VITESSE SEMICONDUCTOR CORPORATION Advance Product Information 10-bit Transceiver for Fibre Channel and Gigabit Ethernet VSC7133 Features • 802.3z Gigabit Ethernet Compliant 1.25 Gb/s Transceiver • ANSI X3T11 Fibre Channel Compliant 1.0625 Gb/s Transceiver • 0.98 to 1.36 Gb/s Full Duplex Operation • 10 Bit TTL Interface for Transmit and Receive Data • TTL or PECL Reference Clock • Automatic Lock-to-Reference • RX Cable Equalization and Signal Detect • JTAG Access Port for Testability • 64-pin, 10mm PQFP Packaging • Single +3.3V Supply, 650 mW General Description The VSC7133 is a full-speed Fibre Channel and Gigabit Ethernet Transceiver with industry-standard pinouts. It accepts 10-bit 8B/10B encoded transmit data, latches it on the rising edge of the TTL/PECL REFCLK and serializes it onto the TX PECL differential outputs at a baud rate which is ten times the REFCLK frequency. Serial data input on the RX PECL differential inputs is resampled by the Clock Recovery Unit, deserialized onto the 10-bit receive data bus synchronously to complementary divide-by-twenty clocks. The VSC7133 receiver detects “Comma” characters for frame alignment. An analog/digital signal detection circuit indicates that a valid signal is present on the RX input. A cable equalizer compensates for Inter Symbol Interference in order to increase maximum cable distances. The VSC7133 contains PLL circuitry for synthesis of the baud-rate transmit clock, and extraction of the clock from the received serial stream. The VSC7133 is similar to the VSC7123 but has either a TTL or a PECL reference clock. VSC7133 Block Diagram R(0:9) 10 Serial to Q Parallel D QD QD RX+ RX- 2:1 ÷10 Clock ÷20 Recovery RCLK RCLKN Comma COMDET ENCDET EWRAP SIGDET T(0:9) REFCLKP REFCLKN Detect Signal Detect 10 DQ Parallel to Serial DQ TX+ TX- x10 Clock Multiply NOT SHOWN: JTAG Boundary Scan G52187-0 Rev. 2.4 1/17/00 VITESSE SEMICONDUCTOR CORPORATION 741 Calle Plano, Camarillo, CA 93012 • 805/388-3700 • FAX: 805/987-5896 Page 1 VITESSE SEMICONDUCTOR CORPORATION Advance Product Information 10-bit Transceiver for Fibre Channel and Gigabit Ethernet VSC7133 Functional Description Clock Synthesizer The VSC7133 clock synthesizer multiplies the reference frequency provided on the REFCLK pin by 10 to achieve a baud rate clock between 0.98 and 1.36 GHz. The on-chip PLL uses a single external 0.1uF capacitor to control the Loop Filter. The REFCLK is either TTL or LV PECL. If TTL, connect the TTL input to REFLKP and leave REFCLKN open, it is biased for a TTL switch level. If PECL, connect both REFCLKP and REFCLKN. Serializer The VSC7133 accepts TTL input data as a parallel 10 bit character on the T(0:9) bus, which is latched into the input register on the rising edge of REFCLK. This data is serialized and transmitted on the TX PECL differential outputs at a baud rate that is ten times the frequency of the REFCLK, with bit T0 transmitted first. User data should be encoded using 8B/10B block code or equivalent. Transmission Character Interface An encoded byte is 10 bits and is referred to as a transmission character. The 10 bit interface on the VSC7133 corresponds to a transmission character. This mapping is illustrated in Figure 1. Figure 1: Transmission Order and Mapping of an 8B/10B Character Parallel Data Bits T9 T8 T7 T6 T5 T4 T3 T2 T1 T0 8B/10B Bit Position j h g f i e d c b a Comma Character X X X 1 1 1 1 1 0 0 Last Data Bit Transmitted First Data Bit Transmitted Clock Recovery The VSC7133 accepts differential high speed serial inputs on the RX+/RX- pins, extracts the clock and retimes the data. Equalizers are included in the receiver to open the data eye and compensate for InterSymbol Interference (ISI) which may be present in the incoming data. The serial bit stream should be encoded so as to provide DC balance and limited run length by an 8B/10B encoding scheme. The Clock Recovery Unit (CRU) is completely monolithic and requires no external components. For proper operation, the baud rate of the data stream to be recovered should be within +200 ppm of ten times the REFCLK frequency. For example, Gigabit Ethernet systems would use 125 MHz oscillators with a +/-100ppm accuracy resulting in +/-200 ppm between VSC7133 pairs. Page 2 VITESSE SEMICONDUCTOR CORPORATION 741 Calle Plano, Camarillo, CA 93012 • 805/388-3700 • FAX: 805/987-5896 G52187-0 Rev. 2.4 1/17/00 VITESSE SEMICONDUCTOR CORPORATION Advance Product Information VSC7133 10-bit Transceiver for Fibre Channel and Gigabit Ethernet Deserializer The recovered serial bit stream is converted into a 10-bit parallel output character. The VSC7133 provides complementary TTL recovered clocks, RCLK and RCLKN, which are one twentieth of the serial baud rate. The clocks are generated by dividing down the high-speed recovered clock which is phase locked to the serial data. The serial data is retimed, deserialized and output on R(0:9). The parallel data will be captured by the adjoining protocol logic on the rising edges of RCLK and RCLKN. If serial input data is not present, or does not meet the required baud rate, the VSC7133 will continue to produce a recovered clock so that downstream logic may continue to function. The RCLK/RCLKN output frequency under these circumstances will differ from its expected frequency by no more than +1%. Word Alignment The VSC7133 provides 7-bit comma character recognition and data word alignment. Word synchronization is enabled by asserting ENCDET HIGH. When synchronization is enabled, the receiver examines the recovered serial data for the presence of the “Comma” character. This pattern is “0011111XXX”, where the leading zero corresponds to the first bit received. The comma sequence is not contained in any normal 8B/10B coded data character or pair of adjacent characters. It occurs only within special characters, known as K28.1, K28.5 and K28.7, which are defined for synchronization purposes. Improper alignment of the comma character is defined as any of the following conditions: 1) The comma is not aligned within the 10-bit transmission character such that R(0..6) = “0011111”. 2) The comma straddles the boundary between two 10-bit transmission characters. 3) The comma is properly aligned but occurs in the received character presented during the rising edge of RCLK rather than RCLKN. When ENCDET is HIGH and an improperly aligned comma is encountered, the recovered clock is stretched, never slivered, so that the comma character and recovered clocks are aligned properly to R(0:9). This results in proper character and word alignment. When the parallel data alignment changes in response to a improperly aligned comma pattern, some data which would have been presented on the parallel output port may be lost. Also, the first Comma pattern may be lost or corrupted. Subsequent data will be output correctly and properly aligned. When ENCDET is LOW, the current alignment of the serial data is maintained indefinitely, regardless of data pattern. On encountering a comma character, COMDET is driven HIGH. The COMDET pulse is presented simultaneously with the comma character and has a duration equal to the data, or half of an RCLK period. The COMDET signal is timed such that it can be captured by the adjoining protocol logic on the rising edge of RCLKN. Functional waveforms for synchronization are given in Figure 2 and Figure 3. Figure 2 shows the case when a comma character is detected and no phase adjustment is necessary. It illustrates the position of the COMDET pulse in relation to the comma character on R(0:9). Figure 3 shows the case where the K28.5 is detected, but it is misaligned so a change in the output data alignment is required. Note that up to three characters prior to the comma character may be corrupted by the realignment process. G52187-0 Rev. 2.4 1/17/00 VITESSE SEMICONDUCTOR CORPORATION 741 Calle Plano, Camarillo, CA 93012 • 805/388-3700 • FAX: 805/987-5896 Page 3 VITESSE SEMICONDUCTOR CORPORATION Advance Product Information 10-bit Transceiver for Fibre Channel and Gigabit Ethernet VSC7133 Signal Detection: The receiver has an output, SIGDET, indicating, when HIGH, that the RX input contains a valid Fibre Channel or Gigabit Ethernet signal. A combination of one analog and three digital checks are used to determine if the incoming signal contains valid data. SIGDET is updated every four RCLKs. If during the current period, all the four criteria are met, SIGDET will be HIGH during the next 4 RCLK period. If during the current period, any of the four criteria is not met, SIGDET will be LOW during the next 4 RCLK period. 1.) Analog transition detection is performed on the input to verify that the signal swings are of adequate amplitude. The RX+/- input buffer contains a differential voltage comparator which will go high if the differential peak-to-peak amplitude is greater than 400mV or LOW if under 200mV. If the amplitude is between 200 and 400mV, the output is indeterminate. 2.) Data on R(0:9) is monitored for all zeros (0000000000). If this pattern is encountered during the current RCLK interval, the SIGDET output will go LOW during the next four RCLK interval. 3.) Data on R(0:9) is monitored for all ones (1111111111). If this pattern is encountered during the current RCLK interval, the SIGDET output will go LOW during the next four RCLK interval. 4.) Data on R(0:9) is monitored for K28.5- (0011111010). Unlike previous patterns, the interval during which a K28.5- must occur is 64K+24 10-bit characters in length. Valid Fibre Channel or Gigabit Ethernet data will contain a K28.5- character during any period of this length. If a K28.5- is not detected during the monitoring period , SIGDET will go LOW during the next period. The behavior of SIGDET is affected by EWRAP and ENCDET as shown below. Table 1: Signal Detect Behaviour EWRAP ENCDET Transition Detect All Zeros/ All Ones K28.5 Presence 0 0 Enabled Enabled Enabled Normal 0 1 Enabled Enabled Disabled COMDET Disable 1 0 Enabled Disabled Disabled Loopback 1 1 Enabled Disabled Disabled Loopback Mode COMDET, RCLK, RCLKN and R(0:9) are unaltered by SIGDET. JTAG Access Port A JTAG Access Port is provided to assist in board-level testing. Through this port most pins can be accessed or controlled and all TTL outputs can be tri-stated. A full description of the JTAG functions on this device is available in “VSC7123/VSC7133 JTAG Access Port Functionality”. Page 4 VITESSE SEMICONDUCTOR CORPORATION 741 Calle Plano, Camarillo, CA 93012 • 805/388-3700 • FAX: 805/987-5896 G52187-0 Rev. 2.4 1/17/00 VITESSE SEMICONDUCTOR CORPORATION Advance Product Information 10-bit Transceiver for Fibre Channel and Gigabit Ethernet VSC7133 Figure 2: Detection of a Properly Aligned Comma Character RCLK RCLKN COMDET R(0:9) K28.5 TChar TChar TChar TChar: 10 bit Transmission Character Figure 3: Detection and Resynchronization of an Improperly Aligned Comma Receiving Two Consecutive K28.5+TChar Transmission Words Clock Stretching RCLK RCLKN COMDET K28.5 R(0:9) TChar TChar TChar K28.5 TChar Potentially Corrupted G52187-0 Rev. 2.4 1/17/00 VITESSE SEMICONDUCTOR CORPORATION 741 Calle Plano, Camarillo, CA 93012 • 805/388-3700 • FAX: 805/987-5896 Page 5 VITESSE SEMICONDUCTOR CORPORATION Advance Product Information 10-bit Transceiver for Fibre Channel and Gigabit Ethernet VSC7133 AC Characteristics Figure 4: Transmit Timing Waveforms REFCLK T2 T1 T(0:9) Data Valid Data Valid Data Valid Table 2: Transmit AC Characteristics Parameters Description Min Max Units Conditions Measured between the valid data level of T(0:9) to the 1.4V point of REFCLK T1 T(0:9) Setup time to the rising edge of REFCLK 1.5 — ns. T2 T(0:9) hold time after the rising edge of REFCLK 1.0 — ns. TSDR,TSDF TX+/TX- rise and fall time — 300 ps. 20% to 80%, 50 Ohm load to VDD-2.0 Latency from rising edge of REFCLK to T0 appearing on TX+/TX- 8bc 8bc+ 4ns ns bc = Bit clocks ns = Nano second TLAT Transmitter Output Jitter Allocation Page 6 TJ Total data output jitter — 192 ps. IEEE 802.3z Clause 38.68, TDJ Serial data output deterministic jitter (p-p) — 80 ps. IEEE 802.3z Clause 38.68, VITESSE SEMICONDUCTOR CORPORATION 741 Calle Plano, Camarillo, CA 93012 • 805/388-3700 • FAX: 805/987-5896 G52187-0 Rev. 2.4 1/17/00 VITESSE SEMICONDUCTOR CORPORATION Advance Product Information 10-bit Transceiver for Fibre Channel and Gigabit Ethernet VSC7133 Figure 5: Receive Timing Waveforms T4 RCLK T3 RCLKN T2 T1 R(0:9) Data Valid Data Valid Data Valid Table 3: Receive AC Characteristics Parameters Description Min. Max. Units Conditions T1 TTL Outputs Valid prior to RCLK/RCLKN rise 4.0 3.0 — — ns @ 1.0625Gb/s @ 1.25Gb/s T2 TTL Outputs Valid after RCLK or RCLKN rise 3.0 2.0 — — ns @ 1.0625Gb/s @ 1.25Gb/s T3 Delay between rising edge of RCLK to rising edge of RCLKN 10 x TRX -500 10 x TRX +500 ps TRX is the bit period of the incoming data on Rx. T4 Period of RCLK and RCLKN 1.98 x TREFCLK 2.02 x TREFCLK ps Whether or not locked to serial data. — 2.4 ns Between VIL(MAX) and VIH(MIN), into 10 pf. load. 12 bc + 1 ns 13 bc + 9 ns bc ns bc = Bit clock ns = Nano second — 1400 bc 8B/10B IDLE pattern. bc= bit clocks T R , TF R(0:9), COMDET, SIGDET, RCLK and RCLKN rise and fall time RLAT Latency from RX to R(0:9) TLOCK* Data acquisition lock time * Note: Probability of recovery for data acquisition is 95% per Section 5.3 of FC-PH rev. 4.3 G52187-0 Rev. 2.4 1/17/00 VITESSE SEMICONDUCTOR CORPORATION 741 Calle Plano, Camarillo, CA 93012 • 805/388-3700 • FAX: 805/987-5896 Page 7 VITESSE SEMICONDUCTOR CORPORATION Advance Product Information 10-bit Transceiver for Fibre Channel and Gigabit Ethernet VSC7133 Figure 6: REFCLK Timing Waveforms TH TL VIH(MIN) REFCLKP REFLKN VIL(MAX) TF TR Table 4: Reference Clock Requirements Parameter FR Description Frequency Range Min 98 Max 136 Units MHz Conditions Range over which both transmit and receive reference clocks on any link may be centered Maximum frequency offset between transmit and receive reference clocks on one link FO Frequency Offset DC REFCLK duty cycle 35 65 % Measured at 1.5V TR,TF REFCLK rise and fall time — 1.5 ns. Between VIL(MAX) and VIH(MIN) Page 8 -200 200 ppm. VITESSE SEMICONDUCTOR CORPORATION 741 Calle Plano, Camarillo, CA 93012 • 805/388-3700 • FAX: 805/987-5896 G52187-0 Rev. 2.4 1/17/00 VITESSE SEMICONDUCTOR CORPORATION Advance Product Information 10-bit Transceiver for Fibre Channel and Gigabit Ethernet VSC7133 Figure 7: Parametric Measurement Information Serial Input Rise and Fall Time TTL Input and Output Rise and Fall Time VIH(MIN) 80% 20% Tr VIL(MIN) Tr Tf Tf Receiver Input Eye Diagram Jitter Tolerance Mask Bit Time Amplitude 24% Minimum Eye Width% Parametric Test Load Circuit Serial Output Load Z0 = 50 or 75W TTL A.C. Output Load 50 or 75W 10 pF VDD – 2.0V G52187-0 Rev. 2.4 1/17/00 VITESSE SEMICONDUCTOR CORPORATION 741 Calle Plano, Camarillo, CA 93012 • 805/388-3700 • FAX: 805/987-5896 Page 9 VITESSE SEMICONDUCTOR CORPORATION 10-bit Transceiver for Fibre Channel and Gigabit Ethernet Advance Product Information VSC7133 Absolute Maximum Ratings (1) Power Supply Voltage, (VDD) ............................................................................................................-0.5V to +4V DC Input Voltage (PECL inputs)............................................................................................ -0.5V to VDD +0.5V DC Input Voltage (TTL inputs) ......................................................................................................-0.5V to +5.5V DC Output Voltage (TTL Outputs)........................................................................................ -0.5V to VDD + 0.5V Output Current (TTL Outputs) ................................................................................................................. +/-50mA Output Current (PECL Outputs)................................................................................................................+/-50mA Case Temperature Under Bias .........................................................................................................-55o to +125oC Storage Temperature..................................................................................................................... -65oC to +150oC Maximum Input ESD (Human Body Model).............................................................................................. 2000 V Maximum Input ESD (Charge Device Model) ........................................................................................... 1000 V Recommended Operating Conditions Power Supply Voltage, (VDD) ................................................................................................................+3.3V+5% Operating Temperature Range ............................................................ 0oC Ambient to +95oC Case Temperature Notes: (1) CAUTION: Stresses listed under “Absolute Maximum Ratings” may be applied to devices one at a time without causing permanent damage. Functionality at or above the values listed is not implied. Exposure to these values for extended periods may affect device reliability. Page 10 VITESSE SEMICONDUCTOR CORPORATION 741 Calle Plano, Camarillo, CA 93012 • 805/388-3700 • FAX: 805/987-5896 G52187-0 Rev. 2.4 1/17/00 VITESSE SEMICONDUCTOR CORPORATION Advance Product Information 10-bit Transceiver for Fibre Channel and Gigabit Ethernet VSC7133 DC Characteristics (Over recommended operating conditions). Parameters Description Min Typ Max Units Conditions VOH Output HIGH voltage (TTL) 2.4 — — V IOH = -1.0 mA VOL Output LOW voltage (TTL) — — 0.5 V IOL = +1.0 mA VIH Input HIGH voltage (TTL) 2.0 — 5.5 V 5V Tolerant Inputs VIL Input LOW voltage (TTL) 0 — 0.8 V — IIH Input HIGH current (TTL) — 50 500 µA VIN =2.4V IIL Input LOW current (TTL) — — -500 µA VIN =0.5V ∆VOUT751 TX Output differential peakto-peak voltage swing 1200 — 2200 mVp-p 75Ω to VDD – 2.0 V (TX+) - (TX-) ∆VOUT501 TX Output differential peakto-peak voltage swing 1000 — 2200 mVp-p 50Ω to VDD – 2.0 V (TX+) - (TX-) ∆VIN1 RX Input differential peakto-peak input sensitivity 300 — 2600 mVp-p Internally biased to Vdd/2 (RX+) - (RX-) VDD Supply voltage 3.14 — 3.47 V 3.3V±5% PD Power dissipation — 650 900 mW Outputs open, VDD = VDD max IDD Supply Current (All Supplies) — 190 260 mA Outputs open, VDD = VDD max IDDA Analog Supply Current — — 100 mA VDDA = VDDA max 1 NOTE: Refer to Application Note, AN-37, for differential measurement techniques. G52187-0 Rev. 2.4 1/17/00 VITESSE SEMICONDUCTOR CORPORATION 741 Calle Plano, Camarillo, CA 93012 • 805/388-3700 • FAX: 805/987-5896 Page 11 VITESSE SEMICONDUCTOR CORPORATION Advance Product Information 10-bit Transceiver for Fibre Channel and Gigabit Ethernet VSC7133 Figure 8: Input Structures VDDD VDDD 3K INPUT 4K INPUT 3K GND INPUT TTL Inputs (not REFCLK) 4K GND VDD High Speed Input (RX+/RX-) +3.3 V 12.6K VDDD VDDP REFCLK 9.3K TX+ TX- 12.6K 9.3K GND Hi Speed Outputs (TX+/-) GND REFCLK TTL Input VDDT OUTPUT VSST VSSD TTL Outputs Page 12 VITESSE SEMICONDUCTOR CORPORATION 741 Calle Plano, Camarillo, CA 93012 • 805/388-3700 • FAX: 805/987-5896 G52187-0 Rev. 2.4 1/17/00 VITESSE SEMICONDUCTOR CORPORATION Advance Product Information 10-bit Transceiver for Fibre Channel and Gigabit Ethernet VSC7133 Package Pin Descriptions 59 55 53 51 TCK VSSD VDDD RX- N/C RX+ TRSTN 57 TMS VDDD VSSD VDDP 61 VDDD TX+ 63 TX- VSSD VDDP Figure 9: Pin Diagram 49 TDI 1 VSSD T0 47 3 T1 VSST T2 45 VDDD 5 43 7 41 VDDD 39 T8 37 13 VSSD R8 R9 17 19 CAP1 EWRAP 15 CAP0 VDDT R7 35 VSSA R5 R6 11 T9 R3 R4 9 T7 R2 VDDT T5 T6 R0 R1 T3 T4 COMDET 21 23 25 27 29 31 33 VSST VSST RCLK VDDT RCLKN VDDD TDO SIGDET VSSD ENCDET REFCLKN VSSD REFCLKP VDDD VDDA (Top View) Table 5: Pin Identification Pin # Name Description 2,3,4,6 7,8,9,11 12,13 T0,T1,T2,T3 T4,T5,T6,T7 T8,T9 INPUTS - TTL 10-bit transmit character. Parallel data on this bus is clocked in on the rising edge of REFCLK. The data bit corresponding to T0 is transmitted first. G52187-0 Rev. 2.4 1/17/00 VITESSE SEMICONDUCTOR CORPORATION 741 Calle Plano, Camarillo, CA 93012 • 805/388-3700 • FAX: 805/987-5896 Page 13 VITESSE SEMICONDUCTOR CORPORATION 10-bit Transceiver for Fibre Channel and Gigabit Ethernet Advance Product Information VSC7133 Table 5: Pin Identification Pin # Name Description 22 23 REFCLKP REFCLKN INPUT - Differential PECL or Single-Ended TTL This rising edge of this clock latches T(0:9) into the input register. It also provides the reference clock, at one tenth the baud rate to the PLL. If TTL, connect to REFCLKP but leave REFCLKN open. If PECL, connect both REFCLKP and REFCLKN. 62, 61 TX+, TX- OUTPUTS - Differential PECL (AC Coupling recommended) These pins output the serialized transmit data when EWRAP is LOW. When EWRAP is HIGH, TX+ is HIGH and TX- is LOW. 45,44,43,41 40,39,38,36 35,34 R0,R1,R2,R3 R4,R5,R6,R7 R8,R9 19 EWRAP 54, 52 RX+, RX- 31, 30 RCLK, RCLKN OUTPUT - Complementary TTL Recovered clocks derived from one twentieth of the RX+/- data stream. Each rising transition of RCLK or RCLKN corresponds to a new word on R(0:9). 24 ENCDET INPUT - TTL Enables COMDET and word resynchronization when HIGH. When LOW, keeps current word alignment and disables COMDET. 47 COMDET OUTPUT - TTL This output goes HIGH for half of an RCLK period to indicate that R(0:9) contains a Comma Character (‘0011111XXX’). COMDET will go HIGH only during a cycle when RCLKN is rising. COMDET is enabled by ENCDET being HIGH. 26 SIGDET OUTPUT - TTL SIGnal DETect. This output goes HIGH when the RX input contains a valid Fibre Channel or Gigabit Ethernet signal. A LOW indicates an invalid signal. 16, 17 CAP0, CAP1 49 TCK INPUT - TTL: JTAG clock input. Not normally connected. 48 TDI INPUT - TTL: JTAG data input. Not normally connected. 55 TMS INPUT - TTL: JTAG mode select input. Normally tied to VDDD 56 TRSTN 27 TDO 18 VDDA Page 14 OUTPUTS - TTL 10-bit received character. Parallel data on this bus is clocked out on the rising edges of RCLK and RCLKN. R0 is the first bit received on RX+/RX-. INPUT - TTL LOW for Normal Operation. When HIGH, an internal loopback path from the transmitter to the receiver is enabled and the TX outputs are held HIGH. INPUTS - Differential PECL (AC Coupling recommended) The serial receive data inputs selected when EWRAP is LOW. Internally biased to VDD/2, with 3.3KΩ resistors from each input pin to VDD and GND. ANALOG: Differential capacitor for the CMU’s VCO. 0.1 uF nominal. INPUT - TLL: JTAG reset input. Tie to VSSD for normal operation. OUTPU - TTL: JTAG data output. Normally tri-stated. Analog Power Supply. VITESSE SEMICONDUCTOR CORPORATION 741 Calle Plano, Camarillo, CA 93012 • 805/388-3700 • FAX: 805/987-5896 G52187-0 Rev. 2.4 1/17/00 VITESSE SEMICONDUCTOR CORPORATION Advance Product Information 10-bit Transceiver for Fibre Channel and Gigabit Ethernet VSC7133 Table 5: Pin Identification Pin # Name 15 VSSA Analog Ground 5,10,20,28 50,57,59 VDDD Digital Logic Power Supply 1,14,21,25 51,58,64 VSSD Digital Logic Ground 29, 37, 42 VDDT TTL Output Power Supply 32, 33, 46 VSST TTL Output Ground 60,63 VDDP PECL I/O Power Supply 53 N/C G52187-0 Rev. 2.4 1/17/00 Description No Connection. VITESSE SEMICONDUCTOR CORPORATION 741 Calle Plano, Camarillo, CA 93012 • 805/388-3700 • FAX: 805/987-5896 Page 15 VITESSE SEMICONDUCTOR CORPORATION Advance Product Information 10-bit Transceiver for Fibre Channel and Gigabit Ethernet VSC7133 Package Information: 64-pin PQFP F G 64 Item 10 mm Tolerance A 2.45 MAX A2 2.00 +0.10/-0.05 E 0.22 ±0.05 F 13.20 ±0.25 G 10.00 ±0.10 H 13.20 ±0.25 I 10.00 ±0.10 J 0.88 +0.15/-0.10 K 0.50 BASIC 49 48 1 I H 16 33 17 32 10o TYP A2 A 100 TYP K 0.30 RAD. TYP. A STANDOFF 0.25 MAX. 0.20 RAD. TYP. 0o- 8o 0.17 MAX. 0.25 0.102 MAX. LEAD COPLANARITY E J NOTES: Drawing not to scale. All units in mm unless otherwise noted. Page 16 VITESSE SEMICONDUCTOR CORPORATION 741 Calle Plano, Camarillo, CA 93012 • 805/388-3700 • FAX: 805/987-5896 G52187-0 Rev. 2.4 1/17/00 VITESSE SEMICONDUCTOR CORPORATION Advance Product Information 10-bit Transceiver for Fibre Channel and Gigabit Ethernet VSC7133 Thermal Considerations The VSC7133 is packaged in a 10mm, thermally enhanced PQFP with an internal heat spreader. These packages use industry-standard EIAJ footprints, but have been enhanced to improve thermal dissipation. The construction of the packages are shown below. Figure 10: Package Cross Section Internal Heat Spreader Plastic Molding Compound Lead Insulator Bond Wire Die Table 6: Thermal Resistance Symbol Description 10mm Units θjc Thermal resistance from junction to case 10 o C/W θca Thermal resistance from case to ambient in still air including conduction through the leads. 50 o C/W θca-100 Thermal resistance from case to ambient with 100 LFM airflow 41 oC/W θca-200 Thermal resistance from case to ambient with 200 LFM airflow 37 oC/W θca-400 Thermal resistance from case to ambient with 400 LFM airflow 32 oC/W θca-600 Thermal resistance from case to ambient with 600 LFM airflow 28 oC/W The VSC7133 is designed to operate with a case temperature up to 95oC. The user must guarantee that the case temperature specification is not violated. With the thermal resistances shown above, the 10mm Thermally Enhanced PQFP can operate in still air ambient temperatures of 50oC [50oC = 95oC - 0.9W * 50]. If the ambient air temperature exceeds these limits then some form of cooling through a heatsink or an increase in airflow must be provided. Moisture Sensitivity Level This device is rated at with a Moisture Sensitivity Level 3 rating. Refer to Application Note AN-20 for appropriate handling procedures. G52187-0 Rev. 2.4 1/17/00 VITESSE SEMICONDUCTOR CORPORATION 741 Calle Plano, Camarillo, CA 93012 • 805/388-3700 • FAX: 805/987-5896 Page 17 VITESSE SEMICONDUCTOR CORPORATION Advance Product Information 10-bit Transceiver for Fibre Channel and Gigabit Ethernet VSC7133 Ordering Information The part number for this product is formed by a combination of the device number and the package style: VSC7133QU Device Type: VSC7133: 10-bit Transceiver Package Style (64-pin) QU: 10mm PQFP Marking Information The package is marked with three lines of text as shown below. Figure 11: Package Marking Information Pin 1 Identifier VITESSE Part Number VSC7133QU Date Code ####AAAA Package Suffix Lot Tracking Code Notice This document contains information about a product during its fabrication or early sampling phase of development. The information contained in the document is based on design targets, simulation results or early prototype test results. Characteristic data and other specifications are subject to change without notice. Therefore the reader is cautioned to confirm that this datasheet is current prior to design or order placement. Warning Vitesse Semiconductor Corporation’s product are not intended for use in life support appliances, devices or systems. Use of a Vitesse product in such applications without written consent is prohibited. Page 18 VITESSE SEMICONDUCTOR CORPORATION 741 Calle Plano, Camarillo, CA 93012 • 805/388-3700 • FAX: 805/987-5896 G52187-0 Rev. 2.4 1/17/00