Revision A Data Sheet Subject to Change without Notice
SiI2020A SerDes
Data Sheet March 2002
General Description Features
Silicon Image’s SiI2020A is a serializer/deserializer
(SerDes) capable of transmitting and receiving data at
1.0625 and 2.125 gigabits-per-second (Gbps) targeting Fibre
Channel applications. Designed for power, performance
and price, the SiI 2020A SerDes makes use of a robust,
low-power, low-cost, low-jitter, single-PLL CMOS design
that comes in compact 64-pin, 14 mm MQFP and 10 mm
TQFP packages. The SiI2020A supports selectable
transmit and receive data rates for automatic speed
negotiation and a narrow 10-bit SSTL_2-compatible interface
for parallel data input/output. The innovative digital, fast-
locking, single-PLL design enables high data reliability and
ease-of-design while eliminating the need for external PLL
capacitors and multiple PLLs.
The SiI2020A leverages much of the circuit innovation at the
physical layer of Silicon Image’s proprietary reduced
overhead Multi-layer Serial Link (MSLTM) architecture, which
was pioneered and proven with our market-leading
PanelLink products. Silicon Image has shipped over 20
million units of PanelLink products for host systems and
displays in the PC and the CE markets, notable for their
noisy operating conditions. The MSL technology is a multi-
layered approach to providing cost-effective, multi-gigabit
semiconductor solutions on a single chip for high-bandwidth
applications.
SiI 2020A Pin Diagram
SiI2020A
64-pin
MQFP/TQFP
(Top View)
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32
33
34
35
36
37
38
39
40
41
42
43
44
45
46
47
48
49505152535455565758596064 63 62 61
VREFT
TX[0]
TX[1]
TX[2]
TBC
TX[3]
TX[4]
TX[8]
TX[5]
TX[6]
NC
TX[9]
TX_RATE
RX[0]
VDD_TX
VDD_TX
VDD_TX
RX+
VDD_RX
GND
NC
VDDP
EWRAP
VDDQ
GND
REFCLK[1]
REFCLK[0]
VDD
RX[1]
RX[2]
RX[3]
RX[4]
RX[5]
RX[6]
RX[7]
VDD_SSTL
RX[8]
RX[9]
GND
TX+
VDD
EQ
VDD_SSTL
GND
EN_CDET
GND
RXZ_CNT
RBC[1]
VDD_SSTL
REF_RATE
GND
RX_LOS
COM_DET
PLLBW
GND
GND
TX-
RX_RATE
RX-
TX[7]
RBC[0]
RBC_SYNC
VREFR
GND
General
Fibre Channel-compliant
Multi-rate: 1.0625 Gbps and 2.125 Gbps
Low Power
Single 2.5V supply for core circuits and high-speed
I/O
Power dissipation at 2.125 Gbps: 425mW (typical),
665mW (maximum)
Cost Effective
Standard CMOS technology
Compact 64-pin, 14 x 14mm MQFP package
Compact 64-pin, 10 x 10mm TQFP package
Narrow parallel I/O Interface
10-bit interface with DDR for 2.125 Gbps mode
SSTL_2 and High-Speed Parallel Interface (HSPI)-
compliant
Separate transmit byte clock (TBC) for latching
parallel input data
Highly Reliable Serial Interface
Separately selectable Tx and Rx data rates
Single, digital PLL architecture
Very-low-jitter PLL: 2.7 ps (random jitter), 24.6 ps
(deterministic jitter)
Adjustable PLL filter bandwidth
Variable pre-emphasis control
Variable on-chip termination resistor
Full ESD tolerance to 2kV
Proven Technology
MSL-based technology proven with PanelLink
ICs for the PC and the CE markets (2-5 Gbps, over
20M units shipped)
Robust design for “noisy” environments
Figure 1. SiI2020A Pin Diagram
SiI2020A SiI-DS-0073-A
Revision A Data Sheet 2 Subject to Change without
Notice
Functional Block Diagram
TX[0:9]
RX[0:9]
RBC[0:1]
1.0625/2.125Gbps
Transmit signal
1.0625/2.125 Gbps
receive signal
EN_CDET
COM_DET
TX+
TX-
RX+
RX-
REFCLK[0:1]
TBC
PLLBW
REF_RATE
Tx
TX_RATE
RX_RATE Input
Latch
Rx
EWRAP
Serializer
Sync
Data
Output
Frame
Aligner
Deserializer
PLL
RBC_SYNC
RX_LOS Sampler
Loop-back
Figure 2. Functional Block Diagram
Single PLL: Only one PLL is used in the SiI 2020A SerDes. The internal PLL generates multiple phases from an
external reference (REFCLK[0:1]) to not only transmit but also to receive serial data. For data reception, multiple
phases are used to extract the incoming data and clock via oversampling. By eliminating one PLL, the SerDes
consumes less power and is easier to design even in noisy environments. Hence, issues such as injection
locking and interference between the transmission and reception clocks that are common to multiple-PLL
architectures are eliminated.
10-bit Input Latch and Sync: SiI 2020A latches 10-bit parallel data on the falling edge of TBC in 1.0625 Gbps
mode (TX_RATE = 0) and on both edges of TBC in 2.125 Gbps mode (TX_RATE = 1). After the data is captured
using TBC, the data is synced with an internal clock generated from the PLL, which is generated from
REFCLK[0:1]. Therefore, REFCLK and TBC must be synchronous with each other.
Serializer: The 10-bit parallel data are converted to high-speed serial data by the serializer. TX[0] is transmitted
first and TX[9] is transmitted last. Pre-emphasis can be optionally added to the output streams. The amount of
pre-emphasis is controlled by an external resistor.
R-Term: The termination value is controlled by the RXZ_CNT pin. When RXZ_CNT is high, the termination value is
75 Ohms and when RXZ_CNT is low, the termination value is 50 Ohms.
Sampler: The sampler oversamples the input data by a multiple factor of the input rate. This oversampled
information is used to determine the correct sampling point of the incoming data.
Frame Aligner: If EN_CDET is high, the frame aligner finds the special characters (“0011111xxx”). If a special
character is detected, the frame aligner aligns the incoming data so that the next comma or data character will start
at RX[0]. The Comma character will be aligned at the rising edge of RBC1 in SiI2020A. If the first Comma is
detected at the rising edge of RBC0, which is the misaligned case, the RBC1 will be stretched by a half clock , but
never slivered, after the first Comma misalignment detection. During this realignment after the first Comma
SiI 2020A SiI-DS-0073-A
Revision A Data Sheet Subject to Change without Notice 3
misalignment detection, some data (less than 3 bytes after the first misaligned Comma) and possibly the first
misaligned Comma may be lost or misaligned. However, the second Comma character and the subsequent data
will be output correctly and properly aligned.
Loop-back: Loop-back mode can be used for diagnostic testing. When loop-back mode is enabled (EWRAP set
high), the TX[0:9] input data are synced to the internal clock, realigned, and sent out as the RX[0:9] output. The
TX+/- outputs are disabled and set to a DC logic state of 1; the RX+/- inputs are ignored. For normal operation,
EWRAP should be low.
Electrical Specifications
Absolute Maximum Conditions
Symbol Description Min Typ Max Units
VDD Supply Voltage 2.5V -0.3 4.0 V
VI Input Voltage -0.3 VDD+ 0.3 V
TSTG Storage Temperature -65 150 °C
θJA Thermal Resistance (Junction to Ambient) 33 °C/W
Notes: Permanent device damage may occur if absolute maximum conditions are exceeded.
Functional operation should be restricted to the conditions described under Normal Operating Conditions below.
Normal Operating Conditions
Symbol Description Min Typ Max Units
VDD Supply Voltage 2.375 2.5 2.625 V
TA Ambient Temperature (with power applied) 0 25 70 °C
SiI 2020A SiI-DS-0073-A
Revision A Data Sheet Subject to Change without Notice 4
DC Digital I/O Specifications
Under normal operating conditions unless otherwise specified.
Symbol
Parameter Min Typ Max Units
VREFT Input reference voltage 1.15 1.25 1.35 V
VIH High level input Voltage VREFT+0.35 VDD+0.30 V
VIL Low level input Voltage -0.3 VREFT-0.35V V
VIHPECL High level LVPECL input Voltage for
REFCLK[0:1] VDD -0.4 VDD +0.4 V
VILPECL Low level LVPECL input Voltage for
REFCLK[0:1] -0.3 VDD-0.7 V
VIHLVTTL High level LVTTL input Voltage for REFCLK[0:1] 2.0 V
VILLVTTL Low level LVTTL input Voltage for REFCLK[0:1] 0.80 V
VOH High level output voltage 1.9 V
VOL Low level output voltage GND 0.6 V
DC Specifications
Under normal operating conditions unless otherwise specified.
Symbol Parameter Conditions Min Typ Max Units
VSOUT75 TX+/TX- differential peak-to-
peak voltage swing. Terminated by
75 Ohms 1100 1500 1800 mV
VSOUT50 TX+/TX- differential peak-to-
peak voltage swing. Terminated by
50 Ohms. 800 1100 1500 mV
VIN RX+/RX- differential peak -to-
peak input sensitivity 200 2000 mV
VDIH RX+/RX- differential Input
common-mode voltage [3] VDD V
VDOH TX+/TX- differential Output
common-mode voltage [3] 1.2 V
PCC
Power dissipation CLOAD=5pF
2.125 Gbps rate
TX+/- = 50ohms
terminated
425[1]
665[2]
mW
[1] Sending/Receiving Random Pattern
[2] Sending/Receiving Worst Case (maximum transitions) Pattern
[3] Self biased
SiI 2020A SiI-DS-0073-A
Revision A Data Sheet Subject to Change without Notice 5
REFCLK[0:1], TBC Parameters
Under normal operating conditions unless otherwise specified.
Symbol Parameter Min Typ Max Units
TREF_FREQ Nominal Frequency 106.25 MHz
TREF_J REFCLK[0:1] frequency tolerance -100 100 ppm
TREF_DUTY REFCLK[0:1] duty cycle 40% 60%
TRT_SKEW REFCLK to TBC skew (REFCLK and TBC must be
synchronous with each other) -2 2 ns
Transmit Function AC Specifications
Under normal operating conditions unless otherwise specified.
Symbol Parameter Min Typ Max Units
TTXS TX[0:9] setup time to the falling edge of TBC
(TX_RATE=0) 1400 ps
TTXH TX[0:9] hold time from the falling edge of TBC
(TX_RATE=0) 1400 ps
TTCT TX[0:9], TBC transition time (TX_RATE=1) 1880 ps
TTCV TX[0:9], TBC valid/stable time (TX_RATE=1) 2820 ps
TRISE TX+/TX- rise time into 50 Ohms. Measured from
20% and 80% of full swing. 200 ps
TFALL TX+/TX- fall time into 50 Ohms. Measured from
20% and 80% of full swing. 200 ps
TTXLAT Latency from TX[0:9] parallel input to TX+/TX- serial
output 18 ns
TTRJ TX+/TX- output random RMS jitter[4] [5] 2.7 ps
TTDJ TX+/TX- output deterministic jitter[6] 24.6 ps
[4] Random jitter was measured according to "Fibre Channel Specification X3.230-1994 FC-PH, Annex A, Section A.4.4
(oscilloscope method)".
[5] Histogram for random jitter is shown in Figure 11.
[6] Deterministic jitter was measured according to "Fibre Channel Specification X3.230-1994 FC-PH, Annex A, Section A.4.3"
Conditions:
All parameters are measure to 50% of full swing except where noted.
SiI 2020A SiI-DS-0073-A
Revision A Data Sheet Subject to Change without Notice 6
Receiver Function AC Specifications
Under normal operating conditions unless otherwise specified.
Symbol Parameter Min Typ Max Units
TAXS Mode A, RX[0:9] setup time to the rising edge of
RBC[0:1] 3 ns
TAXH Mode A, RX[0:9] hold time to the rising edge of
RBC[0:1] 2.5 ns
TARR Mode A, RBC[1] to RBC[0] rising edge skew 8.8 9.9 ns
TBXS Mode B, RX[0:9] setup time to the rising edge of
RBC[0] , or falling edge of RBC[1] 3 ns
TBXH Mode B, RX[0:9] hold time to the rising edge of
RBC[0] , or falling edge of RBC[1] 3 ns
TCXS Mode C, RX[0:9] setup time to the rising edge of
RBC[0:1] 1.4 ns
TCXH Mode C, RX[0:9] hold time to the rising edge of
RBC[0:1] 1.4 ns
TCRR Mode C, RBC[1] to RBC[0] rising edge skew 4.5 4.9 ns
TDCT Mode D, RX[0:9] transition time 1.5 ns
TDCV Mode D, RX[0:9] valid/stable time 3 ns
TRRISE,
TRFALL Parallel output rise/fall. Measured from 20% and
80% of full swing. 2 ns
TRDUTY Duty cycle of RBC[0:1]. Measured from 20% and
80% of full swing. 40% 60%
TRXLAT Latency from RX+/RX- serial input to RX[0:9] parallel
output 32 ns
TJUMP
RCLKP/RCLKN cycle to cycle period variation.
Phase jump of synthesized clock. 1/3 RX0+/- bit
time
Conditions:
1. RBC[1] /RBC[0] and RX[0:9] are loaded by 10pF to ground for these measurements.
2. All parameters are measure to 50% of full swing except where noted.
PLL Parameters
Under normal operating conditions unless otherwise specified.
Symbol Parameter Min Typ Max Units
TPLLLOCK PLL Locking time 200 µs
TBSYNC Bit sync time 200 2500 bits
SiI 2020A SiI-DS-0073-A
Revision A Data Sheet Subject to Change without Notice 7
AC Timing
Transmit Timing
TBC
TX[0:9] Data[0:9] Data[0:9]
TTXS TTXH
Figure 3. Input Timing for TX_RATE = 0 (1.0625 Gbps mode)
TBC
TX+/-
TX[0:9] Data[0:9]
5 6 7 8 43210
TTXLAT
Data[0:9] Data[0:9]
TTCT TTCV
Figure 4. Input Timing for TX_RATE = 1 (2.125 Gbps mode)
SiI 2020A SiI-DS-0073-A
Revision A Data Sheet Subject to Change without Notice 8
Receive Timing
RBC[0]
RBC[1]
RX[0:9]
RBC[0]
RBC[1]
RX[0:9]
RBC[0]
RBC[1]
RX[0:9]
RBC[0]
RBC[1]
RX[0:9]
RBC_SYNC = 0
RBC_SYNC = 1
RBC_SYNC = 0
RBC_SYNC = 1
RX_RATE = 0
(Serial Rate = 1.0625 Gbps)
RX_RATE = 1
(Serial Rate = 2.125 Gbps)
53.125 MHz
106.25 Mbps
106.25 MHz
106.25 Mbps
106.25 MHz
212.5 Mbps
106.25 MHz
212.5 Mbps
Mode A
Mode B
Mode C
Mode D
COM_DET
COM_DET
COM_DET
COM_DET
Figure 5. Parallel Output Modes
RX+/-
RX[0:9]
4321
0
Data[0:9]
TRXLAT
Figure 6. RX Latency
TAXS TAXH TAXS TAXH
TARR
RBC[0]
RBC[1]
RX[0:9]
Figure 7. Mode A Timing Diagram (RX_RATE=0, RBC_SYNC=0)
SiI 2020A SiI-DS-0073-A
Revision A Data Sheet Subject to Change without Notice 9
TBXS TBXH TBXS TBXH
RBC[0]
RBC[1]
RX[0:9]
Figure 8. Mode B Timing Diagram (RX_RATE=0, RBC_SYNC=1)
TCXS TCXH
RBC[0]
RBC[1]
RX[0:9]
TCXS TCXH
TCRR
Figure 9. Mode C Timing Diagram (RX_RATE=1, RBC_SYNC=0)
TDCV
RBC[0]
RBC[1]
RX[0:9]
TDCT
Figure 10. Mode D Timing Diagram (RX_RATE=1, RBC_SYNC=1)
SiI 2020A SiI-DS-0073-A
Revision A Data Sheet Subject to Change without Notice 10
Figure 11. TX+/TX- Output Random Jitter with Equalization Disabled
(TX+) - (TX-)
Maximum
output level Steady-state
output level
TX+/- terminated by 50 ohms, VDD = 2.5V, TA = 25 °C
The maximum output level (EQ pin = 0V) = V_sout50 in the DC specifications.
Figure 12. Waveform for Pre-emphasis Values
SiI 2020A SiI-DS-0073-A
Revision A Data Sheet Subject to Change without Notice 11
Pins Descriptions
Functional Pins
Pin Name Pin # Type Description
TX[0], TX[1],
TX[2], TX[3],
TX[4], TX[5],
TX[6], TX[7],
TX[8], TX[9]
2, 3,
4, 6,
7, 8,
9, 11,
12, 13
In - SSTL2
TX[0:9] : Input pins for the 10-bit encoded data character that is to be
transmitted serially over the TX+,TX- differential outputs. The first
serial bit transmitted will be TX[0].
RX[0], RX[1]
RX[2], RX[3],
RX[4], RX[5],
RX[6], RX[7],
RX[8], RX[9]
45, 44,
43, 41,
40, 39,
38, 36,
35, 34
Out - SSTL2
RX[0:9] : 10-bit received data.
TX+
TX- 62
61 Out
Out TX+, TX- : Serialized, high speed.
When parallel loop-back is disabled (EWRAP=0) these pins are
active. When EWRAP=1, these pins are driven to logic 1.
RX+
RX- 54
52 In
In RX+, RX- : Serialized, high speed, differential inputs. These pins are
active when loop-back is disabled (EWRAP=0).
REFCLK[1],
REFCLK[0] 22
23
In-
LVPECL/LVTTL
In-
LVPECL/LVTTL
REFCLK[0:1] are differential reference clock inputs. This clock
source is used by both transmit and receive sections of the device.
When REF_RATE=1, these pins are used to input a 53.125 MHz
clock signal. When REF_RATE=0, these pins input a 106.25 MHZ
clock signal. These pins can be driven by a differential PECL clock
source, or by a LVTTL single-ended clock on REFCLK[1] with
REFCLK[0] connecting to GND via 0.1µF capacitor.
TBC 1 In - SSTL2 Transmit byte clock. This clock is used to capture the parallel input
data (TX[0:9]). When TX_RATE = 0, the falling edge of TBC is used
to capture the parallel data. When TX_RATE=1, data is captured
between both the rising and falling edges of TBC resulting in a
doubling of the data rate.
RBC[1]
RBC[0] 30
31 Out - SSTL2 Recovered clock output. These clock outputs are used by external
devices to capture the RX[0:9] parallel data. The two clocks are 180
degrees out of phase with each other. The relationship between
these clocks and the parallel data depends on the settings of
RX_RATE, RBC_SYNC (see output timing figures for details).
REF_RATE 29 In - LVTTL Sets the rate of the input reference clock.
REF_RATE=0, the reference clock frequency is 106.25 MHz.
REF_RATE=1 the reference clock frequency is 53.125 MHz.
RX_RATE 55 In - LVTTL Receiver rate. The setting of this signal determines the rate at which
the receiver operates.
RX_RATE=0, the incoming serial stream is sampled at 1.0625 Gbps
and the parallel data is driven out on the rising edge of RBC[1].
RX_RATE=1, the incoming serial stream is sampled at 2.125 Gbps
and the parallel data is driven out on the rising edge of RBC[1]
and RBC[0].
TX_RATE 14 In - LVTTL Transmitter rate. The setting of this signal determines the rate at
which the transmitter operates.
TX_RATE=0, the incoming parallel data stream is sampled on the
falling edge of TBC. The data is then serialized and transmitted
at a rate of 1.0625 Gbps.
TX_RATE=1, the incoming serial stream is sampled between
BOTH edges of TBC. The data is then serialized and
transmitted at a rate of 2.125 Gbps.
NC 16 - No connect
NC 17 - No connect
SiI 2020A SiI-DS-0073-A
Revision A Data Sheet Subject to Change without Notice 12
Functional Pins (continued)
Pin Name Pin # Type Description
RBC_SYNC 10 In - SSTL2 When RX_RATE = 0, Setting RBC_SYNC determines the frequency of
RBC, RBC=53.125 MHz for RBC_SYNC = 0, and RBC= 106.25 MHz for
RBC_SYNC= 1. When RX_RATE = 1, setting RBC_SYNC = 1 the
receiver parallel output data and clocks transition simultaneously.
EQ 56 In- Analog Equalization control. This pin is used to input a voltage reference that
sets the amount of equalization on the TX+/- outputs. To disable
equalization this pin must be connected to a voltage below 600mV. As
the voltage input on the pin is raised above 600mV the strength of the
equalization is increased, reaching a maximum when the voltage input on
EQ equals VDD. The following list shows the typical amount of pre-
emphasis obtained for three settings of the EQ voltage reference. See
Figure 12 for reference.
Voltage input = 0V:
Maximum output level = 100%
Steady-state output level = 95%
Voltage input = 1.25V:
Maximum output level = 125%
Steady-state output level = 65%
Voltage input = 2.0V:
Maximum output level = 155%
Steady-state output level = 30%
EWRAP 19 In - LVTTL Enable parallel loop-back mode. When loop-back is enabled, parallel
input data is looped to the parallel output data, the serializer/deserializer
circuits are bypassed.
EWRAP=0 loop-back mode is disabled.
EWRAP=1, loop-back mode is enabled.
EN_CDET 24 In - LVTTL Enable comma detection (activated with high).
COM_DET 27 Out - SSTL2 Comma detection signal. This signal is driven high when a comma
character of positive disparity (0011111xxx) is detected on the high-speed
serial input lines.
RX_LOS 26 Out - SSTL2 Indicates whether there is any valid signal on RX+/- pins.
If RX+/- > 200mVp-p, RX_LOS = 0
If RX+/- < 200mVp-p and RX+/- > 75mV, RX_LOS = undefined
If RX+/- < 75mVp-p, RX_LOS = 1, RX[0:9] = B'1111111111'
VREFT 5 In - Analog Voltage reference input, set by external voltage divider to 1.25V for SSTL2
input.
VREFR 47 Out - Analog Voltage reference output, externally outputs the voltage reference
corresponding to 1.25V for SSTL2 output.
PLLBW 49 In - LVTTL PLL bandwidth control.
PLLBW = 0, PLL bandwidth is reduced for filtering
input reference clock jitter
PLLBW = 1, bandwidth is normal
If this pin is left unconnected, it will be internally pulled high (normal
bandwidth) by default.
RXZ_CNT 48 In - LVTTL RX input impedance matching control
RXZ_CNT = 0, RX differential inputs are terminated by 50 ohms
RXZ_CNT = 1, RX differential inputs are terminated by 75 ohms
If this pin is left unconnected, it will be internally pulled down (terminated
by 50 ohms) by default.
SiI 2020A SiI-DS-0073-A
Revision A Data Sheet Subject to Change without Notice 13
Power & Ground Pins
Pin Name Pin # Type Description
VDD 28, 57 Power Power supply for digital logic circuits.
VDD_RX 53 Power High Speed Receiver Supply. For the best performance, this supply
should be as noise free as possible.
VDD_TX 59, 60, 63 Power High Speed Transmiter Supply. For the best performance, this supply
should be as noise free as possible.
GND 15, 21, 25,
32, 33, 46,
51, 58, 64
Ground Power ground for digital logic circuits.
VDD_SSTL 37, 42, 50 Power Power supply for I/O pads (2.5V).
VDDQ 20 Power Power supply for internal PLL interface (2.5V). For the best
performance, this supply should be as noise free as possible.
VDDP 18 Power Power supply for PLL (2.5V). For the best performance, this supply
should be as noise free as possible.
SiI 2020A SiI-DS-0073-A
Revision A Data Sheet Subject to Change without Notice 14
Package Dimensions
64-pin MQPF Package Dimensions
64-pin Plastic MQFP
SiI2020ACM64
LNNNNN.NLLL
XXYY
X.XX
Lead Length
1.60 mm
Lead Width
0.35 mm
Lead Pitch
0.80 mm
Body Thickness
2.00 mm
Package Height
2.35mm max. Clearance
0.25mm max.
Body Size 14.00 mm
Footprint 17.20mm
Body Size 14.00 mm
Footprint 17.20 mm
Device #
Lot #
Date Code
SiI Rev. #
JEDEC code MS-022 BB
Figure 13. SiI2020ACM64 Package Diagram
SiI 2020A SiI-DS-0073-A
Revision A Data Sheet Subject to Change without Notice 15
Package Dimensions
64-pin TQPF Package Dimensions
64-pin Plastic TQFP
SiI2020ACT64
LNNNNN.NLLL
XXYY
X.XX
Lead Length
1.00 mm
Lead Width
0.22 mm
Lead Pitch
0.50 mm
Body Thickness
1.00 mm
Package Height
1.15 mm max. Clearance
0.15 mm max.
Body Size 10.00 mm
Footprint 12.00 mm
Body Size 10.00 mm
Footprint 12.00 mm
Device #
Lot #
Date Code
SiI Rev. #
JEDEC code MS-026 ACD
Figure 14. SiI2020ACT64 Package Diagram
SiI 2020A SiI-DS-0073-A
Revision A Data Sheet Subject to Change without Notice 16
Copyright Notice
This manual is copyrighted by Silicon Image, Inc. Do not reproduce; transform to any other format, or
send/transmit any part of this documentation without the express written permission of Silicon Image, Inc.
Trademark Acknowledgment
Silicon Image, the Silicon Image logo, MSL and PanelLink are trademarks or registered trademarks of
Silicon Image, Inc. All other trademarks are the property of their respective holders.
Disclaimer
This document provides technical information for the user. Silicon Image, Inc. reserves the right to modify
the information in this document as necessary. The customer should make sure that they have the most
recent data sheet version. Silicon Image, Inc. holds no responsibility for any errors that may appear in this
document. Customers should take appropriate action to ensure their use of the products does not infringe
upon any patents. Silicon Image, Inc. respects valid patent rights of third parties and does not infringe upon
or assist others to infringe upon such rights.
Part Ordering Number:
SiI2020ACM64 (64 pin MQFP)
SiI2020ACT64 (64 pin TQFP)
Revision History:
Revision Comment Date
A Final Data Sheet 03/08/02
© 2002 Silicon Image, Inc. 03/08 SiI-DS-0073-A
Silicon Image, Inc. Tel: (408) 616-4000, 1-888-PanelLink
1060 E. Arques Ave Fax: (408) 830-9530
Sunnyvale, CA 94085 E-mail: salessupport@siimage.com
USA Web: www.siimage.com
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