packet Available.

A direct status indication for transmit FIFOs of ports 0:3.

When Hig h, DTP A in dica tes that the amo unt of data in the TX FIFO is below the TX FIFO High watermark. When the High watermark is crossed, DTPA transitions Low to indicate that the TX FIFO is almost full. It stays Low until the amount of data in the TX FIFO goes back below the TX FIFO Low watermark. At this point, DTPA transitions High to indicate that the programmed number of bytes are now available for data transfers.

NOTE: For more information, see

Table 132 “TX FIFO High Watermark Ports 0 - 3 ($0x600 – 0x603)” on page 203 and Table 133 “TX FIFO Low Watermark Register Ports 0 - 3 ($0x60A – 0x60D)” on page 204.

DTPA is updated on the rising edge of TFCLK.

Select ed -P H Y Trans mit Packet Available.

STPA is only meaningful in a 32-bi t multiPHY mode.

STPA is a direct status indication for transmit FIFOs of ports 0:3.

When Hi gh , S TPA indi cate s t h at t he am ount of data in the TX FIFO, specified by the lates t in-band address, is below the TX FIFO High watermark. When the High watermar k i s cros sed , S T PA transi tion s Lo w to indicate the TX FIFO is almost full. It stays Low until the amo unt of data in t he TX FIFO goes back below the TX FIFO Low watermark. At this point, STPA transitions High to indicate that the programmed number of bytes are now available for data transfers.

NOTE: For more information, see

STPA provides the status indication for the select ed port to avoid FIFO overflows while polling is performed. The port reported by STPA is updated on the following ri s ing edge of TFCLK after TSX is sampled as asserted. STPA is updated on the rising edge of TFCLK.

Table 132 “TX FIFO High Watermark Ports 0 - 3 ($0x600 – 0x603)” on page 203 and Table 133 “TX FIFO Low Watermark Register Ports 0 - 3 ($0x60A – 0x60D)” on page 204.

Datasheet 42

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Table 3. SPI3 Interface Signal Descriptions (Sheet 5 of 8)

Signal Name

MPHY SPHY

PTPA PTPA B11 Output

RDAT31 RDAT30 RDAT29 RDAT28 RDAT27 RDAT26 RDAT25 RDAT24

RDAT23 RDAT22 RDAT21 RDAT20 RDAT19 RDAT18 RDAT17 RDAT16

RDAT15 RDAT14 RDAT13 RDAT12 RDAT11 RDAT10 RDAT9 RDAT8

RDAT7_3 RDAT6_3 RDAT5_3 RDAT4_3 RDAT3_3 RDAT2_3 RDAT1_3 RDAT0_3

RDAT7_2 RDAT6_2 RDAT5_2 RDAT4_2 RDAT3_2 RDAT2_2 RDAT1_2 RDAT0_2

RDAT7_1 RDAT6_1 RDAT5_1 RDAT4_1 RDAT3_1 RDAT2_1 RDAT1_1 RDAT0_1

Ball

Designator

F24 G24 G23 G22 G21 G20 G19 G18

E21

E22 D22 C22 C21 C20

B22

B20

F18

E18

E17

F16

E16 D16 C17

A17

Type Standard Description

Output

3.3 V

LVTTL

3.3 V

LVTTL

3.3 V

LVTTL

3.3 V

LVTTL

Polled-PHY Transmit Packet Available.

PTPA allows th e polling of t he port selected by the TADR address bus.

When High, PTPA indicates that the amount of data i n t he TX F IFO i s be low th e TX FIF O High watermark. When the High watermark is crossed, PTPA transitions Low to indicate that the TX FIFO is almost full. It stays Low until the amount data in the TX FIFO goes back belo w the TX FIFO Low wat erm ar k. At this poin t, PTPA transitions Hig h to indic at e that the programmed number of bytes are now ava ilable for data t ran sfers.

NOTE: For more information, see

The port r eported by PTPA is updated on the following rising edge of TFCLK after the port address on TADR is sampled by the PHY device.

PTPA is updated on the rising edge of TFCLK.

Receive Data Bus.

RDAT carries payload data and in-band addres ses from the IX F1104 MAC.

Mode

32-bit Multi-PHY 4 x 8 Single- PHY

Receive Data Bus.

RDAT carries payload data and in-band addres ses from the IX F1104 MAC.

Mode

32-bit Multi-PHY 4 x 8 Single- PHY

Receive Data Bus.

RDAT carries payload data and in-band addres ses from the IX F1104 MAC.

Mode

32-bit Multi-PHY 4 x 8 Single- PHY

T able 132 “TX FIFO High Watermark Ports 0 - 3 ($0x600 – 0x603)” on page 203 and Table 133 “TX FIFO Low Waterm ark Register Ports 0 - 3 ($0x60A – 0x60D)” on page 204.

Bits

[31:24] [7:0] for port 3

Bits

[23:16] [7:0] for port 2

Bits

[15:8] [7:0] for port 1

43 Datasheet

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Tabl e 3. SPI3 Interface Signal Description s (Sheet 6 of 8)

Signal Name

MPHY SPHY

RDAT7 RDAT6 RDAT5 RDAT4 RDAT3 RDAT2 RDAT1 RDAT0

RFCLK RFCLK A19 Input

RPRTY_0 RPRTY_0

RENB_0 RENB_0

RDAT7_0 RDAT6_0 RDAT5_0 RDAT4_0 RDAT3_0 RDAT2_0 RDAT1_0 RDAT0_0

RPRTY_1 RPRTY_2 RPRTY_3

RENB_1 RENB_2 RENB_3

Ball

Designator

F14 E14 D14 C13 C14 B14 A14 A15

E15 G16 E20 F20

A13 A18 C19 E24

Type Standard Description

Output

Input

3.3 V

LVTTL

3.3 V

LVTTL

3.3 V

LVTTL

3.3 V

LVTTL

Receive D ata Bus.

RDAT carries payload data and in-band addresses from the IXF 1104 MAC.

Mode

32-bit Multi-PHY 4 x 8 Single- PH Y

Receive Clock.

RFCLK is the clock associated with al l receiv e si gn als . D ata and controls are driven on the rising edge of RFCLK (freq uency operation range 90 - 133 M Hz).

Receive Parity.

RPRTY indicates odd parity for the RDAT bus. RPRTY is valid only when a channel asserts RENB or RSX. Odd parity is the default configuration; however, even parity can be selected (see Table 147 on

page 215).

32-bit Multi- PHY mode: RPRTY_0 is the parity bit for all 32 bits.

4 x 8 Single-PHY mode: Each bit of RPRTY_0:3 corresponds to the respective RDAT[3:0]_n channel.

Receive Read Enable.

The RENB signal controls the flow of data from the receive FIFOs. During data transfer, RVAL must be monitored as it indicates if the RDAT[31:0 ], RPRT Y, RMOD[1:0], RSOP , REOP, RERR, and RSX are valid. The system m ay de-assert REN B at any time if it is unable to accept data from the IXF1 104 MAC. When RENB is sampled Low, a read is performed from the receive FIFO and the RDAT[31:0], RPRTY, RMOD[1:0], RSOP , REOP, RERR, RSX and RVAL signals are updated on the following rising edge of RFCLK.

When RENB is sampled High by the PHY device, a read is not performed, and the RDAT[31:0], RPRTY, RMOD[1:0], RSOP, REOP, RERR, RSX, and RVAL signals remain unchanged on the following rising edge of RFCLK.

32-b it Mu lti- PH Y Mo de: RENB_0 covers all receive bits.

4 x 8 Single-PHY Mode: The RENB_0:3 bits correspond to the per-port data and control signals.

Bits

[7:0] [7:0] for port 0

Datasheet 44

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Table 3. SPI3 Interface Signal Descriptions (Sheet 7 of 8)

Signal Name

MPHY SPHY

RERR_0 RERR_0

RERR_1 RERR_2 RERR_3

RVAL_0 RVAL_0

RVAL_1 RVAL_2 RVAL_3

RSOP_0 RSOP_0

RSOP_1 RSOP_2 RSOP_3

Ball

Designator

A16 G17 D20 H20

C15

B18

E19

F22

B16 C18

E23

J18

Type Standard Description

Receive Error.

RERR indicates that the current packet is in error. RERR is only asserted when REOP is asserted. Conditions that can cause RERR to be set include FIFO overflow, CRC error, code error, and runt or giant packets. NOTE: RERR can only be set fo r these

Output

3.3 V

LVTTL

3.3 V

LVTTL

3.3 V

LVTTL

RERR is considered valid only when RV AL is asserted.

32-bit Multi-PHY mode: RERR_0 covers all 32 bits.

4 x 8 Singl e-PHY mode: T he RERR_0:3 bits correspond to the RDAT[7:0]_n channels.

(n = 0, 1, 2, or 3)

Receive D ata Valid.

RVAL indicates the validity of the receive data signals. RVAL is Low between transfers and assertion of RSX. It is also Low when the IXF1104 MAC pauses a trans fer du e to an empty receiv e FIFO . When a trans fer is pa used by holdin g RENB High, RVAL holds its value unch an ge d, althou gh no new data i s present on RDAT[31:0] until the transfer resumes. When RVAL is High, the RDAT[31:0], RMOD[1:0], RSOP, REOP, and RERR signals are valid. When RVAL is Low, the RDAT[31:0], RMOD[1:0], RSOP, REOP, and RERR signals are invalid and must be disregarded.

The RSX signal is valid only when RVAL is Low.

32-bit Multi-PHY mode: RVAL_0 covers all receive bits.

4 x 8 Singl e-PHY mode: The RVAL_0:3 bits co rrespond to the per-port data and contr o l si gn al s.

Receive Start of Packet.

RSOP indicates the start of a packet when asserted with RVAL.

32-bit Multi-PHY mode: RSOP_0 covers all 32 bits.

4 x 8 Singl e-PHY mode: The RSOP_0:3 bits correspond to the RDAT[7:0]_n channels.

conditions if bit 0 in the “SPI3

Receive Configuration ($0x701)” is

set to 1.

45 Datasheet

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Tabl e 3. SPI3 Interface Signal Description s (Sheet 8 of 8)

Signal Name

MPHY SPHY

REOP_0 REOP_0

RMOD1 RMOD0

RSX NA E13 Output

REOP_1 REOP_2 REOP_3

Ball

Designator

C16 D18 C23

J19

G13 G14

Type Standard Description

Output

3.3 V

LVTTL

3.3 V

LVTTL

3.3 V

LVTTL

Receive End of Packet.

REOP in dicates the end of a packet when asserted with RVAL.

32-bit Multi- PHY mode: REOP_0 covers all 32 bits.

4 x 8 Single-PHY mode: The REOP_0:3 bits correspond to the RDAT[7:0]_n channels.

Receive Word Modulo : 32-bit Multi- PHY mode: RMOD[1:0]

indicates the valid bytes of data in RDAT[ 31:0] . During transmission, RMOD is always “00”, except when the last doubleword is transferred on RDAT[31:0]. RMOD[1:0] specifies the valid packet data bytes on RDAT[31:0] when REOP is asserted.

RMOD[1:0] Valid Bytes of RDAT

00 =4 bytes [31:0] 01 =3 bytes [31:8] 10 =2 bytes [31:16] 11 = 1 byte [31:24] 4 x 8 Single-PHY mode: RMOD[1:0] is not

required. RMOD is considered valid only when RVAL

is simultaneously asserted. RENB must be asserted for RMOD[1:0] to

be valid.

Receive Start of Transfer. 32-bit Multi- PHY mode: RSX indicates

when th e in -ban d po rt a dd ress i s p re se nt o n the RDAT bus. When RSX is High and RVAL = 0, the value of RDAT[7:0] is the address of the receive FIFO to be selected. Subsequent data transfers on RDAT are from the FIFO specified by this in- band addres s. Values of 0, 1, 2, and 3 selec t the corresponding port. RSX is ignored when RVAL is de-asserted.

4 x 8 Single-PHY mode: RSX is ignored.

Datasheet 46

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Table 4. SerDes Interface S ignal Descri ptions

Signal Name Ball Designato r Type Standard Descri ption

TX_P_0 TX_P_1 TX_P_2 TX_P_3

TX_N_0 TX_N_1 TX_N_2 TX_N_3

RX_P_0 RX_P_1 RX_P_2 RX_P_3

RX_N_0 RX_N_1 RX_N_2 RX_N_3

Y13 AD13 W16 AC18

Y14 AD14 Y16 AD18

P22 V22 T24 U24

R22 U22 R24 V24

Output SerDes Transmit Differential Output, Positive.

Output SerDes Transmit Differential Output, Negative.

Input SerDes Receive Differential Input, Positive.

Input SerDes Receive Differential Input, Negative.

1. Internally terminated differentially with 100 Ω.

47 Datasheet

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Table 5. GMII Interface Signal Descriptions (Sheet 1 of 2)

Signal Name Ball Designator Type Standard Description

TXD7_0 TXD6_0 TXD5_0 TXD4_0 TXD3_0 TXD2_0 TXD1_0 TXD0_0

TXD7_1 TXD6_1 TXD5_1 TXD4_1 TXD3_1 TXD2_1 TXD1_1 TXD0_1

TXD7_2 TXD6_2 TXD5_2 TXD4_2 TXD3_2 TXD2_2 TXD1_2 TXD0_2

TXD7_3 TXD6_3 TXD5_3 TXD4_3 TXD3_3 TXD2_3 TXD1_3 TXD0_3

TX_EN_0 TX_EN_1 TX_EN_2 TX_EN_3

TX_ER_0 TX_ER_1 TX_ER_2 TX_ER_3

TXC_0 TXC_1 TXC_2 TXC_3

NOTE: Refer to the RGMII interface for shared dat a and clock signals.

Y4 AB4 AC3 AB3 AA3

AC9 AD8 AB8 AA7 AD9 AB9 AB7 AC7

AA18 AA20 AB19 AD16 AB23 AB22 AB21 AB20

W14

AA16

Y15

AA14

V17 V16 V15 V14

AB2

AC22

V12

AD6

AD17 AB13

AA1 AD7

AC20 AB14

Output

2.5 V

CMOS

2.5 V

CMOS

2.5 V

CMOS

2.5 V

CMOS

T ransmit Data.

Each bus carries eight data bits [7:0] of the transmitted data stream to the PHY device.

RGMII Mode: When a port is configured in copper mode and the RGMII interface is selected, only bits TXD[3:0]_n are used. The data is transmitted on both edges of TXC_0:3.

Fiber Mode: The fol lowing signals have multiplexed functions when a port is configured in fiber mode:

TXD4_n: TX_D ISA BLE _0 :3

T ransmit Enable.

TX_EN indicates that va lid data is being dri ve n on the corres p on di ng Transmit Data: TXD_0, TXD_1, TXD_2, and TXD_3.

Transmit Error:

TX_ER indicates a transmit error in the corresponding Transmit Data: TXD_0, TXD_1, TXD_2, and TXD_3.

Source Synchronous Transmit Clock.

This clock is supplied synchronous t o the transmit data bus in either RGMII or GMII mode.

NOTE: Shares the same b al l s as RXC

on the RGMII interface.

Datasheet 48

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Table 5. GM II Interface Signal Descrip tions (Sheet 2 of 2)

Signal Name Ball Designator Type Standard Description

RXD7_0 RXD6_0 RXD5_0 RXD4_0 RXD3_0 RXD2_0 RXD1_0 RXD0_0

RXD7_1 RXD6_1 RXD5_1 RXD4_1 RXD3_1 RXD2_1 RXD1_1 RXD0_1

RXD7_2 RXD6_2 RXD5_2 RXD4_2 RXD3_2 RXD2_2 RXD1_2 RXD0_2

RXD7_3 RXD6_3 RXD5_3 RXD4_3 RXD3_3 RXD2_3 RXD1_3 RXD0_3

RX_DV_0 RX_DV_1 RX_DV_2 RX_DV_3

RX_ER_0 RX_ER_1 RX_ER_2 RX_ER_3

CRS_0 CRS_1 CRS_2 CRS_3

RXC_0 RXC_1 RXC_2 RXC_3

NOTE: Refer to the RGMII interface for shared dat a and clock signals.

AC5 AB5

Y5 Y6 Y7

V7 V8

Y10 AA11 AC11

AD10

W11

Y11

W20

V19

V20

W22

Y23

Y22

Y21

Y20

T19 T18 T17 T16

W18

Y19

Y18

Y17

AB11

Y24

V18

Y12

AA22

U20

AA5

AA9

AB15 AC16

V4 AD11 AA24

V23

Input

2.5 V

CMOS

2.5 V

CMOS

2.5 V

CMOS

2.5 V

CMOS

2.5 V

CMOS

Receive Data:

Each bus carries eight data bits [7:0] of the received data st ream.

RGMII Mode: When a port ID is configured in copper mode and the RGMII interface is selected, only bits RXD[3:0]_n are used to receive data.

Fiber Mode: The following signa ls have mul tip le xe d func ti on s when a port is configured in fiber mode:

RXD4_n: MOD_DEF_0:3 RXD5_n: TX_FAULT_0:3 RXD6_n: RX_LOS_0:3

Receive Data Valid.

RX_DV indicates that valid data is being driven on Receive Data: RXD[7:0]_n.

Receive Error.

RX_ER indicates an error in Receive Data: RXD[7:0]_n.

Carrier Sense.

CRS indicates the PHY device has detecte d a ca rr ie r.

Receiver Reference Clock.

RXC operates at: 125 MHz for 1 Gigabit

NOTE: Shares the s ame ba ll s a s RXC

on the RGMII interface.

49 Datasheet

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Table 6. RGMI I Interface Signal Descripti ons (Sheet 1 of 2)

Signal Name

TXC_0 TXC_1 TXC_2 TXC_3

TD3_0 TD2_0 TD1_0 TD0_0

TD3_1 TD2_1 TD1_1 TD0_1

TD3_2 TD2_2 TD1_2 TD0_2

TD3_3 TD2_3 TD1_3 TD0_3

TX_CTL_0 TX_CTL_1 TX_CTL_2 TX_CTL_3

RXC_0 RXC_1 RXC_2 RXC_3

Ball

Designator

AA1

AD7 AC20 AB14

AA3

Y3 Y2 Y1

AD9

AB9

AB7

AC7

AB23 AB22 AB21 AB20

V17 V16 V15 V14

AB2

AC22

V12

V4 AD11 AA24

V23

Type Standard Description

Source Synchronous Transmit Clock.

This cloc k is sup plied sync h ronous to the t ran smit data bus in either RGMII or GMII mode.

Tran sm it Da t a.

Bits [3:0] are clocked on the rising edge of TXC. Bits [7:4] are clocked on the falling edge of TXC.

NOTE: Shares dat a signals TXD[3 :0]_n with the

Transmit Control.

TX_CT L is T X_ EN on t he r is ing ed ge of TX C an d a logi cal derivative of TX_EN and TX_ER on the fall ing edge of TXC.

NOTE: TX_CTL multiplexes with TX_EN_n on the

Receiver Reference Clock.

Opera tes at: 125 MHz for 1 Gigabit 25 MHz for 10 0 Mb ps

2.5 MHz f or 10 Mbps

NOTE: Shares the same balls as RXC on the

Output

Input

2.5 V

CMOS

2.5 V

CMOS

2.5 V

CMOS

2.5 V

CMOS

GMII interface.

Datasheet 50

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Table 6. RGMII Interface Sign al Descriptions (Sheet 2 of 2)

Signal Name

RD3_0 RD2_0 RD1_0 RD0_0

RD3_1 RD2_1 RD1_1 RD0_1

RD3_2 RD2_2 RD1_2 RD0_2

RD3_3 RD2_3 RD1_3 RD0_3

RX_CTL_0 RX_CTL_1 RX_CTL_2 RX_CTL_3

Ball

Designator

V7 V8

W11

Y11

Y23 Y22 Y21 Y20

W18

Y19 Y18 Y17

AB11

Y24 V18

Type Standard Description

Receive Data.

Bits [3:0] are clocked on the risin g edge of RXC. Bits [7:4] are clocked on the falling edge of RXC.

NOTE: Shares balls with RXD[3:0]_0 on the GMII

interface.

Receive Control.

RX_CTL is RX_DV on the rising edge of RXC and a logic al de riv ative of RX_DV and RERR on the falling edge of RXC.

NOTE: RX_CTL shares th e same b alls as RX_DV

on the GMII interface.

Input

2.5 V

CMOS

2.5 V

CMOS

Table 7. CPU Interface Signal Descriptions (Sheet 1 of 2)

Signal Name

UPX_ADD10 UPX_ADD9 UPX_ADD8 UPX_ADD7 UPX_ADD6 UPX_ADD5 UPX_ADD4 UPX_ADD3 UPX_ADD2 UPX_ADD1 UPX_ADD0

UPX_BADD1 UPX_BADD0

Ball

Designator

T3 U3 V3 V2 V1 U1 T1 R1 P1 N1 P3

Type Standard Description

Input 3.3 V LVTTL

UPX_ADD is the address bus from the microprocessor.

16-bit mode: The data word select uses UPX_BADD1.

8-bit mo de: UPX_BADD [1:0] select s t he indi vidu al bytes.

51 Datasheet

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Table 7. CPU Interface Signal Descriptio ns (Sheet 2 of 2)

Signal Name

UPX_DATA31 UPX_DATA30 UPX_DATA29 UPX_DATA28 UPX_DATA27 UPX_DATA26 UPX_DATA25 UPX_DATA24 UPX_DATA23 UPX_DATA22 UPX_DATA21 UPX_DATA20 UPX_DATA19 UPX_DATA18 UPX_DATA17 UPX_DATA16 UPX_DATA15 UPX_DATA14 UPX_DATA13 UPX_DATA12 UPX_DATA11 UPX_DATA10 UPX_DATA9 UPX_DATA8 UPX_DATA7 UPX_DATA6 UPX_DATA5 UPX_DATA4 UPX_DATA3 UPX_DATA2 UPX_DATA1 UPX_DATA0

UPX_CS_L R3 Inp ut 3.3 V LVTTL Chip Select. Active Low. UPX_WR_L T4 Input 3.3 V LVTTL Write Strobe. Active Low. UPX_RD_L V 6 Input 3 .3 V LVTTL Read Strobe. Active Low.

Ball

Designator

L17 J17

H16

J16 M15 N15 K15 H14 K13 G12 K12 G11 H11 G10 K10 M10 N10

L7 L6 P5

K5 M5 N5

L4 M3

Type Standard Description

Data bus.

Input/

Output

3.3 V LV TTL

32-bit mo de : Uses [31:0] 16-bit mo de : Uses [15:0] 8-bit mode: Uses [7:0]

Cycle comp lete indic at or.

Active Low.

UPX_RDY_L M1

UPX_WIDTH1 UPX_WIDTH0

U16

Open Drain

Output*

Input 3.3 V LVTTL

3.3 V LV TTL

NOTE: An external pull-up resistor is required for

proper operation.

NOTE: *D ua l-m od e I/O

Normal operati on: Open drai n output Boundary Scan Mode: Standard CMOS

output

Data bus width select.

UPX_WIDTH[1:0] specifies the CPU bus width.

UPX_WIDTH[1:0]

00 01 1x

Mode

8-bit 16-bit 32-bit

Datasheet 52

Document Number: 278757 Revision Number: 009 Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Table 8. Transmit Pause Control Interface Signal Descriptions

Signal Name

TXPAUSEADD2 TXPAUSEADD1 TXPAUSEADD0

TXPAUSEFR T20 Input

Ball

Designator

P21 P20 N20

Type Standard Description

Input

2.5 V

CMOS

2.5 V

CMOS

TXPAUSEADD[2:0] is the port selection address for pause frame insertion.

TX Pause Interface Strobe.

Table 9. Optical Module Interface S ignal Descri ption s (Sheet 1 of 2)

Signal Name

TX_DISABLE_0 TX_DISABLE_1 TX_DISABLE_2 TX_DISABLE_3

MOD_DEF_0 MOD_DEF_1 MOD_DEF_2 MOD_DEF_3

RX_LOS_0 RX_LOS_1 RX_LOS_2 RX_LOS_3

TX_FAULT_0 TX_FAULT_1 TX_FAULT_2 TX_FAULT_3

RX_LOS_INT P19

Ball

Designator

AB3

AA7 AD16 AA14

AD10

W22

T16

AB5

AA11

V19

T18

AC11

V20

T17

Type Standard Description

Transmit D isa ble:

TX_DISABLE_0:3 outputs disable the Optical Module Interface transmitter. An external pull-up resistor usually resident in an optical module is

Open Drain

Output*

Input

Open Drain

Output*

2.5 V

CMOS

2.5 V

CMOS

2.5 V

CMOS

2.5 V

CMOS

2.5 V

CMOS

required for proper operation.

NOTE: These signals are multiplexed with the NOTE: *Dual-mode I/O

MOD_DEF_0:3 inputs determine when an Optical Module Interface is present.

NOTE: These signals are multiplexed with the

RX_LOS_0:3 inputs determine when the Optical Module Interface receiver loses synchronization.

NOTE: These signals are multiplexed with the

TX_FAULT_0:3 inputs determine an Optical Module Interface transmitter fault.

NOTE: These signals are multiplexed with the

Receiver Los s of S igna l Inte rr upt .

RX_LOS_INT is an open drain interrupt output to signal an RX_LOS cond ition.

NOTE: An external pull-up resistor is required NOTE: *Dual-mode I/O

TXD[4]_n bits of the GMII Interface Normal operation: Open drain output

Boundary Scan Mode: Standard CMOS output

RXD[4]_n bits of the GMII interface.

RXD[6]_n bits of the GMII interface.

RXD[5]_n bits of the GMII Interface.

for proper operation. Normal operation: Open drain output

Boundary Scan Mode: Standard CMOS output

53 Datasheet

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Tabl e 9. Optical Modu le Interface Signa l Descrip tions (Sheet 2 of 2)

Signal Name

Ball

Designator

Type Standard Description

Open

TX_FAULT_INT P23

Drain

Output*

Open

MOD_DEF_INT N22

Drain

Output*

C_CLK L23 Output

C DATA_0

C DATA_1

C DATA_2

C DATA_3

L24 M24 N24

P24

Input/ Open

Drain

Output*

2.5 V

CMOS

2.5 V

CMOS

2.5 V

CMOS

2.5 V

CMOS

Transmitter Fault Interrupt.

TX_FAULT_INT is an open drain interrupt output that sign als a TX_FAULT conditio n.

NOTE: An external pull-up resistor is

required for proper operation.

NOTE: *Dual-mode I/O

Normal operation: O pen drain output Boundary Scan Mode: Standard CMOS output

Module Defi niti on Inte r rupt . MOD_DEF_INT is an open drain interrupt output that sign als a MOD_D EF co ndition.

NOTE: An external pull-up resistor is

required for proper operation.

NOTE: *Dual-mode I/O

Normal operation: O pen drain output Boundary Scan Mode: Standard CMOS output

C_CLK is the clock used for the I2C bus

interface.

C Data Bus.

C DATA_0:3 are the data I/Os for the I2C bus

interface.

NOTE: An external pull-up resistor is

required for proper operation.

NOTE: *Dual-mode I/O

Normal operation: Input/ open drain output Boundary Scan Mode: Standard CMOS output

Table 10. MDIO Interface Signal Descriptions

Signal Name

Ball

Designator

MDIO V21

MDC W24 Output

Type Standard Description

MDIO is the management data input and output.

Input/

Output

2.5 V

CMOS

2.5 V

CMOS

NOTE: An external pull-up resistor is required for

MDC is the management clock to external d evices.

proper operation .

Datasheet 54

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Table 11. LED Interface Signal Descriptions

Signal Name

LED_CLK K24 Output

LED_DATA M22 Output

LED_LATCH L22 Output

Ball

Designator

Typ e Standard Description

Table 12. JT AG Interface Signal Descriptions

Signal Name

TCLK J22 Input

TMS H22 Input

TDI J24 Input

TDO H24 Output

TRST_L J23 Input

Ball

Designator

Typ e Standard Description

2.5 V

CMOS

2.5 V

CMOS

2.5 V

CMOS

3.3 V

LVTTL

3.3 V

LVTTL

3.3 V

LVTTL

3.3 V

LVTTL

3.3 V

LVTTL

LED_CLK is the clock output for the LED block.

LED_DATA is the data output for the LED block.

LED_LATCH is the latch enable for the LED block.

JTAG Test Clock

Test Mode Select

Test Data Input

Test Data Output

Test Rese t; res e t input for JTAG test

Table 13. System Interface Signal Descriptions

Signal Name

CLK125 AD19 Input

SYS_RES_L AD12 Input

Ball

Designator

Typ e Standard Description

2.5 V

CMOS

2.5 V

CMOS

CLK125 is the input clock to PLL; 125 MHz +/50 ppm

SYS_RES_L is the system hard reset (active Low).

55 Datasheet

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Table 14. Power Supply Signal Descriptions

Signal Name Ball Designator Type Standard Description

N6 U2

D4 D17 F10

H4 H17

K2 K14

L15

M11

N4 N17 P13

R7 R16 T15 U13

W23

AA13

AC6

AC19

D6 D19 H15

T11

AA15

B12

B21 H19 M16

N19 U23

AC13

U6 AC4

A21

B4 F8

B19

D13

F23

H13

J15 K11 K23 L13

M21 N14

P12

R14

T10

U12

W19 AA12 AB12

AC15

C12 D15 H10

J20 K21 L16

P16 R21 U15

AA10

F12

B17

F17 M13

N16 U19

AA23

AA2

B15

D12

F19

H12

J10 K19

L12

GND

AVDD1P8_1 A5 A20 Input 1.8 V Analog 1.8 V supply AVDD1P8_2 AB16 T23 Input 1.8 V Analog 1.8 V supply AVDD2P5_1 AD20 Input 2.5 V Analog 2.5 V supply AVDD2P5_2 U14 R18 Input 2.5 V Analog 2.5 V supply

VDD

VDD2

VDD3

VDD4

VDD5

M17

N11 P10

R11

R23

U21

W15

AA8 AA21 AC14

A10 D11 F21 J14 K17 L14

P14 R17 U10 AA6

J12 M12

B13

F13

J13 M23

N13

T13

W17

AC21

T12

W12

AC12

B10

D21

F15

H21

K16

L10 L20

M14

N8 N21 P15

R9 R19

U4 U17 W10 AA4

AA17 AC10 AD21

D10

J11

L11 P11

T14

W21

AA19

D23 H23 M19

N23 W13

AC17

N12

AC8

Input – Digital ground

Input 1.8 V Digital 1.8 V supply

Input 3.3 V Digital 3.3 V supply

Input 2.5 V Digital 2.5 V supply

Datasheet 56

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

4.4 Ball Usage Summary

Table 15. Ball Usage Summa ry

Type Quantity

Inputs 158 Outputs 126 Bi-directional 37 T otal Signals 321 Power 75 Ground 82 No Connects 74

Total 552

57 Datasheet

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

4.5 Multiplexed Ball Connections

4.5.1 GMII/RGMII/SerDes/OMI Multiplexed Ball Connections

Table 16 lists the balls used for the li ne-side interfaces (GMII, RGMII, SerDes/OMI) and provides

a guide to connect these balls. Some of these balls are multiplexed depending on the mode of operation selected for that port.

Note: Do not connect any balls marked as unused (NC).

Table 16. Line Side Interface Multiplexed Balls (Sheet 1 of 2)

Copper Mode Fiber Mode

GMII Signal RGMII Signal

TXC_0:3 TXC_0:3 NC NC AA1 AD7 AC20 AB14 TXD[3:0]_0

TXD[3:0]_1 TXD[3:0]_2 TXD[3:0]_3

TXD4_0:3 NC TX_DISABLE_0:3 TXD[7:5]_0

TXD[7:5]_1 TXD[7:5]_2 TXD[7:5]_3

TX_EN_0:3 TX_CTL_0:3 NC NC AB2 Y8 AC22 V12 TX_ER_0:3 NC NC NC W1 AD6 AD17 AB13 RXC_0:3 RXC_0:3 GND GND V4 AD11 AA24 V23 RXD[3:0]_0

RXD[3:0]_1 RXD[3:0]_2 RXD[3:0]_3

RXD4_0:3 GND MOD_DEF_0:3 RXD5_0:3 GND TX_FAULT_0:3 RXD6_0:3 GND RX_LOS_0:3 RXD7_0:3 GND GND GND AC5 Y10 W20 T19 RX_DV_0:3 RX_CTL_0:3 GND GND V5 AB11 Y24 V18 RX_ER_0:3 GND GND GND W5 Y12 AA22 U20 CRS_0:3 GND GND GND AA5 AA9 AB15 AC16 COL_0:3 GND GND GND AB6 AB10 AD15 AB17 GND GND RX_P_0:3 GND P22 V22 T24 U24 GND GND RX_N _0:3 GND R22 U22 R24 V24 NC NC TX_P_0:3 NC Y1 3 AD13 W16 AC18 NC NC TX_N_0:3 NC Y14 AD14 Y16 AD18

1. An external pull-up resistor is required with most optical modules.

2. An open drain I/O, external 4.7 k Ω pull-up re sistor is required.

TD[3:0]_0 TD[3:0]_1 TD[3:0]_2 TD[3:0]_3

NC NC NC

RD[3:0]_0 RD[3:0]_1 RD[3:0]_2 RD[3:0]_3

Optical Module/ SerDes Signal

NC NC

GND GND

Unused Port Ball Designator

AA3 AD9

AB23

V17

NC AB3 AA7 AD16 AA14

AC9

AA18

W14

Y7 W9

Y23

W18 GND Y6 AD10 W22 T16 GND Y5 AC11 V20 T17 GND AB5 AA11 V19 T18

AB9

AB22

V16

AB4

AD8 AA20 AA16

W7 W11 Y22 Y19

AB7

AB21

V15

AC3 AB8

AB19

Y15

V7 Y11 Y21 Y18

AC7

AB20

V14

Y9 Y20 Y17

Datasheet 58

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Table 16. Line Side Interface Multiplexed Balls (Sheet 2 of 2)

Coppe r Mode Fiber Mode

GMII Signal R GMII Signa l

Optical Modul e/ SerDes Signal

NC NC TX_FAULT_INT NC NC RX_LOS_INT NC NC MOD_DEF_INT

Unused Port Ball Designator

MDC MDC NC NC W24

MDIO NC NC I NC NC I

MDIO

NC NC V21

C_CLK NC L23

C_DATA_0:3

1. An external pull-up resistor is required with most optical modules.

2. An open dr ain I/O, external 4.7 k Ω pull-up resistor is required.

4.5.2 SPI3 MPHY/SPHY Ball Connections

Table 17 lists the balls used for the SPI3 Interface and provides a guide to connect these balls in

MPHY and SPHY mode.

NC P23 NC P19 NC N22

NC L24 M24 N24 P24

Table 17. SPI3 MPHY/SPHY Interface (Sheet 1 of 3)

SPI3 Signals

MPHY SPHY

TDAT[31:24] TDAT[7:0]_3

TDAT[23:16] TDAT[7:0]_2

TDAT[15:8] TDAT[7:0]_1

TDAT[7:0] TDAT[7:0]_0

F7 G7F5G6G9G5

C8 E8

H3 H1

C6 D1

TFCLK TFCLK D7

TPRTY_0 TPRTY_0 D5 GND TPRTY_1 G3 GND TPRTY_2 B9 GND TPRTY_3 J6 TENB_0 TENB_0 B7 VDD2 TENB_1 E2 VDD2 TENB_2 C9 VDD2 TENB_3 J4

Ball Number Comments

F9E7E10E6E9

J3G2J2

B5C3C5

G8 G4

MPHY: Consists of a single 32-bit data

bus SPHY: Separate 8-bit data bus for each

Ethernet port

F1 C4

To achiev e maximum bandwidth, set TFCLK as follows:

MPHY: 133 MHz SPHY: 125 MHz.

MPHY: Use TPRTY_0 as the TPRTY

signal. SPHY: Each port has its own dedicated

TPRTY_n signal.

MPHY: Use TENB_0 as the TENB signal.

SPHY: Each port has its own dedicated TENB_n signal.

59 Datasheet

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Table 17. SPI3 MPHY/ SPHY Interface (Sheet 2 of 3)

SPI3 Signals

MPHY SPHY

TERR_0 TERR_0 A8 GND TERR_1 K1 GND TERR_2 E11 GND TERR_3 J8 TSOP_0 TSOP_0 C7 GND TSOP_1 E3 GND TSOP_2 C10 GND TSOP_3 J5 TEOP_0 TEOP_0 A7 GND TEOP_1 F3 GND TEOP_2 E4 GND TEOP_3 H5 TMOD[1:0] GND D9 A6 TSX GND E1 T ADR[1:0] TADR[1:0] A12 A11 Used to address port for PTPA signal.

PTPA PTPA B11

DTPA_0:3 DTPA_0:3 D3 L1 A9 J7 STPA NC C11 STPA is only applic able in MPHY mode.

RDAT[31:24] RDAT[7:0]_3

RDAT[23:16] RDAT[7:0]_2

RDAT[15:8] RDAT[7:0]_1

RDAT[7:0] RDAT[7:0]_0

RFCLK RFCLK A19

RPRTY_0 RPRTY_0 E15 NC RPRTY_1 G16 NC RPRTY_2 E20 NC RPRTY_3 F20 RENB_0 RENB_0 A13 VDD2 RENB_1 A18 VDD2 RENB_2 C19 VDD2 RENB_3 E24

F24 G21

E21 C21

F18 E16

F14 C14

Ball Number Comments

MPHY: Use TERR _ 0 as the T ER R

signal. SPHY: Each port has its own dedicated

TERR_n signal

MPHY: Use TSOP _ 0 as the TS O P signal.

SPHY: Each port has a dedicated TSOP_n signal.

MPHY: Use TEOP _ 0 as the TE O P signal.

SPHY: Each port has a dedicated TEOP_n signal.

TSX and TM OD[1 : 0] ar e on ly app lic abl e in MPHY mode.

PTPA can be used in MPHY and SPHY modes.

DTPA is available on a per-port basis in both MPHY and SPHY modes.

G24 G20

E22 C20

E18 D16

E14 B14

G23 G19

D22 B22

E17 C17

D14 A15

G22 G18

C22

MPHY: Consists of a single 32 bit data

B20

bus. SPHY: Separate 8-bit data bus for each

F16

Ethernet port.

A17 C13

A14,

To achieve maximum bandwidth, set RFCLK as follows:

MPHY: 133 MHz. SPHY: 125 MHz.

MPHY: Use RPRTY_0 as the RPRTY

signal. SPHY: Each port has a dedicated

RPRTY_n signal.

MPHY: Use RENB_0 as the RENB signal.

SPHY: Each port has a dedicated RENB_n signal

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Table 17. SPI3 MPHY/SPHY Interface (Sheet 3 of 3)

SPI3 Signals

Ball Number Comments

MPHY SPHY

RERR_0 RERR_0 A16 NC RERR_1 G17 NC RERR_2 D20 NC RERR_3 H20 RVAL_0 RVAL_0 C15 NC RVAL_1 B18 NC RVAL_2 E19 NC RVAL_3 F22 RSOP_0 RSOP_0 B16 NC RSOP_1 C18 NC RSOP_2 E23 NC RSOP_3 J18 REOP_0 REOP_0 C16 NC REOP_1 D18 NC REOP_2 C23 NC REOP_3 J19 RMOD[1:0] NC G13 G14 RSX NC E13

MPHY: Use RERR_0 as the RERR signal.

SPHY: Each port has a dedicated RERR_n signal

MPHY: Use RVAL_0 as the RVAL signal.

SPHY: Each port has a dedicated RVAL_n signal.

MPHY: Use TSOP_0 as the TSOP signal.

SPHY: Each port has a dedicated TSOP_n si gn al .

MPHY: Use TEOP_0 as the TEOP signal.

SPHY: Each port has a dedicated TEOP_n si gn al .

RSX and RMOD[1:0] are applicable only in MPHY mode.

4.6 Ball State During Reset

Table 18. Definition of Output and Bi-directional Balls During Hardware Reset (Sheet 1 of 2)

Interface Ball Name Ball Reset State Comment

DTPA_0:3 0x0 – STPA 0x0 – PTPA 0x0 – RDAT[31:0] 0x00000000 – RVAL_0:3 0x0 –

SPI3

NOTE: Z = High impedance.

61 Datasheet

RERR_0:3 0x0 – RPRTY_0:3 0 x0 – RMOD[1:0] 0x0 – RSX 0x0 – RSOP_0:3 0x0 – REOP_0:3 0x0 –

Document Number: 278757

Revision Number: 009

Revision Date: 27-Oct-2005

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Table 18. Definition of Output and Bi-directional Balls During Hardware Rese t (Sheet 2 of 2)

Interface Ball Name Ball Reset State Comment

JTAG TDO 0x0 –

MDIO

CPU

LED

GMII/RGMII

RGMII TX_CTL_0:3 High Z

SerDes

Optical Module

NOTE: Z = High impedance.

MDIO High Z Bi-directional MDC 0x0 – UPX_DATA[31:0] High Z Bi-directional UPX_RDY_L 0X1 Open-drain output, requires an external pull-up LED_CLK 0x0 – LED_DATA 0x0 – LED_LATCH 0x0 –

TXC_0: 3 High Z

TXD[7:0]_0 High Z

TXD[7:0]_1 High Z

TXD[7:0]_2 High Z

TXD[7:0]_3 High Z

TX_EN_0:3 High Z

TX_ER_0:3 High Z

Fiber mode is the default. Copper interfaces are disabled.

Fiber mode is the default. Bit 4 is dri v en by the optical module as MOD_DEF_0.

Fiber mode is the default. Bit 4 is dri v en by the optical module as MOD_DEF_1.

Fiber mode is the default. Bit 4 is dri v en by the optical module as MOD_DEF_2.

Fiber mode is the default. Bit 4 is dri v en by the optical module as MOD_DEF_3.

Fiber mode is the default. Copper in ter f ac es ar e di sa bl ed.

Fiber mode is the default.

Copper in ter f ac es ar e di sa bl ed. TX_P_0:3 0x0 – TX_N_0:3 0x0 – TX_FAULT_INT High Z Open-drain output, requires external pull-up. RX_LOS_INT High Z Open-drain output, requires exter nal pull-up. MOD_DEF_INT High Z Open-drain output, requires exter nal pull-up.

C_CLK 0x1 –

C_DATA_0:3 0xF Open-drain output, requires external pull-up.

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

4.7 Power Supply Sequencing

Follow the power-up and power-down sequences described in this section to ensure correct IXF1104 MAC operation. The sequence described in Section 4.7 covers all IXF1104 MAC digital and analog supplies.

Caution: Failure to follow the sequence described in this section might damage the IXF1104 MAC.

4.7.1 Power-Up Sequence

Ensure that the 1.8 V analog and digital supplies are applied and stable prior to application of the

2.5 V analog and digital supplies.

4.7.2 Power-Down Sequence

Remove the 2. 5 V suppli es prior t o removi ng the 1 .8 V power supp lie s (the reverse of the po wer -up sequence).

Caution: Damage can occur to the ESD structur es within the analog I/Os if the 2.5 V digital and analog

supplies exceed the 1.8 V digital and analog supplies by more than 2.0 V during power-up or power-down.

Figure 5 and Table 19 provide the IXF1104 MAC power supply sequencing.

Figure 5. Power Sup pl y Se quencing

1.8 V Supplies Stable

t=0

Apply VDD, AVDD1P8_1, and AVDD1P8_2

NOTE: The 3.3 V suppl y (VDD2 and VDD3) can be applied at any point during this sequence.

2.5 V Supplies Stable

Time

Sys_Res

Apply VDD4, VDD5, AVDD2P5_1 and AVDD2P5_2

63 Datasheet

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Table 19. Power Supply Sequen c ing

Power Supply Powe r-U p Ord er

VDD, AVDD1P8_1, AVDD1P8_2

VDD4, VDD5, AVDD2P5_1, AVDD2P5_2

1. The value of 10 µs given is a nominal value only. The exact time difference between the application of the 2.5 V analog supply is determined by a number of factors, depending on the power management method used.

NOTE: To avoid damage to th e IXF1104 MAC, the TXAV25 suppl y must not exceed the VDD supply by more NOTE: The 3.3 V supply (VDD2 and VDD3) can be applied at any point during this sequence.

than 2 V at any time during the power-up or power-down sequence.

First 0 1.8 V supplies

Second 10 µs 2.5 V supplies

Time Delta to Next Supply

4.8 Pull-Up/Pull-Down Ball Guidelines

The signals shown in Table 20 require the add ition of a pull-up or pull-down resistor to the board design for normal oper ation. Any balls marked as unused (NC) should be unconnected.

Table 20. Pull-Up/Pull-Down and Unused Ball Guidelines

Pin Name Pull-Up/Pull-Down Com m en ts

TX_FAULT_INT Pull-up 4.7 k Ω to 2.5 V. Optical module signal with open-drain I/O. RX_LOS_INT Pull-up 4.7 k Ω to 2.5 V. Optical module signal with open-drain I/O. MOD_D EF_INT P ull - up 4.7 k Ω to 2.5 V. Optical module signal with open-drain I/O. TDI Pull-up 10 k Ω to 3.3 V. JTAG test pin. TDO Pull-up 10 k Ω to 3.3 V. JTAG test pin. TMS Pull-up 10 k Ω to 3.3 V. JTAG test pin. TCLK Pull-up 10 k Ω to 3.3 V. JTAG test pin. TRST_L Pull-down 10 k Ω to 3.3 V. JTAG test pin. MDIO Pull-up 4.7 k Ω to 2.5 V UPX_RDY_L Pull-up 4.7 k Ω to 3.3 V

C_DATA_0:3 P ull-up 4.7 k Ω to 2.5 V

I TX_DISABLE_0:3 Pull-up 4.7 k Ω to 2.5 V

Notes

4.9 Analog Po wer Filtering

Figure 21 illustrates an analo g power supply filter network and Table 21 lists the an al o g po w er

balls.

Datasheet 64

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Figure 6. Analog Po wer S up pl y Filte r Ne twork

Table 21. Analog Power Balls

Signal Name

AVDD1P8_1 A5 A20 AVDD2P5_1 AD20 AVDD1P8_2 AB16 T23 AVDD2P5_2 U14 R18

Ball

Designator

Comments

Need to provide a filter (see Figure 6). R: A VDD1P8_1 and AVDD2P5_1 = 5.6 Ω resistor.

Need to provide a filter (see Figure 6).

R: A VDD1P8_2 and AVDD2P5_2 = 1.0 Ω resistor.

65 Datasheet

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

5.0 Functional Descriptions

5.1 Media Access Controller (MAC)

The IXF1104 MAC main functional block consists of four independent 10/100/1000 Mbps Ethernet MACs, which support interfac es for fiber and copper connectivity.

• Copper Mode:

— RGMII for 10/100/1000 Mbps full-duplex opera tion and 10/100 Mbps half-duplex

operation

— GMII for 1000 Mbps full-duplex operation

• Fiber Mode:

— Integrated SerDes/OMI interface for direct connection to optical modules — 1000 Mbps full-duplex operation in fi ber mode

The following features support copper and fiber modes:

• Programmable Options:

— Automatic padding of transmitted packets that are less th an the minimum frame size — Broadca s t, mu lt icast, and unicast addr es s fi lt er i ng o n f ram e s re ce iv ed — Filter and drop packets with errors — Pre-padded RX frames with two bytes (aligns the Ethernet payload on SPI3 and in

network proces sor memories) — Remove CRC from RX f r ames — Append CRC to transmitted frames

• Performance Monitoring and Diagnostics:

— Loopback modes — Detection of runt and overly large packets — Cyclic Redundancy Check (CRC) calculation and error detection — RMON statistics for dropped packets, packets with errors, etc.

• Compliant with IEEE Spec 802.3x standard for flow control

— Receive and execute PAUSE Command Frames

• Support for non-standard packet sizes up to 10 KB including loss-les s fl ow control

Note: The IXF1104 MAC does not support 10/100 Mbps operation when configured in GMII mode.

The IXF1104 MAC is fully integrated, designed for use with Ethernet 802.3 frame types, and compliant to all of the IEEE 802.3 MAC requirements.

The IXF1104 MAC adds preamble and Start-of-Frame D elimiter (SFD) to all frames sent to it (transmit path) and removes preamble and SFD on all frames received by it (receive path ) . A CRC check is also ap plied to all transmit and receive packets. CRC is optional ly appended to transmit

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

packet s. CRC is removed optionally from receive packets after validation, and is not forwarded to SPI3. Packets with a bad CRC are marked, counted in the statistics block, and may be optionally dropped. A bad packet m ay be signaled with RERR on the SPI3 interface if it is not dropped.

The IXF1104 MAC operates only in full-duplex mode at 1000 Mbps rates on both SerDes and GMII interf ac e connections. The IXF1104 MAC is capable of operation at 1000 Mbps, full-duplex in RGMII mode, and at full-duplex and half-duplex operation for 10/100 Mbps links .

5.1.1 Features for Fiber and Copper Mode

Section 5.1.1.1 through Section 5.1 .1.4 cover IXF1104 MAC functions that are independent of the

line-side interface.

5.1.1.1 Padding of Undersized Frames on Transmit

The padding feature allows Ethernet frames smaller than 64 bytes to be transf erred from the SPI3 interface to the TX MAC and padded up to 64 bytes automatically by the MAC. This featur e is enabled by setting bit 7 of the “Diverse Config Write ($ Port_Index + 0x18)".

Note: When the user selects the padding function, the MAC core adds an automatically calculated CRC

to the end of the tran smitted packet.

5.1.1.2 Automatic CRC Generation

Automatic CRC Gene ration is used in con juncti on with the pa dding fea ture to ge nerate and appen d a correct CRC to a ny tran smit f rame . Thi s feat ure is enab led by setti ng bit 6 of th e “Diverse Confi g

Write ($ Port_Index + 0x18)".

5.1.1.3 Filte r ing o f R eceive Packets

This feature allows the IXF1104 MAC to filter receive packets under various conditions and drop the packets through an interaction with the Rece ive FIFO control.

5.1.1.3.1 F ilter on Unica st Packet Matc h

This feature is enabled when bit 0 of the “RX Packet Filter Control ($ Port_Index + 0x19) " = 1. Any frame received in t his mode tha t does not matc h the S ta tion Addre ss ( MAC address ) i s marked by the IXF1 104 MAC to be dropped. The frame is dropped if the appropriat e bit in the “RX FIFO

Errored Frame Drop E nable ($0x59F)" = 1. Otherwise, the frame is sent out the SP I 3 interface and

may optiona lly be signaled with an RERR (see bit 0 in “SPI3 Receive Configuration ($0x701)” on

page 215).

When bit 0 of the “RX Packet Filter Control ($ Port_Index + 0x19)" = 0, all un icas t fra mes are sent out the SPI3 inter face.

Note: The VLAN filter overrides t he unicast filter. Therefore, a VLAN frame cannot be filtered based on

the unicast address.

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5.1. 1.3.2 Filter on Multi cast Packet Ma tch

This feat u r e is en ab l ed w he n bi t 1 o f the “RX Packet Filter Control ($ Port_Index + 0x19 )" = 1. Any frame received in this mode that does not match the Port Multicast Addr ess (reserved multicast addres s recognized by IXF1104 MAC) is marked by th e MAC to be drop ped. The frame is dropped if the appropriate bit in the “RX FIFO Errored Frame Drop Enable ($0x59F)" = 1. Otherwise, the fra me is sent out the SPI3 interface and may optionally be signaled with an RERR (see bit 0 in “SPI3 Receive Confi guration ($0x701)” on page 215).

When bit 1 of the “RX Packet Filter Control ($ Port_Index + 0x19)" = 0, all multicast f r ames are sent out the SPI3 interface.

5.1.1.3.3 Filter Broadcast Packets

This feat u r e is en ab l ed w he n bi t 2 o f the “RX Packet Filter Control ($ Port_Index + 0x19 )" = 1. Any broadcast frame received in this mode is marked by the MAC to be dropped. The fr ame is dropped if the appropri ate bit in the “RX FIFO Errored Frame Drop Enable ($0x59F)" = 1. Otherwise, the fra me is sent out the SPI3 interface and may optionally be signaled with an RERR (see bit 0 in “SPI3 Receive Confi guration ($0x701)” on page 215).

When bit 2 of the “RX Packet Filter Control ($ Port_Index + 0x19)" = 0, all broadcast frames are sent out the SPI3 interface.

5.1.1.3.4 Filter VLAN Packets

This feat u r e is en ab l ed w he n bi t 3 o f the “RX Packet Filter Control ($ Port_Index + 0x19 )" = 1. VLAN frames received in this mode are marked by the MAC to be dropped. The frame is dropped if the appropriate bit in the “RX FIFO Errored Frame Drop Enable ($0x59F)" = 1. Otherwise, the VLAN frame is sent out t he SPI3 in terfac e and may opt ionall y be si gnaled wi th a n RERR (see bit 0 in “SPI3 Receive Configuration ($0x701)” on page 215).

When bit 3 of the “RX Packet Filter Control ($ Port_Index + 0x19)" = 0, a ll VLAN frames are sent out the SPI3 interface.

5.1.1.3.5 Filter Pause Packets

This feat u r e is en ab l ed w he n bi t 4 o f the “RX Packet Filter Control ($ Port_Index + 0x19 )" = 0. Pause frames receive d in this mode are marke d by the MAC to be dro pped. The fra me is droppe d if the appropriate bit in the “RX FIFO Errored Frame Drop Enable ($0x59F)" = 1. Otherwise, the pause frame is sent out the SPI3 interface and may optiona lly be signaled with an RERR (see bit 0 in “SPI3 Receive Configuration ($0x701)” on page 215).

When bit 4 of the “RX Packet Filter Control ($ Port_Index + 0x19)" = 1, all pause frames are sent out the SPI3 interface.

Note: Pause packets are not filtered if flow control is disabled in the “FC Enable ($ Port_Index + 0x12)”.

5.1.1.3.6 Filter CRC Error Packets

This feat u r e is en ab l ed w he n bi t 5 o f the “RX Packet Filter Control ($ Port_Index + 0x19 )” = 0 . Frames receiv ed with an errored CRC are marked as bad f ram es and may optionally be dropped in the RX FIFO. Otherwise, the frames are sent to the SPI3 interface and may be optionally signaled with an RERR (see Table 22 “CRC Error ed P ackets Drop Enable Behavior” on page 69).

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When the CRC Error Pass Filter bit = 0 (“RX Packet Filter Control ($ Port_Index + 0x19)”), it takes precedence over the other filter bits. Any packet ( Pause, Unicast, Multicast or Broadcast packet) with a CRC error will be mar k ed as a bad frame when th e CRC Error Pass Filter bit = 0.

Table 22. CRC Errored Packets Drop Enable Behavior

CRC Error

Pass

1xx

001

000

01x

1. See Table 9 1 “RX Packet Filter Control ($ Port_Index + 0x19)” on page 172.

2. See Table123 “RX FIFO Errored Frame Drop Enable ($0x59F)” on page196.

3. See Table 147 “SPI3 Receive Configuration ($0x701)” on page 215.

NOTE: x = “DON’T CARE”

RX FIFO Errored-

Frame Drop

Enable

RERR

Enable

Actions

When CRC Errored PASS = 1, CRC errored packets are not filtered and are passed to the SPI3 interface. They are not marked as bad, cannot be dropped, and cannot be signaled with RERR.

Packets are marked as bad but not dropped in the RX FIFO. These packets are sent to the SPI3 interface, and are s ignaled with an RERR to the switch o r Network Processor.

Packets are marked as bad but not dropped in the RX FIFO. These packets are sent to the SPI3 interface, and are not signaled w ith an RERR.

CRC errored packets are marked as bad, dropped in the RX FIFO, and never appear at the SPI3 interface.

NOTE: Packet sizes above the RX FIFO Transfer

Threshold (see Table 128 through Ta bl e 13 1) cannot be dropped in th e RX FIFO and are passed to the SPI3 interface. These packets can optionally be signaled with RER R on the SPI3 interface if the RERR Enable bit = 1.

5.1.1.4 CRC Error Detection

Frames re ceived by th e MAC are check ed for a correc t C RC. When an in co r rect CRC is det ected on a received fr ame, the RX FCSError RMON statistic counter is incremented for each CRC errored frame. Received frames with CRC errors may optionally be dropped in the RX FIFO (refer to Section 5.1.1.3.6, “Filter CRC Error Packets” on page 68). Othe rwise, the frames are sent to the SPI3 interfac e an d may be dropped by the switch or system controller.

Frames tr ansmitt ed by th e M A C are also checked f or co r r ec t CR C. When an in co r r ec t C RC is detected on a tra nsmitt ed frame, the TX CRCError RMON stat isti c counter is in cremente d for e ach incorrect frame.

5.1.2 Flow Control

Flow Control is an IEEE 802.3x-defined mechanism for one network node to request that its link partner take a temporary “Pause” in packet transmission. This allows the requesting network node to prevent FIFO over runs and dropped pa ckets, by managing incoming traffic to fit its available memory. The temporary pause allows the device to process packets already received or in trans it, thus freeing up the FIFO space allocated to those packets.

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The IXF1104 MAC im plements the IEEE 802 .3x standa rd RX FIFO thr eshol d-based F low Control in copper and fiber modes. When appropriately programmed, the MAC can both generate and respond to IEEE st andard pause frames in full-duple x operation. The IXF1104 MAC als o supports externally triggered flow control through the Transmit Pause Control interface.

In half-duplex operation, the MAC generates collisions instead of sending pause frames to manage the incoming tr affic from the link partner

5.1.2.1 802.3x Flow Control (Full-Duplex Operation)

The IEEE 802.3x standard ide ntifies four options related to system flow control:

• No Pause

• Symmetric Pause (both direc tions)

• Asymmetric Pause (Rec eive direction only)

• Asymmetric Pause (Transmit direction only)

The IXF1104 s upport s all fo ur opt ion s on a per-p ort b asis. Bit s 2:0 of t he “ FC Enab le ($ Port _Index

+ 0x12)” on page 168 provide programmable cont rol for enabl ing or disabli ng flow control in each

direction inde pendently. The IEEE 802.3x f low control mechanism is accomplished within the MAC sublaye r, and is based

on RX FIFO thresholds called wate rmarks. The RX FIFO level rises and falls as packets are received and processed. When the RX FIFO reaches a watermark (either exceeding a High or dropping below a Low after exc eeding a High), the IXF1104 control sublayer signals an internal state machine to tran smit a PAUSE frame. The FIFOs automatically generate PAUSE frames ( also calle d co n trol fram e s ) to in itiate th e fo ll o w ing:

• Halt the link partner whe n the High watermark is reached.

• Restart the link partner when the data s tored in the FIFO falls below the Low watermark.

Figure 7 illustrates the IEEE 802.3 FIFO flow control functions.

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Figure 7. Packet Buffering FIFO

SPI3 Interface

High Watermark

AC Transfer Threshold

TX FIFO

Data Flow

TX Side

MAC

MDI

Low Watermark

High Watermark

Low Watermark

RX FIFO

Data Flow

RX Side

MAC

RX FIFO High

TXPAUSEFR (External

Strobe)

802.3 Flow Control

802.3x Pause Frame Generation

B3231-01

5.1.2.1.1 Pause Frame Format

PAUSE frames are MAC control frames that are padded to the minimum size (64 bytes). Figure 8 and Figur e 9 illustrate th e fr ame forma t and co n tents.

Figure 8. E th ernet Frame Format

Number of bytes

Note:

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Figure 9. PAUSE Frame Format

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

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An IEEE 802.3 MAC PAUSE frame is identified by detecting all of the following:

• OpCode of 00-01

• Length/Type field of 88-08

• DA matching the unique multicast address (01-80-C2-00-00-01)

XOFF. A PAUSE frame inf orms the link partner to ha lt trans miss ion for a specified le ngth of time. The PauseLength octets specify the duration of the no-transmit period. If this time is greater than zero, the link partner must stop sending any further packets until this time has elapsed. This is referred to as XOFF.

XON. The MAC continues to transmit PAUSE frames with the specified Pause Length as long as the FIFO level exceeds the threshold. If the FIFO level falls below the threshold before the Pause Length time expir es , the MAC sends another PAUSE frame with the Pause Length time specif ied as zero. This is referred to as XON and informs the link partner to resume normal transmiss ion of packets.

5.1.2.1.2 Pause Settings

The MAC must send PAUSE frames repeatedly to maintai n the link partner in a Pause state. The following two inter-related variables control this process:

• Pause Length is the amount of time, measured in multiple s of 512 bi t times, that the MAC

requests the link part ner to halt tra ns mi ssion for.

• Pause Threshold is the amount of time, measured in multiples of 512 bit times, prior to the

expiration of the Pause Length that the MAC transmits another Pause frame to maintain the link partner in the pause state.

The transmitt ed Pause Length in the IXF1104 MAC is set by the “FC TX Timer Value ($

Port_Index + 0x07)” on page 164.

The IXF1104 PAUSE frame transmissi on interval is set by the “Pause Threshold ($ Port_Index +

0x0E)” on page 166.

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

5.1.2.1.3 Response to Rece i ved PAUSE Comm a nd Frames

When Flow Control is ena bled in the receive direction (bit 0 in the “FC Enable ($ P ort_Index +

0x12)"), the IXF1104 responds to PAUSE Command frames received from the link partner as

follows:

1. The IXF1104 checks the entire frame to verify that it is a valid PAUSE control frame addressed to the Multicast Address 01-80-C2- 00-00-01 (as specified in IEEE 802.3, Annex 31B) or ha s a Destinations Address matching the address programmed in the “Station Address

($ Port_Index +0x00 – +0x01)" .

2. If the P AUSE fr ame is valid, the transmit side of the IXF1104 pauses for the required number of PAUSE Quanta, as specified in IEEE 802.3, Clause 31.

3. PAUSE does not begin until completion of the frame currently being transmitted.

The IXF1104 response to valid received PAUSE frames is independent of the PAUSE frame filter settings. Refer to Section 5.1.1.3.5, “Filter Pause Packets” on page 68 for add itional details.

Note: Pause packets are not filtered if flow control is disabled in bit 0 of the “FC Enable ($ Port _Index +

0x12)”.

5.1.2.1.4 H al f-D u p l ex Operatio n

Trans mit flow control is implemented only in half-duplex operation. Upon entering the flow control state, the MAC generates a collision for all subs equent receive packets until exiting the flow contr ol state. Any receive packet in progress when the MAC en ters the flow control state will not be collided with but could be lost due if there is insufficient FIFO depth to comp lete packet reception. Bit 2 of the “FC Enable ($ Port_Index + 0x12)" enables the transmit flow control function.

5.1.2.1.5 Transmit Pause Con tr o l In terface

The Transmit Pause Control interface allows an external device to trigger the generation of pause frames. The Transmit Pause Control interfa ce is completely asynchronous. It consists of three address signals (TXPAUSEADD[2:0]) and a strobe si gnal (TXPAUSEFR). The required address for this interf ace operation is placed on the TXPAUSEADD[2:0] signals and the TXPAUSEFR is pulsed High and returned Low. Refer to Figure 10 “Transmi t Paus e Control Interface” on page 74 and Table 55 “Transmit Pause Control Interface Timing Parameters” on page 151. Table 23 shows the valid decodes for the TXPAUSEADD[2:0] si gnals. Figure 10 illustrates the transmit pause control interface.

Note: Flow control must be enabled in the “FC E nable ($ Port_Index + 0x12)” for Transmit Pause

Control int erface operation.

Note: There are two additional decodes provided tha t allow the user to generate ei ther an XOFF frame or

XON frame from all ports simultaneou sl y. The default pau se quanta for each port is he ld by the “FC TX T imer Value ($ Port _Index + 0x0 7)").

The default value of this register is 0x05E after reset is applied.

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Table 23. Valid Decodes for TXPAUSEADD[2:0]

TXPAUSEADD_2:0 Operation of TX Pause Control Interface

0x0

0x1

0x2

0x3

0x4

0x5 to 0x6

0x7

Transmits a PAUSE frame on every port with a pause_time = ZERO (XON) (Cancels all previous pause commands).

Transmits a PAUSE frame on port 0 with pause_time equal to the value programmed in the port 0 “FC TX Timer Value ($ Port_Index + 0x07)" (XOFF).

Transmits a PAUSE frame on port 1 with pause_time equal to the value programmed in the port 1 “FC TX Timer Value ($ Port_Index + 0x07)" (XOFF).

Transmits a PAUSE frame on port 2 with pause_time equal to the value programmed in the port 2 “FC TX Timer Value ($ Port_Index + 0x07)" (XOFF).

Transmits a PAUSE frame on port 3 with pause_time equal to the value programmed in the port 3 “FC TX Timer Value ($ Port_Index + 0x07)" (XOFF).

Reserved. Do not use these addresses. The TX Pause Control inter face will not operate under thes e conditions.

Transmits a PAUSE frame on every port with pause_time equal to the value programmed in the “FC TX Timer Value ($ Port_Index + 0x07)" for each port (XOFF).

Figure 10. Transmit Pause Control Interface

TXPAUSEFR

TXPAUSEADD0

TXPAUSEADD1

TXPAUSEADD2

This example shows the following conditions:

Strobe 1:

Port 0: Transmit Pause Packet (XOFF)

Strobe 2:

All Ports: Transmit Pause Packet with pause_time = 0 (XON)

Strobe 3:

Port 3: Transmit Pause Packet (XOFF)

B3234-01

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

5.1.3 Mixed-Mode Operation

The IXF1104 MAC gives th e user t he option of confi guring ea ch port for 10/100 Mbps hal f-dup lex copper, 10/100/1000 Mbps full-duplex copper, or 1000 Mbps full-dupl ex fiber operation. This gives the IXF1 104 MAC the ability to support both copper and fiber opera tion line-side interfaces opera ting at the same time within a single device. (Refer to Figure 16 “Line Side Interface

Multiplexed Balls” on page 58.)

The IXF1104 MAC provides complete flexibility in line-side connectivity by of fering RGMII, integr at ed S er Des, and GMI I .

5.1.3.1 Configuration

The memory maps (Table 59 “MAC Control Registers ($ Port Index + Offset)” on page 156 through Table 69 “Optical Module Register s ($ 0x799 - 0x79F)” on page 162) are logically split into the following two distinct regions:

• Per-Port Registers

• Global Registers

To achieve a desired configuration for a giv en port, the relevant per-port regi st ers mu st be configured corr ectly by the user. The Table 59 through Table 69 also co n tain register s that affect the operation of all ports, such as the SPI3 interface configuration.

See Section 8.0, “Register Set” on page 155 for a complete description of IXF1104 MAC configuration and status registers. The Registe r Maps (Table 59 through Table 69) present a summary of important configuration registers.

Note: The initialization sequence provided in Secti on 6.1, “Change Port Mode Initialization Sequence”

on pag e 1 30 must be followed for proper configuration of the IXF1104 MAC.

5.1.3.2 Key Configuration Registers

The following ke y registers select the operational mode of a given port:

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Table 24. Operational Mode Configuration Registers

Regist er Na me

“Desi red Du plex ($ Port_Index + 0x02)"

“MAC IF Mode and RGMII Speed ($ Port_ Index + 0x10)"

“Port Enable ($0x500)"

“Interf ac e Mode ($0x501)"

“Clock and Interf ac e Mo de Change Enable Ports 0 - 3 ($0x794)"

NOTE: The initialization sequence provided in Section 6.1, “Change Port Mode Initialization Sequence” on

page 130 must be followed for proper configuration of the IXF1104 M AC .

0x002 – Port 0 0x082 – Por t 1 0x102 – Port 2 0x182 – Port 3

0x010 – Port 0 0x090 – Por t 1 0x1 10 – Port 2 0x190 – Port 3

0x500 Bit 0 – Port 0 Bit 1 – Port 1 Bit 2 – Port 2 Bit 3 – Port 3

0x501 Bit 0 – Port 0 Bit 1 – Port 1 Bit 2 – Port 2 Bit 3 – Port 3

0x794 Bit 0 – Port 0 Bit 1 – Port 1 Bit 2 – Port 2 Bit 3 – Port 3

The “Desired Duplex ($ Port_Index + 0x02)” on page 163 def in es whether a port is to be co nfigured for full-duplex or half-duplex operation. NOTE: Half-duplex op erat i on is o nl y v al id for 10/ 1 00 sp eeds w h ere t he

RGMII lin e interface ha s been selec te d.

The “MAC IF Mode and RGMII Speed ($ Port_Index + 0x10)” on

page 167 determines the MAC ope rational frequency and mode for a

given p ort. NOTE: Set the “Clock and Interface Mod e Change Enable Ports 0 - 3

($0x794)” on page 221 to 0x0 prior to any change in the

register value. This e nsures that a change in the MAC clo ck frequency is controlled correctly. If the “Clo c k an d Inte r fa c e

Mode Change Enable Ports 0 - 3 ($0x794)" is not us ed

correctly, the IXF1104 MAC may not be config ur e d to the proper mo de .

Each “Port Enab le ($0 x50 0) " bit relates to a port. Set the appropriate bit to 0x1 to enable a port. This should be the last step in the configuration process for a port.

The “Interface Mode ($0x501)" selects whether a port operates with a copper (RGMII or GMII) line-side interface an i ntegrated SerDes fiber line-side interface.

For copper operation for a gi ven port, set the relevant bit to 0x1. For fiber operation for a given port, set the relevant bit to 0x0.

NOTE: All ports are configured for fiber operation in the IXF1104 MAC

default mode of operation.

The “Clock and Interface Mode Change Enable Ports 0 - 3 ($0x794)" indicates to an internal clock generator when to sample the new value of the “MAC IF Mode and RGMII Speed ($ Port_Index + 0x10)" and the

“Inter face Mode ($0x501)" (copper/fiber).

When any of these two configur ation values are changed for a port, the corresponding bits must be kept in this register under reset by writing 0x0 to the relevant bit.

Description

5.1.4 Fiber Mode

When the IXF1104 MAC is configured for fiber mode, the TX Data path from the MAC is an internal 10-bit interfa ce as descri bed in the IEEE 802.3z specific at ion. It is co nnecte d direct ly t o an intern al SerDes block for serialization/deserialization and transmission/reception on the fiber medium to and from the link partner.

The MAC contains all of t he PCS (8B /10B enc oding an d 10B/ 8B decod ing) require d to enco de and decode the data. The MAC also supports auto-negotiation per the I EE E 802. 3z specification via access to the “TX Config Word ($ Port _Ind ex + 0x17)", “RX Co nfig Word ($ Port_Index + 0x16 ) ", and “Diverse Config Write ($ Port_Index + 0x18)".

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When configured for fiber mode, the full set of Optical Module interface c ontrol and status signals is presented through re-use of GMII signals on a per-port basis (see Table 4.5 “Multiplexed Ball

Connections” on page 58). Fiber mode supports only full -duplex Gigabit operation.

5.1.4.1 Fiber Auto-Negotiation

Auto-negotiatio n is pe rformed by using t he “ TX Config Word ($ Port _Index + 0 x17)", “RX Co nfig

Word ($ Port_Index + 0x16)", and “Diverse Config Write ($ Port_Index + 0x18)". When

autoneg_enable (“Diverse Config W rite ($ Port_Index + 0x18)") is set, the IXF1104 MAC performs hardware-defined auto-ne gotiation with the “TX Config Word ($ Port_Index + 0x17)" used as an “Auto-Negotiation Advertisement ($ Port Index + 0x64)" and the “RX Config Word ($

Port_Index + 0x16)" used as an “Auto-Negotiation Link Partner Base Page Ability ($ Port Index + 0x65)".

Note: While the MAC supports auto-nego tiation functions, the IXF1104 MAC does not automatically

configure the MAC or other device blocks to be consistent with the auto-negotiation results . This configurati on is done by the user and system soft ware .

5.1.4.2 Determining If Link Is Established in Auto-Negotiation Mode

A valid link is established when the AN_complete bit is set and the RX_Sync bit reports that synchroniz ation has occ urred. Bot h register bit s are loc ated in the “RX Config Word ($ Port_Index

+ 0x16)".

If the link goes down a fter auto-negotiation is compl eted, RX_Sync indicates that a loss of synchroniz ation occurred. The IXF1 104 MAC restarts auto-negotiation and attempts to ree s tablish a link. Once a link is reestablished, the AN_complete bit is set and the RX_S ync bit shows that synchroniz ation has occurred.

To manually restart auto-ne gotiation, bit 5 of the “Diverse Config Write ($ Port_Index + 0x18)” (AN_enable) must be de-asserted, then re-asserted.

5.1.4.3 Fiber Forced Mode

The MAC fiber operation c an be forc ed to opera te at 100 0 Mbps full- duple x without comple tion of the auto-negotiation function. In this mode, the MAC RX path must achieve s ynchronization with the link partne r. Once achieved, the MAC TX path is enabled to allow data transmission. This forced mode is limited to operation with a link partner that operates with a full-duplex link at 1000 Mbps.

5.1.4.4 Determination of Link Establishment in Forced Mode

When the IXF1104 MAC is in forced mode operation, the “RX Config Word ($ Port_Index +

0x16)” bit 20 RX Sync indicates when synchronization occurs and a valid link establishes.

Note: The RX Sync bit indicates a loss of synchronization when the link is down.

5.1.5 Copper Mode

In copper mode, the IXF1104 MAC transmits data on the egress path of the RGMII or GMII interface, depending on the port configuration defined by th e us er. The copper MAC receives data on the ingress path of the RGMII or GMII interface, depending on the port configuration defined

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by the user. The RGMII interface s upports operation at 10/100 /1000 Mbps when a full-duplex link is established, and supports 10/100 Mbps when a half-duple x link is established. The GMII interface only supports a 1000 Mbps full-duplex link.

5.1.5.1 Speed

The copper MAC supports 10 Mbp s, 100 Mbps, and 1000 Mbps. All required speed adjustments, clocks, etc., are supplied by the MAC. The operating speed of the MAC is programmable through the “MAC IF Mode and RGMII Speed ($ Port_Index + 0x10)" (MAC_IF_Mode). Th e IXF1104 MAC speed setting mu st be programm ed by the sys tem soft ware to mat ch the spe ed of the atta ched PHY for proper IXF1104 MAC operation.

Note: When the IXF1104 MAC is configured to use the GMII interface, the only mode of operation that

is supported is 100 0 Mbps full-duplex. If 10/100 Mbps operati on is required in either full-duplex or ha lf-duplex, the IXF1104 MAC must

be configured to use the RGMII inte rface.

5.1.5.2 Duplex

The MAC supports full-duplex or half-duplex depending on the line-side interface that is configured by the “MAC IF Mode and RGMII Speed ($ Port_Index + 0x10)" (MAC_IF_Mode). The duplex of the MAC is set in the “Desired Duplex ($ Port_Index + 0x02)” on page 163. The IXF1104 MAC duple x s etting must be programmed by the system software to match the attached PHY duplex for proper IXF1104 MAC operation.

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

5.1.5.3 Copper Auto-Negotiation

In the copper MAC, auto-negotiation and all other controls of the PHY devices are achieved through the MDIO interface, an d are independent of the MAC controller. See Section 5.5, “MDIO

Control and Interface ” on page 99 for further operation details .

Note: In copper mode, auto-negotiation is accomplished by the attached PHY, not the IXF1104 MAC.

Thus, the IXF1 104 MAC does not automatically configure the MAC or other blocks in the device to be consi stent wit h at tach ed PHY auto-n egot iati on res ult s. This must be acco mplishe d by t he user and system software.

5.1.6 Jumbo Packet Support

The IXF1104 MAC sup ports jumbo frames. The jumbo frame length is dependent on the applicati on and the IXF1104 MAC design is optimiz ed for a 9. 6 KB jumbo frame le ngth. Larger lengths can be programmed, but limited system performance may lead to data loss during certain flow-control conditions

The value programmed into the“Max Frame Size (Addr: Port_Index + 0x0F)" determi n es the maximum length f rame size th e MAC can re ceive or tra nsmi t withou t a ctiva ting a ny error c oun ters, and without truncation.

The“Max Frame Size (Addr: Port_Index + 0x0F)" bits 13: 0 set the frame length. The default value programmed into thi s regist er is 0x05EE (1518). The value is int ernall y adjus ted by +4 if the frame has a VLAN tag. The overall programmable maximum is 0x3FFF or 16383 bytes.

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The register should be programmed to 0x2667 for the 9.6 KB length jumbo frame, optim ized for the IXF1 104 MAC. The RMON counte rs are also implemented for jumbo frame support as follows:

5.1.6.1 Rx Statistic s

• RxOctetsTotalOK (Addr: Port_Index + 0x20)

• RxPkts1519toMaxOctets (Addr: Port_Index + 0x2B)

• RxFCSErrors (Addr: Port_Index + 0x2C)

• RxDatatError (Addr: Port_Index = 0x02E)

• RxAlignErrors ( Addr: P ort_Index + 0x2F)

• RxLongErrors (Addr: Port_Index + 0x30)

• RxJabberErrors (Addr: Port_Inde x + 0x31)

• RxVeryLongErrors (Addr: Port_Index + 0x34)

5.1.6.2 TX Statistic s

• OctetsTransmittedOK (Addr: Port_Index + 0x40 )

• TxPkts1519toMaxOctets (Addr: Port_Index + 0x4B)

• TxExcessiveLe ngthDrop (Addr: Port_Index + 0x53)

• TxCRCError (Addr: Port_Index + 0x56)

The IXF1104 MAC che cks the CRC for all legal-length jumbo frames (frames between 1519 and the Max Frame Size). On trans mi ssion, the MAC can be programmed to append the CRC to the frame or check the CRC and increment the appropriate counter. On reception, the MAC trans m its these frames across t h e SPI3 interface (jumbo frames above the setting in the “RX FIFO Transfer

Threshold Port 0 ($0x5B8)” with a bad CRC cannot be dropp ed and are sent across the SPI3

interface). If the receive frame has a bad CRC, the appr opriate counter is in cr emented and the RxERR flag is assert ed on th e S PI 3 re ceive inter f a ce.

Jumbo frames also impact flow control. The maxim um frame size needs to be taken into account when determining the FIFO watermarks. The current transmission must be completed before a Pause frame is transmitted (needed when the receiver FIFO High watermark is exceeded). If the current trans m ission is a jumbo frame, the delay may be significant and increase data loss due to insufficient available FIFO space.

5.1.6.3 Loss-less Flow Control

The IXF1104 MAC supports loss-less flow control when the size of a Jumbo packet i s restricted to

9.6 k bytes. If this condition is met, the IXF1104 MAC has sufficient memory resources allocated to each MAC port to ensure that, if both the IXF1104 MAC and link partner are requi red to send Pause packets simultaneously during jumbo packet trans fers across a medium of five kilometers of fiber, no packet data should be lost due to FIFO overflows.

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5.1.7 Packet Buffer Dimensions

5.1.7.1 TX and RX FIFO Operation

5.1.7.1.1 TX FIFO

The IXF1104 MAC TX FIFOs are implemented with 10 KB for each channel. This provide s enough space for at leas t one maximum size (10 KB) packet per-port storage and ensures that no under-ru n conditions occur, assum ing that the sending device can supply da ta at the required data rate.

A transfer to MAC Threshold para meter, which is user -programmable, determines when the FIFO signals to the MAC that it has data to s end. This is configured for specific block size s , and the user must ensure that an under-run does not occur. Also, the threshold can be set above th e maxim um size of a normal Ethernet packet. This causes the FIFO to send only data to the MAC when this threshold is exceeded or when the End-of-Packet marker is received. This second condition elimin ates the possib ility of under - run, except when the controlling switch device fails. It ca n , however, cause idle times on the media.

5.1. 7.1.2 RX FIF O

The IXF1104 MAC RX FIFOs are provisioned so that each port has its own 32 KB of memory space. This is enough memory to ensure that there is never an over- r un on any c hannel while transferring normal Ethernet frame size data.

The FIFOs automatic ally generate Pause control frames to halt the link partner when the High watermark is re ache d an d to r esta rt th e lin k par tne r whe n the da ta store d in t he FI FO fall s below th e low-watermark. The RX and TX FIFOs have been sized to support lossless flow control with

9.6 KB packets. The RX FIFO has a programmable transfer threshold that se ts the threshold at which packets becom e “c ut through” and starts transiti oning to the SPI3 interface before the EOP is rece iv ed. Packets si zes below this threshold are treated as “store an d forward.” Once a pa ck et size exceeds th e RX FIFO trans fer thres hold, i t can no lon ger be dropped by the RX FIFO even if it is marked to be dropped by the MAC.

5.1.8 RMON Statistics Support

The IXF1104 MAC supplies RMON statistics through the CPU interface. These statistics are availab le in the form of count er va lu e s that can be acc essed at spec if i c ad d r esses in the r eg i ster maps (Table 59 through Ta bl e 6 9). Once read, these counters automatically reset and be gin counting from zero. A sepa rate set of RMON statistics is availabl e for each MAC device in the IXF1104 MAC.

Implementation of the RMON Statistics block is simil ar to the functionality provided by existing Intel switch and router products. This implementation allows the IXF1104 MAC to provide all of the RMON Statistics group as defined by RFC2819. The IXF1104 MAC supports the RMON RFC2819 Group 1 statis tics counters. Table 25 notes the differences and additional statistics registers su pported by the IXF1104 MAC that are outside the scope of the RMON RFC2819 document.

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Table 25. RMON Additional Statistics (Sheet 1 of 2)

RMON Etherne t Statistics

Group 1 Statistics

etherStatsindex Integer 32 NA NA NA etherStatsDataSource

etherStatsDropEvents

etherStatsOctets

etherStatsPkts Counter32

etherStatsBroadcastPkts Counter32 RxBCPkts/TxBCPkts Counter 32 etherStatsMulticastPkts Counter32 RxMCPkts/TxMCPkts Counter 32 See table note 2

etherStatsCRCAlignErrors Counter32

etherStatsUndersizedPkts Counter32

NOTE: The RMON specific at io n req ui r es that this is, “ The t ot a l numb er of even t s w her e p ac ket s we re dr opp ed

by the pr ob e d ue to a l ack o f r eso ur ces. T his numb er is n ot ne cessa r ily the nu mb er o f pa cke t s d rop pe d; it is the number o f times this condition is detected." The “RX FIFO Overflow Frame Drop Counter Ports

0 - 3 ($0x594 – 0x597)" and “TX FIFO Overflow Frame Drop Counter Ports 0 - 3 ($0x621 – 0x624)" in

the IXF1104 MAC support this and increment when either an RX FIFO or TX FIFO overflows. If any IXF1104 MAC pro grammable packet filtering is enabled, the “RX FIFO Errored Frame Drop Counter

Ports 0 - 3 ( $ 0x 5A2 - 0 x5A 5)" an d “ TX F IFO E r ror ed F r am e Drop C ount er Por t s 0 - 3 ($0 x62 5 – 0x6 29 ) "

increment with every frame removed in addition to the existing frames counted due to FIFO overflow.

Type

Object identifier

Counter 32

IXF1 10 4 MAC-Equ ival ent

Statistics

NA NA NA

RX Number of Frames Removed/ TX Number of Frames Removed

RxOctetsTotalOK RxOctetsBad OctetsTransmittedOK OctetsTransmittedBad

RxUCPkts/TxUCPkts RxBCPkts/TxBCPkts RxMCPkts/TxMCPkts

RxAlignErrors RxFCSErrors TxCRCError

RxRuntErrors RxShortErrors Rx Statistics ONLY

Definition of RMON

Type

Counter 32 See table note 1

Counter 32

Versus

IXF1104 MAC

Documentation

The IXF1104 MAC has two counters for receive and transmit that use diffe r e nt naming conventions for the total Octets and Octet s Bad . These counters must be co mbined to meet the RMON definition for this statistic.

The IXF1104 MAC has three counters for the etherStatsPkts that must be combined to give the total packets as defi ned by the RMON specification.

Same as RMON specification

The IXF1104 MAC has two counters for the al ignment and CRC errors for the RX side only.

The IXF1104 MAC has a CRC Error counter for the TX side.

The IXF1104 MAC has two counters , one for Runt errors and one for ShortErrors.

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Table 25. RMON Additional Statistics (Sheet 2 of 2)

RMON Ethernet Statistics

Group 1 Statistics

Type

IXF1104 MAC-Equivalent

Statistics

Type

Defi ni t i on of R M ON

Versus

IXF1104 MAC

Documentation

etherStatsOversizePkts Counter32

etherStatsFragments Counter32 RuntErrors Counter 32

etherStatsJabbers Counter 32 JabberErrors Counter 32

etherStatsCollisions Counter32

etherStatsPkts64Octets Counter32

etherStatsPkts65to127Octets Counter32

etherStatsPkts128to255Octets Counter32

etherStatsPkts256to511Octets Counter32

etherStatsPkts512to1023Octets Counter32

etherStatsPkts1023to1518Octets Counter32

etherStatOwner

etherStatsStatus NOTE: The RMON specifi ca t ion re qu i res th at th is is , “T he to t al num be r of ev en ts whe re pa ck et s were dr oppe d

by the pro be du e to a l ac k of re sou rce s. Th is nu mbe r is no t nec es sari l y t he nu mbe r of p ac ke t s dro pp ed; it is the number of times this condition is detected." The “RX FIFO Overflow Frame Drop Counter Ports

0 - 3 ($0x594 – 0x597)" and “TX FIFO Overflow Frame Drop Counter Por ts 0 - 3 ($0x621 – 0x624)" in

the IXF1104 MAC su pport this and increment when either an RX FIFO or TX FIFO overflows. If any IXF1104 MAC prog rammable packet filtering is enabled, the “RX FIFO Errored Frame Drop Counter

Ports 0 - 3 ($0x5A2 - 0x5A5)" and “TX FIFO Error e d F rame Dr op Co un t er P ort s 0 - 3 ( $ 0x 625 – 0x 629 )"

increment with every frame removed in addition to the existing fr ames counted due to FIFO overflow.

Owner String

Entry Status

RxLongErrors TxExc essiveLength Drop

TxSingleCollision TxMultipleCollision TxLateCollision TxTotalCollision

RxPkts64Octets/ TxPkts64Octets

RxPkts65to127Octets/ TxPkts65to127Octets

RxPkts128to255Octets/ TxPkts128to255Octets

RxPkts256to511Octets/ TxPkts256to511Octets

RxPkts512to1023Octets/ TxPkts512to1023Octets

RxPkts1023to1518Octets/ TxPkts1023to1518Octets

NA NA NA

Counter 32

Counter32

Same as RMON specification

The Tx TotalCollisio n count value is equiva lent to the RMON specification minus the TxLateCollision

Same as RMON specification

Same a RMON specification

Same as RMON specification

5.1.8.1 Conventions

The following conventions are used throughout the RMON Management Informati on Base (MIB) and its companion documents.

• Good Packets: E rror-free packets that have a valid frame length. For example, on Ethernet,

good packets are error-free packets that are between 64 and 1518 octets long. They follow the form defined in IEEE 802.3, Section 3.2.

• Bad Packe ts: Ba d pa ckets a re pack ets t hat hav e proper fr aming a nd reco gnized as packe ts, b ut

contain errors within the packet or have an invalid length. For example, on Ethernet, bad

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packets have a valid preamb le and SFD, but have a bad CRC, or are either shorter than 64 octets or longer than 1518 octets.

5.1.8.2 Advantages

The following lists additional IXF1104 MAC registers that support features not documented in RMON:

• MAC (flow) control frames

• VLAN Tagged

• Sequence Errors

• Symbol Errors

• CRC Error

These additi onal counters allow for differentiation beyond standard RMON probes.

Note: In fiber mode, a packet tra ns f er with an invalid 10-bit sym bol does not always update the statistics

registers correctly.

• Behavior: The IXF1104 MAC 8B10B decoder substitutes a valid code word octet in its p lace.

The packet transfer is aborted and marked as bad. The new internal length of the packet is equal to the byte position where the invalid symbol was . No pac ket fragmen ts are seen at the next packet transfer.

• Issue: If the invalid 10-bit code is inserted in a byte position of 64 or greater, expected RX

statistics are reported. However , if the invalid code is inserted in a byte position of less than 64, expe ct ed RX st at is t i cs ar e n o t sto r ed.

5.2 SPI3 Interface

The IXF1104 MAC S PI3 Interfac e is implemented to the System Packet Interface Level 3 (SPI3) Physical Layer Interface standard. The interface function allows the IXF1104 MAC blocks to interface to higher-layer network processors or switch fabric.

The IXF1104 MAC transmit interface a llows data flows from a network pr oce ssor or switch fabric device to the IXF1104 MAC. The receive interface allows data to flow from the IXF1104 MAC to the network processor or switch fabric device.

This interf ac e rec eives and transmits data between the MAC and the Net work P r oce ssor with compliant S P I3 interfaces. The SPI3 interface operation is defined in the OIF-SPI3-01.0 (ava ilable from the Optical Internet Working Fo rum [www.oiforum.com]). The OIF specification defines operation for the transfer of data at data rates of up to 3.2 Gbps when operating at a frequency of 104 MHz. The IXF1104 MAC defines operatio n for the transfer of data at data rates of up to 4.256 Gbps when operating at a maximum frequency of 133 MHz in MPHY mode and 125 MHz in SPHY Mode.

There is no guarant ee of the number of bytes available since the size of packets is variable. An IXF1104 MAC port-transmit packet availa ble status is provided on signals DTPA, STPA or PTPA, indicating the TX FIFO is nearly full.

In the receive direction, RVAL indicates if valid data is ava ilable on the receive data bus and is defined so that dat a transfers can be aligned with packet boundaries.

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The SPI3 interface supports the following two modes of operation:

• MPHY or 32 bit mode (one 32-bit data bus)

• SPHY or 4 x 8 mode (four individual 8-bit data buses)

5.2.1 MPHY Operation

The MPHY operati on mode is se lect ed wh en bit 21 of the“SP I3 T r ansmit and Global Confi gurati on

($0x700)” is set to 0 and bi t 7 of the “SPI3 Receive Configuration ($0x701)" is set to 1.

Data Path

The IXF1104 MAC SPI3 interface has a single 32-bit data path in the MPHY configuration mode (see Figure 13). The bus interface is point-to-point (one output driving only one input load), so a 32-bit data bus would support only one IXF1104 MAC.

To support variable-length pac kets, the RMOD[1:0]/TMOD[1:0] signals are defined to specify valid bytes in the 32-bit data bus structure. Each double-w ord must contain four valid bytes of packet data until the last double-word of the packet t r ans f er, which is marked with the end of packet REOP/TEOP si gnal. This last double-word of the trans f er contains up to four valid bytes specified by the RMOD[1:0]/TMOD[1:0] signals.

The IXF1104 MAC port selection is performed using in-band addressing. In the transmit direction, the network processor device selects an IXF1104 MAC port by sending the address on the TDAT[1:0] bus marked with the T SX signa l active and TENB signal inactive. All subsequent TDAT[1:0 ] bus operations marked with the TSX signal inactive and th e TENB active are packet data for the specified port.

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

In the receive direction, the IXF1104 MAC specifies the selected port by sending the address on the RDAT[1:0] bus marked with the RSX signal a ctive and RVAL signal inactive. All subsequent RDAT[1:0] bus operations marked with RSX inactive and RVAL active are packet data from the specified port.

Note: See Table 17 “SPI3 MPHY/SPHY Interface” on page 59 for a complete list of the MPHY mode

signals. The cont rol s ignals with the port designator for Port 0 are the only ones used in MPHY mode and they apply to all 4 ports. Table 3 “SPI3 Interface Signal Descripti ons” on page 39 provides a comprehensive list of SPI3 signal descriptions.

5.2.1.1 SPI3 RX Round Robin Data Transmission

The IXF1104 MAC uses a round-robin protocol to service each of the 4 ports dependent upon the enable status of the port and if there is data available to be taken from the RX FIFO. The round robin order goes from port 0, port 1, port 2, port 3, and back to port 0. A port is skipped and the next port is servic ed if it has no available transmit data. The data transfer bursts are userconfigurable burst lengths of 64, 128, or 256 bytes. The IXF1104 MAC also has a configurable pause interval between data transfer bursts on the receive side of the interface. The RX SPI3 burst lengths and the pause interval can be set in the “SPI3 Receive Configuration ($0x701)").

5.2.2 MPHY Logical Timing

The SPI3 interface AC timing for MPHY can be found in Section 7.2, “SPI3 AC Timing

Specifications” on page 137. Logical timing in the following diagrams illustrates all signals

associ at ed w it h MP HY m o d e.

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5.2.2.1 Transmit Timing

In MPHY mode a packet transmi ssion starts with the TSX signal indica ting port address information is on the data bus. The next clock cycle TENB and TSOP indicate present data on the bus is the fi rst word i n th e pack et and a ll s ubsequ ent cl ocks will con tain va lid da ta as long as TENB is active or until TEOP is asserted. Data transmission can be temporally halted when TENB goes high then resume d when TENB is low. The valid bytes in the f inal word, during an active TEOP, are indi ca te d by stat e o f TM O D [1 :0 ] .

Figure 11. MPHY Transmit Lo gi c al Tim in g

TFCLK

TENB

TSOP

TEOP

TMOD

[1:0]

TERR

TSX

TDAT

[31:0]

TPRTY

0000 B0-B3 B4-B7 B48-B51B44-B47 B52-B55 B60-B64B56-B59 0001 B0-B3 B4-B7

B3216-02

1. Applies to all transmit packet available signals (STPA, PTPA, DTPA_0:3).

5.2.2.2 Receive Timing

A packet is received when RSX indicates port address information on the data bus followed by RSOP to indicate the data bus contains the fi rst word of a packet. All subseque nt data is valid only while RVAL is High and until REOP is asserted. Receive data can be temporarily halted when RENB is de-assert ed a nd starts again on the second rising edge of RFCLK following the assertion of RENB. RMOD indicates the number of valid bytes in the last transfer when REOP is asserted.

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Figure 12. MPHY Receive Logical Timing

RFCLK

RENB

RSX

RSOP

RMOD

[1:0]

RERR

RSX

RDAT

[31:0]

RPRTY

RVAL

0000

B1-B3

B4-B7

Figure 13. MPHY 32-Bit Interface

B1-B3

B48-B51 B52-B55

B56-B59 B60-B63 00001

B0-B3

B3217-02

Network Processor

TFCLK

TENB

TDAT[31:0]

TMOD[1:0]

TPRTY

TSOP TEOP

TERR

TSX

DTPA_0:3

STPA PTPA

TADR[1:0]

RFCLK

RENB

RDAT[31:0]

RMOD[1:0]

RPRTY

RVAL RSOP REOP

RERR

RSX

SPI3 Bus

IXF1104 MPHY

Mode

TFCLK TENB_0 TDAT[31:0] TMOD[1:0] TPRTY_0 TSOP_0 TEOP_0 TERR_0 TSX

DTPA_0:3 STPA PTPA TADR[1:0]

RFCLK RENB_0 RDAT[31:0] RMOD[1:0] RPRTY

RPRTY_0 RVAL_0 RSOP_0 REOP_0

RERR_0 RSX

Line-Side Interface

Port 0

Port 1

Port 2

Port 3

Transceiver

B0660-02

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

5.2.2.3 Cloc k R ates

In MPHY mode, the TFCLK and RFCLK can be independent of each other. TFCLK and RFCLK should be common to the IXF1104 MAC and the Network Processor. The IXF1104 MAC requires a single clock source for the transmit path and a single clock source for the receive path.

T o al low all four IXF1104 MAC ports to operate at 1 Gbps , the I XF1 104 MAC is designed to allo w this interface to be overclocked. This allows operation for data transfer at data rates of up to 4.256 Gbps when operating at an overclocked frequency of 133 MHz.

Note: MPHY mode operates at a maximum clock frequency of 133 MHz (TFCLK and RFCLK).

5.2.2.4 Parity

The IXF1104 MAC ca n be odd or even (the IXF1104 MAC is odd by default) when calculating parity on the dat a bus. T his can be changed to accommodate even parity if desired, and can be set for transmit and receive independently. The RX Parity is set in bit 12 of the “SPI3 Receive

Configuration ($0x701)” and the TX Parity is set in bit 4 of the “SPI3 Transmit and Global Configuration ($0x700)”.

5.2.2.5 SPH Y M o d e

The SPHY operation mode is selected when bit 21 of the Table 146 “SPI3 Transmit and Global

Configuration ($0x700)” on page 213 is set to 1. The SPHY mode is the default operation for the

IXF1104 MAC SPI3 interface.

5.2.2.5.1 Data Path

The IXF1104 MAC SPI3 interface has four 8-bit data paths that can support four independe nt 8-bit point-to -point connections in SPHY mode (see Figure 16). Since each MAC port has its own dedicated 8-bit SPI3 data bus, each port has it own status signal (unlike MPHY). See the For a

detailed list of all the signals refer to the SPI3 pin multiplexing table....

Furthermore s ince each port has it own dedicated bus the in band port addressing is not needed. The 8 bit data bus elim inates the need to have separate control signals determine the number of valid bytes on an EOP.Therefore TSX, RSX, TMOD[1:0] RMOD[1:0] are not used in SPHY m ode.

Note: See Table 17 “SPI3 MPHY/SPHY Interface ” on page 59 for a complete list of the SPHY mode

signals. Unlike MPHY mode, each port has a dedicated control signal associated with each of the per-po rt 8-bit data buses. Table 3 “SPI3 Interface Signal Descriptions” on page 39 provides signal descriptions for all SPI3 signals.

5.2.2.5.2 Receive Data T ransmission

Packets are transmitted on each port as they become available from the RX FIFO. The burst length is determine d by the s etting of per port burst size and the B2B pause settings in the “SPI3 Receive

Configuration ($0x701)". If the B2B pause setting is zero pause cycles inserted, then the entire

packet will be burs t without any pauses unless the Network Process or de-asserts RENB. If the B2B_Pa use s et tin g call s fo r the in ser tio n of two pa us e cy cl es on a por t , th ese a re i ns ert ed a fte r ea ch data burst for that port. The data bursts are user configurable for each port in the “SPI3 Receive

Configuration ($0x701)".

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5.2.2.6 SPHY Logical Timing

SPI3 interfa ce AC timing for SPHY c an be found in Sec tion 7.2 , “SPI3 AC T im ing Specif ic ations ”

on page 137. Logical timing in the following diagrams illustrates all signals associated with SPHY

mode. SPHY mode is similar to MP HY mode exce pt the following signals are not used:

• TMOD[1:0]

• RMOD[1:0]

• TSX

• RSX

• Address Data appearing on the data bus

5.2.2.7 Transmit Timing (SPHY)

Packet tra nsmission starts when TE NB and TSOP indicate prese nt data on the bus is the first word in the packet. All s ubsequent clocks will contain valid data as long as TENB is active or until TEOP is asserted. Dat a trans miss ion can be tempor all y halte d when TENB goes hig h the n resumed when TE NB is low.

Figure 14. SPHY Transmit Logical Timing

TFCLK

TENB

TSOP

TEOP

TERR

TDAT

[7:0]

TPRTY

B0 B1 B60B59 B61 B63B62 B0 B1 B2

5.2.2.8 Receive Timing (SPHY)

A packet is received when RSOP is asserted to in d i cate the data bus co n tains the first word of the packet. A ll subsequent data is valid only while RVAL is high and until REOP is asserted. Receive data can be temporarily halted when RENB is de-asserted and sta rts again on the second rising edge of RFCLK following the assertion of RENB. When REOP is asserted RMOD indicates the number of valid bytes in the last transfer.

B3249-02

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Figure 15. SPHY Receive Logical Timing

]

B1 B62 B63 B0 B1

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Figure 16. S P H Y Connection for Two Intel

IXF1104 MA C Ports (8-Bit Interface)

Network Processor

TFCLK

TENB[0]

TDAT[7:0][0]

TPRTY[0]

TSOP[0] TEOP[0]

TERR[0] DTPA[0]

RFCLK

RENB[0]

RDAT[7:0][0]

RPRTY[0]

RVAL[0] RSOP[0] REOP[0]

RERR[0]

PTPA

TADR[1:0]

TFCLK

TENB[1]

TDAT[7:0][1]

TPRTY[1]

TSOP[1] TEOP[1]

TERR[1]

DTPA[1]

RFCLK

RENB[1]

RDAT[7:0][1]

RPRTY[1]

RVAL[1] RSOP[1] REOP[1] RERR[1]

SPI3 Bus

Intel

Port 0

TFCLK TENB_0 TDAT[7:0]_0 TPRTY_0 TSOP_0 TEOP_0 TERR_0

DTPA_0

RFCLK RENB_0 RDAT[7:0]_0 RPRTY_0 RVAL_0 RSOP_0 REOP_0 RERR_0

SPI3

Flow Control

PTPA

TADR[1:0]

Port 1

TFCLK TENB_1 TDAT[7:0]_1 TPRTY_1 TSOP_1 TEOP_1 TERR_1

DTPA_1

RFCLK RENB_1 RDAT[7:0]_1 RPRTY_1 RVAL_1 RSOP_1 REOP_1 RERR_1

IXF1104

Line-Side

Interface

Line-Side

Interface

Port 0

Port 1

Transceiver

B0659-02

5.2. 2.8.1 Clock Rates

The TFCLK and RFCLK can be independent of eac h other in SPHY mode operation. TFCLK and RFCLK should be common to all the Network Processor devices. The IXF1104 MAC requires an individual single clock source for the device trans mit path and a single clock source for the device receive path.

The IXF1104 MAC allows this int er fac e t o be over cl ock ed so t hat al l fo ur IXF 1 10 4 MAC po r ts ca n operate at 1 Gbps. This allows data transfer at data rates of up to 4.0 Gbps when operating at an overclocked frequency of 125 MHz.

Note: SPHY operates at a maximum frequency of 125 MHz.

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

5.2.2.8.2 Parity

The IXF1104 MAC ca n be odd or eve n (the IXF1104 MAC defaults to odd) when calculating parity on the dat a bus. T his can be changed to accommodate even parity if desired, and can be set for transmit and re ceive ports independently. The RX and TX parity sense bits have a di rect relationship to the port parity in SPHY mode.

The per po r t RX parity is s e t in th e “SPI3 Receive Configuration ($0x7 01)" an d the per port TX Parity is set in the “SPI3 Transmit and Global Configuration ($0x 700)".

5.2.2.9 SPI3 Flow Control

The SPI3 packet interfa ce support s transm it and re ceive data t ransfers at cloc k rate s independe nt of the line bit rate. As a result, the IXF1104 MAC supports pack et rate decoupling using internal FIFOs. These FIFOs are 10 KB per port in the transmit direction (egress from the IXF1104 MAC to the line interfaces) and 32 KB per port in the receive direction (ingress to the IXF1104 MAC from the line interfaces).

Control signa ls ar e provide d to the net work proces sor a nd the IXF1 104 MAC to all ow eithe r one to exercise flow con trol. Since the bus interface is point-to-point, the receive interface of the IXF1104 MAC pushes data to the link-lay er device . For the transm it int erfac e, the packe t availa ble status granularity is byte-based.

5.2.2.9.1 RX SPI3 Flow Control

In the receive direction, when the IXF1104 MAC has stored an end-of-packet (a complete small packet or the end of a larger packet) or some predefined number of bytes in it s rece ive FIFO, it sends the in-band address followed by FIFO data to the link-layer dev ice (in MPHY mode). The data on the interface bus is marked with the valid signal (RVAL) asserted. The network proces so r device can paus e the data flow by de-asserting the Receive Read Enable (RENB) sig n al.

RENB_0:3

RENB_0:3 controls the flow of data from the IXF1 1 04 MAC RX FIFOs. In SPHY mode, there is a dedicated RENB for each port. In MPHY mode, RENB_0 is used as the global signal covering all ports. When RENB is sampled Low, the network processor can ac ce pt data. A read is performed from the RX FIFO and the RDAT, RPRTY, RMOD[1:0], RSOP, REOP, RERR, RSX, and RVAL signals are updated on the following rising edge of RFCLK.

RENB can be asserted Hi gh by th e Network Proc essor at any time if it is una ble to a ccept any more data. When the RENB is sampled High by the IXF1104 MAC, a read of the RX FIFO is not perfo r me d , and the RDAT, RP RTY, RMOD[1:0], RSOP, REOP, RERR, RSX an d RVAL signals remain unchanged on the following rising edge of RFCLK.

5.2.2.9.2 T X SPI3 Flow Co n tr o l

In the transmit direction, when the IXF1104 MAC has space for s om e predefined number of bytes in its transmit FI F O, it informs the Network Processor device by asserting one of the Transmit Packet Available (T PA) signals. The Ne twor k Proces sor d evice writ es t he in- band addres s fo llo wed by packet data to th e IXF1 104 MAC us ing an enable signa l (TENB ). The net work proc essor de vice monitors the TPA signals for a High-to-Low transition, which indicates that the transmit FIFO is almost full (the number of bytes left in the FIFO is user-sel ec table by setting the “TX FIFO High

Watermark Ports 0 - 3 ($0x600 – 0x603)", and suspends data transfer to avoid an overflow. The

Network Processor device can pause the data flow by de-asserting the enable signal (TENB).

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

The IXF1104 MAC provides the following three types of TPA signals:

• Dedicated per port Direct Transmit Packet Available (DTPA )

• Selected-PHY Transmit Packet Available (STPA), which is based on the current in-band port

address in MPHY mode.

• Polle d- PH Y Transmit pa ck et Ava il able (PTPA) , wh ich provid es F IF O in f ormation on th e p or t

select ed by th e TADR[ 1 :0 ] sig n al s .

The following three TPA signals (DTPA_0:3, STPA, and PTPA) provide flow control based on the programmable TX FIFO High and Low watermarks. Refer to Table 132 “TX FIFO High

Watermark Ports 0 - 3 ($0x600 – 0x603)” on page 203 and Table 133 “TX FIFO Low Watermark Register Ports 0 - 3 ($0x60A – 0x60D)” on page 204 for more information.

DTPA_0:3:

A direct status indication for the TX FIFOs of ports [0:3]. When DTPA is High, it indicates the amount of data in the TX FIFO is below the TX FIFO High watermark. When the High watermark is crossed, DTPA transitions Low to indicate th e TX FIFO is almost full. I t stays low until the amount data in the TX FIFO goes bac k below the TX FIFO Low watermark. At this point, DTPA transitions High to indicate the programmed number of bytes are now availa ble for data transfers.

DTPA_0:3 is updated on the risi ng edge of the TFCLK.

STPA:

STPA provides TX FIFO status for the curren tly selected port in MPHY mode. When High, STPA indicates that the amount of data in the TX FIFO for the port sele cted, specified by the latest inband address, is below the TX FIFO High watermark. When the High watermark is crossed, STPA transitions Low to indicate the TX FIFO is a lm ost full. It stays Low until the amount of data in the TX FIFO goes back below the TX FIFO Low watermar k. At this point, STPA transitions High to indicate the pr ogrammed number of bytes are now available for data tr ansfers.

The port reported by STPA is updated on the rising edge of TFCLK after TSX is sampled as asserted. STPA is updated on the ris ing edge of TFCLK.

Note: STPA is only us ed when the IXF1104 MAC is configured for MPHY mode of operation.

PTPA:

PTPA provides status of the TX FIFO based on the port selected by the TADR[1:0] address bus. When High, PTPA indicates that the amount of data in the TX FIFO for the port selected is below

the TX FIFO High watermark. When the High watermark is crossed, PTPA transitions Low to indicat e the TX FIFO is almost full. It stays Low until the amount of data in the TX FIFO goes back below the TX FIF O Low watermark. PTPA then transit ions High to indicate the programmed number of bytes are now avail able for data transfers.

The port reported by PTPA is updated on the rising edge of TFCLK after the TADR{1:0] port address is sampled.

PT PA is updated on the rising edge of TFCLK.

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

5.2.3 Pre-Pending Func tion

The IXF1104 MAC im plements a pre-pending feature to allow 1518-byte Ethernet packets to be pre-padded with two additional bytes of data so that the packet becomes low-word aligned. The 2-byte pre-pend value is all zeros and is insert ed before the destination addres s of the packet being pre-pended. This value is fixed and can not be changed.

This function is enabled by writing the appropriate data to the “RX FIFO Padding and CRC Strip

Enable ($0x5B3)" for each port.

A standard 1518-byte Ethernet packet occupies 379 long words (four bytes) with two additional bytes left over (1518/4 = 379.5). To eliminate the memory-management problems for a network processor or swit ch fabric, the two remaining bytes are dealt with by the addition of two bytes to the start of a packet. This results in a standard 1518- byte Ethernet packet received by the IXF1104 MAC being forwarded to the higher-layer device as a 380-long-word packet. The upper-layer device is responsible for stripping the additional two bytes.

This feature was added to the IXF1104 MAC to assist in the design of higher-layer memory management. T he addition of the two extra bytes is not the default operation of the IXF1104 MAC and must be e nabled by the us er. The default operati on of the IXF 11 04 MAC SP I3 rece ive i nte rface forwards data exactly as it is received by the IXF1104 MAC line interface.

5.3 Gigabit Media Independent Interface (GMII)

The IXF1104 MAC su pports a subset of the GMII interface standard as defined in IEEE 802.3 2000 Edition for 1 Gbps operation only. This subset is limited to operation at 1000 Mbps fullduplex.

The GMII Interface operates as a source synchronous interface only and does not accept a TXC clock provide d by a PHY device when ope rating at 10/100 Mbps speeds.

Note: The RGMII interface must be used for applications that require 10/100/1000 Mbps operation.

The IXF1104 MAC does NOT support 10/100 Mbps coppe r PHY devices that are implemented using the MII Interface.

Note: MII operation is not support ed by the IXF1104 MAC.

The user can select GMII, RGMII, or Optica l Module/SerDes functionality on a per-port basis. This mode of operation is c ontrolled through a configuration re gister.

While IEEE 802 .3 specifies 3.3 V operation of GMII devices, most P HYs use 2.5 V signaling. The IXF1104 MAC provides a 2.5 V drive and is 3.3 V-tolerant on inputs.

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Figure 17. MAC GMII Interconnect

TXC_3:0 TXD[7:0]_0 TXD[7:0]_1 TXD[7:0]_2 TXD[7:0]_3

TX_EN_3:0 TX_ER_3:0

IXF1104

Intel

RXC_3:0 RXD[7:0]_0 RXD[7:0]_1 RXD[7:0]_2 RXD[7:0]_3

Media Access Controller

RX_EN_3:0 RX_ER_3:0

CRS_3:0

COL_3:0

5.3.1 GMII Signal Multiplexing

The GMII balls are reassigned when using the RGMII mode or fiber mode. Table 16 “Line Side

Interface Mult iplexed Balls” on page 58 specifies the multiplexing of GMII balls in these modes.

See Section 5.1.3, “Mixed-Mode Operation” on page 75 for proper configurat ion of the IXF1104 MAC in GMII mode.

TXC_3:0 TXD[7:0]_0 TXD[7:0]_1 TXD[7:0]_2 TXD[7:0]_3 TX_EN_3:0 TX_ER_3:0

RXC_3:0 RXD[7:0]_0 RXD[7:0]_1 RXD[7:0]_2 RXD[7:0]_3 RX_EN_3:0 RX_ER_3:0 CRS_3:0 COL_3:0

Quad PHY Device

B3203-0

5.3.2 GMII Interface Signal Definition

Table 26 “GMII Interface Signal Definitions” on page 95 provides the GMII interface signal

definitions . For information on 1000BASE-T GMII transmit and receive timing diagrams and tables, please refer to Table 49 “GMII 1000BASE-T Transmit Signal Parameters” on page 142,

Figure 38 “1000BASE-T Transmit Interface Ti mi ng” on page 142, Figure 39 “100 0BAS E-T Receive Interface Timing” on page 143, and Table 50 “GMII 1000BASE-T Receive Signal Parameters” on page 143

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Table 26. GMII Interface Signal Definitions

IXF1104 MAC

Signal

TXC_0 TXC_1 TXC_2 TXC_3

TXD[7:0]_0 TXD[7:0]_1 TXD[7:0]_2 TXD[7:0]_3

TX_EN_0 TX_EN_1 TX_EN_2 TX_EN_3

TX_ER_0 TX_ER_1 TX_ER_2 TX_ER_3

RXC_0 RXC_1 RXC_2 RXC_3

RXD[7:0]_0 RXD[7:0]_1 RXD[7:0]_2 RXD[7:0]_3

RX_DV_0 RX_DV_1 RX_DV_2 RX_DV_3

RX_ER_0 RX_ER_1 RX_ER_2 RX_ER_3

CRS_0 CRS_1 CRS_2 CRS_3

COL_0 COL_1 COL_2 COL_3

GMII Standard

Signal

GTX_CLK

TXD[7:0]

TX_EN

TX_ER

RX_CLK PHY

RXD<3:0> PHY

RX_DV PHY

RX_ER PHY

CRS PHY

COL PHY

Source Description

Transmit Reference Clock:

IXF1104

MAC

IXF1104

MAC

IXF1104

MAC

IXF1104

MAC

125 MHz for G igabit oper ation. MII operation for 10/100 Mbps operation is not

supported.

Transmit Data Bus:

Width of this synchronous output bus varies with the speed/mode of operation. In 1000 Mbps mode, all 8 bits are used.

Transmit Enable:

Synchronous input that indicates Valid data is being driven on the TXD[7:0] data bus.

Transmit Error:

Synchronous input to PHY causes the transmission of error sy mbols in 1000 Mbps links.

Receive Clock:

Continuous reference clock is 125 MHz +/– 100 ppm.

Receive Data Bus:

Width of the bus varies with the speed and mode of operation. In 1000 Mbps mode, all 8 bits are driven by the PHY device.

Note: MII operati on at 10/100 Mbps is not supported.

Receive Data Valid:

This si gnal is asserted when valid data is present on the corresponding RXD bus.

Receive Error:

In 1000 Mbps mode, asserted when error symbols or carrier extension symbols are received.

Always sy nchronous to RX _CLK.

Carrier Sense:

Asserted when valid activity is detected at the lineside in terface.

Collision:

Asserted when a collision is de te cte d an d rem ains asserted for the duration of the collision event. In fullduplex mode, the PHY should force this signal Low.

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

5.4 Reduced Gigabit Media Independent Interface (RGM II)

The IXF1104 MAC sup ports the RGMII interface standard as defined in the RGMII Version 1.2 speci fi cation. T h e R G M II in t er f ace is an alternativ e to the IEE E 8 02 .3u MII in t er f ac e .

The RGMII interface is intended as an alter n ative to the IEEE 802.3u MII and the IE EE 802.3z GMII. The principle objec tive of the RGMII is to reduce the number of balls (from a maximum of 28 balls to 12 balls) requi red to interconnect the MAC and the PHY. This reduction is both costeffective and technology-independ ent. To accomplish this objective, the data paths and all associated control signals are reduced, control signals are multiplexed together, and both edges of the clock are used.

• 1000 Mbps operation – clocks operate at 125 MHz

• 100 Mbps operation – clocks operate at 25 MHz

• 10 Mbps operation – clock s operate at 2.5 MHz.

Note: The IXF1104 MAC RGMII interface is multiplexed with signals from the GMII interface. See

Table 16 “Line Side Interface Multiplexed Balls” on page 58 for detailed information.

Figure 18. RGMII Interface

TXC_3:0 TXD[3:0]_3 TXD[3:0]_2 TXD[3:0]_1 TXD[3:0]_0

TX_CTL_3:0

IXF1104

Intel

RXC_3:0 RXD[3:0]_3 RXD[3:0]_2 RXD[3:0]_1

Media Access Controller

RXD[3:0]_0

RX_CTL_3:0

5.4.1 Multiplexing of Data and Control

Multiplexing of data and control information is achi eved by utilizing both edges of the refer enc e clocks and sendin g the lower four bi ts on th e risi ng ed ge and the uppe r four b its on t he fall ing edge . Control signals are multiplexed into a single clock cycle using the same technique. For further information on ti mi ng parameters, see Figure 37 “RGMII Interface Timing” on page 141 and

Table 48 “RGMII Interface Timing Parameters” on page 141.

TXC_3:0 TXD[3:0]_3 TXD[3:0]_2 TXD[3:0]_1 TXD[3:0]_0 TX_CTL_3:0

RXC_3:0 RXD[3:0]_3 RXD[3:0]_2 RXD[3:0]_1 RXD[3:0]_0 RX_CTL_3:0

Quad PHY Device

B3203-0

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

5.4.2 Timi ng Sp ecifi cs

The IXF1104 MAC RGMII complies with RGMII Rev1.2a requirements. Table 27 provides the timin g sp ecifics .

5.4.3 TX_ER and RX_ER Coding

To reduce interface power, the transmit error condition (TX_ER) and the receive error c ondition (RX_ER) are encoded on the RGMII interface to minimize transitions duri ng norm al network operation (refer to Table 28 on page 97 for the encoding method). Table 27 provides signal definitions for RGMII.

Table 27. RGMII Signal Definitions

IXF1104

MAC Signal

TXC_0:3 TXC MAC

TD[3:0]_n TD<3:0> MAC

TX_EN TX_CTL MAC

RXC_0:3 RXC PHY

RD[3:0]_n RD<3:0> PHY

RX_DV RX_CTL PHY

RGMII

Standard

Signal

Source Description

Depending on speed, the transmit reference clock is 125 MHz, 25 MHz, or 2.5 MHz +/– 50ppm.

Contains register bits 3:0 on the rising edge of TXC and register bits 7:4 on the falling edge of TXC.

TXEN is on the leading edge of TXC. TX_EN xor TX_ER is on the falling edge of TXC.

Continuous reference clock is 125 MHz, 25 MHz, or 2.5 MHz +/– 50 ppm.

Contains register bits 3:0 on the leading edge of RXC and register bits 7:4 on the trailing edge of RXC.

RX_DV is on the leading edge of RXC. RX_DV or RXERR is the falling edge of RXC.

The value of RGMII_TX_ER and RGMII_TX _EN ar e val id at the rising edge of the clock while TX_ER is pr es ented on the fallin g edge of the clock. RX_ER coding behaves in the same way (see

Table 28, Figure 19, and Figure 20).

Table 28. TX_ER and RX_ER Coding Description

Condition Description

Receiving valid frame, no errors

Receiving valid frame, with errors

Receiving invalid frame (or no frame)

Transmitting valid frame, no errors

Transmit t in g va li d f ram e with errors

Transmit ting invalid frame (or no fram e)

NOTE: Refer to Figure 19 for TX_CTL behavior, and Figure 20 for RX_CTL behavior.

RX_DV = tr ue Logic High on rising ed ge of RXC

RX_DV = false Logic Lo w on rising edge of RX C

TX_EN = true Logic High on rising edge of TXC

TX_EN = false Logic Lo w on rising edge of TXC

RX_ER = false Logic High on the falling edge of RXC

RX_ER = true Logic Low on the falling edge of RXC

RX_ER = false Logic Low on the falling edge of RXC

TX_ER =fals e Logic High on the falling edge of TXC

TX_ER = true Logic Low on the falling edge of TXC

TX_ER = false Logic l ow on the falling edge of TXC

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Figure 19. TX_CTL Behavior

TXC_0:3

(at Transmitter)

Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

Valid Frame

TD[3:0]_0:3

TX_CTL_0:3

TXC_0:3

(at Transmitter)

TD[3:0]_0:3

TX_CTL_0:3

Figure 20. RX_CTL Behavior

RXC_0:3

(at PHY)

RD[3:0]_0:3

TD[3:0]

TX_EN=True TX_ER=False TX_EN=False TX_ER=False

TD[7:4]

End-of-Frame

Frame with Error

TD[3:0]

TX_EN=True TX_ER=False

TD[7:4]

TX_EN=False TX_ER=False

End-of-Frame

Valid Frame

RD[3:0]

RD[7:4]

B0616-02

RX_CTL_0:3

RX_DV=True RX_ER=False RX_DV=False RX_ER=False

End-of-Frame

Frame with Error

RXC_0:3

(at PHY)

RD[3:0]_0:3

RX_CTL_0:3

RD[3:0]

RX_DV=True RX_ER=True

RD[7:4]

RX_DV=False RX_ER=False

End-of-Frame

B3237-01

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

5.4.3.1 In-Band Status

Carrier Sense (CRS) is generated by the PHY when a packet is received from the network interface. CRS is indicate d when:

• RXDV = true.

• RXDV = false, RXERR = true, and a value of FF exists on the RXD[7:0] bits simulta neously.

• Carrier Extend, Carrier Extend Error, or False Carrier occurs (please reference the Hewlett-

Packard* Version 1.2a RGMII Specification for details.).

Carrier Extend and Carrier Extend Error are applicable to Gigabit speeds only. Collision is determined at the MAC by the as sertion of TXEN being true while either CRS or RXDV are true. The PHY w ill not assert CRS as a result of TXEN being true.

5.4.4 10/100 Mbps Functionality

The RGMII i nterface implements the 10/100 Mbps Ethernet Media Independent Interfa ce (MII) by reducing the clock ra te to 25 MHz for 100 Mbps operation and 2.5 MHz for 10 Mbps. The TXC is generated by the MAC and the RXC is generated by th e PH Y. During packet reception, the RXC is stretched on ei ther the positive or negative pulse to a cc ommodate transition from the free-running clock to a data-s ynchronous clock domain. When the speed of the PHY changes , a similar stretching of t he po siti ve or nega tive pu lses is allo wed. No glitc hing of the cl ocks is a llowed d uring speed transitions.

This interface operates at 10 Mbps and 100 Mbps speeds in the same manner as 1000 Mbps spee d, although the data may be duplicated on the falling edge of the appropriate clock. The MAC holds TX_CTL Low until it is operating at the same speed as the PHY.

Note: The IXF1104 MAC does not support 10/100 Mbps operation when configured in GMII mode

5.5 MDIO Control and Interface

The IXF1104 MAC su pports the IEEE 802.3 MII Management Interface, also known as the Management Data Input/Output (MDIO) Interface. This interface allows the IXF1104 MAC to monitor and control each of the PHY devi ces that are connecte d to the four port s of IXF1 104 MAC when th ose ports are in c opper mod e.

The MDIO Master Interface block is implemented once in the IXF1104 MAC. The MDIO Interface bl ock c ontains the logic through which the user accesses the registers in PHY devices connected to the MDIO/MDC interface, which is controlled by each port.

The MDIO Master Interface block supports the management frame format, specified by IEEE

802.3, clause 22.2.4.5. This block also supports single MDI access through the CPU interface and an autoscan mode. Autosc an allows th e IXF110 4 MAC MDIO master to read all 32 regi ste rs of the per-port copper PHYs and store the contents in the IXF1104 MAC. This provides external-CPUready access to t he PHY register c ontent s through a single C PU read without the lat ency of wai ting on the low- speed seri al MDIO data bu s f or ea ch re g ist er access.

Scan of a single register with low-frequency operation takes approximately 25.6 µs. Scan of a 32register block takes approximately 820 µs, or 3.3 ms for all four ports. Autoscan data is not valid until approximately 19.2 µs after enabling scan. These numbers scale by 7/50 for high-frequency operation.

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Intel® IXF1104 4-Port Gigabit Ethernet Media Access Controller

5.5.1 MDIO Address

The 5-bit PHY address for the MDIO transactions can be set in the “MDIO Single Command

($0x680)". Bit s 5:2 of the PHY address are fixed to a value of 0. Bits 1 and 0 are programmable in

bits 9 and 8 of “MDIO Single Command ($0x680)".

5.5.2 MDIO Register Descriptions

For complete information on the MDI registers, refer to the Table 142 “MDIO Single Command

($0x680)” on page 211, Table 143 “MDIO Single Read and Write Data ($0x681)” on page 211, T abl e 144 “Autoscan PHY Address Enable ($0x6 82)” on page 212, and Table 145 “MDIO Control ($0x683)” on page 212.

5.5.3 Clear When Done

The MDI Command register bit , in the “MDIO Single Command ($0x 680)", clears upon command completion and is set by the user to start the requested single MDIO Read or Write operatio n. T h is bit is cleared automatically upon operation completion.

5.5.4 MDC Generation

The MDC clock is used for the MDIO/MDC in terface. The frequency of the MDC clock is selectable by setting bit 0, MDC Speed, in an IXF1104 MAC configura tion register (see Table 145

“MDIO Control ($0x683 )” on page 212).

5.5.4.1 MDC High-Frequency Operation

The high-frequency MDC is 18 MHz, derived from the 125-MHz sys tem clock by dividi ng the frequency by 7.

The duty cycle is as follows:

• MDC High duration: 3 x (1/125 MHz) = 3 x 8 ns = 24 ns

• MDC Low duration: 4 x (1/125 MHz) = 4 x 8 ns = 32 ns

• MDC runs continuously after reset

Refer to Figure 41 “MDC High-Speed Operation Timing” on page 145 for the high-frequency MDC timing diagram.

5.5.4.2 MDC Low-Frequency Operation

The low-frequency MDC is 2.5 MHz, which is derived from the 125-MHz system clock by dividing the fr equency by 50.

The duty cycle is as follows:

• MDC High duration: 25 x (1/125 MHz) = 25 x 8 ns = 200 ns

• MDC Low duration: 25 x (1/125 MHz) = 25 x 8 ns = 200 ns

• MDC runs continuously after reset

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Intel IXF1104 User Manual

Specifications and Main Features

Frequently Asked Questions

User Manual

1.0 Introduction

1.1 What You W ill Find in This Document

1.2 Related Documents

2.0 General Description

Figure 1. Block Diagram

Figure 2. Intern al Arch itec ture

3.0 Ball Assignments and Ball List T abl es

3.1 Ball Assignments

Figure 3. 552-Ball CBGA Assi gn men ts (Top View)

3.2 Ball List Tables

3.2.1 Balls Listed in Alphabetic Order by Signal Name

Tab le 1. B all Li st in Alp han um eric Order by Si gnal Name

3.2.2 Balls Listed in Alphabetic Order by Ball Location

Table 2. Ball List in Alphanumeric Order by Ball Location

4.0 Ball Assignments and Signal Descriptions

4.1 N amin g C on ve nt io ns

4.1.1 Signal Name Conventions

4.1.2 Register Address Conventions

4.2 Inter face Signal Groups

Figure 4. Interface Signals

4.3 Signal Description Ta bles

Table 3. SPI3 Interface Signal Descriptions (Sheet 1 of 8)

Table 4. SerDes Interface S ignal Descri ptions

Table 5. GMII Interface Signal Descriptions (Sheet 1 of 2)

Table 6. RGMI I Interface Signal Descripti ons (Sheet 1 of 2)

Table 7. CPU Interface Signal Descriptions (Sheet 1 of 2)

Table 8. Transmit Pause Control Interface Signal Descriptions

Table 9. Optical Module Interface S ignal Descri ption s (Sheet 1 of 2)

Table 10. MDIO Interface Signal Descriptions

Table 11. LED Interface Signal Descriptions

Table 12. JT AG Interface Signal Descriptions

Table 13. System Interface Signal Descriptions

Table 14. Power Supply Signal Descriptions

4.4 Ball Usage Summary

Table 15. Ball Usage Summa ry

4.5 Multiplexed Ball Connections

4.5.1 GMII/RGMII/SerDes/OMI Multiplexed Ball Connections

Table 16. Line Side Interface Multiplexed Balls (Sheet 1 of 2)

4.5.2 SPI3 MPHY/SPHY Ball Connections

Table 17. SPI3 MPHY/SPHY Interface (Sheet 1 of 3)

4.6 Ball State During Reset

Table 18. Definition of Output and Bi-directional Balls During Hardware Reset (Sheet 1 of 2)

4.7 Power Supply Sequencing

4.7.1 Power-Up Sequence

4.7.2 Power-Down Sequence

Figure 5. Power Sup pl y Se quencing

Table 19. Power Supply Sequen c ing

4.8 Pull-Up/Pull-Down Ball Guidelines

Table 20. Pull-Up/Pull-Down and Unused Ball Guidelines

4.9 Analog Po wer Filtering

Figure 6. Analog Po wer S up pl y Filte r Ne twork

Table 21. Analog Power Balls

5.0 Functional Descriptions

5.1 Media Access Controller (MAC)

5.1.1 Features for Fiber and Copper Mode

5.1.1.1 Padding of Undersized Frames on Transmit

5.1.1.2 Automatic CRC Generation

5.1.1.3 Filte r ing o f R eceive Packets

Table 22. CRC Errored Packets Drop Enable Behavior

5.1.1.4 CRC Error Detection

5.1.2 Flow Control

5.1.2.1 802.3x Flow Control (Full-Duplex Operation)

Figure 7. Packet Buffering FIFO

Figure 8. E th ernet Frame Format

Figure 9. PAUSE Frame Format

Table 23. Valid Decodes for TXPAUSEADD[2:0]

Figure 10. Transmit Pause Control Interface

5.1.3 Mixed-Mode Operation

5.1.3.1 Configuration

5.1.3.2 Key Configuration Registers

Table 24. Operational Mode Configuration Registers

5.1.4 Fiber Mode

5.1.4.1 Fiber Auto-Negotiation

5.1.4.2 Determining If Link Is Established in Auto-Negotiation Mode

5.1.4.3 Fiber Forced Mode

5.1.4.4 Determination of Link Establishment in Forced Mode