TI1 DS90UH925QSQE/NOPB 720p 24-bit color fpd-link iii serializer with hdcp Datasheet

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DS90UH925Q-Q1
SNLS336J – OCTOBER 2010 – REVISED NOVEMBER 2014
DS90UH925Q-Q1 720p 24-bit Color FPD-Link III Serializer with HDCP
1 Features
3 Description
•
The DS90UH925Q-Q1 serializer, in conjunction with
the DS90UH926Q-Q1 deserializer, provides a
solution for secure distribution of content-protected
digital video within automotive entertainment
systems. This chipset translates a parallel RGB Video
Interface into a single pair high-speed serialized
interface. The digital video data is protected using the
industry standard HDCP copy protection scheme.
The serial bus scheme, FPD-Link III, supports video
and audio data transmission and full duplex control
including I2C communication over a single differential
link. Consolidation of video data and control over a
single differential pair reduces the interconnect size
and weight, while also eliminating skew issues and
simplifying system design.
1
•
•
•
•
•
•
•
•
•
•
•
•
•
•
•
Integrated HDCP Cipher Engine with On-chip Key
Storage
Bidirectional Control Interface Channel Interface
with I2C Compatible Serial Control Bus
Supports High Definition (720p) Digital Video
Format
RGB888 + VS, HS, DE and I2S Audio Supported
5 to 85 MHz PCLK Supported
Single 3.3V Operation with 1.8 V or 3.3 V
Compatible LVCMOS I/O Interface
AC-coupled STP Interconnect up to 10 meters
Parallel LVCMOS Video Inputs
DC-balanced & Scrambled Data with Embedded
Clock
HDCP Content Protected
Supports HDCP Repeater Application
Internal Pattern Generation
Low Power Modes Minimize Power Dissipation
Automotive Grade Product: AEC-Q100 Grade 2
Qualified
> 8k V HBM and ISO 10605 ESD rating
Backward Compatible Modes
2 Applications
•
•
The DS90UH925Q-Q1 serializer embeds the clock,
content protects the data payload, and level shifts the
signals to high-speed low voltage differential
signaling. Up to 24 RGB data bits are serialized along
with three video control signals and up to two I2S
data inputs.
EMI is minimized by the use of low voltage differential
signaling, data scrambling and randomization and
spread spectrum clocking compatibility.
The HDCP cipher engine is implemented in the
serializer and deserializer. HDCP keys are stored in
on-chip memory.
Device Information (1)
Automotive Display for Navigation
Rear Seat Entertainment Systems
PART NUMBER
DS90UH925Q-Q1
(1)
PACKAGE
WQFN (48)
BODY SIZE
7.00 mm x 7.00 mm
For all available packages, see the orderable addendum at
the end of the datasheet.
Simplified Schematic
HOST
Graphics
Processor
RGB Digital Display Interface
VDD33
VDDIO
(1.8V or 3.3V) (3.3V)
R[7:0]
G[7:0]
B[7:0]
HS
VS
DE
PCLK
SCL
SDA
IDx
R[7:0]
G[7:0]
B[7:0]
HS
VS
DE
PCLK
FPD-Link III
1 Pair / AC Coupled
0.1 PF
0.1 PF
RIN+
DOUT+
RIN-
DOUT-
PDB
I2S AUDIO
(STEREO)
VDDIO
VDD33
(3.3V) (1.8V or 3.3V)
3
/
DS90UH925Q-Q1
Serializer
DAP
100 ohm STP Cable
PDB
OSS_SEL
OEN
MODE_SEL MODE_SEL
INTB
INTB_IN
SCL
SDA
IDx
DS90UH926Q-Q1
Deserializer
RGB Display
720p
24-bit color depth
LOCK
PASS
3
/
I2S AUDIO
(STEREO)
MCLK
DAP
1
An IMPORTANT NOTICE at the end of this data sheet addresses availability, warranty, changes, use in safety-critical applications,
intellectual property matters and other important disclaimers. PRODUCTION DATA.
DS90UH925Q-Q1
SNLS336J – OCTOBER 2010 – REVISED NOVEMBER 2014
www.ti.com
Table of Contents
1
2
3
4
5
6
Features ..................................................................
Applications ...........................................................
Description .............................................................
Revision History.....................................................
Pin Configuration and Functions .........................
Specifications.........................................................
6.1
6.2
6.3
6.4
6.5
6.6
6.7
6.8
6.9
6.10
7
1
1
1
2
3
6
Absolute Maximum Ratings ..................................... 6
Handling Ratings....................................................... 6
Recommended Operating Conditions....................... 6
Thermal Information .................................................. 7
DC Electrical Characteristics ................................... 7
AC Electrical Characteristics..................................... 8
DC and AC Serial Control Bus Characteristics......... 9
Recommended Timing for Serial Control Bus .......... 9
Switching Characteristics ........................................ 12
Typical Charateristics ........................................... 13
Detailed Description ............................................ 14
7.1 Overview ................................................................. 14
7.2 Functional Block Diagram ....................................... 14
7.3
7.4
7.5
7.6
8
Feature Description.................................................
Device Functional Modes........................................
Programming...........................................................
Register Maps .........................................................
14
21
25
27
Applications and Implementation ...................... 42
8.1 Application Information............................................ 42
8.2 Typical Application .................................................. 43
9
Power Supply Recommendations...................... 45
9.1 Power Up Requirements and PDB Pin ................... 45
9.2 CML Interconnect Guidelines.................................. 45
10 Layout................................................................... 46
10.1 Layout Guidelines ................................................. 46
10.2 Layout Example .................................................... 47
11 Device and Documentation Support ................. 49
11.1
11.2
11.3
11.4
Documentation Support ........................................
Trademarks ...........................................................
Electrostatic Discharge Caution ............................
Glossary ................................................................
49
49
49
49
12 Mechanical, Packaging, and Orderable
Information ........................................................... 49
4 Revision History
Changes from Revision I (April 2013) to Revision J
Page
•
Added, updated, or renamed the following sections: Device Information Table, Pin Configuration and Functions,
Application and Implementation; Power Supply Recommendations; Layout; Device and Documentation Support;
Mechanical, Packaging, and Ordering Information................................................................................................................. 1
•
Fixed typo for GPIO configuration ........................................................................................................................................ 17
•
Removed two MODE_SEL modes: I2S Channel B, and Backward Compatible.................................................................. 22
•
Removed IDx addresses 0x22, 0x24, 0x2C, 0x2E, 0x30, 0x32, 0x34 ................................................................................. 25
•
Changed suggested resistor values for IDx addresses 0x1E, 0x20, 0x26, 0x28, 0x2A....................................................... 25
Changes from Revision H (October 2010) to Revision I
•
2
Page
Changed layout from National Data Sheet style to TI format................................................................................................. 1
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SNLS336J – OCTOBER 2010 – REVISED NOVEMBER 2014
5 Pin Configuration and Functions
G1/GPIO3
G0/GPIO2
R7
R6
R5
INTB
VDDIO
R4
R3
R2
R1/GPIO1
R0/GPIO0
36
35
34
33
32
31
30
29
28
27
26
25
48-Pin
Package RHS
(Top View)
G2
37
24
MODE_SEL
G3
38
23
CMF
G4
39
22
VDD33
G5
40
21
PDB
G6
41
20
DOUT+
G7
42
DS90UH925Q-Q1
19
DOUT-
B0/GPO_REG4
43
TOP VIEW
18
RES1
B1/I2S_DB/GPO_REG5
44
17
CAPHS12
B2
45
16
NC
B3
46
15
RES0
B4
47
14
CAPP12
B5
48
13
I2S_CLK/GPO_REG8
11
12
I2S_DA/GPO_REG6
10
PCLK
I2S_WC/GPO_REG7
8
9
IDx
CAPL12
SCL
6
7
DE
SDA
5
HS
4
3
B7
VS
1
2
B6
DAP = GND
Pin Functions
PIN
NAME
NUMBER
I/O, TYPE
DESCRIPTION
LVCMOS PARALLEL INTERFACE
R[7:0]
34, 33, 32, 29,
28, 27, 26, 25
I, LVCMOS
w/ pull down
RED Parallel Interface Data Input Pins
Leave open if unused.
R0 can optionally be used as GPIO0 and R1 can optionally be used as GPIO1.
G[7:0]
42, 41, 40, 39,
38, 37, 36, 35
I, LVCMOS
w/ pull down
GREEN Parallel Interface Data Input Pins
Leave open if unused.
G0 can optionally be used as GPIO2 and G1 can optionally be used as GPIO3.
B[7:0]
2, 1, 48, 47,
46, 45, 44, 43
I, LVCOS
w/ pull down
BLUE Parallel Interface Data Input Pins
Leave open if unused
B0 can optionally be used as GPO_REG4 and B1 can optionally be used as GPO_REG5.
HS
3
I, LVCMOS
w/ pull down
Horizontal Sync Input Pin
Video control signal pulse width must be 3 PCLKs or longer to be transmitted when the
Control Signal Filter is enabled. There is no restriction on the minimum transition pulse when
the Control Signal Filter is disabled. The signal is limited to 2 transitions per 130 PCLKs.
See Table 6.
VS
4
I, LVCMOS
w/ pull down
Vertical Sync Input Pin
Video control signal is limited to 1 transition per 130 PCLKs. Thus, the minimum pulse width
is 130 PCLKs.
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Pin Functions (continued)
PIN
NAME
NUMBER
I/O, TYPE
DESCRIPTION
Data Enable Input Pin
Video control signal pulse width must be 3 PCLKs or longer to be transmitted when the
Control Signal Filter is enabled. There is no restriction on the minimum transition pulse when
the Control Signal Filter is disabled. The signal is limited to 2 transitions per 130 PCLKs.
See Table 6.
DE
5
I, LVCMOS
w/ pull down
PCLK
10
I, LVCMOS
w/ pull down
13, 12, 11
I, LVCMOS
w/ pull down
I2S_CLK,
I2S_WC,
I2S_DA
Pixel Clock Input Pin. Strobe edge set by RFB configuration register. See Table 6.
Digital Audio Interface Data Input Pins
Leave open if unused.
I2S_CLK can optionally be used as GPO_REG8, I2S_WC can optionally be used as
GPO_REG7, and I2S_DA can optionally be used as GPO_REG6.
OPTIONAL PARALLEL INTERFACE
I2S_DB
44
I, LVCMOS
w/ pull down
Second Channel Digital Audio Interface Data Input pin at 18–bit color mode and set by
MODE_SEL pin or configuration register
Leave open if unused.
I2S_DB can optionally be used as B1 or GPO_REG5.
GPIO[3:0]
36, 35, 26, 25
General Purpose IOs. Available only in 18-bit color mode, and set by MODE_SEL pin or
I/O, LVCMOS configuration register. See Table 6.
w/ pull down Leave open if unused
Shared with G1, G0, R1 and R0.
GPO_REG[
8:4]
13, 12, 11, 44,
43
O, LVCMOS
w/ pull down
General Purpose Outputs and set by configuration register. See Table 6.
Share with I2S_CLK, I2S_WC, I2S_DA, I2S_DB or B1, B0.
PDB
21
I, LVCMOS
w/ pull-down
Power-down Mode Input Pin
PDB = H, device is enabled (normal operation)
Refer to ”Power Up Requirements and PDB Pin” in the Applications Information Section.
PDB = L, device is powered down.
When the device is in the powered down state, the Driver Outputs are both HIGH, the PLL is
shutdown, and IDD is minimized. Control Registers are RESET.
MODE_SEL
24
I, Analog
Device Configuration Select. See Table 4.
IDx
6
I, Analog
I2C Serial Control Bus Device ID Address Select
External pull-up to VDD33 is required under all conditions, DO NOT FLOAT.
Connect to external pull-up and pull-down resistor to create a voltage divider. See Figure 19.
SCL
8
I/O, LVCMOS I2C Clock Input / Output Interface
Open Drain Must have an external pull-up to VDD33, DO NOT FLOAT.
Recommended pull-up: 4.7kΩ.
SDA
9
I/O, LVCMOS I2C Data Input / Output Interface
Open Drain Must have an external pull-up to VDD33, DO NOT FLOAT.
Recommended pull-up: 4.7kΩ.
CONTROL
I2C
4
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Pin Functions (continued)
PIN
NAME
NUMBER
I/O, TYPE
DESCRIPTION
STATUS
INTB
31
O, LVCMOS
Open Drain
HDCP Interrupt
INTB = H, normal
INTB = L, Interrupt request
Recommended pull-up: 4.7kΩ to VDDIO
FPD-Link III SERIAL INTERFACE
DOUT+
20
O, LVDS
True Output
The output must be AC-coupled with a 0.1µF capacitor.
DOUT-
19
O, LVDS
Inverting Output
The output must be AC-coupled with a 0.1µF capacitor.
CMF
23
Analog
Common Mode Filter.
Connect 0.1µF to GND
Power
Power to on-chip regulator 3.0 V - 3.6 V. Requires 4.7 uF to GND
POWER (1) and GROUND
VDD33
22
VDDIO
30
Power
LVCMOS I/O Power 1.8 V ±5% OR 3.0 V - 3.6 V. Requires 4.7 uF to GND
GND
DAP
Ground
DAP is the large metal contact at the bottom side, located at the center of the WQFN
package. Connect to the ground plane (GND) with at least 9 vias.
REGULATOR CAPACITOR
CAPHS12,
CAPP12
CAPL12
17, 14
CAP
Decoupling capacitor connection for on-chip regulator. Requires a 4.7uF to GND at each
CAP pin.
7
CAP
Decoupling capacitor connection for on-chip regulator. Requires two 4.7uF to GND at this
CAP pin.
16
NC
18, 15
GND
OTHERS
NC
RES[1:0]
(1)
Do not connect.
Reserved. Tie to Ground.
The VDD (VDD33 and VDDIO) supply ramp should be faster than 1.5 ms with a monotonic rise.
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6 Specifications
6.1 Absolute Maximum Ratings
(1) (2)
over operating free-air temperature range (unless otherwise noted)
MIN
MAX
UNIT
Supply Voltage – VDD33
-0.3
4.0
V
Supply Voltage – VDDIO
-0.3
4.0
V
LVCMOS I/O Voltage (3)
-0.3
VDDIO + 0.3
V
Serializer Output Voltage
-0.3
2.75
V
150
°C
Junction Temperature
(1)
(2)
(3)
If Military/Aerospace specified devices are required, please contact the Texas Instruments Sales Office/ Distributors for availability and
specifications.
“Absolute Maximum Ratings” indicate limits beyond which damage to the device may occur, including inoperability and degradation of
device reliability and/or performance. Functional operation of the device and/or non-degradation at the Absolute Maximum Ratings or
other conditions beyond those indicated in the Recommended Operating Conditions is not implied. The Recommended Operating
Conditions indicate conditions at which the device is functional and the device should not be operated beyond such conditions.
The maximum limit (VDDIO +0.3V) does not apply to the PDB pin during the transition to the power down state (PDB transitioning from
HIGH to LOW).
6.2 Handling Ratings
Tstg
MIN
MAX
UNIT
-65
+150
°C
±8
±8
Charged device model (CDM), per AEC Q100-011
±1.25
±1.25
Machine Model (MM)
Storage temperature range
Human body model (HBM), per AEC Q100-002 (1)
V(ESD)
Electrostatic discharge
ESD Rating (IEC 61000-4-2,
powered-up only)
RD= 330Ω, CS = 150pF
ESD Rating (ISO 10605)
RD= 330Ω, CS = 150pF/330pF
RD= 2KΩ, CS = 150pF/330pF
(1)
±250
±250
Air Discharge
(DOUT+, DOUT-)
±15
±15
Contact Discharge
(DOUT+, DOUT-)
±8
±8
Air Discharge
(DOUT+, DOUT-)
±15
±15
Contact Discharge
(DOUT+, DOUT-)
±8
±8
kV
V
kV
AEC Q100-002 indicates HBM stressing is done in accordance with the ANSI/ESDA/JEDEC JS-001 specification.
6.3 Recommended Operating Conditions
over operating free-air temperature range (unless otherwise noted)
MIN
NOM
MAX
Supply Voltage (VDD33)
3.0
3.3
3.6
UNIT
V
LVCMOS Supply Voltage (VDDIO)
3.0
3.3
3.6
V
LVCMOS Supply Voltage (VDDIO)
1.71
1.8
1.89
V
Operating Free Air Temperature (TA)
−40
25
105
°C
OR
PCLK Frequency
5
Supply Noise
6
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85
MHz
100
mVP-P
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6.4 Thermal Information
RHS
THERMAL METRIC (1)
RθJA
Junction-to-ambient thermal resistance
35
RθJC(top)
Junction-to-case (top) thermal resistance
5.2
RθJB
Junction-to-board thermal resistance
5.5
ψJT
Junction-to-top characterization parameter
0.1
ψJB
Junction-to-board characterization parameter
5.5
RθJC(bot)
Junction-to-case (bottom) thermal resistance
1.3
(1)
UNIT
48 PINS
°C/W
For more information about traditional and new thermal metrics, see the IC Package Thermal Metrics application report, SPRA953.
6.5 DC Electrical Characteristics (1)
(2) (3)
Over recommended operating supply and temperature ranges unless otherwise specified.
PARAMETER
TEST CONDITIONS
PIN/FREQ.
MIN
PDB
TYP
MAX
UNIT
2.0
VDDIO
V
GND
0.8
V
LVCMOS I/O DC SPECIFICATIONS
VIH
High Level Input Voltage
VDDIO = 3.0 to 3.6V
VIL
Low Level Input Voltage
VDDIO = 3.0 to 3.6V
IIN
Input Current
VIN = 0V or VDDIO = 3.0 to 3.6V
−10
VDDIO = 3.0 to 3.6V
VIH
High Level Input Voltage
VDDIO = 1.71 to 1.89V
VDDIO = 3.0 to 3.6V
VIL
IIN
VOH
VOL
Low Level Input Voltage
Input Current
High Level Output Voltage
Low Level Output Voltage
VDDIO = 1.71 to 1.89V
VIN = 0V or VDDIO
IOH = −4mA
IOL = +4mA
IOS
Output Short Circuit Current VOUT = 0V
IOZ
TRI-STATE® Output
Current
(1)
(2)
(3)
VDDIO = 3.0
to 3.6V
R[7:0], G[7:0],
B[7:0], HS, VS,
DE, PCLK,
I2S_CLK,
I2S_WC,
I2S_DA, I2S_DB
10
μA
2.0
VDDIO
V
0.65*
VDDIO
VDDIO
V
GND
0.8
V
GND
0.35*
VDDIO
V
±1
−10
±1
10
μA
VDDIO = 1.71
to 1.89V
−10
±1
10
μA
VDDIO = 3.0 to
3.6V
2.4
VDDIO
V
VDDIO = 1.71
to 1.89V
VDDIO 0.45
VDDIO
V
GND
0.4
V
GND
0.35
V
VDDIO = 3.0 to
3.6V
VDDIO = 1.71
to 1.89V
GPIO[3:0],
GPO_REG[8:4]
VOUT = 0V or VDDIO, PDB = L,
−50
−10
mA
10
μA
The Electrical Characteristics tables list ensured specifications under the listed Recommended Operating Conditions except as
otherwise modified or specified by the Electrical Characteristics Conditions and/or Notes. Typical specifications are estimations only and
are not ensured.
Typical values represent most likely parametric norms at VDD = 3.3 V, TA = +25 °C, and at the Recommended Operating Conditions at
the time of product characterization and are not ensured.
Current into device pins is defined as positive. Current out of a device pin is defined as negative. Voltages are referenced to ground
except VOD and ΔVOD, which are differential voltages.
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DC Electrical Characteristics(1) (2)
(3)
www.ti.com
(continued)
Over recommended operating supply and temperature ranges unless otherwise specified.
PARAMETER
TEST CONDITIONS
PIN/FREQ.
MIN
TYP
MAX
UNIT
1160
1250
1340 mVp-p
FPD-LINK III CML DRIVER DC SPECIFICATIONS
VODp-p
Differential Output Voltage
(DOUT+) – (DOUT-)
ΔVOD
Output Voltage Unbalance
VOS
Offset Voltage – Singleended
RL = 100Ω, Figure 1
1
50
2.50.25*VO
RL = 100Ω, Figure 1
Offset Voltage Unbalance
Single-ended
IOS
Output Short Circuit Current DOUT+/- = 0V, PDB = L or H
RT
Internal Termination
Resistor - Single ended
V
Dp-p
(TYP)
DOUT+, DOUT-
ΔVOS
mV
1
50
−38
40
mV
mA
52
62
Ω
148
170
mA
90
180
μA
1
1.6
mA
1.2
2.4
mA
65
150
μA
55
150
μA
SUPPLY CURRENT
IDD1
VDD33= 3.6V
IDDIO1
Supply Current
(includes load current)
RL = 100Ω, f = 85 MHz
Checker Board Pattern,
Figure 2
Supply Current Remote
Auto Power Down Mode
0x01[7] = 1, deserializer
is powered down
IDDS1
IDDIOS1
IDDS2
IDDIOS2
Supply Current Power
Down
PDB = L, All LVCMOS
inputs are floating or tied
to GND
VDD33
VDDIO = 3.6V
VDDIO =
1.89V
VDDIO
VDD33 = 3.6V
VDD33
VDDIO = 3.6V
VDDIO =
1.89V
VDDIO
VDD33 = 3.6V
VDD33
VDDIO = 3.6V
VDDIO =
1.89V
VDDIO
1
2
mA
65
150
μA
50
150
μA
6.6 AC Electrical Characteristics
Over recommended operating supply and temperature ranges unless otherwise specified. (1)
PARAMETER
TEST CONDITIONS
PIN/FREQ.
(2) (3)
MIN
TYP
MAX
UNIT
GPIO BIT RATE
Forward Channel Bit Rate
BR
Back Channel Bit Rate
See (4)
(5)
See (4)
(5)
f = 5 – 85
MHz
GPIO[3:0]
0.25* f
Mbps
75
kbps
RECOMMENDED TIMING for PCLK
tTCP
PCLK Period
tCIH
PCLK Input High Time
tCIL
PCLK Input Low Time
tCLKT
PCLK Input Transition Time
Figure 3 (4) (5)
tIJIT
PCLK Input Jitter Tolerance,
Bit Error Rate ≤10–10
(1)
(2)
(3)
(4)
(5)
(6)
8
f / 40 < Jitter Freq < f / 20 (5)
PCLK
(6)
11.76
T
200
ns
0.4*T
0.5*T
0.6*T
ns
0.4*T
0.5*T
0.6*T
ns
f = 5 MHz
4.0
ns
f = 85 MHz
0.5
ns
f=5–
78MHz
0.4
0.6
UI
The Electrical Characteristics tables list ensured specifications under the listed Recommended Operating Conditions except as
otherwise modified or specified by the Electrical Characteristics Conditions and/or Notes. Typical specifications are estimations only and
are not ensured.
Typical values represent most likely parametric norms at VDD = 3.3 V, TA = +25 °C, and at the Recommended Operating Conditions at
the time of product characterization and are not ensured.
Current into device pins is defined as positive. Current out of a device pin is defined as negative. Voltages are referenced to ground
except VOD and ΔVOD, which are differential voltages.
Specification is ensured by design and is not tested in production.
Specification is ensured by characterization and is not tested in production.
Jitter Frequency is specified in conjunction with DS90UH926 PLL bandwidth.
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6.7 DC and AC Serial Control Bus Characteristics
Over 3.3V supply and temperature ranges unless otherwise specified. (1)
PARAMETER
(2) (3)
TEST CONDITIONS
MIN
TYP
MAX
UNIT
VIH
Input High Level
SDA and SCL
0.7*
VDD33
VDD33
V
VIL
Input Low Level Voltage
SDA and SCL
GND
0.3*
VDD33
V
VHY
Input Hysteresis
>50
VOL
SDA, IOL = 1.25 mA
Iin
SDA or SCL, VIN = VDD33 or GND
tR
SDA RiseTime – READ
tF
SDA Fall Time – READ
tSU;DAT
Set Up Time — READ
tHD;DAT
Hold Up Time — READ
tSP
Input Filter
Cin
Input Capacitance
(1)
(2)
(3)
mV
0
0.36
V
-10
10
µA
430
ns
20
ns
See Figure 8
560
ns
See Figure 8
615
ns
50
ns
SDA or SCL
<5
pF
SDA, RPU = 10 kΩ, Cb ≤ 400 pF, see Figure 8
The Electrical Characteristics tables list ensured specifications under the listed Recommended Operating Conditions except as
otherwise modified or specified by the Electrical Characteristics Conditions and/or Notes. Typical specifications are estimations only and
are not ensured.
Typical values represent most likely parametric norms at VDD = 3.3 V, TA = +25 °C, and at the Recommended Operating Conditions at
the time of product characterization and are not ensured.
Current into device pins is defined as positive. Current out of a device pin is defined as negative. Voltages are referenced to ground
except VOD and ΔVOD, which are differential voltages.
6.8 Recommended Timing for Serial Control Bus
Over 3.3V supply and temperature ranges unless otherwise specified.
MIN
fSCL
tLOW
SCL Clock Frequency
TYP
MAX
UNITS
Standard Mode
0
100
kHz
Fast Mode
0
400
kHz
Standard Mode
4.7
us
Fast Mode
1.3
us
Standard Mode
4.0
us
Fast Mode
0.6
us
Hold time for a start or a
repeated start condition
Figure 8
Standard Mode
4.0
us
Fast Mode
0.6
us
Set Up time for a start or a
repeated start condition
Figure 8
Standard Mode
4.7
us
Fast Mode
0.6
us
Data Hold Time
Figure 8
Standard Mode
0
3.45
us
Fast Mode
0
0.9
us
Data Set Up Time
Figure 8
Standard Mode
250
ns
Fast Mode
100
ns
Set Up Time for STOP Condition, Standard Mode
Figure 8
Fast Mode
4.0
us
0.6
us
Standard Mode
4.7
us
tBUF
Bus Free Time
Between STOP and START,
Figure 8
Fast Mode
1.3
us
tr
SCL & SDA Rise Time,
Figure 8
Standard Mode
1000
ns
Fast Mode
300
ns
SCL & SDA Fall Time,
Figure 8
Standard Mode
300
ns
Fast mode
300
ns
tHIGH
tHD;STA
tSU:STA
tHD;DAT
tSU;DAT
tSU;STO
tf
SCL Low Period
SCL High Period
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30
RGB[7:0],
HS,VS,DE,
I2S
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100 nF
DOUT+
Differential probe
D
100:
DOUT-
SCOPE
BW û 4GHz
Input Impedance û 100 k:
CL ú 0.5 pf
BW û 3.5 GHz
100 nF
PCLK
DOUT-
Single Ended
VOD-
VOD
VOD+
DOUT+
|
VOS
0V
VOD+
Differential
(DOUT+) - (DOUT-)
0V
VOD-
Figure 1. Serializer VOD DC Output
VDDIO
PCLK
GND
VDDIO
RGB[n] (odd),
VS, HS
GND
VDDIO
RGB[n] (even),
DE
GND
Figure 2. Checkboard Data Pattern
80%
VDDIO
80%
PCLK
20%
20%
t CLKT
0V
t CLKT
Figure 3. Serializer Input Clock Transition Time
DOUT+
CL
100:
Differential
Signal
80%
tLHT
DOUT-
80%
20%
20%
Vdiff = 0V
tHLT
CL
Figure 4. Serializer CML Output Load and Transition Time
10
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tTCP
VDDIO/2
PCLK
tDIS
VDDIO/2
VDDIO/2
tDIH
VDDIO
RGB[7:0],
HS,VS,DE
Setup
VDDIO/2
Hold
VDDIO/2
0V
Figure 5. Serializer Setup and Hold Times
VDD
VDDIO
PDB
1/2 VDDIO
PCLK
tPLD
DOUT
(Diff.)
Driver On
Driver OFF, VOD = 0V
Figure 6. Serializer Lock Time
tDJIT
tDJIT
VOD (+)
DOUT
(Diff.)
EYE OPENING
0V
VOD (-)
tBIT (1 UI)
Figure 7. Serializer CML Output Jitter
SDA
tf
tHD;STA
tLOW
tr
tf
tr
tBUF
tSP
SCL
tSU;STA
tHD;STA
tHIGH
tHD;DAT
START
tSU;STO
tSU;DAT
STOP
REPEATED
START
START
Figure 8. Serial Control Bus Timing Diagram
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6.9 Switching Characteristics
over operating free-air temperature range (unless otherwise noted)
PARAMETER
tLHT
CML Output Low-to-High
Transition Time
tHLT
CML Output High-to-Low
Transition Time
tDIS
Data Input Setup to PCLK
tDIH
Data Input Hold from PCLK
tPLD
Serializer PLL Lock Time
tSD
Delay — Latency
tTJIT
Output Total Jitter,
Bit Error Rate ≥10-10
Figure 7 (2) (3) (4)
(1)
(2)
(3)
(4)
12
TEST CONDITIONS
See Figure 4
See Figure 5
Figure 6
(1)
RL = 100Ω
f = 85MHz, LFMODE = L
RL = 100Ω
f = 5MHz, LFMODE = H
MIN
DOUT+,
DOUTR[7:0],
G[7:0],
B[7:0],
HS, VS,
DE,
PCLK,
I2S_CLK,
I2S_WC,
I2S_DA,
I2S_DB
TYP
MAX
UNIT
80
130
ps
80
130
ps
2.0
ns
2.0
ns
f = 5 – 85
MHz
131*T
ns
f = 5 – 85
MHz
145*T
ns
DOUT+,
DOUT-
0.25
0.30
UI
0.25
0.30
UI
tPLD is the time required by the device to obtain lock when exiting power-down state with an active PCLK.
Specification is ensured by characterization and is not tested in production.
Specification is ensured by design and is not tested in production.
UI – Unit Interval is equivalent to one serialized data bit width (1UI = 1 / 35*PCLK). The UI scales with PCLK frequency.
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CML Serializer Data Throughput
(200 mV/DIV)
6.10 Typical Charateristics
78 MHz TX
Pixel Clock
Input
(2 V/DIV)
78 MHz RX
Pixel Clock
Output
(2 V/DIV)
Time (1.25 ns/DIV)
Time (10 ns/DIV)
Note: On the rising edge of each clock period, the CML driver
outputs a low Stop bit, high Start bit, and 33 DC-scrambled data
bits.
Figure 9. Serializer CML Driver Output
with 78 MHZ TX Pixel Clock
Figure 10. Comparison of Deserializer LVCMOS RX PCLK
Output Locked to a 78 MHz TX PCLK
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7 Detailed Description
7.1 Overview
The DS90UH925Q-Q1 serializer transmits a 35-bit symbol over a single serial FPD-Link III pair operating up to
2.975 Gbps line rate. The serial stream contains an embedded clock, video control signals and DC-balanced
video data and audio data which enhance signal quality to support AC coupling. The DS90UH925Q-Q1 serializes
video and audio data then applies encryption through a High-Bandwidth Digital Content Protection (HDCP)
Cipher and transmits out through the FPD-Link III interface. Audio encryption is supported. The serializer also
includes the HDCP cipher. On board non-volatile memory stores the HDCP keys. All key exchange is conducted
over the FPD-Link III bidirectional control interface. The serializer is intended for use with the DS90UH926Q-Q1
deserializer, but is also backward compatible with DS90UR906Q or DS90UR908Q FPD-Link II deserializer.
7.2 Functional Block Diagram
REGULATOR
PDB
MODE_SEL
INTB
Parallel to Serial
HDCP Cipher
3
DC Balance Encoder
I2S_CLK
I2S_WC
I2S_DA
CMF
24
Input latch
RGB [7:0]
HS
VS
DE
PCLK
DOUT +
D
DOUT -
PLL
Timing
and
Control
SDA
SCL
IDx
7.3 Feature Description
7.3.1 High Speed Forward Channel Data Transfer
The High Speed Forward Channel (HS_FC) is composed of 35 bits of data containing RGB data, sync signals,
HDCP, I2C, and I2S audio transmitted from Serializer to Deserializer. Figure 11 illustrates the serial stream per
PCLK cycle. This data payload is optimized for signal transmission over an AC coupled link. Data is randomized,
balanced and scrambled.
C1
C0
Figure 11. FPD-Link III Serial Stream
The device supports clocks in the range of 5 MHz to 85 MHz. The application payload rate is 2.975 Gbps
maximum (175 Mbps minimum) with the actual line rate of 2.975 Gbps maximum and 525 Mbps Minimum.
14
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Feature Description (continued)
7.3.2 Low Speed Back Channel Data Transfer
The Low-Speed Backward Channel (LS_BC) of the DS90UH925Q-Q1 provides bidirectional communication
between the display and host processor. The information is carried back from the Deserializer to the Serializer
per serial symbol. The back channel control data is transferred over the single serial link along with the highspeed forward data, DC balance coding and embedded clock information. This architecture provides a backward
path across the serial link together with a high speed forward channel. The back channel contains the I2C,
HDCP, CRC and 4 bits of standard GPIO information with 10 Mbps line rate.
7.3.3 Backward Compatible Mode
The DS90UH925Q-Q1 is also backward compatible to DS90UR906Q and DS90UR908Q FPD Link II
deserializers at 5-65 MHz of PCLK. It transmits 28-bits of data over a single serial FPD-Link II pair operating at
the line rate of 140 Mbps to 1.82 Gbps. The backward configuration mode can be set via MODE_SEL pin
(Table 4) or the configuration register (Table 6). Note: frequency range = 15 - 65MHz when LFMODE = 0 and
frequency range = 5 - <15MHz when LFMODE = 1.
7.3.4 Common Mode Filter Pin (CMF)
The serializer provides access to the center tap of the internal termination. A capacitor must be placed on this pin
for additional common-mode filtering of the differential pair. This can be useful in high noise environments for
additional noise rejection capability. A 0.1 μF capacitor must be connected to this pin to Ground.
7.3.5 Video Control Signal Filter
When operating the devices in Normal Mode, the Video Control Signals (DE, HS, VS) have the following
restrictions:
• Normal Mode with Control Signal Filter Enabled: DE and HS — Only 2 transitions per 130 clock cycles are
transmitted, the transition pulse must be 3 PCLK or longer.
• Normal Mode with Control Signal Filter Disabled: DE and HS — Only 2 transitions per 130 clock cycles are
transmitted, no restriction on minimum transition pulse.
• VS — Only 1 transition per 130 clock cycles are transmitted, minimum pulse width is 130 clock cycles.
Video Control Signals are defined as low frequency signals with limited transitions. Glitches of a control signal
can cause a visual display error. This feature allows for the chipset to validate and filter out any high frequency
noise on the control signals. See Figure 12.
PCLK
IN
HS/VS/DE
IN
Latency
PCLK
OUT
HS/VS/DE
OUT
Pulses 1 or 2
PCLKs wide
Filetered OUT
Figure 12. Video Control Signal Filter Waveform
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Feature Description (continued)
7.3.6 Power Down (PDB)
The Serializer has a PDB input pin to ENABLE or POWER DOWN the device. This pin can be controlled by the
host or through the VDDIO, where VDDIO = 3.0V to 3.6V or VDD33. To save power disable the link when the display
is not needed (PDB = LOW). When the pin is driven by the host, make sure to release it after VDD33 and VDDIO
have reached final levels; no external components are required. In the case of driven by the VDDIO = 3.0V to 3.6V
or VDD33 directly, a 10 kohm resistor to the VDDIO = 3.0V to 3.6V or VDD33 , and a >10uF capacitor to the ground
are required see Figure 23.
7.3.7 Remote Auto Power Down Mode
The Serializer features a remote auto power down mode. During the power down mode of the pairing
deserializer, the Serializer enters the remote auto power down mode. In this mode, the power dissipation of the
Serializer is reduced significantly. When the Deserializer is powered up, the Serializer enters the normal power
on mode automatically. This feature is enabled through the register bit 0x01[7] Table 6.
7.3.8 LVCMOS VDDIO Option
1.8V or 3.3V Inputs and Outputs are powered from a separate VDDIO supply to offer compatibility with external
system interface signals. Note: When configuring theVDDIO power supplies, all the single-ended data and control
input pins for device need to scale together with the same operating VDDIO levels.
7.3.9 Input PCLK Loss Detect
The serializer can be programmed to enter a low power SLEEP state when the input clock (PCLK) is lost. A
clock loss condition is detected when PCLK drops below approximately 1MHz. When a PCLK is detected again,
the serializer will then lock to the incoming PCLK. Note – when PCLK is lost, the Serial Control Bus Registers
values are still RETAINED.
7.3.10 Serial Link Fault Detect
The serial link fault detection is able to detect any of following seven (7) conditions
1. cable open
2. “+” to “-“ short
3. “+” short to GND
4. “-“ short to GND
5. “+” short to battery
6. “-“ short to battery
7. Cable is linked correctly
If any one of the fault conditions occurs, The Link Detect Status is 0 (cable is not detected) on bit 0 of address
0x0C Table 6.
7.3.11 Pixel Clock Edge Select (RFB)
The RFB control register bit selects which edge of the Pixel Clock is used. For the serializer, this pin determines
the edge that the data is latched on. If RFB is HIGH (‘1’), data is latched on the Rising edge of the PCLK. If RFB
is LOW (‘0’), data is latched on the Falling edge of the PCLK.
7.3.12 Low Frequency Optimization (LFMODE)
The LFMODE is set via register (0x04[1:0]) or MODE_SEL Pin 24 (Table 4). It controls the operating frequency
of the serializer. If LFMODE is Low (default), the PCLK frequency is between 15 MHz and 85 MHz. If LFMODE is
High, the PCLK frequency is between 5 MHz and <15 MHz. Please note when the device LFMODE is changed,
a PDB reset is required.
16
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Feature Description (continued)
7.3.13 Interrupt Pin — Functional Description and Usage (INTB)
1. On DS90UH925Q-Q1, set register 0xC6[5] = 1 and 0xC6[0] = 1
2. DS90UH926Q-Q1 deserializer INTB_IN (pin 16) is set LOW by some downstream device.
3. DS90UH925Q-Q1 serializer pulls INTB (pin 31) LOW. The signal is active low, so a LOW indicates an
interrupt condition.
4. External controller detects INTB = LOW; to determine interrupt source, read HDCP_ISR register .
5. A read to HDCP_ISR will clear the interrupt at the DS90UH925Q-Q1, releasing INTB.
6. The external controller typically must then access the remote device to determine downstream interrupt
source and clear the interrupt driving INTB_IN. This would be when the downstream device releases the
INTB_IN (pin 16) on the DS90UH926Q-Q1. The system is now ready to return to step (1) at next falling edge
of INTB_IN.
7.3.14 EMI Reduction Features
7.3.14.1 Input SSC Tolerance (SSCT)
The DS90UH925Q-Q1 serializer is capable of tracking a triangular input spread spectrum clocking (SSC) profile
up to +/-2.5% amplitude deviations (center spread), up to 35 kHz modulation at 5–85 MHz, from a host source.
7.3.14.2 GPIO[3:0] and GPO_REG[8:4]
In 18-bit RGB operation mode, the optional R[1:0] and G[1:0] of the DS90UH925Q-Q1 can be used as the
general purpose IOs GPIO[3:0] in either forward channel (Inputs) or back channel (Outputs) application.
7.3.14.2.1 GPIO[3:0] Enable Sequence
See Table 1 for the GPIO enable sequencing.
Step 1: Enable the 18-bit mode either through the configuration register bit Table 6 on DS90UH925Q-Q1 only.
DS90UH926Q-Q1 is automatically configured as in the 18-bit mode.
Step 2: To enable GPIO3 forward channel, write 0x03 to address 0x0F on DS90UH925Q-Q1, then write 0x05 to
address 0x1F on DS90UH926Q-Q1.
Table 1. GPIO Enable Sequencing Table
#
DESCRIPTION
DEVICE
FORWARD
CHANNEL
BACK
CHANNEL
1
Enable 18-bit
mode
DS90UH925Q-Q1
0x12 = 0x04
0x12 = 0x04
DS90UH926Q-Q1
Auto Load from DS90UH925Q-Q1
Auto Load from DS90UH925Q-Q1
2
GPIO3
DS90UH925Q-Q1
0x0F = 0x03
0x0F = 0x05
3
GPIO2
4
GPIO1
5
GPIO0
DS90UH926Q-Q1
0x1F = 0x05
0x1F = 0x03
DS90UH925Q-Q1
0x0E = 0x30
0x0E = 0x50
DS90UH926Q-Q1
0x1E = 0x50
0x1E = 0x30
DS90UH925Q-Q1
0x0E = 0x03
0x0E = 0x05
DS90UH926Q-Q1
0x1E = 0x05
0x1E = 0x03
DS90UH925Q-Q1
0x0D = 0x93
0x0D = 0x95
DS90UH926Q-Q1
0x1D = 0x95
0x1D = 0x93
7.3.14.2.2 GPO_REG[8:4] Enable Sequence
GPO_REG[8:4] are the outputs only pins. They must be programmed through the local register bits. See Table 2
for the GPO_REG enable sequencing.
Step 1: Enable the 18-bit mode either through the configuration register bit Table 6 on DS90UH925Q-Q1 only.
DS90UH926Q-Q1 is automatically configured as in the 18-bit mode.
Step 2: To enable GPO_REG8 outputs an “1”, write 0x90 to address 0x11 on DS90UH925Q-Q1.
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Table 2. GPO_REG Enable Sequencing Table
#
DESCRIPTION
DEVICE
LOCAL
ACCESS
1
Enable 18-bit mode
DS90UH925Q-Q1
0x12 = 0x04
2
GPO_REG8
DS90UH925Q-Q1
0x11 = 0x90
“1”
0x11 = 0x10
“0”
0x11 = 0x09
“1”
0x11 = 0x01
“0”
0x10 = 0x90
“1”
0x10 = 0x10
“0”
0x10 = 0x09
“1”
0x10 = 0x01
“0”
0x0F = 0x90
“1”
0x0F = 0x10
“0”
3
GPO_REG7
DS90UH925Q-Q1
4
GPO_REG6
DS90UH925Q-Q1
5
6
GPO_REG5
GPO_REG4
DS90UH925Q-Q1
DS90UH925Q-Q1
LOCAL
OUTPUT
7.3.14.3 I2S Transmitting
In normal 24-bit RGB operation mode, the DS90UH925Q-Q1 supports 3 bits of I2S. They are I2S_CLK, I2S_WC
and I2S_DA. The optionally encrypted and packetized audio information can be transmitted during the video
blanking (data island transport) or during active video (forward channel frame transport). Note: The bit rates of
any I2S bits must maintain one fourth of the PCLK rate. The audio encryption capability is supported per HDCP
v1.3.
7.3.14.3.1 Secondary I2S Channel
In I2S Channel B operation mode, the secondary I2S data (I2S_DB) can be used as the additional I2S audio in
addition to the 3–bit of I2S. The I2S_DB input must be synchronized to I2S_CLK and aligned with I2S_DA and
I2S_WC at the input to the serializer. This operation mode is enabled through either the MODE_SEL pin
(Table 4) or through the register bit 0x12[0] (Table 6). Table 3 below covers the range of I2S sample rates.
Table 3. Audio Interface Frequencies
18
SAMPLE RATE (kHz)
I2S DATA WORD SIZE (bits)
I2S CLK (MHz)
32
16
1.024
44.1
16
1.411
48
16
1.536
96
16
3.072
192
16
6.144
32
24
1.536
44.1
24
2.117
48
24
2.304
96
24
4.608
192
24
9.216
32
32
2.048
44.1
32
2.822
48
32
3.072
96
32
6.144
192
32
12.288
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7.3.14.4 HDCP
The Cipher function is implemented in the serializer per HDCP v1.3 specification. The DS90UH925Q-Q1
provides HDCP encryption of audiovisual content when connected to an HDCP capable FPD-Link III deserializer
such as the DS90UH926Q-Q1. HDCP authentication and shared key generation is performed using the HDCP
Control Channel which is embedded in the forward and backward channels of the serial link. An on-chip NonVolatile Memory (NVM) is used to store the HDCP keys. The confidential HDCP keys are loaded by TI during the
manufacturing process and are not accessible external to the device.
The DS90UH925Q-Q1 uses the Cipher engine to encrypt the data as per HDCP v1.3. The encrypted data is
transmitted through the FPD-Link III interface.
7.3.14.5 Built In Self Test (BIST)
An optional At-Speed Built In Self Test (BIST) feature supports the testing of the high speed serial link and the
low- speed back channel. This is useful in the prototype stage, equipment production, in-system test and also for
system diagnostics. Note: BIST not available in backwards compatible mode.
7.3.14.5.1 BIST Configuration and Status
The BIST mode is enabled at the deseralizer by the Pin select (Pin 44 BISTEN and Pin 16 BISTC) or
configuration register (Table 6) through the deserializer. When LFMODE = 0, the pin based configuration defaults
to external PCLK or 33 MHz internal Oscillator clock (OSC) frequency. In the absence of PCLK, the user can
select the desired OSC frequency (default 33 MHz or 25MHz) through the register bit. When LFMODE = 1, the
pin based configuration defaults to external PCLK or 12.5MHz MHz internal Oscillator clock (OSC) frequency.
When BISTEN of the deserializer is high, the BIST mode enable information is sent to the serializer through the
Back Channel. The serializer outputs a test pattern and drives the link at speed. The deserializer detects the test
pattern and monitors it for errors. The PASS output pin toggles to flag any payloads that are received with 1 to
35 bit errors.
The BIST status is monitored real time on PASS pin. The result of the test is held on the PASS output until reset
(new BIST test or Power Down). A high on PASS indicates NO ERRORS were detected. A Low on PASS
indicates one or more errors were detected. The duration of the test is controlled by the pulse width applied to
the deserializer BISTEN pin. This BIST feature also contains a Link Error Count and a Lock Status. If the
connection of the serial link is broken, then the link error count is shown in the register. When the PLL of the
deserializer is locked or unlocked, the lock status can be read in the register. See Table 6.
7.3.14.5.1.1 Sample BIST Sequence
See Figure 13 for the BIST mode flow diagram.
Step 1: For the DS90UH925Q-Q1 and DS90UH926Q-Q1 FPD-Link III chipset, BIST Mode is enabled via the
BISTEN pin of DS90UH926Q-Q1 FPD-Link III deserializer. The desired clock source is selected through BISTC
pin.
Step 2: The DS90UH925Q-Q1 serializer is woken up through the back channel if it is not already on. The all
zero pattern on the data pins is sent through the FPD-Link III to the deserializer. Once the serializer and the
deserializer are in BIST mode and the deserializer acquires Lock, the PASS pin of the deserializer goes high and
BIST starts checking the data stream. If an error in the payload (1 to 35) is detected, the PASS pin will switch low
for one half of the clock period. During the BIST test, the PASS output can be monitored and counted to
determine the payload error rate.
Step 3: To Stop the BIST mode, the deserializer BISTEN pin is set Low. The deserializer stops checking the
data. The final test result is held on the PASS pin. If the test ran error free, the PASS output will be High. If there
was one or more errors detected, the PASS output will be Low. The PASS output state is held until a new BIST
is run, the device is RESET, or Powered Down. The BIST duration is user controlled by the duration of the
BISTEN signal.
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Step 4: The Link returns to normal operation after the deserializer BISTEN pin is low. Figure 14 shows the
waveform diagram of a typical BIST test for two cases. Case 1 is error free, and Case 2 shows one with multiple
errors. In most cases it is difficult to generate errors due to the robustness of the link (differential data
transmission etc.), thus they may be introduced by greatly extending the cable length, faulting the interconnect,
reducing signal condition enhancements (Rx Equalization).
Normal
Step 1: DES in BIST
BIST
Wait
Step 2: Wait, SER in BIST
BIST
start
Step 3: DES in Normal
Mode - check PASS
BIST
stop
Step 4: DES/SER in Normal
Figure 13. BIST Mode Flow Diagram
7.3.14.5.2 Forward Channel and Back Channel Error Checking
While in BIST mode, the serializer stops sampling RGB input pins and switches over to an internal all-zero
pattern. The internal all-zeroes pattern goes through scrambler, dc-balancing etc. and goes over the serial link to
the deserializer. The deserializer on locking to the serial stream compares the recovered serial stream with allzeroes and records any errors in status registers and dynamically indicates the status on PASS pin. The
deserializer then outputs a SSO pattern on the RGB output pins.
The back-channel data is checked for CRC errors once the serializer locks onto back-channel serial stream as
indicated by link detect status (register bit 0x0C[0]). The CRC errors are recorded in an 8-bit register. The
register is cleared when the serializer enters the BIST mode. As soon as the serializer exits BIST mode, the
functional mode CRC register starts recording the CRC errors. The BIST mode CRC error register is active in
BIST mode only and keeps the record of last BIST run until cleared or enters BIST mode again.
DES Outputs
BISTEN
(DES)
Case 1 - Pass
PCLK
(RFB = L)
RGB[7:0]
HS, VS, DE
DATA
(internal)
PASS
Prior Result
PASS
PASS
X
X
X
FAIL
Prior Result
Normal
SSO
Case 2 - Fail
X = bit error(s)
DATA
(internal)
BIST Test
BIST Duration
BIST
Result
Held
Normal
Figure 14. BIST Waveforms
20
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7.3.14.6 Internal Pattern Generation
The DS90UH925Q-Q1 serializer supports the internal pattern generation feature. It allows basic testing and
debugging of an integrated panel through the FPD-Link III output stream. The test patterns are simple and
repetitive and allow for a quick visual verification of panel operation. As long as the device is not in power down
mode, the test pattern will be displayed even if no parallel input is applied. If no PCLK is received, the test
pattern can be configured to use a programmed oscillator frequency. For detailed information, refer to SNLA132.
7.4 Device Functional Modes
7.4.1 Configuration Select (MODE_SEL)
Configuration of the device may be done via the MODE_SEL input pin, or via the configuration register bit. A pullup resistor and a pull-down resistor of suggested values may be used to set the voltage ratio of the MODE_SEL
input (VR4) and VDD33 to select one of the other 10 possible selected modes. See Figure 15 and Table 4.
VDD33
R3
MODE_SEL
VR4
R4
SER
Figure 15. MODE_SEL Connection Diagram
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Device Functional Modes (continued)
Table 4. Configuration Select (MODE_SEL)
#
IDEAL
RATIO
VR4/VDD33
IDEAL VR4
(V)
SUGGESTED
RESISTOR
R3 kΩ (1% tol)
SUGGESTED
RESISTOR
R4 kΩ (1% tol)
LFMODE
REPEATER
BACKWARD
I2S
COMPACHANNEL B
TIBLE
(18–bit
MODE)
1
0
0
Open
40.2 or Any
L
L
L
2
0.164
0.541
255
49.9
L
H
L
L
L
3
0.221
0.729
243
69.8
L
H
L
H
4
0.285
0.941
237
95.3
H
L
L
L
5
0.359
1.185
196
110
H
L
L
H
6
0.453
1.495
169
140
H
H
L
L
7
0.539
1.779
137
158
H
H
L
H
8
0.728
2.402
90.9
243
H
L
H*
L
LFMODE:
L = frequency range is 15 – 85 MHz (Default)
H = frequency range is 5 – <15 MHz
Repeater:
L = Repeater OFF (Default)
H = Repeater ON
Backward Compatible:
L = Backward Compatible is OFF (Default)
H = Backward Compatible is ON; DES = DS90UR906Q or DS90UR916Q or DS90UR908Q
– frequency range = 15 - 65 MHz when LFMODE = 0
– frequency range = 5 - <15 MHz when LFMODE = 1
I2S Channel B:
L = I2S Channel B is OFF, Normal 24-bit RGB Mode (Default)
H = I2S Channel B is ON, 18-bit RGB Mode with I2S_DB Enabled. Note: use of GPIO(s) on unused inputs must be enabled by register.
7.4.2 HDCP Repeater
When DS90UH925Q-Q1 and DS90UH926Q-Q1 are configured as the HDCP Repeater application, it provides a
mechanism to extend HDCP transmission over multiple links to multiple display devices. This repeater
application provides a mechanism to authenticate all HDCP Receivers in the system and distribute protected
content to the HDCP Receivers using the encryption mechanisms provided in the HDCP specification.
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7.4.3 Repeater Configuration
In HDCP repeater application, In this document, the DS90UH925Q-Q1 is referred to as the HDCP Transmitter or
transmit port (TX), and the DS90UH926Q-Q1 is referred to as the HDCP Receiver (RX). Figure 16 shows the
maximum configuration supported for HDCP Repeater implementations using the DS90UH925Q-Q1 (TX) and
DS90UH926Q-Q1 (RX). Two levels of HDCP Repeaters are supported with a maximum of three HDCP
Transmitters per HDCP Receiver.
1:3 Repeater
1:3 Repeater
TX
Source
TX
TX
RX
Display
TX
RX
Display
TX
RX
Display
TX
RX
Display
TX
RX
Display
TX
RX
Display
TX
RX
Display
TX
RX
Display
TX
RX
Display
RX
RX
TX
TX
1:3 Repeater
RX
1:3 Repeater
RX
Figure 16. HDCP Maximum Repeater Application
To support HDCP Repeater operation, the DS90UH926Q-Q1 Deserializer includes the ability to control the
downstream authentication process, assemble the KSV list for downstream HDCP Receivers, and pass the KSV
list to the upstream HDCP Transmitter. An I2C master within the DS90UH926Q-Q1 communicates with the I2C
slave within the DS90UH925Q-Q1 Serializer. The DS90UH925Q-Q1 Serializer handles authenticating with a
downstream HDCP Receiver and makes status available through the I2C interface. The DS90UH926Q-Q1
monitors the transmit port status for each DS90UH925Q-Q1 and reads downstream KSV and KSV list values
from the DS90UH925Q-Q1.
In addition to the I2C interface used to control the authentication process, the HDCP Repeater implementation
includes two other interfaces. A parallel LVCMOS interface provides the unencrypted video data in 24-bit RGB
format and includes the DE/VS/HS control signals. In addition to providing the RGB video data, the parallel
LVCMOS interface communicates control information and packetized audio data during video blanking intervals.
A separate I2S audio interface may optionally be used to send I2S audio data between the HDCP Receiver and
HDCP Transmitter in place of using the packetized audio over the parallel LVCMOS interface. All audio and
video data is decrypted at the output of the HDCP Receiver and is re-encrypted by the HDCP Transmitter.
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Figure 17 provides more detailed block diagram of a 1:2 HDCP repeater configuration.
HDCP Transmitter
DS90UH925Q-Q1
I2C
Master
upstream
Transmitter
downstream
Receiver
or
Repeater
I2C
Slave
I2C
Parallel
LVCMOS
HDCP Receiver
DS90UH926Q-Q1
HDCP Transmitter
DS90UH925Q-Q1
I2S Audio
downstream
Receiver
or
Repeater
I2C
Slave
FPD-Link III interfaces
Figure 17. HDCP 1:2 Repeater Configuration
7.4.4 Repeater Connections
The HDCP Repeater requires the following connections between the HDCP Receiver and each HDCP
Transmitter Figure 18.
1. Video Data – Connect PCLK, RGB and control signals (DE, VS, HS).
2. I2C – Connect SCL and SDA signals. Both signals should be pulled up to VDD33 with 4.7 kΩ resistors.
3. Audio – Connect I2S_CLK, I2S_WC, and I2S_DA signals.
4. IDx pin – Each HDCP Transmitter and Receiver must have an unique I2C address.
5. MODE_SEL pin – All HDCP Transmitter and Receiver must be set into the Repeater Mode.
6. Interrupt pin – Connect DS90UH926Q-Q1 INTB_IN pin to DS90UH925Q-Q1 INTB pin. The signal must be
pulled up to VDDIO.
DS90UH926Q-Q1
VDD33
DS90UH925Q-Q1
R[7:0]
R[7:0]
G[7:0]
G[7:0]
B[7:0]
B[7:0]
DE
DE
VS
VS
HS
HS
I2S_CLK
I2S_CLK
I2S_WC
I2S_WC
I2S_DA
I2S_DA
Optional
MODE_SEL
VDD33
MODE_SEL
VDDIO
INTB
INTB_IN
VDD33
VDD33
ID[x]
VDD33
SDA
SDA
SCL
SCL
ID[x]
Figure 18. HDCP Repeater Connection Diagram
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7.5 Programming
7.5.1 Serial Control Bus
The DS90UH925Q-Q1 is configured by the use of a serial control bus that is I2C protocol compatible. This bus is
also used by the Host source to control and monitor status of the HDCP function. Multiple serializer devices may
share the serial control bus since 16 device addresses are supported. Device address is set via R1 and R2
values on IDx pin. See Figure 19 below.
The serial control bus consists of two signals and a configuration pin. The SCL is a Serial Bus Clock Input /
Output. The SDA is the Serial Bus Data Input / Output signal. Both SCL and SDA signals require an external
pull-up resistor to VDD33. For most applications a 4.7 k pull-up resistor to VDD33 may be used. The resistor value
may be adjusted for capacitive loading and data rate requirements. The signals are either pulled High, or driven
Low.
VDD33
R1
VDD33
IDx
VR2
HOST
or
Salve
4.7k
4.7k
R2
SCL
SCL
SDA
SDA
SER
or
DES
To other
Devices
Figure 19. Serial Control Bus Connection
The configuration pin is the IDx pin. This pin sets one of 9 possible device addresses. A pull-up resistor and a
pull-down resistor of suggested values may be used to set the voltage ratio of the IDx input (VR2) and VDD33 to
select one of the other 9 possible addresses. Table 5 defines the required VR2 and VR2/VDD33 ratios, and
suggests standard resistor values to achieve these ratios. In systems where excessive noise may be present, we
recommend reducing the resistor values (by a factor of 10x or 100x) while maintaining the required ratio. This
provides tighter coupling to supply rails, and more stability of VR2 in the presence of coupled noise. Note that
reducing the resistor values will increase the current consumed by the resistor divider. See Table 5.
Table 5. Serial Control Bus Addresses for IDx
#
IDEAL
RATIO
VR2 / VDD33
IDEAL VR2
(V)
SUGGESTED
RESISTOR
R1 kΩ (1% tol)
SUGGESTED
RESISTOR
R2 kΩ (1% tol)
ADDRESS 7'b
ADDRESS 8'b
APPENDED
1
0
0
Open
40.2 or Any
0x0C
0x18
2
0.121
0.399
294
40.2
0x0D
0x1A
3
0.152
0.502
280
49.9
0x0E
0x1C
4
0.180
0.594
137
30.1
0x0F
0x1E
5
0.208
0.685
118
30.9
0x10
0x20
6
0.303
0.999
115
49.9
0x13
0x26
7
0.345
1.137
102
53.6
0x14
0x28
8
0.389
1.284
115
73.2
0x15
0x2A
9
0.727
2.399
90.9
243
0x1B
0x36
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The Serial Bus protocol is controlled by START, START-Repeated, and STOP phases. A START occurs when
SCL transitions Low while SDA is High. A STOP occurs when SDA transition High while SCL is also HIGH. See
Figure 20.
SDA
SCL
S
P
START condition, or
START repeat condition
STOP condition
Figure 20. START and STOP Conditions
To communicate with a remote device, the host controller (master) sends the slave address and listens for a
response from the slave. This response is referred to as an acknowledge bit (ACK). If a slave on the bus is
addressed correctly, it Acknowledges (ACKs) the master by driving the SDA bus low. If the address doesn't
match a device's slave address, it Not-acknowledges (NACKs) the master by letting SDA be pulled High. ACKs
also occur on the bus when data is being transmitted. When the master is writing data, the slave ACKs after
every data byte is successfully received. When the master is reading data, the master ACKs after every data
byte is received to let the slave know it wants to receive another data byte. When the master wants to stop
reading, it NACKs after the last data byte and creates a stop condition on the bus. All communication on the bus
begins with either a Start condition or a Repeated Start condition. All communication on the bus ends with a Stop
condition. A READ is shown in Figure 21 and a WRITE is shown in Figure 22.
If the Serial Bus is not required, the three pins may be left open (NC).
Register Address
Slave Address
S
A
2
A
1
A
0
0
Slave Address
a
c
k
a
c
k
A
2
S
A
1
A
0
Data
1
a
c
k
a
c
k
P
Figure 21. Serial Control Bus — READ
Register Address
Slave Address
S
A
2
A
1
A
0
0
a
c
k
Data
a
c
k
a
c
k
P
Figure 22. Serial Control Bus — WRITE
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7.6 Register Maps
Table 6. Serial Control Bus Registers
ADD
(dec)
ADD
(hex)
REGISTER
NAME
0
0x00
I2C Device ID
1
0x01
Reset
Bit(s)
REGISTER
TYPE
7:1
RW
Device ID
7–bit address of Serializer
0
RW
ID Setting
I2C ID Setting
1: Register I2C Device ID (Overrides IDx pin)
0: Device ID is from IDx pin
7
RW
DEFAULT
FUNCTION
(hex)
0x00
Remote
Remote Auto Power Down
Auto Power 1: Power down when no Bidirectional Control
Down
Channel link is detected
0: Do not power down when no Bidirectional Control
Channel link is detected
6:2
3
0x03
Configuration
[0]
DESCRIPTION
Reserved.
1
RW
Digital
RESET1
Reset the entire digital block including registers
This bit is self-clearing.
1: Reset
0: Normal operation
0
RW
Digital
RESET0
Reset the entire digital block except registers
This bit is self-clearing
1: Reset
0: Normal operation
7
RW
Back
channel
CRC
Checker
Enable
Back Channel Check Enable
1: Enable
0: Disable
0xD2
6
Reserved.
5
RW
I2C Remote
Write Auto
Acknowledg
e
Automatically Acknowledge I2C Remote Write
When enabled, I2C writes to the Deserializer (or
any remote I2C Slave, if I2C PASS ALL is enabled)
are immediately acknowledged without waiting for
the Deserializer to acknowledge the write. This
allows higher throughput on the I2C bus
1: Enable
0: Disable
4
RW
Filter
Enable
HS, VS, DE two clock filter When enabled, pulses
less than two full PCLK cycles on the DE, HS, and
VS inputs will be rejected
1: Filtering enable
0: Filtering disable
3
RW
I2C Passthrough
I2C Pass-Through Mode
1: Pass-Through Enabled
0: Pass-Through Disabled
1
RW
PCLK Auto
Switch over to internal OSC in the absence of PCLK
1: Enable auto-switch
0: Disable auto-switch
0
RW
TRFB
Pixel Clock Edge Select
1: Parallel Interface Data is strobed on the Rising
Clock Edge.
0: Parallel Interface Data is strobed on the Falling
Clock Edge.
2
Reserved
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Register Maps (continued)
Table 6. Serial Control Bus Registers (continued)
ADD
(dec)
ADD
(hex)
REGISTER
NAME
4
0x04
Configuration
[1]
Bit(s)
REGISTER
TYPE
7
RW
DEFAULT
FUNCTION
(hex)
0x80
Failsafe
State
6
5
28
0x05
I2C Control
Input Failsafe State
1: Failsafe to Low
0: Failsafe to High
Reserved
RW
CRC Error
Reset
3
RW
Backward
Compatible
select by
pin or
register
control
Backward Compatible (BC) mode set by
MODE_SEL pin or register
1: BC is set by register bit. Use register bit
reg_0x04[2] to set BC Mode
0: BC is set by MODE_SEL pin.
2
RW
Backward
Compatible
Mode
Select
Backward compatible (BC) mode to DS90UR906Q
or DS90UR908Q, if reg_0x04[3] = 1
1: Backward compatible with DS90UR906Q or
DS90UR908Q
0: Backward Compatible is OFF (default)
1
RW
LFMODE
select by
pin or
register
control
Frequency range is set by MODE_SEL pin or
register
1: Frequency range is set by register. Use register
bit reg_0x04[0] to set LFMODE
0: Frequency range is set by MODE_SEL pin.
0
RW
LFMODE
Frequency range select
1: PCLK range = 5MHz - <15 MHz), if reg_0x04[1] =
1
0: PCLK range = 15MHz - 85MHz (default)
4
5
DESCRIPTION
Clear back channel CRC Error Counters
This bit is NOT self-clearing
1: Clear Counters
0: Normal Operation
Reserved
7:5
0x00
Reserved
4:3
RW
SDA Output SDA output delay
Delay
Configures output delay on the SDA output. Setting
this value will increase output delay in units of 40ns.
Nominal output delay values for SCL to SDA are
00: 240ns
01: 280ns
10: 320ns
11: 360ns
2
RW
Local Write
Disable
Disable remote writes to local registers
Setting the bit to a 1 prevents remote writes to local
device registers from across the control channel. It
prevents writes to the Serializer registers from an
I2C master attached to the Deserializer.
Setting this bit does not affect remote access to I2C
slaves at the Serializer
1
RW
I2C Bus
Timer
Speedup
Speed up I2C bus watchdog timer
1: Watchdog timer expires after ~50 ms.
0: Watchdog Timer expires after ~1 s
0
RW
I2C Bus
timer
Disable
Disable I2C bus watchdog timer
When the I2C watchdog timer may be used to
detect when the I2C bus is free or hung up following
an invalid termination of a transaction.
If SDA is high and no signalling occurs for ~1 s, the
I2C bus assumes to be free. If SDA is low and no
signaling occurs, the device attempts to clear the
bus by driving 9 clocks on SCL
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Register Maps (continued)
Table 6. Serial Control Bus Registers (continued)
ADD
(dec)
ADD
(hex)
6
0x06
REGISTER
NAME
DES ID
Bit(s)
REGISTER
TYPE
7:1
RW
0
RW
RW
DEFAULT
FUNCTION
(hex)
0x00
DESCRIPTION
DES Device 7-bit Deserializer Device ID
ID
Configures the I2C Slave ID of the remote
Deserializer. A value of 0 in this field disables I2C
access to the remote Deserializer. This field is
automatically configured by the Bidirectional Control
Channel once RX Lock has been detected.
Software may overwrite this value, but should also
assert the FREEZE DEVICE ID bit to prevent
overwriting by the Bidirectional Control Channel.
Device ID
Frozen
Freeze Deserializer Device ID
Prevents autoloading of the Deserializer Device ID
by the Bidirectional Control Channel. The ID will be
frozen at the value written.
0X00
Slave
Device ID
7-bit Remote Slave Device ID
Configures the physical I2C address of the remote
I2C Slave device attached to the remote
Deserializer. If an I2C transaction is addressed to
the Slave Device Alias ID, the transaction will be
remapped to this address before passing the
transaction across the Bidirectional Control Channel
to the Deserializer
RW
0x00
Slave
Device
Alias ID
7
0x07
Slave ID
7:1
8
0x08
Slave Alias
7:1
10
0x0A
CRC Errors
7:0
R
0x00
CRC Error
LSB
Number of back channel CRC errors – 8 least
significant bits
11
0x0B
7:0
R
0x00
CRC Error
MSB
Number of back channel CRC errors – 8 most
significant bits
12
0x0C
0
Reserved
0
General Status
7-bit Remote Slave Device Alias ID
Assigns an Alias ID to an I2C Slave device attached
to the remote Deserializer. The transaction will be
remapped to the address specified in the Slave ID
register. A value of 0 in this field disables access to
the remote I2C Slave.
Reserved
7:4
0x00
Reserved
3
R
BIST CRC
Error
Back channel CRC error during BIST
communication with Deserializer.
The bit is cleared upon loss of link, restart of BIST,
or assertion of CRC ERROR RESET in register
0x04.
2
R
PCLK
Detect
PCLK Status
1: Valid PCLK detected
0: Valid PCLK not detected
1
R
DES Error
Back channel CRC error during communication with
Deserializer.
The bit is cleared upon loss of link or assertion of
CRC ERROR RESET in register 0x04.
0
R
LINK Detect LINK Status
1: Cable link detected
0: Cable link not detected (Fault Condition)
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Register Maps (continued)
Table 6. Serial Control Bus Registers (continued)
ADD
(dec)
ADD
(hex)
REGISTER
NAME
13
0x0D
Revision ID and
GPIO0
Configuration
14
30
0x0E
Bit(s)
REGISTER
TYPE
7:4
R
3
GPIO2 and
GPIO1
Configurations
DEFAULT
FUNCTION
(hex)
0xA0
DESCRIPTION
Rev-ID
Revision ID: 1010
Production Device
RW
GPIO0
Output
Value
Local GPIO output value
This value is output on the GPIO pin when the
GPIO function is enabled, the local GPIO direction
is Output, and remote GPIO control is disabled.
2
RW
GPIO0
Remote
Enable
Remote GPIO control
1: Enable GPIO control from remote Deserializer.
The GPIO pin will be an output, and the value is
received from the remote Deserializer.
0: Disable GPIO control from remote Deserializer.
1
RW
GPIO0
Direction
Local GPIO Direction
1: Input
0: Output
0
RW
GPIO0
Enable
GPIO function enable
1: Enable GPIO operation
0: Enable normal operation
7
RW
GPIO2
Output
Value
Local GPIO output value
This value is output on the GPIO pin when the
GPIO function is enabled, the local GPIO direction
is Output, and remote GPIO control is disabled.
6
RW
GPIO2
Remote
Enable
Remote GPIO control
1: Enable GPIO control from remote Deserializer.
The GPIO pin will be an output, and the value is
received from the remote Deserializer.
0: Disable GPIO control from remote Deserializer.
5
RW
GPIO2
Direction
Local GPIO Direction
1: Input
0: Output
4
RW
GPIO2
Enable
GPIO function enable
1: Enable GPIO operation
0: Enable normal operation
3
RW
GPIO1
Output
Value
Local GPIO output value
This value is output on the GPIO pin when the
GPIO function is enabled, the local GPIO direction
is Output, and remote GPIO control is disabled.
2
RW
GPIO1
Remote
Enable
Remote GPIO control
1: Enable GPIO control from remote Deserializer.
The GPIO pin will be an output, and the value is
received from the remote Deserializer.
0: Disable GPIO control from remote Deserializer.
1
RW
GPIO1
Direction
Local GPIO Direction
1: Input
0: Output
0
RW
GPIO1
Enable
GPIO function enable
1: Enable GPIO operation
0: Enable normal operation
0x0
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Register Maps (continued)
Table 6. Serial Control Bus Registers (continued)
ADD
(dec)
ADD
(hex)
REGISTER
NAME
15
0x0F
GPO_REG4
and GPIO3
Configurations
Bit(s)
REGISTER
TYPE
7
RW
DEFAULT
FUNCTION
(hex)
0x00
GPO_REG
4 Output
Value
6:5
16
0x10
GPO_REG6
and
GPO_REG5
Configurations
DESCRIPTION
Local GPO_REG4 output value
This value is output on the GPO pin when the GPO
function is enabled.
(The local GPO direction is Output, and remote
GPO control is disabled)
Reserved
4
RW
GPO_REG
4 Enable
GPO_REG4 function enable
1: Enable GPO operation
0: Enable normal operation
3
RW
GPIO3
Output
Value
Local GPIO output value
This value is output on the GPIO pin when the
GPIO function is enabled, the local GPIO direction
is Output, and remote GPIO control is disabled.
2
RW
GPIO3
Remote
Enable
Remote GPIO control
1: Enable GPIO control from remote Deserializer.
The GPIO pin will be an output, and the value is
received from the remote Deserializer.
0: Disable GPIO control from remote Deserializer.
1
RW
GPIO3
Direction
Local GPIO Direction
1: Input
0: Output
0
RW
GPIO3
Enable
GPIO function enable
1: Enable GPIO operation
0: Enable normal operation
7
RW
GPO_REG
6 Output
Value
Local GPO_REG6 output value
This value is output on the GPO pin when the GPO
function is enabled.
(The local GPO direction is Output, and remote
GPO control is disabled)
0x00
6:5
Reserved
4
RW
GPO_REG
6 Enable
GPO_REG6 function enable
1: Enable GPO operation
0: Enable normal operation
3
RW
GPO_REG
5 Output
Value
Local GPO_REG5 output value
This value is output on the GPO pin when the GPO
function is enabled, the local GPO direction is
Output, and remote GPO control is disabled.
RW
GPO_REG
5 Enable
2:1
0
Reserved
GPO_REG5 function enable
1: Enable GPO operation
0: Enable normal operation
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Register Maps (continued)
Table 6. Serial Control Bus Registers (continued)
ADD
(dec)
ADD
(hex)
REGISTER
NAME
17
0x11
GPO_REG8
and
GPO_REG7
Configurations
Bit(s)
REGISTER
TYPE
7
RW
DEFAULT
FUNCTION
(hex)
0x00
GPO_REG
8 Output
Value
6:5
Reserved
RW
GPO_REG
8 Enable
GPO_REG8 function enable
1: Enable GPO operation
0: Enable normal operation
3
RW
GPO_REG
7 Output
Value
Local GPO_REG7 output value
This value is output on the GPO pin when the GPO
function is enabled, the local GPO direction is
Output, and remote GPO control is disabled.
RW
GPO_REG
7 Enable
0
32
0x12
Data Path
Control
Local GPO_REG8 output value
This value is output on the GPO pin when the GPO
function is enabled.
(The local GPO direction is Output, and remote
GPO control is disabled)
4
2:1
18
DESCRIPTION
Reserved
7
0x00
GPO_REG7 function enable
1: Enable GPO operation
0: Enable normal operation
Reserved
6
RW
Pass RGB
Setting this bit causes RGB data to be sent
independent of DE.
It allows operation in systems which may not use
DE to frame video data or send other data when DE
is de-asserted.
Note that setting this bit prevents HDCP operation
and blocks packetized audio.
This bit does not need to be set in Backwards
Compatible mode
1: Pass RGB independent of DE
0: Normal operation
(DE gates RGB data transmission - RGB data is
transmitted only when DE is active)
5
RW
DE Polarity
The bit indicates the polarity of the Data Enable
(DE) signal.
1: DE is inverted (active low, idle high)
0: DE is positive (active high, idle low)
4
RW
I2S
Repeater
Regenerati
on
I2S Repeater Regeneration
1: Repeater regenerate I2S from I2S pins
0: Repeater pass through I2S from video pins
3
RW
I2S
Channel B
Enable
Override
I2S Channel B Enable
1: Set I2S Channel B Enable from reg_0x12[0]
0: Set I2S Channel B Enable from MODE_SEL pin
2
RW
18-bit Video 18–bit video select
Select
1: Select 18-bit video mode
Note: use of GPIO(s) on unused inputs must be
enabled by register.
0: Select 24-bit video mode
1
RW
I2S
Transport
Select
I2S Transport Mode Select
1: Enable I2S Data Forward Channel Frame
Transport
0: Enable I2S Data Island Transport
0
RW
I2S
Channel B
Enable
I2S Channel B Enable
1: Enable I2S Channel B on B1 input
0: I2S Channel B disabled
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Register Maps (continued)
Table 6. Serial Control Bus Registers (continued)
ADD
(dec)
ADD
(hex)
19
0x13
20
22
23
0x14
0x16
0x17
REGISTER
NAME
Mode Status
Oscillator Clock
Source and
BIST Status
BCC Watchdog
Control
I2C Control
Bit(s)
REGISTER
TYPE
7:5
DEFAULT
FUNCTION
(hex)
0x10
DESCRIPTION
Reserved
4
R
MODE_SE
L
MODE_SEL Status
1: MODE_SEL decode circuit is completed
0: MODE_SEL decode circuit is not completed
3
R
Low
Frequency
Mode
Low Frequency Mode Status
1: Low frequency (5 - <15 MHz)
0: Normal frequency (15 - 85 MHz)
2
R
Repeater
Mode
Repeater Mode Status
1: Repeater mode ON
0: Repeater Mode OFF
1
R
Backward
Compatible
Mode
Backward Compatible Mode Status
1: Backward compatible ON
0: Backward compatible OFF
0
R
I2S
Channel B
Mode
I2S Channel B Mode Status
1: I2S Channel B ON, 18-bit RGB mode with
I2S_DB enabled
0: I2S Channel B OFF; normal 24-bit RGB mode
7:3
0x00
2:1
RW
0
R
7:1
RW
0
RW
7
RW
0xFE
0x5E
Reserved
OSC Clock
Source
OSC Clock Source
(When LFMODE = 1, Oscillator = 12.5MHz ONLY)
00: External Pixel Clock
01: 33 MHz Oscillator
10: Reserved
11: 25 MHz Oscillator
BIST
Enable
Status
BIST status
1: Enabled
0: Disabled
Timer Value The watchdog timer allows termination of a control
channel transaction if it fails to complete within a
programmed amount of time.
This field sets the Bidirectional Control Channel
Watchdog Timeout value in units of 2 ms.
This field should not be set to 0
Timer
Control
Disable Bidirectional Control Channel Watchdog
Timer
1: Disables BCC Watchdog Timer operation
0: Enables BCC Watchdog Timer operation
I2C Pass
All
I2C Control
1: Enable Forward Control Channel pass-through of
all I2C accesses to I2C Slave IDs that do not match
the Serializer I2C Slave ID.
0: Enable Forward Control Channel pass-through
only of I2C accesses to I2C Slave IDs matching
either the remote Deserializer Slave ID or the
remote Slave ID.
6
Reserved
5:4
RW
SDA Hold
Time
Internal SDA Hold Time
Configures the amount of internal hold time
provided for the SDA input relative to the SCL input.
Units are 40 ns
3:0
RW
I2C Filter
Depth
Configures the maximum width of glitch pulses on
the SCL and SDA inputs that will be rejected. Units
are 5 ns
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Register Maps (continued)
Table 6. Serial Control Bus Registers (continued)
ADD
(dec)
ADD
(hex)
REGISTER
NAME
Bit(s)
REGISTER
TYPE
24
0x18
SCL High Time
7:0
RW
0xA1
SCL HIGH
Time
I2C Master SCL High Time
This field configures the high pulse width of the SCL
output when the Serializer is the Master on the local
I2C bus. Units are 40 ns for the nominal oscillator
clock frequency. The default value is set to provide
a minimum 5us SCL high time with the internal
oscillator clock running at 32.5MHz rather than the
nominal 25MHz.
25
0x19
SCL Low Time
7:0
RW
0xA5
SCL LOW
Time
I2C SCL Low Time
This field configures the low pulse width of the SCL
output when the Serializer is the Master on the local
I2C bus. This value is also used as the SDA setup
time by the I2C Slave for providing data prior to
releasing SCL during accesses over the
Bidirectional Control Channel. Units are 40 ns for
the nominal oscillator clock frequency. The default
value is set to provide a minimum 5us SCL low time
with the internal oscillator clock running at 32.5MHz
rather than the nominal 25MHz.
27
0x1B
BIST BC Error
7:0
R
0x00
BIST Back
Channel
CRC Error
Counter
BIST Mode Back Channel CRC Error Counter
This error counter is active only in the BIST mode. It
clears itself at the start of the BIST run.
100
0x64
Pattern
Generator
Control
7:4
RW
0x10
Pattern
Generator
Select
Fixed Pattern Select
This field selects the pattern to output when in Fixed
Pattern Mode. Scaled patterns are evenly
distributed across the horizontal or vertical active
regions. This field is ignored when Auto-Scrolling
Mode is enabled. The following table shows the
color selections in non-inverted followed by inverted
color mode
0000: Reserved
0001: White/Black
0010: Black/White
0011: Red/Cyan
0100: Green/Magenta
0101: Blue/Yellow
0110: Horizontally Scaled Black to White/White to
Black
0111: Horizontally Scaled Black to Red/Cyan to
White
1000: Horizontally Scaled Black to Green/Magenta
to White
1001: Horizontally Scaled Black to Blue/Yellow to
White
1010: Vertically Scaled Black to White/White to
Black
1011: Vertically Scaled Black to Red/Cyan to White
1100: Vertically Scaled Black to Green/Magenta to
White
1101: Vertically Scaled Black to Blue/Yellow to
White
1110: Custom color (or its inversion) configured in
PGRS, PGGS, PGBS registers
1111: Reserved
DEFAULT
FUNCTION
(hex)
3:1
0
34
DESCRIPTION
Reserved
RW
Pattern
Generator
Enable
Pattern Generator Enable
1: Enable Pattern Generator
0: Disable Pattern Generator
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Register Maps (continued)
Table 6. Serial Control Bus Registers (continued)
ADD
(dec)
ADD
(hex)
REGISTER
NAME
101
0x65
Pattern
Generator
Configuration
Bit(s)
REGISTER
TYPE
7:5
DEFAULT
FUNCTION
(hex)
0x00
DESCRIPTION
Reserved
4
RW
Pattern
Generator
18 Bits
18-bit Mode Select
1: Enable 18-bit color pattern generation. Scaled
patterns will have 64 levels of brightness and the R,
G, and B outputs use the six most significant color
bits.
0: Enable 24-bit pattern generation. Scaled patterns
use 256 levels of brightness.
3
RW
Pattern
Generator
External
Clock
Select External Clock Source
1: Selects the external pixel clock when using
internal timing.
0: Selects the internal divided clock when using
internal timing
This bit has no effect in external timing mode
(PATGEN_TSEL = 0).
2
RW
Pattern
Generator
Timing
Select
Timing Select Control
1: The Pattern Generator creates its own video
timing as configured in the Pattern Generator Total
Frame Size, Active Frame Size. Horizontal Sync
Width, Vertical Sync Width, Horizontal Back Porch,
Vertical Back Porch, and Sync Configuration
registers.
0: the Pattern Generator uses external video timing
from the pixel clock, Data Enable, Horizontal Sync,
and Vertical Sync signals.
1
RW
Pattern
Enable Inverted Color Patterns
Generator
1: Invert the color output.
Color Invert 0: Do not invert the color output.
0
RW
Pattern
Generator
Auto-Scroll
Enable
Auto-Scroll Enable:
1: The Pattern Generator will automatically move to
the next enabled pattern after the number of frames
specified in the Pattern Generator Frame Time
(PGFT) register.
0: The Pattern Generator retains the current pattern.
102
0x66
Pattern
Generator
Indirect Address
7:0
RW
0x00
Indirect
Address
This 8-bit field sets the indirect address for
accesses to indirectly-mapped registers. It should
be written prior to reading or writing the Pattern
Generator Indirect Data register.
See AN-2198 (SNLA132)
103
0x67
Pattern
Generator
Indirect Data
7:0
RW
0x00
Indirect
Data
When writing to indirect registers, this register
contains the data to be written. When reading from
indirect registers, this register contains the read
back value.
See AN-2198 ( SNLA132)
128
0x80
RX_BKSV0
7:0
R
0x00
RX BKSV0
BKSV0: Value of byte 0 of the Deserializer KSV
129
0x81
RX_BKSV1
7:0
R
0x00
RX BKSV1
BKSV1: Value of byte 1 of the Deserializer KSV
130
0x82
RX_BKSV2
7:0
R
0x00
RX BKSV2
BKSV2: Value of byte 2 of the Deserializer KSV
131
0x83
RX_BKSV3
7:0
R
0x00
RX BKSV3
BKSV3: Value of byte 3of the Deserializer KSV
132
0x84
RX_BKSV4
7:0
R
0x00
RX BKSV4
BKSV4: Value of byte 4of the Deserializer KSV
144
0x90
TX_KSV0
7:0
R
0x00
TX KSV0
KSV0: Value of byte 0 of the Serializer KSV
145
0x91
TX_KSV1
7:0
R
0x00
TX KSV1
KSV1: Value of byte 1 of the Serializer KSV
146
0x92
TX_KSV2
7:0
R
0x00
TX KSV2
KSV2: Value of byte 2 of the Serializer KSV
147
0x93
TX_KSV3
7:0
R
0x00
TX KSV3
KSV3: Value of byte 3 of the Serializer KSV
148
0x94
TX_KSV4
7:0
R
0x00
TX KSV4
KSV4: Value of byte 4 of the Serializer KSV
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Register Maps (continued)
Table 6. Serial Control Bus Registers (continued)
ADD
(dec)
ADD
(hex)
160
0xA0
REGISTER
NAME
Bit(s)
RX BCAPS
REGISTER
TYPE
7
DEFAULT
FUNCTION
(hex)
0x13
Reserved
6
R
Repeater
Indicates if the attached Receiver supports
downstream connections. This bit is valid once the
Bksv is ready as indicated by the BKSV_RDY bit in
the HDCP
5
R
KSV FIFO
KSV FIFO Ready
Indicates the receiver has built the list of attached
KSVs and computed the verification value
4
R
Fast I2C
Fast I2C: The HDCP Receiver supports fast I2C.
Since the I2C is embedded in the serial data, this bit
is not relevant
1
R
Features
HDCP v1.1_Features
The HDCP Receiver supports the Enhanced
Encryption Status Signaling (EESS), Advance
Cipher, and Enhanced Link Verification options.
0
R
Fast Reauth
The HDCP Receiver is capable of receiving
(unencrypted) video signal during the session reauthentication.
7
R
Max
Devices
Maximum Devices Exceeded: Indicates a topology
error was detected. Indicates the number of
downstream devices has exceeded the depth of the
Repeater's KSV FIFO
6:0
R
Device
Count
Total number of attached downstream device. For a
Repeater, this will indicate the number of
downstream devices, not including the Repeater.
For an HDCP Receiver that is not also a Repeater,
this field will be 0
3:2
161
162
163
36
0xA1
0xA2
0xA3
RX BSTATUS0
RX BSTATUS1
KSV FIFO
DESCRIPTION
Reserved
7:4
0x00
0x00
Reserved
3
R
Max
Cascade
Maximum Cascade Exceeded: Indicates a topology
error was detected. Indicates that more than seven
levels of repeaters have been cascad-ed together
2:0
R
Cascade
Depth
Indicates the number of attached levels of devices
for the Repeater
7:0
R
KSV FIFO
KSV FIFO
Each read of the KSV FIFO returns one byte of the
KSV FIFO list composed by the downstream
Receiver.
0x00
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Register Maps (continued)
Table 6. Serial Control Bus Registers (continued)
ADD
(dec)
ADD
(hex)
192
0xC0
REGISTER
NAME
HDCP DBG
Bit(s)
REGISTER
TYPE
7:4
DEFAULT
FUNCTION
(hex)
0x00
DESCRIPTION
Reserved
3
RW
RGB
CHKSUM
Enable RGB video line checksum
Enables sending of ones-complement checksum for
each 8-bit RBG data channel following end of each
video data line
2
RW
Fast LV
Fast Link Verification
HDCP periodically verifies that the HDCP Receiver
is correctly synchronized. Setting this bit will
increase the rate at which synchronization is
verified. When set to a 1, Pj is computed every 2
frames and Ri is computed every 16 frames. When
set to a 0, Pj is computed every 16 frames and Ri is
computed every 128 frames.
1
RW
TMR Speed Timer Speedup
Up
Speed up HDCP authentication timers.
0
RW
HDCP I2C
Fast
HDCP I2C Fast Mode Enable
Setting this bit to a 1 will enable the HDCP I2C
Master in the HDCP Receiver to operate with Fast
mode timing. If set to a 0, the I2C Master will
operate with Standard mode timing. This bit is
mirrored in the IND_STS register
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Register Maps (continued)
Table 6. Serial Control Bus Registers (continued)
ADD
(dec)
ADD
(hex)
194
0xC2
38
REGISTER
NAME
Bit(s)
REGISTER
TYPE
7
RW
6
HDCP CFG
DEFAULT
FUNCTION
(hex)
0x80
DESCRIPTION
ENH LV
Enable Enhanced Link Verification
Allows checking of the encryption Pj value on every
16th frame
1: Enhanced Link Verification enabled
0: Enhanced Link Verification disabled
RW
HDCP
EESS
Enables Enhanced Encryption Status Signaling
(EESS) instead of the Original Encryption Status
Signaling (OESS)
1: EESS mode enabled
0: OESS mode enabled
5
RW
TX RPTR
Transmit Repeater Enable
Enables the transmitter to act as a repeater. In this
mode, the HDCP Transmitter incorporates the
additional authentication steps required of an HDCP
Repeater.
1: Transmit Repeater mode enabled
0: Transmit Repeater mode disabled
4:3
RW
ENC Mode
Encryption Control Mode
Determines mode for controlling whether encryption
is required for video frames
00: Enc_Authenticated
01: Enc_Reg_Control
10: Enc_Always
11: Enc_InBand_Control (per frame)
If the Repeater strap option is set at power-up,
Enc_InBand_Control (ENC_MODE == 11) will be
se-lected. Otherwise, the default will be
Enc_Authenticated mode (ENC_MODE == 00).
2
RW
Wait
Enable 100ms Wait
The HDCP 1.3 specification allows for a 100ms wait
to allow the HDCP Receiver to compute the initial
encryption values. The FPD-Link III implementation
ensures that the Receiver will complete the
computations before the HDCP Transmitter. Thus
the timer is unnecessary. To enable the 100ms
timer, set this bit to a 1.
1
RW
RX DET
SEL
RX Detect Select
Controls assertion of the Receiver Detect Interrupt.
If set to 0, the Receiver Detect Interrupt will be
asserted on detection of an FPD-Link III Receiver. If
set to 1, the Receiver Detect Interrupt will also
require a receive lock indication from the receiver.
0
RW
HDCP AV
MUTE
Enable AVMUTE
Setting this bit to a 1 will initiate AVMUTE operation.
The transmitter will ignore encryption status controls
while in this state. If this bit is set to a 0, normal
operation resumes. This bit may only be set if the
HDCP_EESS bit is also set.
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Register Maps (continued)
Table 6. Serial Control Bus Registers (continued)
ADD
(dec)
ADD
(hex)
195
0xC3
REGISTER
NAME
HDCP CTL
Bit(s)
REGISTER
TYPE
7
RW
DEFAULT
FUNCTION
(hex)
0x00
HDCP RST
6
DESCRIPTION
HDCP Reset
Setting this bit will reset the HDCP transmitter and
disable HDCP authentication. This bit is selfclearing.
Reserved
5
RW
KSV List
Valid
The controller sets this bit after validating the
Repeater’s KSV List against the Key revocation list.
This allows completion of the Authentication
process. This bit is self-clearing
4
RW
KSV Valid
The controller sets this bit after validating the
Receiver’s KSV against the Key revocation list. This
allows continuation of the Authentication process.
This bit will be cleared upon assertion of the
KSV_RDY flag in the HDCP_STS register. Setting
this bit to a 0 will have no effect
3
RW
HDCP ENC HDCP Encrypt Disable
DIS
Disables HDCP encryption. Setting this bit to a 1 will
cause video data to be sent without encryption.
Authentication status will be maintained. This bit is
self-clearing
2
RW
HDCP ENC HDCP Encrypt Enable
EN
Enables HDCP encryption. When set, if the device
is authenticated, encrypted data will be sent. If
device is not authenticated, a blue screen will be
sent. Encryption should always be enabled when
video data requiring content protection is being
supplied to the transmitter. When this bit is not set,
video data will be sent without encryption. Note that
when CFG_ENC_MODE is set to Enc_Always, this
bit will be read only with a value of 1
1
RW
HDCP DIS
HDCP Disable
Disables HDCP authentication. Setting this bit to a 1
will disable the HDCP authentication.
This bit is self-clearing
0
RW
HDCP EN
HDCP Enable/Restart
Enables HDCP authentication. If HDCP is already
enabled, setting this bit to a 1 will restart
authentication. Setting this bit to a 0 will have no
effect. A register read will return the current HDCP
enabled status
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Register Maps (continued)
Table 6. Serial Control Bus Registers (continued)
ADD
(dec)
ADD
(hex)
196
0xC4
40
REGISTER
NAME
Bit(s)
REGISTER
TYPE
7
R
6
HDCP STS
DEFAULT
FUNCTION
(hex)
0x00
DESCRIPTION
I2C ERR
DET
HDCP I2C Error Detected
This bit indicates an error was detected on the
embedded communications channel with the HDCP
Receiver. Setting of this bit might indicate that a
problem exists on the link between the HDCP
Transmitter and HDCP Receiver. This bit will be
cleared on read
R
RX INT
RX Interrupt
Status of the RX Interrupt signal.
The signal is received from the attached HDCP
Receiver and is the status on the INTB_IN pin of the
HDCP Receiver. The signal is active low, a 0
indicates an interrupt condition
5
R
RX Lock
DET
Receiver Lock Detect
This bit indicates that the downstream Receiver has
indicated Receive Lock to incoming serial data
4
R
DOWN
HPD
Hot Plug Detect
This bit indicates the local device or a downstream
repeater has reported a Hot Plug event, indicating
addition of a new receiver. This bit will be cleared
on read
3
R
RX DET
Receiver Detect
This bit indicates that a downstream Receiver has
been detected
2
R
KSV LIST
RDY
HDCP Repeater KSV List Ready
This bit indicates that the Receiver KSV list has
been read and is available in the KSV_FIFO
registers. The device will wait for the controller to
set the KSV_LIST_VALID bit in the HDCP_CTL
register before continuing. This bit will be cleared
once the controller sets the KSV_LIST_VALID bit.
1
R
KSV RDY
HDCP Receiver KSV Ready
This bit indicates that the Receiver KSV has been
read and is available in the HDCP_ BKSV registers.
If the device is not a Repeater, it will wait for the
controller to set the KSV_VALID bit in the
HDCP_CTL register before continuing.
This bit will be cleared once the controller sets the
KSV_VALID bit.. The bit will also be cleared if
authentication fails.
0
R
AUTHED
HDCP Authenticated
Indicates the HDCP authentication has completed
successfully. The controller may now send video
data requiring content protection. This bit will be
cleared if authentication is lost or if the controller
restarts authentication
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Register Maps (continued)
Table 6. Serial Control Bus Registers (continued)
ADD
(dec)
ADD
(hex)
198
0xC6
199
0xC7
REGISTER
NAME
HDCP ICR
HDCP ISR
HDCP TX ID
Bit(s)
REGISTER
TYPE
7
RW
6
RW
IE RXDET
INT
Interrupt on Receiver Detect
Enables interrupt on detection of a downstream
Receiver. If HDCP_CFG:RX_DET_SEL is set to a 1,
the interrupt will wait for Receiver Lock Detect.
5
RW
IS_RX_INT
Interrupt on Receiver interrupt
Enables interrupt on indication from the HDCP
Receiver. Allows propagation of interrupts from
downstream devices
4
RW
IE LIST
RDY
Interrupt on KSV List Ready
Enables interrupt on KSV List Ready
3
RW
IE KSV
RDY
Interrupt on KSV Ready
Enables interrupt on KSV Ready
2
RW
IE AUTH
FAIL
Interrupt on Authentication Failure
Enables interrupt on authentication failure or loss of
authentication
1
RW
IE AUTH
PASS
Interrupt on Authentication Pass
Enables interrupt on successful completion of
authentication
0
RW
INT Enable
Global Interrupt Enable
Enables interrupt on the interrupt signal to the
controller.
7
R
6
R
INT Detect
Interrupt on Receiver Detect interrupt
A downstream receiver has been detected
5
R
IS RX INT
Interrupt on Receiver interrupt
Receiver has indicated an interrupt request from
down-stream device
4
R
IS LIST
RDY
Interrupt on KSV List Ready
The KSV list is ready for reading by the controller
3
R
IS KSV
RDY
Interrupt on KSV Ready
The Receiver KSV is ready for reading by the
controller
2
R
IS AUTH
FAIL
Interrupt on Authentication Failure
Authentication failure or loss of authentication has
occurred
1
R
IS AUTH
PASS
Interrupt on Authentication Pass
Authentication has completed successfully
0
R
INT
Global Interrupt
Set if any enabled interrupt is indicated
7:0
R
0x5F
ID0
First byte ID code, ‘_’
DEFAULT
FUNCTION
(hex)
0x00
0x00
DESCRIPTION
IE IND ACC Interrupt on Indirect Access Complete
Enables interrupt on completion of Indirect Register
Access
IS IND ACC Interrupt on Indirect Access Complete
Indirect Register Access has completed
240
0xF0
241
0xF1
7:0
R
0x55
ID1
Second byte of ID code, ‘U’
242
0xF2
7:0
R
0x48
ID2
Third byte of ID code. Value will be either ‘B’ or ‘H’.
‘H’ indicates an HDCP capable device
243
0xF3
7:0
R
0x39
ID3
Forth byte of ID code: ‘9’
244
0xF4
7:0
R
0x32
ID4
Fifth byte of ID code: '2'
245
0xF5
7:0
R
0x35
ID5
Sixth byte of ID code: '5'
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8 Applications and Implementation
NOTE
Information in the following applications sections is not part of the TI component
specification, and TI does not warrant its accuracy or completeness. TI’s customers are
responsible for determining suitability of components for their purposes. Customers should
validate and test their design implementation to confirm system functionality.
8.1 Application Information
The DS90UH925Q-Q1, in conjunction with the DS90UH926Q-Q1, is intended for interface between a HDCP
compliant host (graphics processor) and a Display. It supports a 24-bit color depth (RGB888) and high definition
(720p) digital video format. It can receive a three 8-bit RGB stream with a pixel rate up to 85 MHz together with
three control bits (VS, HS and DE) and three I2S-bus audio stream with an audio sampling rate up to 192 kHz.
The included HDCP 1.3 compliant cipher block allows the authentication of the DS90UH926Q-Q1, which
decrypts both video and audio contents. The keys are pre-loaded by TI into Non-Volatile Memory (NVM) for
maximum security.
42
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8.2 Typical Application
DS90UH925Q-Q1
3.3V/1.8V
VDD33
VDDIO
FB1
3.3V
C5
FB2
C4
R7
R6
R5
R4
R3
R2
R1
R0
CAPP12
C6
CAPL12
C7
C8
CAPHS12
G7
G6
G5
G4
G3
G2
G1
G0
LVCMOS
Parallel
Video
Interface
C9
C1
Serial
FPD-Link III
Interface
DOUT+
DOUTCMF
C2
C3
B7
B6
B5
B4
B3
B2
B1
B0
VDD33
R3
MODE_SEL
R4
PCLK
LVCMOS
Control
Interface
R5
ID[X]
SCL
SDA
INTB
PDB
C10
4.7k
R6
VDD33
4.7k
VDDIO VDD33*
HS
VS
DE
R1
R2
NC
I2S_CLK
I2S_WC
I2S_DA
RES
DAP (GND)
NOTE:
FB1-FB2: Impedance = 1 k: @ 100MHz,
Low DC resistance (<1:)
C1-C3 = 0.1 PF (50 WV; C1, C2: 0402; C3: 0603)
C4-C9 = 4.7 PF
C10 =>10 PF
R1 and R2 (see IDx Resistor Values Table 5)
R3 and R4 (see MODE_SEL Resistor Values Table 1)
R5 = 10 k:
R6 = 4.7 k:
* or VDDIO = 3.3V+0.3V
Figure 23. Typical Connection Diagram
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Typical Application (continued)
HOST
Graphics
Processor
RGB Digital Display Interface
VDD33
VDDIO
(1.8V or 3.3V) (3.3V)
R[7:0]
G[7:0]
B[7:0]
HS
VS
DE
PCLK
R[7:0]
G[7:0]
B[7:0]
HS
VS
DE
PCLK
FPD-Link III
1 Pair / AC Coupled
0.1 PF
0.1 PF
RIN+
DOUT+
RIN-
DOUT-
PDB
I2S AUDIO
(STEREO)
VDDIO
VDD33
(3.3V) (1.8V or 3.3V)
3
/
DS90UH925Q-Q1
Serializer
SCL
SDA
IDx
100 ohm STP Cable
PDB
OSS_SEL
OEN
MODE_SEL MODE_SEL
INTB
INTB_IN
DS90UH926Q-Q1
Deserializer
SCL
SDA
IDx
DAP
RGB Display
720p
24-bit color depth
LOCK
PASS
3
/
I2S AUDIO
(STEREO)
MCLK
DAP
Figure 24. Typical Display System Diagram
8.2.1 Design Requirements
For the typical desing application, use the following as input parameters.
Table 7. Design Parameters
DESIGN PARAMETER
EXAMPLE VALUE
VDDIO
1.8 V or 3.3 V
VDD33
3.3 V
AC Coupling Capacitor for DOUT±
100 nF
PCLK Frequency
85 MHz
8.2.2 Detailed Design Procedure
Figure 23 shows a typical application of the DS90UH925Q-Q1 serializer for an 85 MHz 24-bit Color Display
Application. The CML outputs must have an external 0.1 μF AC coupling capacitor on the high speed serial lines.
The serializer has an internal termination. Bypass capacitors are placed near the power supply pins. At a
minimum, six (6) 4.7μF capacitors (and two (2) additional 1μF capacitors should be used for local device
bypassing. Ferrite beads are placed on the two (2) VDDs (VDD33 and VDDIO) for effective noise suppression. The
interface to the graphics source is with 3.3V LVCMOS levels, thus the VDDIO pin is connected to the 3.3 V rail. A
RC delay is placed on the PDB signal to delay the enabling of the device until power is stable.
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78 MHz TX Pixel Clock Input
(500 mV/DIV)
Magnitude (80 mV/DIV)
CML Serializer Data Throughput
(200 mV/DIV)
8.2.3 Application Curves
Time (100 ps/DIV)
Time (2.5 ns/DIV)
Figure 25. Serializer Eye Diagram with 78 MHz TX Pixel
Clock
Figure 26. Serializer CML Output with 78 MHz TX Pixel
Clock
9 Power Supply Recommendations
This device is designed to operate from an input core voltage supply of 3.3V. Some devices provide separate
power and ground pins for different portions of the circuit. This is done to isolate switching noise effects between
different sections of the circuit. Separate planes on the PCB are typically not required. Pin description tables
typically provide guidance on which circuit blocks are connected to which power pin pairs. In some cases, an
external filter may be used to provide clean power to sensitive circuits such as PLLs.
9.1 Power Up Requirements and PDB Pin
The VDDs (VDD33 and VDDIO) supply ramp should be faster than 1.5 ms with a monotonic rise. A large capacitor
on the PDB pin is needed to ensure PDB arrives after all the VDDs have settled to the recommended operating
voltage. When PDB pin is pulled to VDDIO = 3.0V to 3.6V or VDD33, it is recommended to use a 10 kΩ pull-up and
a >10 uF cap to GND to delay the PDB input signal.
All inputs must not be driven until VDD33 and VDDIO has reached its steady state value.
9.2 CML Interconnect Guidelines
See AN-1108 (SNLA008) and AN-905 (SNLA035) for full details.
• Use 100Ω coupled differential pairs
• Use the S/2S/3S rule in spacings
– S = space between the pair
– 2S = space between pairs
– 3S = space to LVCMOS signal
• Minimize the number of Vias
• Use differential connectors when operating above 500 Mbps line speed
• Maintain balance of the traces
• Minimize skew within the pair
Additional general guidance can be found in the LVDS Owner’s Manual - available in PDF format from the Texas
Instruments web site at: www.ti.com/lvds.
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10 Layout
10.1 Layout Guidelines
Circuit board layout and stack-up for the FPD-Link III devices should be designed to provide low-noise power
feed to the device. Good layout practice will also separate high frequency or high-level inputs and outputs to
minimize unwanted stray noise pickup, feedback and interference. Power system performance may be greatly
improved by using thin dielectrics (2 to 4 mils) for power / ground sandwiches. This arrangement provides plane
capacitance for the PCB power system with low-inductance parasitics, which has proven especially effective at
high frequencies, and makes the value and placement of external bypass capacitors less critical. External bypass
capacitors should include both RF ceramic and tantalum electrolytic types. RF capacitors may use values in the
range of 0.01 uF to 0.1 uF. Tantalum capacitors may be in the 2.2 uF to 10 uF range. Voltage rating of the
tantalum capacitors should be at least 5X the power supply voltage being used.
Surface mount capacitors are recommended due to their smaller parasitics. When using multiple capacitors per
supply pin, locate the smaller value closer to the pin. A large bulk capacitor is recommend at the point of power
entry. This is typically in the 50uF to 100uF range and will smooth low frequency switching noise. It is
recommended to connect power and ground pins directly to the power and ground planes with bypass capacitors
connected to the plane with via on both ends of the capacitor. Connecting power or ground pins to an external
bypass capacitor will increase the inductance of the path.
A small body size X7R chip capacitor, such as 0603 or 0402, is recommended for external bypass. Its small body
size reduces the parasitic inductance of the capacitor. The user must pay attention to the resonance frequency of
these external bypass capacitors, usually in the range of 20-30 MHz. To provide effective bypassing, multiple
capacitors are often used to achieve low impedance between the supply rails over the frequency of interest. At
high frequency, it is also a common practice to use two vias from power and ground pins to the planes, reducing
the impedance at high frequency.
Some devices provide separate power and ground pins for different portions of the circuit. This is done to isolate
switching noise effects between different sections of the circuit. Separate planes on the PCB are typically not
required. Pin Description tables typically provide guidance on which circuit blocks are connected to which power
pin pairs. In some cases, an external filter may be used to provide clean power to sensitive circuits such as
PLLs.
Use at least a four layer board with a power and ground plane. Locate LVCMOS signals away from the CML
lines to prevent coupling from the LVCMOS lines to the CML lines. Closely-coupled differential lines of 100 Ohms
are typically recommended for CML interconnect. The closely coupled lines help to ensure that coupled noise will
appear as common-mode and thus is rejected by the receivers. The tightly coupled lines will also radiate less.
Information on the WQFN style package is provided in TI Application Note: AN-1187 (SNOA401).
46
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10.2 Layout Example
Stencil parameters such as aperture area ratio and the fabrication process have a significant impact on paste
deposition. Inspection of the stencil prior to placement of the WQFN package is highly recommended to improve
board assembly yields. If the via and aperture openings are not carefully monitored, the solder may flow
unevenly through the DAP. Stencil parameters for aperture opening and via locations are shown below:
Figure 27. No Pullback WQFN, Single Row Reference Diagram
Table 8. No Pullback WQFN Stencil Aperture Summary
Device
DS90UH925
Q-Q1
Pin
MKT Dwg PCB I/O
Count
Pad Size
(mm)
48
SQA48A
0.25 x
0.6
PCB
Pitch
(mm)
PCB DAP
size (mm)
Stencil I/O
Aperture
(mm)
Stencil DAP
Aperture
(mm)
Number of
DAP
Aperture
Openings
Gap Between DAP
Aperture (Dim A
mm)
0.5
5.1 x 5.1
0.25 x 0.7
1.1 x 1.1
16
0.2
Figure 28. 48-Pin WQFN Stencil Example of Via and Opening Placement
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Figure 29 shows the PCB layout example derived from the layout design of the DS90UH925QSEVB Evaluation
Board. The graphic and layout description are used to determine both proper routing and proper solder
techniques when designing the Serializer board.
Figure 29. DS90UH925Q-Q1 Serializer Example Layout
48
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11 Device and Documentation Support
11.1 Documentation Support
11.1.1 Related Documentation
•
•
•
•
•
•
AN-2198 Exploring the Internal Test Pattern Generation SNLA132
AN-1108 Channel-Link PCB and Interconnect Design-In Guidelines SNLA008
SCAN18245T Non-Inverting Transceiver with TRI-STATE Outputs SNLA035
TI Interface Website www.ti.com/lvds
AN-1187 Leadless Leadframe Package (LLP) SNOA401
Semiconductor and IC Package Thermal Metrics SPRA953
11.2 Trademarks
All trademarks are the property of their respective owners.
11.3 Electrostatic Discharge Caution
These devices have limited built-in ESD protection. The leads should be shorted together or the device placed in conductive foam
during storage or handling to prevent electrostatic damage to the MOS gates.
11.4 Glossary
SLYZ022 — TI Glossary.
This glossary lists and explains terms, acronyms, and definitions.
12 Mechanical, Packaging, and Orderable Information
The following pages include mechanical packaging and orderable information. This information is the most
current data available for the designated devices. This data is subject to change without notice and revision of
this document. For browser-based versions of this data sheet, refer to the left-hand navigation.
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PACKAGE OPTION ADDENDUM
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11-May-2014
PACKAGING INFORMATION
Orderable Device
Status
(1)
Package Type Package Pins Package
Drawing
Qty
Eco Plan
Lead/Ball Finish
MSL Peak Temp
(2)
(6)
(3)
Op Temp (°C)
Device Marking
(4/5)
DS90UH925QSQ/NOPB
ACTIVE
WQFN
RHS
48
1000
Green (RoHS
& no Sb/Br)
CU SN
Level-3-260C-168 HR
-40 to 105
UH925QSQ
DS90UH925QSQE/NOPB
ACTIVE
WQFN
RHS
48
250
Green (RoHS
& no Sb/Br)
CU SN
Level-3-260C-168 HR
-40 to 105
UH925QSQ
DS90UH925QSQX/NOPB
ACTIVE
WQFN
RHS
48
2500
Green (RoHS
& no Sb/Br)
CU SN
Level-3-260C-168 HR
-40 to 105
UH925QSQ
(1)
The marketing status values are defined as follows:
ACTIVE: Product device recommended for new designs.
LIFEBUY: TI has announced that the device will be discontinued, and a lifetime-buy period is in effect.
NRND: Not recommended for new designs. Device is in production to support existing customers, but TI does not recommend using this part in a new design.
PREVIEW: Device has been announced but is not in production. Samples may or may not be available.
OBSOLETE: TI has discontinued the production of the device.
(2)
Eco Plan - The planned eco-friendly classification: Pb-Free (RoHS), Pb-Free (RoHS Exempt), or Green (RoHS & no Sb/Br) - please check http://www.ti.com/productcontent for the latest availability
information and additional product content details.
TBD: The Pb-Free/Green conversion plan has not been defined.
Pb-Free (RoHS): TI's terms "Lead-Free" or "Pb-Free" mean semiconductor products that are compatible with the current RoHS requirements for all 6 substances, including the requirement that
lead not exceed 0.1% by weight in homogeneous materials. Where designed to be soldered at high temperatures, TI Pb-Free products are suitable for use in specified lead-free processes.
Pb-Free (RoHS Exempt): This component has a RoHS exemption for either 1) lead-based flip-chip solder bumps used between the die and package, or 2) lead-based die adhesive used between
the die and leadframe. The component is otherwise considered Pb-Free (RoHS compatible) as defined above.
Green (RoHS & no Sb/Br): TI defines "Green" to mean Pb-Free (RoHS compatible), and free of Bromine (Br) and Antimony (Sb) based flame retardants (Br or Sb do not exceed 0.1% by weight
in homogeneous material)
(3)
MSL, Peak Temp. - The Moisture Sensitivity Level rating according to the JEDEC industry standard classifications, and peak solder temperature.
(4)
There may be additional marking, which relates to the logo, the lot trace code information, or the environmental category on the device.
(5)
Multiple Device Markings will be inside parentheses. Only one Device Marking contained in parentheses and separated by a "~" will appear on a device. If a line is indented then it is a continuation
of the previous line and the two combined represent the entire Device Marking for that device.
(6)
Lead/Ball Finish - Orderable Devices may have multiple material finish options. Finish options are separated by a vertical ruled line. Lead/Ball Finish values may wrap to two lines if the finish
value exceeds the maximum column width.
Important Information and Disclaimer:The information provided on this page represents TI's knowledge and belief as of the date that it is provided. TI bases its knowledge and belief on information
provided by third parties, and makes no representation or warranty as to the accuracy of such information. Efforts are underway to better integrate information from third parties. TI has taken and
Addendum-Page 1
Samples
PACKAGE OPTION ADDENDUM
www.ti.com
11-May-2014
continues to take reasonable steps to provide representative and accurate information but may not have conducted destructive testing or chemical analysis on incoming materials and chemicals.
TI and TI suppliers consider certain information to be proprietary, and thus CAS numbers and other limited information may not be available for release.
In no event shall TI's liability arising out of such information exceed the total purchase price of the TI part(s) at issue in this document sold by TI to Customer on an annual basis.
Addendum-Page 2
PACKAGE MATERIALS INFORMATION
www.ti.com
11-May-2014
TAPE AND REEL INFORMATION
*All dimensions are nominal
Device
DS90UH925QSQ/NOPB
Package Package Pins
Type Drawing
WQFN
RHS
48
DS90UH925QSQE/NOPB WQFN
RHS
DS90UH925QSQX/NOPB WQFN
RHS
SPQ
Reel
Reel
A0
Diameter Width (mm)
(mm) W1 (mm)
B0
(mm)
K0
(mm)
P1
(mm)
W
Pin1
(mm) Quadrant
1000
330.0
16.4
7.3
7.3
1.3
12.0
16.0
Q1
48
250
178.0
16.4
7.3
7.3
1.3
12.0
16.0
Q1
48
2500
330.0
16.4
7.3
7.3
1.3
12.0
16.0
Q1
Pack Materials-Page 1
PACKAGE MATERIALS INFORMATION
www.ti.com
11-May-2014
*All dimensions are nominal
Device
Package Type
Package Drawing
Pins
SPQ
Length (mm)
Width (mm)
Height (mm)
DS90UH925QSQ/NOPB
WQFN
RHS
48
1000
367.0
367.0
38.0
DS90UH925QSQE/NOPB
WQFN
RHS
48
250
213.0
191.0
55.0
DS90UH925QSQX/NOPB
WQFN
RHS
48
2500
367.0
367.0
38.0
Pack Materials-Page 2
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