STE100P

STE100P 10/100 FAST ETHERNET 3.3V TRANSCEIVER 1 DESCRIPTION Figure 1. Package The STE100P, also referred to as STEPHY1, is a high performance Fast Ethernet physical layer interface for 10Base-T and 100Base-TX applications. It was designed with advanced CMOS technology to provide a Media Independent Interface (MII) for easy attachment to 10/100 Media Access Controllers (MAC) and a physical media interface for 100Base-TX of IEEE802.3u and 10Base-T of IEEE802.3. The STEPHY1 supports both half-duplex and fullduplex operation, at 10 and 100 Mbps operation. Its operating mode can be set using auto-negotiation, parallel detection or manual control. It also allows for the support of auto-negotiation functions for speed and duplex detection. 2 TQFP64 (10x10x1.40mm) Table 1. Order Codes Part Number Package STE100P TQFP64 E-STE100P TQFP64 (*) (*) ECOPACK® (see Section 9) ■ ■ FEATURES ■ ■ 2.1 Industry standard ■ IEEE802.3u 100Base-TX and IEEE802.3 10Base-T compliant ■ Support for IEEE802.3x flow control IEEE802.3u Auto-Negotiation support for 10Base-T and 100Base-TX MII interface Standard CSMA/CD or full duplex operation supported Industrial temperature compliant Figure 2. Block Diagram LEDS LEDS TX Channel 100Mb/s Parallel to Serial Scrambler 4B/5B TX_CLK TXD[3:0] NRZ To NRZI Encoder Binary To MLT3 Encoder TRANSMITTER 10/100 TX_ER 10Mb/s MDC MII MDIO RXD[3:0] RX_ER RX_DV Interface / Controller Serial Management TX_EN HW configuration pins Auto Negotiation REGISTERS 10Mb/s Descrambler Code Align Loopback Binary To MLT3 Decoder Serial to Parallel NRZ To Manchester Encoder NRZI To NRZ Decoder Link Pulse Detector TXN 10 TX Filter RX Channel 100Mb/s 4B/5B RX_CLK Link Pulse Generator NRZ To Manchester Encoder TXP Clock Recovery 10 TX Filter Clock Recovery Clock Generation System Clock Adaptive Equalization BaseLine Wander RECEIVER 10/100 RXP RXN SMART Squelch HW Config Power Down February 2006 Rev. 19 1/31 STE100P 2.2 Physical Layer ■ Integrates the whole Physical layer functions of 100Base-TX and 10Base-T ■ Provides Full-duplex operation on both 100Mbps and 10Mbps modes ■ Provides Auto-negotiation(NWAY) function of full/half duplex operation for both 10 and 100 Mbps ■ Provides MLT-3 transceiver with DC restoration for Base-line wander compensation ■ Provides transmit wave-shaper, receive filters, and adaptive equalizer ■ Provides loop-back modes for diagnostic ■ Builds in Stream Cipher Scrambler/ De-scrambler and 4B/5B encoder/decoder ■ Supports external transmit transformer with turn ratio 1:1 ■ Supports external receive transformer with turn ratio 1:1 2.3 LED Display The LED display, consists of five LEDs having the following characteristics: ■ 10 Mbps Speed LED: 10Mbps(on) or 100Mbps(off) ■ 100 Mbps Speed LED: 100Mbps(on) or 10Mbps(off) ■ TX/RX Activity LED: Blinks at 10Hz when receiving, but not colliding ■ Link LED: On when a good link is detected, blinks when there is TX or RX activity ■ Full Duplex / Collision LED: On during Full Duplex operation. Blinks at 20Hz to indicate a collision 2.4 ■ Miscellaneous Standard 64-pin QFP package pinout Figure 3. System Diagram of the STE100P Application MAC Device Boot ROM 2/31 LEDs STE100P STEPHY1 25 MHz Crystal Transformer PCI Interface Serial EEPROM RJ-45 STE100P 3 PIN ASSIGNMENT DIAGRAM rx_clk gnde/i rx_er/rxd4 tx_er/txd4 tx_clk tx_en txd0 txd1 txd2 txd3 col crs mdint vcce/i cfg1 cfg0 Figure 4. Pin Connection 64 63 62 61 60 59 58 57 56 55 54 53 52 51 50 49 mf4 1 48 rx_dv mf3 2 47 rxd0 mf2 3 46 rxd1 mf1 4 45 vcce/i mf0 5 44 rdx2 fde 6 43 rdx3 gnda 7 42 mdc nc 8 41 mdio vcca 9 40 gnde/i 10 39 vcce/i gnda x2 11 38 ledr10 x1 12 37 ledtr vcca 13 36 ledl gnda 14 35 ledc iref 15 34 leds vcca 16 33 test_se 4 nc nc nc rip reset pwrdwn test gnde gnda txn txp vcca gnda rxp rxn vcca 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 D99TL457B PIN DESCRIPTION Table 2. Pin Description Pin No. Name Type Description MII Data Interface 52 58 57 56 55 txd4 txd3 txd2 txd1 txd0 I Transmit Data. The Media Access Controller (MAC) drives data to the STE100P using these inputs. txd4 is monitored only in Symbol (5B) Mode. These signals must be synchronized to the tx_clk. 54 tx_en I Transmit Enable. The MAC asserts this signal when it drives valid data on the txd inputs. This signal must be synchronized to the tx_clk. 53 tx_clk I/O Transmit Clock. Normally the STE100P drives tx_clk. Refer to the Clock Requirements discussion in the Functional Description section. 25 MHz for 100 Mbps operation. 2.5 MHz for 10 Mbps operation. 3/31 STE100P Table 2. Pin Description (continued) Pin No. Name Type Description 52 tx_er I Transmit Coding Error. The MAC asserts this input when an error has occurred in the transmit data stream. When the STE100P is operating at 100 Mbps, the STE100P responds by sending invalid code symbols on the line. In Symbol (5B) Mode this pin functions as txd4. 51 43 44 46 47 rxd4 rxd3 rxd2 rxd1 rxd0 O Receive Data. The STE100P drives received data on these outputs, synchronous to rx_clk. rxd4 is driven only in Symbol (5B) Mode. 48 rx_dv O Receive Data Valid. The STE100P asserts This signal when it drives valid data on rxd. This output is synchronous to rx_clk. 51 rx_er O Receive Error. The STE100P asserts this output when it receives invalid symbols from the network. This signal is synchronous to rx_clk. In Symbol (5B) Mode this pin functions as rxd4. 49 rx_clk O Receive Clock. This continuous clock provides reference for rxd, rx_dv, and rx_er signals. Refer to the Clock Requirements discussion in the Functional Description section. 25 MHz for 100 Mbps operation. 2.5 MHz for 10 Mbps operation. 59 col O Collision Detected. The STE100P asserts this output when detecting a collision. This output remains High for the duration of the collision. This signal is asynchronous and inactive during full-duplex operation. 60 crs O Carrier Sense. During half-duplex operation (PR0:8=0), the STE100P asserts this output when either transmit or receive medium is non idle. During full duplex operation (PR0:8=1), crs is asserted only when the receive medium is non-idle. MII Control Interface 42 mdc I Management Data Clock. Clock for the mdio serial data channel. Maximum frequency is 2.5 MHz. 41 mdio I/O Management Data Input/Output, Bi-directional serial data channel for PHY communication. 61 mdint OD Management Data Interrupt. When any bit in PR18 = 1, an active High output on this pin indicates status change in the corresponding bits in PR17. Interrupt is cleared by reading Register PR17. Requires MDC edge to output. Physical (Twisted Pair) Interface 12 x1 I 25 MHz reference clock input. When an external 25 MHz crystal is used, this pin will be connected to one terminal of it. If an external 25 MHz clock source of oscillator is used, then this pin will be the input pin of it. 11 x2 O 25 MHz reference clock output. When an external 25MHz crystal is used, this pin will be connected to another terminal of if. If an external clock source is used, then this pin should be left open. 21 23 txp txn O The differential Transmit outputs of 100Base-TX or 10Base-T, these pins directly output to the transformer. 19 18 rxp rxn I The differential Receive inputs of 100Base-TX or 10Base-T, these pins directly input from the transformer. 4/31 STE100P Table 2. Pin Description (continued) Pin No. Name Type Description 15 iref O Reference Resistor connecting pin for reference current, directly connect a 5KΩ ± 1% resistor to Vss. 38 ledr10 I/O LED display for 10Ms/s link status. This pin will be driven on continually when 10Mb/s network operating speed is detected. The pull-up/pull-down status of this pin is latched into the PR20 bit 7 during power up/reset. 37 ledtr 36 ledl I/O LED display for Link Status. Blinks when there is TX or RX activity. This pin will be driven on continually when a good Link test is detected. The status of this pin is latched into the PR20 bit 5 during power up/reset. 35 ledc I/O LED display for Full Duplex or Collision status. This pin will be driven on continually when a full duplex configuration is detected. This pin will be driven on at a 20 Hz blinking frequency when a collision status is detected in the half duplex configuration. The status of this pin is latched into the PR20 bit 4 during power up/reset. 34 leds I/O LED display for 100Ms/s link status. This pin will be driven on continually when 100Mb/s network operating speed is detected. The status of this pin is latched into the PR20 bit 3 during power up/reset. 64 cfg0 I Configuration Control 0. When A/N is enabled, cfg0 determines operating mode advertisement capabilities in combination with cfg1 when mf0/ PR0:12 =1. (See Table 2) When A/N is disabled, cfg1 disables mlt3 and directly affects PR19:0 When cfg0 is Low, mlt3 encoder/decoder is enabled and PR19:1 =0. When cfg0 is High, mlt3 encoder/decoder is bypassed and PR19:1 = 1. 63 cfg1 I Configuration Control 1. When A/N is enabled, cfg1 determines operating mode advertisement capabilities in combination with cfg1 when mf0/ PR0:12 =1. (See Table 2) When A/N is disabled, CFG1 enables Loopback mode and directly affects PR0 bit 14. When cfg1 is Low, Loopback mode is disabled and PR0:14 = 0. When cfg1 is High, Loopback mode is enabled and PR0:14 = 1. 28 reset I Reset (Active-Low). This input must be held low for a minimum of 1 ms to reset the STE100P. During Power-up, the STE100P will be reset regardless of the state of this pin, and this reset will not be complete until after >1ms. 29 rip O Reset In Progress. This output is used to indicate when the device has completed power-up/reset and the registers and functions can be accessed. When rip is High, power-up/reset has been successful and the device can be used normally When rip is Low, device reset is not complete. 8, 30,31, 32 nc 26, 33 test, test_se 27 pwrdwn LED display for Tx/Rx Activity status. This pin will be driven on at a 10 Hz blinking frequency when either effective receiving or transmitting is detected. The status of this pin is latched into the PR20 bit 6 during power up/reset. nc (No Connection) Test pins. Should be tied to ground for normal operation I Power Down. When High, forces STE100P into Power Down mode. This pin is OR’ed with the Power Down bit (PR0:11). During the Power Down mode, txp/txn outputs and all LED outputs are 3-stated, and the MII interface is isolated. 5/31 STE100P Table 2. Pin Description (continued) Pin No. Name Type 5 4 3 2 1 mf0 mf1 mf2 mf3 mf4 I Description Multi-Function pins. Each mf pin internally drives different configuration functions. The functions of the five mf inputs are as shown in the table below. The logic level of mf0-4 will determine the value that the affected bits will have upon reset of the STE100P. The operating functions of cfg0, cfg1, and fde change depending on the state of mf0 (Auto-Negotiation enabled or disabled). Table 2 shows the relationship between cfg0, cfg1 and fde. 6 fde I Full-Duplex Enable. When A/N is enabled, fde determines full-duplex advertisement capability in combination with cfg0 and cfg1. (See Table 2) When A/N is disabled, fde directly affects full-duplex operation and determines the value of PR0 bit 8 (Full/Half Duplex Mode Select). When fde is High, full-duplex is enabled and PR0:8 = 1. When fde is Low, full-duplex is disabled and PR0:8 = 0. Digital Power Pins 39, 45, 62 vcce, vcce/i 25, 40, 50 gnde, gnde/i Analog Power Pins 9, 13, 16, 17, 22 vcca 7, 10, 14, 20, 24 gnda 6/31 STE100P 5 HARDWARE CONTROL INTERFACE 5.1 Operating Configurations The Hardware Control Interface consists of the MF, CFG and FDE input pins as well as the LED/PAD pins. This interface is used to configure operating characteristics of the STE100P. The Hardware Control Interface provides initial values for the MDIO registers, and then passes control to the MDIO Interface. Individual chip addressing via the LED/PAD pins allows multiple STE100P devices to share the MII interface. Table 3 shows how to set up the desired operating configurations using the Hardware Control Interface. Table 3. Operating Configurations / Auto-Negotiation Enabled Desired Configuration Input Value PR4 Register Bits Affected CFG0 CFG1 FDE [8] TXF [7] TXH [6] 10F [5] 10H Advertise All 1 1 1 1 1 1 1 Advertise 100 HD 1 0 0 0 1 0 0 Advertise 100 HD/FD 1 0 1 1 1 0 0 Advertise 10 HD 0 1 0 0 0 0 1 Advertise 10 HD/FD 0 1 1 0 0 1 1 Advertise 10/100 HD 1 1 0 0 1 0 1 Note: If pin 5, MF0 = 0, or ANE (pin MF0 / PR0:12) = 0 (Auto-Negotiation disabled), then PR4 bits 5-8 will contain the default value indicated in the table describing register PR4. 5.2 LED / PHY Address Interface The LED output pins can be used to drive LED’s directly, or can be used to provide status information to a network management device. The active state of each LED output driver is dependent on the logic level sampled by the corresponding PHY address input upon power-up/reset. For example, if a given PAD input is resistively pulled low then the corresponding LED output will be configured as an active high driver. Conversely, if a given PAD input is resistively pulled high then the corresponding LED output will be configured as an active low driver. These outputs are standard CMOS drivers and not open-drain. The STE100P PAD[4:0] inputs provide up to 32 unique PHY address options. An address selection of all zeros (00000) will result in a PHY isolation condition as a result of power-on/reset, as documented for PR0 bit 10. (See Section 7 for more detailed descriptions of device operation.) 7/31 STE100P 6 REGISTERS AND DESCRIPTORS DESCRIPTION There are 11 registers with 16 bits each supported for the STE100P. These include 7 basic registers which are defined according to the clause 22 “Reconciliation Sublayer and Media Independent Interface” and clause 28 “Physical Layer link signaling for 10 Mb/s and 100 Mb/s Auto-Negotiation on twisted pair” of IEEE802.3u standard. In addition, there are 4 special registers for advanced chip control and status information. 6.1 Register List Table 4. Register List Address Reg. Index Name Register Descriptions 0 PR0 XCR XCVR Control Register 1 PR1 XSR XCVR Status Register 2 PR2 PID1 PHY Identifier 1 3 PR3 PID2 PHY Identifier 2 4 PR4 ANA Auto-Negotiation Advertisement Register 5 PR5 ANLPA 6 PR6 ANE Auto-Negotiation Expansion Register 17 PR17 XCIIS XCVR Configuration Information and Interrupt Status Register 18 PR18 XIE 19 PR19 100CTR 20 PR20 XMC Auto-Negotiation Link Partner Ability Register XCVR Interrupt Enable Register 100Base-TX PHY Control/Status Register XCVR Mode Control Register 6.2 Register Descriptions Table 5. Register Descriptions Bit # Name Descriptions Default Val RW Type PR0- XCR, XCVR Control Register. The default values on power-up/reset are as listed below. 8/31 15 XRST Reset control. 1: Device will be reset. This bit will be cleared by STE100P itself after the reset is completed. 0 R/W 14 XLBEN Loop-back mode select. 1: Loop-back mode is selected. 0: Normal mode 0 R/W 13 SPSEL Network Speed select. This bit’s selection will be ignored if Auto-Negotiation is enabled(bit 12 of PR0 = 1). 1:100Mbps is selected. 0:10Mbps is selected. 1 R/W 12 ANEN Auto-Negotiation ability control. 1: Auto-Negotiation function is enabled. 0: Auto-Negotiation is disabled. 1 R/W STE100P Table 5. Register Descriptions (continued) Bit # Name Descriptions Default Val RW Type 11 PDEN Power-down mode control. 1: Power-down mode is selected. Setting this bit puts the STE100P into power-down mode. During the power-down mode, TXP/TXN and all LED outputs are 3-stated, and the MII interface is isolated. 0 R/W 10 ISOEN 0 – Normal operation. 1 – Isolate PHY from MII. Setting this control bit isolates the STE100P from the MII, with the exception of the serial management inter-face. When this bit is asserted, the STE100Pdoes not respond to TXD[3:0], TX-EN, and TX-ER inputs, and it presents a high impedance on its TX-CLK, RX-CLK, RX-DV, RX-ER, D[3:0], COL, and CRS outputs. 0 R/W 9 RSAN Re-Start Auto-Negotiation process control. 1: Auto-Negotiation process will be re-started. This bit will be cleared by STE100P itself after the Auto-negotiation restarted. 0 R/W 8 DPSEL Full/Half duplex mode select. 1: Full duplex mode is selected. This bit will be ignored if AutoNegotiation is enabled (bit 12 of PR0 = 1). 0: Half duplex mode is selected 0 R/W 7 COLEN Collision test control. 1: Collision test is enabled. 0: normal operation This bit, when set, causes the COL signal to be asserted as a result of the assertion of TX _EN. De-assertion of TX_EN will cause the COL signal to be de-asserted. 0 R/W 6~0 --- Reserved 0 RO 100BASE-T4 ability. Always 0, since STE100P has no T4 ability. 0 RO R/W = Read/Write able. RO = Read Only. PR1- XSR, XCVR Status Register. All the bits of this register are read only. 15 T4 14 TXFD 100Base-TX full duplex ability. Always 1, since STE100P has the 100Base-TX full duplex ability. 1 RO 13 TXHD 100Base-TX half duplex ability. Always 1, since STE100P has the 100Base-TX half duplex ability. 1 RO 12 10FD 10Base-T full duplex ability. Always 1, since STE100P has 10Base-T full duplex ability. 1 RO 11 10HD 10Base-T half duplex ability. Always 1, since STE100P has 10Base-T half duplex ability. 1 RO 10~7 --- Reserved 0 RO 9/31 STE100P Table 5. Register Descriptions (continued) Bit # Name Descriptions Default Val RW Type 6 MFPS MF Preamble Suppression 1 =Accepts management frames with pre-amble suppressed. 0 = Will not accept management frames with preamble suppressed. The value of this bit is controlled by bit 1 of PR20. Its default of 1 indicates that the SFEPHY1 accepts management frame without preamble. A minimum of 32 preamble bits are required following power-on or hardware reset. One IDLE bit is required between any two management transactions as per IEEE 802.3u specification. 1 RO 5 ANC Auto-Negotiation Completed. 0: Auto-Negotiation process is not completed. 1: Auto-Negotiation process is completed. (PR0, Bit 12 is set) 0 RO 4 RF Result of remote fault detection. 0: No remote fault condition detected. 1: Remote fault condition detected. This bit is set when the Link Partner transmits a remote fault condition (PR5 bit 13 = 1). 0 RO/LH* 3 AN Auto-Negotiation ability. Always 1, since STE100P has the Auto-Negotiation ability. 1 RO 2 LINK Link status. 0: a failure link condition occurred. (Latched until read) 1: a valid link is established. 0 RO/LL* 1 JAB Jabber detection. 1: jabber condition is detected (10Base-T only). 0 RO/LH* 0 EXT Extended register supporting. Always 1, since STE100P supports extended register 1 RO 1C04h RO LL* = Latching Low and clear by read. LH* = Latching High and clear by read. PR2- PID1, PHY Identifier 1 15~0 PHYID1 Part one of PHY Identifier. Assigned to the 3rd to 18th bits of the Organizationally Unique Identifier (OUI). (The ST OUI is 0080E1 hex). PR3- PID2, PHY Identifier 2 15~10 PHYID2 Part two of PHY Identifier. Assigned to the 19th to 24th bits of the Organizationally Unique Identifier (OUI). 000000b RO 9~4 MODEL Model number of STE100P. Six bits manufacture’s model number. 000001b RO 3~0 REV 0001b RO 0 RO Revision number of STE100P. Four bits manufacture’s revision number. PR4- ANA, Auto-Negotiation Advertisement 15 NXTPG 14 --- 10/31 Next Page ability. Always 0: since STE100P does not provide next page ability. Reserved STE100P Table 5. Register Descriptions (continued) Bit # Name Descriptions Default Val RW Type 13 RF Remote Fault function. 1: with remote fault function. 0 R/W 12,11 --- Reserved 10 FC Flow Control function Ability. 1:supports PAUSE operation of flow control for full duplex link. 1 R/W 9 T4 100BASE-T4 Ability. Always 0: since STE100P doesn’t have 100BASE-T4 ability. 0 RO 8 TXF 100Base-TX Full duplex Ability. 1: with 100Base-TX full duplex ability. 1 R/W 7 TXH 100Base-TX Half duplex Ability. 1: with 100Base-TX ability. 1 R/W 6 10F 10Base-T Full duplex Ability. 1: with 10Base-T full duplex ability. 1 R/W 5 10H 10Base-T Half duplex Ability. 1: with 10Base-T ability. 1 R/W 4~0 SF Select field. 00000 RO PR5- ANLP, Auto-Negotiation Link Partner ability 15 LPNP Link partner Next Page ability. 0: link partner without next page ability. 1: link partner with next page ability. 0 RO 14 LPACK Received Link Partner Acknowledge. 0: link code work had not received yet. 1: link partner successfully received STE100P’s Link Code Word. 0 RO 13 LPRF Link Partner’s Remote fault status. 0: no remote fault detected. 1: remote fault detected. 0 RO 12,11 --- Reserved 0 RO 10 LPFC Link Partner’s Flow control ability. 0: link partner without PAUSE function ability. 1: link partner with PAUSE function full duplex link ability. 0 RO 9 LPT4 Link Partner’s 100BASE-T4 ability. 0: link partner without 100BASE-T4 ability. 1: link partner with 100BASE-T4 ability. 0 RO 8 LPTXF Link Partner’s 100Base-TX Full duplex ability. 0: link partner without 100Base-TX full duplex ability. 1: link partner with 100Base-TX full duplex ability. 0 RO 7 LPTXH Link Partner’s 100Base-TX Half duplex ability. 0: link partner without 100Base-TX. 1: link partner with 100Base-TX ability. 0 RO 6 LP10F Link Partner’s 10Base-T Full Duplex ability. 0: link partner without 10Base-T full duplex ability. 1: link partner with 10Base-T full duplex ability. 0 RO 11/31 STE100P Table 5. Register Descriptions (continued) Bit # Name Descriptions Default Val RW Type 5 LP10H Link Partner’s 10Base-T Half Duplex ability. 0: link partner without 10Base-T ability. 1: link partner with 10Base-T ability. 0 RO 4~0 LPSF Link partner select field. Default 00001=IEEE 802.3. 00001 RO Reserved 0 RO Parallel detection fault. 0: no fault detected. 1: a fault detected via parallel detection function. 0 RO/LH* Link Partner’s Next Page ability. 0: link partner without next page ability. 1: link partner with next page ability. 0 RO PR6- ANE, Auto-Negotiation expansion 15~5 --- 4 PDF 3 LPNP 2 NP STE100P’s next Page ability. Always 0, since STE100P without next page ability. 0 RO 1 PR Page Received. 0: no new page has been received. 1: a new page has been received. 0 RO/LH* 0 LPAN Link Partner Auto-Negotiation ability. 0: link partner has no Auto-Negotiation ability. 1: link partner has Auto-Negotiation ability. 0 RO Reserved 0 RO LH = High Latching and cleared by reading. PR17- XCIIS, XCVR Configuration information and Interrupt Status 15~10 ---- 9 SPEED Configured information of Speed. 0: the speed is 10Mb/s. 1: the speed is 100Mb/s. 1 RO 8 DUPLEX Configured information of Duplex. 0: the duplex mode is half. 1: the duplex mode is full. 0 RO 7 PAUSE Configured information of PAUSE function for flow control. 0: PAUSE function is disabled. 1: PAUSE function is enabled 0 RO 6 ANC Interrupt source of Auto-Negotiation Completed. 0: Auto-Negotiation has not completed yet. 1: Auto-Negotiation has completed. 0 RO/LH* 5 RFD Interrupt source of Remote Fault Detected. 0: there is no remote fault detected. 1: remote fault is detected. 0 RO/LH* 4 LS Interrupt source of Link Fail. 0: link test status is up. 1: link is down. 0 RO/LH* 12/31 STE100P Table 5. Register Descriptions (continued) Bit # Name 3 ANAR 2 PDF 1 ANPR 0 REF Descriptions Default Val RW Type Interrupt source of Auto-Negotiation Acknowledge Received. 0: there is no link code word received. 1: link code word is receive from link partner. 0 RO/LH* Interrupt source of Parallel Detection Fault. 0: there is no parallel detection fault. 1: parallel detection is fault. 0 RO/LH* Interrupt source of Auto-Negotiation Page Received. 0: there is no Auto-Negotiation page received. 1: auto-negotiation page is received. 0 RO/LH* Interrupt source of Receive Error full. 0: the receive error number is less than 64. 1: 64 error packets are received. 0 RO/LH* Auto-Negotiation Completed interrupt Enable. 0: disable Auto-Negotiation completed interrupt. 1: enable Auto-Negotiation complete interrupt. 0 R/W LH = High Latching and cleared by reading. PR18- XIE, XCVR Interrupt Enable Register 15~7 --- Reserved 6 ANCE 5 RFE Remote Fault detected interrupt Enable. 0: disable remote fault detection interrupt. 1: enable remote fault detection interrupt. 0 R/W 4 LDE Link Down interrupt Enable. 0: disable link fail interrupt. 1: enable link fail interrupt. 0 R/W 3 ANAE Auto-Negotiation Acknowledge interrupt Enable. 0: disable link partner acknowledge interrupt 1: enable link partner acknowledge interrupt. 0 R/W 2 PDFE Parallel Detection Fault interrupt Enable. 0: disable fault parallel detection interrupt. 1: enable fault parallel detection interrupt. 0 R/W 1 ANPE Auto-Negotiation Page Received interrupt Enable. 0: disable Auto-Negotiation page received interrupt. 1: enable Auto-Negotiation page received interrupt. 0 R/W 0 REFE RX_ERR full interrupt Enable. 0: disable rx_err full interrupt. 1: enable more than 64 time rx_err interrupt, 0 R/W Disable the RX_ERR counter. 0: the receive error counter - RX_ERR is enabled. 1: the receive error counter - RX_ERR is disabled. 0 R/W Auto-Negotiation completed. This bit is the same as PR1:5. 0: the Auto-Negotiation process has not completed yet. 1: the Auto-Negotiation process has completed. 0 RO PR19- 100CTR, 100Base-TX Control Register 15,14 --- 13 DISRER 12 ANC reserved 13/31 STE100P Table 5. Register Descriptions (continued) Bit # Name Descriptions Default Val RW Type 11, 10 --- 9 ENRLB Enable remote loop-back function. 1: enable 0 R/W 8 ENDCR Enable DC restoration. 0: disable DC restoration. 1: enable DC restoration. 1 R/W 7 ENRZI Enable the conversions between NRZ and NRZI. 0: disable the data conversion between NRZ and NRZI. 1: enable the data conversion of NRZI to NRZ in receiving and NRZ to NRZI in transmitting. 1 R/W 6 EN4B5B Enable 4B/5B encoder and decoder 0: the 4B/5B encoder and decoder are bypassed 1: the 4B/5B encoder and decoder are enabled.. 1 R/W 5 ISOTX Transmit Isolation. When 1, isolate from MII and tx+/-. The bit will be set to one if the PHY address is set to 00000 at powerup/reset This bit must be 0 for normal operation 0 R/W 4~2 CMODE Reporting of current operation mode of transceiver. 000: in auto-negotiation 001: 10Base-T half duplex 010: 100Base-TX half duplex 011: reserved 100: reserved 101: 10Base-T full duplex 110: 100Base-TX full duplex 111: isolation, auto-negotiation disable 000 RO 1 DISMLT Disable MLT3. 0: the MLT3 encoder and decoder are enabled. 1: the MLT3 encoder and decoder are bypassed. 0 R/W 0 DISCRM Disable Scramble. 0: the scrambler and de-scrambler is enabled. 1: the scrambler and de-scrambler are disabled. 0 R/W reserved 0: disable PR20- XMC, XCVR Mode control 15~12 --- Reserved 0 RO 11 LD Long Distance mode of 10Base-T. 0: normal squelch level. 1: reduces 10Base-T squelch level for extended cable length. As the length of the cable increases, so does the current. 0 R/W 10~8 --- Reserved 0 RO 14/31 STE100P Table 5. Register Descriptions (continued) 7 Bit # Name Descriptions Default Val RW Type 7~3 PAD4:0 PHY Address [4:0]: The values of the PAD[4:0] pins are latched to this register at power-up/reset. The first PHY address bit transmitted or received is the MSB of the address (bit 4). A station management entity connected to multiple PHY entities must know the appropriate address of each PHY. A PHY address of that is latched in to the part at power-up/reset will cause the Isolate bit of the PR0 (bit 10, register address 00h) to be set. After power up/reset the only way to enable or disable isolate mode is to set or clear the Isolate bit (bit 10) PR0. After power up/reset writing to bits [4:0] of this register will not cause the part to enter isolate mode. [00001] Strap, R/W 2 --- reserved 0 RO 1 MFPSE MF Preamble Suppression Enable 1 = Accept management frames with pre-amble suppressed. 0 = Do not accept management frames with preamble suppressed. This bit also controls the value of bit 6 in PR1 (MFPS). 1 R/W 0 --- reserved 0 RO DEVICE OPERATION The STE100P integrates the IEEE802.3u compliant functions of PCS (Physical Coding Sub-layer), PMA (Physical Medium Attachment), and PMD(Physical Medium Dependent) for 100Base-TX, and the IEEE802.3 compliant functions of Manchester encoding/decoding and transceiver for 10Base-T. All the functions and operation schemes are described in the following sections. 7.1 100Base-TX Transmit Operation Regarding the 100Base-TX transmission, the device provides the transmission functions of PCS, PMA, and PMD for encoding of MII data nibbles to five-bit code-groups (4B/5B), scrambling, serialization of scrambled code-groups, converting the serial NRZ code into NRZI code, converting the NRZI code into MLT3 code, and then driving the MLT3 code into the category 5 Unshielded Twisted Pair cable through an isolation transformer with the turns ratio of 1:1. Data code-groups Encoder: In normal MII mode application, the device receives nibble type 4B data via the TxD0~3 inputs of the MII. These inputs are sampled by the device on the rising edge of Tx-clk and passed to the 4B/5B encoder to generate the 5B code-group used by 100Base-TX. Idle code-groups: In order to establish and maintain the clock synchronization, the device needs to keep transmitting signals to the medium. The device will generate Idle code-groups for transmission when there is no real data want to be sent by MAC. Start-of-Stream Delimiter-SSD (/J/K/): In a transmission stream, the first 16 nibbles are MAC preamble. In order to let partner delineate the boundary of a data transmission sequence and to authenticate carrier events, the device will replace the first 2 nibbles of the MAC preamble with /J/K/ code-groups. End-of-Stream Delimiter-ESD (/T/R/): In order to indicate the termination of the normal data transmissions, the device will insert 2 nibbles of /T/R/ code-group after the last nibble of FCS. Scrambling: All the encoded data(including the idle, SSD, and ESD code-groups) is passed to the data scrambler to reduce the EMI and spread the power spectrum using a 10-bit scrambler seed loaded at the beginning. 15/31 STE100P Data conversion of Parallel to Serial, NRZ to NRZI, NRZI to MLT3: After scrambled, the transmission data with 5B type in 25MHz will be converted to serial bit stream in 125MHz by the parallel to serial function. After serialized, the transmission serial bit stream will be further converted from NRZ to NRZI format. This NRZI conversion function can be bypassed, if the bit 7 of PR19 register is cleared as 0. After NRZI converted, the NRZI bit stream is passed through MLT3 encoder to generate the TP-PMD specified MLT3 code. With this MLT3 code, it lowers the frequency and reduces the energy of the transmission signal in the UTP cable and also makes the system easily to meet the FCC specification of EMI. Wave-Shaper and Media Signal Driver: In order to reduce the energy of the harmonic frequency of transmission signals, the device provides the wave-shaper prior to the line driver to smooth but keep symmetric the rising/falling edge of transmission signals. The wave-shaped signals include the 100Base-TX and 10Base-T both are passed to the same media signal driver. This design can simplify the external magnetic connection with single one. 7.2 100Base-TX Receive Operation Regarding the 100Base-TX receiving operation, the device provides the receiving functions of PMD, PMA, and PCS for receiving incoming data signals through category 5 UTP cable and an isolation transformer with turns ratio of 1: 1. It includes the adaptive equalizer and baseline wander, data conversions of MLT3 to NRZI, NRZI to NRZ and serial to parallel, the PLL for clock and data recovery, the de-scrambler, and the decoder of 5B/4B. Adaptive Equalizer and Baseline Wander: Since the high speed signals over the unshielded (or shielded) twisted Pair cable will induce the amplitude attenuation and phase shifting. Furthermore, these effects are depends on the signal frequency, cable type, cable length and the connectors of the cabling. So a reliable adaptive equalizer and baseline wander to compensate all the amplitude attenuation and phase shifting are necessary. In the transceiver, it provides the robust circuits to perform these functions. MLT3 to NRZI Decoder and PLL for Data Recovery: After receiving the proper MLT3 signals, the device converts the MLT3 to NRZI code for further processing. After adaptive equalizer, baseline wander, and MLT3 to NRZI decoder, the compensated signals with NRZI type in 125MHz are passed to the Phase Lock Loop circuits to extract out the original data and synchronous clock. Data Conversions of NRZI to NRZ and Serial to Parallel: After data is recovered, the signals will be passed to the NRZI to NRZ converter to generate the 125 MHz serial bit stream. This serial bit stream will be packed to parallel 5B type for further processing. The NRZI to NRZ conversion can be bypassed, if the bit 7 of PR19 register is cleared as 0. De-scrambling and Decoding of 5B/4B: The parallel 5B type data is passed to de-scrambler and 5B/4B decoder to return their original MII nibble type data. Carrier sensing: Carrier Sense(CRS) signal is asserted when the STE100P detects any 2 non-contiguous zeros within any 10 bit boundary of the receiving bit stream. CRS is de-asserted when ESD code-group or Idle code-group is detected. In half duplex mode, CRS is asserted during packet transmission or receive. But in full duplex mode, CRS is asserted only during packet reception. 7.3 10Base-T Transmit Operation This includes the parallel to serial converter, Manchester Encoder, Link test function, Jabber function and the transmit wave-shaper and line driver described in the section of “Wave-Shaper and Media Signal Driver” of “100BASE-T Transmission Operation”. It also provides Collision detection and SQE test for half duplex application. 7.4 10Base-T Receive Operation This includes the carrier sense function, receiving filter, PLL for clock and data recovering, Manchester decoder, and serial to parallel converter. 16/31 STE100P 7.5 Loop-back Operation The STE100P provides internal loop-back option for both the 100Base-TX and 10Base-T operations. Setting bit 14 of PR0 register to 1 can enable the loop-back option. In this loop-back operation, the txp/txn and rxp/rxn lines are isolated from the media. The STE100P also provides remote loop-back operation for 100Base-TX operation. Setting bit 9 of PR19 register to 1 enables the remote loop-back operation. In the 100Base-TX internal loop-back operation, the data comes from the transmit output of NRZ to NRZI converter then loop-back to the receive path into the input of NRZI to NRZ converter. In the 100Base-TX remote loop-back operation, the data is received from rxp/rxn pins through receive path to the output of data and clock recover and then loop-back to the input of NRZI to MLT3 converter of transmit path then transmit out to the medium via the transmit line drivers. In the 10Base-T loop-back operation, the data is through transmit path and loop-back from the output of the Manchester encoder into the input of Phase Lock Loop circuit of receive path. 7.6 Full Duplex and Half Duplex Operation The STE100P can operate for either full duplex or half duplex network application. In full duplex, both transmit and receive can be operated simultaneously. Under full duplex mode, collision(COL) signal is ignored and carrier sense(CRS) signal is asserted only when the STE100P is receiving. In half duplex mode, either transmit or receive can be operated at one time. Under half duplex mode, collision signal is asserted when transmit and receive signals collided and carrier sense asserted during transmission and reception. 7.7 Auto-Negotiation Operation The Auto-Negotiation function is designed to provide the means to exchange information between the STE100P and the network partner to automatically configure both to take maximum advantage of their abilities, and both are setup accordingly. The Auto-Negotiation function can be controlled through ANE, bit 12 of the PR0 register, or the MF0 pin 5. Auto-Negotiation exchanges information with the network partner using the Fast Link Pulses(FLPs) - a burst of link pulses. There are 16 bits of signaling information contained in the burst pulses to advertise all remote partner’s capabilities which are determined by the register of PR4. According to this information they find out their highest common capability by following the priority sequence as below: 1. 100Base-TX full duplex 2. 100Base-TX half duplex 3. 10Base-T full duplex 4. 10Base-T half duplex During power-up or reset, if Auto-Negotiation is found enabled then FLPs will be transmitted and the AutoNegotiation function will proceed. Otherwise, the Auto-Negotiation will not occur until the bit 12 of PR0 register is set to 1. When Auto-Negotiation is disabled, then the Network Speed and Duplex Mode are selected by programming PR0 register. 7.8 Power Down Operation To reduce the power consumption, the STE100P is designed with a power down feature, which can save the power consumption significantly. Since the power supply of the 100Base-TX and 10Base-T circuits are separated, the STE100P can turn off the circuit of either the 100Base-TX or 10Base-T when the other one of them is operating. There is also a Power Down mode which can be selected by PDEN in register PR0 bit 11. During the Power Down mode, TXP/TXN outputs and all LED outputs are 3-stated, and the MII interface is isolated. During Power Down mode the MII management interface is still available for reading and writing device registers. Power Down mode can be exited by clearing bit 11 of register PR0 or by a hardware or software reset (setting PR0:15=1). 17/31 STE100P 7.9 LED Display Operation The STE100P provides 5 LED pins, the detail descriptions about the operation are described in the PIN Description section, and as follows. ■ Speed LED: 100Mbps(on) or 10Mbps(off) ■ Receive LED: Blinks at 10Hz when receiving, but not colliding ■ Transmit LED: Blinks at 10Hz when transmitting, but not colliding ■ Link LED: On when 100M or 10M link ok ■ Collision LED: Blinks at 20Hz to indicate a collision 7.10 Reset Operation There are two ways to reset the STE100P. First, for hardware reset, the STE100P can be reset via RESET pin (pin 28). The active low Reset input signal is required at least 1 ms to ensure proper reset operation. Second, for software reset, when bit 15 of register PR0 is set to 1, the STE100P will reset entire circuits and registers to their default values, then clear the bit 15 of PR0 to 0, and set the RIP output pin 29 to logic 1. Both hardware and software reset operations initialize all registers to their default values. This process includes re-evaluation of all hardware-configurable registers. Logic levels on several I/O pins are detected during hardware reset period to determine the initial functionality of STE100P. Some of these pins are used as outputs after the reset operation. Care must be taken to ensure that the configuration setup will not interfere with normal operation. Dedicated configuration pins can be tied to the Vcc or ground directly. Configuration pins multiplexed with LED outputs should be weakly pulled up or weakly pulled down through resistors as shown in the following circuits. Figure 5. Figure 6. 18/31 STE100P Note: The above LED connections are recommended for setting a Logic Level 1 or Logic Level 0 on the STE100P LED/PHY Address pins, for determining PHY address. 7.11 Preamble Suppression Preamble suppression mode in the STEPHY1 is indicated by a one in bit six of the PR1 Register. If it is determined that all PHY devices in the system support preamble suppression, then a preamble is not necessary for each management transaction. The first transaction following power-up/hardware reset requires 32 bits of preamble. The full 32 bit preamble is not required for each additional transaction. The STEPHY1 will respond to management accesses without preamble, but a minimum of one idle bit between management transactions is required as specified in IEEE 802.3u. 7.12 Remote Fault The remote fault function indicates to a link partner that a fault condition has occurred by using the Remote Fault bit, which is encoded in bit 13 of the Link Code Word. A local device indicates to its link partner that it has found a fault by setting the Remote Fault bit in the Auto-Negotiation register to logic one and renegotiating with the link partner. The Remote Fault bit remains at logic one until successful negotiation with the Link Code Word occurs. The bit will then return to 0. When the message is sent that the Remote Fault bit is set to logic one, the device will set the Remote Fault bit in the MII to logic one if the management function is present. 7.13 Transmit Isolation Figure 7. STA/STE Ethernet ttp STEPHY1 RxD TxD 4/5 tpn 4/5 MII TX(100MHz)/TP(10MHz) 19/31 STE100P 8 ELECTRICAL SPECIFICATIONS AND TIMINGS Table 6. Absolute Maximum Ratings Parameter Value Supply Voltage(Vcc) -0.5 V to 7.0 V Input Voltage -0.5 V to VCC + 0.5 V Output Voltage -0.5 V to VCC + 0.5 V Storage Temperature -65 °C to 150 °C(-85°F to 302°F) Ambient Temperature (-40)°C to +85°C) ESD Protection 2000V Table 7. General DC Specifications Symbol Parameter Test Condition Min. Typ. Max. Units 3.15 3.3 3.45 V General DC Vcc Supply Voltage 10Base-T Voltage/Current Characteristics Vida10 Input Differential Accept Peak Voltage 5MHz ~ 10MHz 585 3100 mV Vidr10 Input Differential Reject Peak Voltage 5MHz ~ 10MHz 0 585 mV Vod10 Output Differential Peak Voltage 2200 2800 mV Icc10 Supply Current 100% utilization, min. IPG, Vcc=3.3V, including TX output driver 90 mA 100Base-TX Voltage/Current Characteristics Vida100 Input Differential Accept Peak Voltage 200 1000 mV Vidr100 Input Differential Reject Peak Voltage 0 200 mV Vod100 Output Differential Peak Voltage 950 1050 mV Icc100 Supply Current 20/31 100% utilization, min. IPG, Vcc=3.3V, including TX output driver 100 mA STE100P Table 8. AC Specifications Symbol Parameter Test Condition Min. Typ. Max. Units 45 50 55 % X1 Specifications TX1d X1 Duty Cycle TX1p X1 Period TX1t X1 Tolerance TX1CL 30 ns ±50 PPM X1 Load Capacitance 18 pF 10Base-T Normal Link Pulse (NLP) Timings Specifications TNPW NLP Width 10Mbps TNPC NLP Period 10Mbps 100 8 ns 24 ms Max. Units Figure 8. Normal Link Pulse timings Tnpw Tnpc Table 8. AC Specifications Symbol Parameter Test Condition Min. Typ. Auto-Negotiation Fast Link Pulse(FLP) Timings Specifications Tflpw FLP Width Tflcpp Clock pulse to clock pulse period 111 125 139 µs Tflcpd Clock pulse to Data pulse period 55.5 62.5 69.5 µs 33 pulse - Number of pulses in one burst Tflbw Burst Width Tflbp FLP Burst period 100 17 ns 2 8 16 ms 24 ms 21/31 STE100P Figure 9. Fast Link Pulse timing Tflcpp Tflcpd Tflpw Tflbw Tflbp Table 8. AC Specifications Symbol Parameter Test Condition Min. Typ. Max. Units 1.4 ps 100Base-TX Transmitter AC Timings Specification Tjit TDP-TDN Differential Output Peak Jitter MII Management Clock Timing Specifications t1 MDC High Pulse Width 200 — ns t2 MDC Low Pulse Width 200 — ns t3 MDC Period 400 — ns t4 MDIO(I) Setup to MDC Rising Edge 10 — ns t5 MDIO(I) Hold Time from MDC Rising Edge 10 — ns t6 MDIO(O) Valid from MDC Rising Edge 0 300 ns 22/31 STE100P Figure 10. MII Management Clock Timing t1 t2 t3 MDC t4 t5 MDIO(I) t6 MDIO(O) Table 8. AC Specifications Symbol Parameter Test Condition Min. Typ. Max. Units MII Receive Timing Specification t1 RX-ER, RX-DV, RXD[3:0] Setup to RX-CLK 10 — ns t2 RX-ER, RX-DV, RXD[3:0] Hold After RX-CLK 10 — ns t3 RX-CLK High Pulse Width (100 Mbits/s) 14 26 ns RX-CLK High Pulse Width (10 Mbits/s) t4 t5 200 ns RX-CLK Low Pulse Width (100 Mbits/s) 14 26 ns RX-CLK Low Pulse Width (10 Mbits/s) 140 260 ns RX-CLK Period (100 Mbits/s) 40 ns RX-CLK Period (10 Mbits/s) 400 ns 23/31 STE100P Figure 11. MII Receive Timing Table 8. AC Specifications Symbol Parameter Test Condition Min. Typ. Max. Units MII Transmit Timing Specification t1 TX-ER,TX-EN,TXD[3:0] Setup to TX-CLK Rise 10 — ns t2 TX-ER,TX-EN,TXD[3:0] Hold After TX-CLK Rise 0 25 ns Figure 12. MII Transmit Timing 24/31 STE100P Table 8. AC Specifications Symbol Parameter Test Condition Min. Typ. Max. Units Receive Timing Specification Rt1 Rt2 Rt3 Rt4 Receive Frame to Sampled Edge of RX-DV (100 Mbits/s) — 300 ns Receive Frame to Sampled Edge of RX-DV (10 Mbits/s) — 4 us Receive Frame to CRS High (100Mbits/s) — 250 ns Receive Frame to CRS High (10 Mbits/s) — 3.5 us End of Receive Frame to Sampled Edge of RX-DV (100 Mbits/s) — 200 ns End Receive Frame to Sampled Edge of RX-DV (10 Mbits/s) — 1 us End of Receive Frame to CRS Low (100 Mbits/s) — 300 ns End of Receive Frame to CRS Low (10 Mbits/s) — 1 us Figure 13. Receive Timing 25/31 STE100P Table 8. AC Specifications Symbol Parameter Test Condition Min. Typ. Max. Units Transmit Timing Specification t1 t2 TX-EN Sampled to CRS High (100 Mbits/s) 0 40 ns TX-EN Sampled to CRS High (10 Mbits/s) — 4 us TX-EN Sampled to CRS Low (100 Mbits/s) 0 160 ns TX-EN Sampled to CRS Low (10 Mbits/s) t3 Transmit Latency (100 Mbits/s) 1 60 Transmit Latency (10 Mbits/s) t4 140 400 ns ns Sampled TX-EN Inactive to End of Frame (100 Mbits/s) — 170 ns Sampled TX-EN Inactive to End of Frame (10 Mbits/s) — 500 ns Figure 14. Transmit Timing 26/31 us STE100P Figure 15. 100BaseT Transmit Timing TXP Table 9. Parameter Sym Min Typ Max Units TXD, TX_EN, TX_ER Setup to TX_CLK High t2A 10 - - ns TXD, TX_EN, TX_ER Hold from TX_CLK High t2B 5 - - ns TX_EN sampled to CRS asserted t2C - 30 40 ns TX_EN sampled to CRS de-asserted t2D - 40 160 ns TX_EN sampled to TXP out (Tx latency) t2E 60 100 140 ns BT is the duration of one bit as transferred to and from the MAC and is the reciprocal of the bit rate. 27/31 STE100P Figure 16. 10Base-T Half Duplex Transmit Timing TXP Table 10. 28/31 Parameter Sym Min Typ Max Units TXD, TX_EN, TX_ER Setup to TX_CLK High t8A 10 - - ns TXD, TX_EN, TX_ER Hold from TX_CLK High t8B 5 - - ns TX_EN sampled to CRS asserted t8C - 0 4 us TX_EN sampled to CRS de-asserted t8E - 1 us TX_EN sampled to TXP out (Tx latency) t8D - 400 ns STE100P 9 PACKAGE INFORMATION In order to meet environmental requirements, ST offers these devices in ECOPACK® packages. These packages have a Lead-free second level interconnect. The category of second Level Interconnect is marked on the package and on the inner box label, in compliance with JEDEC Standard JESD97. The maximum ratings related to soldering conditions are also marked on the inner box label. ECOPACK is an ST trademark. ECOPACK specifications are available at: www.st.com. Figure 17. TQFP64 (10x10x1.4mm) Mechanical Data & Package Dimensions mm inch DIM. MIN. TYP. MAX. A MIN. TYP. 1.60 A1 0.05 A2 1.35 0.063 0.15 0.002 0.006 1.40 1.45 0.053 0.22 0.27 0.0066 0.0086 0.0106 0.055 0.057 B 0.17 C 0.09 D 11.80 12.00 12.20 0.464 0.472 0.480 D1 9.80 10.00 10.20 0.386 0.394 0.401 0.0035 D3 7.50 0.295 e 0.50 0.0197 E 11.80 12.00 12.20 0.464 E1 9.80 10.00 10.20 0.386 E3 7.50 L OUTLINE AND MECHANICAL DATA MAX. 0.45 0.472 0.480 0.394 0.401 0.295 0.60 0.75 0.0177 0.0236 0.0295 L1 1.00 0.0393 K 0˚ (min.), 3.5˚ (min.), 7˚(max.) ccc 0.080 TQFP64 (10 x 10 x 1.4mm) 0.0031 D D1 A D3 A2 A1 48 33 49 32 0.08mm ccc E E1 E3 B B Seating Plane 17 64 1 16 C L L1 e K TQFP64 0051434 E 29/31 STE100P Table 11. Revision History Date Revision January 2004 15 Rev. A12 June 2003 has been migrated from ST-PRESS to EDOCS. June 2004 16 Changed the Style-sheet on the Rev. A13. August 2004 17 Wrong package corrected. September 2004 18 Due to Rev. 17 content was partially wrong. Now fixed. February 2005 19 Added part number “E-STE100P” (ECOPACK). 30/31 Description of Changes STE100P Information furnished is believed to be accurate and reliable. However, STMicroelectronics assumes no responsibility for the consequences of use of such information nor for any infringement of patents or other rights of third parties which may result from its use. No license is granted by implication or otherwise under any patent or patent rights of STMicroelectronics. Specifications mentioned in this publication are subject to change without notice. This publication supersedes and replaces all information previously supplied. STMicroelectronics products are not authorized for use as critical components in life support devices or systems without express written approval of STMicroelectronics. The ST logo is a registered trademark of STMicroelectronics. All other names are the property of their respective owners © 2006 STMicroelectronics - All rights reserved STMicroelectronics group of companies Australia - Belgium - Brazil - Canada - China - Czech Republic - Finland - France - Germany - Hong Kong - India - Israel - Italy - Japan Malaysia - Malta - Morocco - Singapore - Spain - Sweden - Switzerland - United Kingdom - United States of America www.st.com 31/31