GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Key Features Description * SMPTE 259M-C compliant descrambling and NRZI to NRZ decoding (with bypass) * DVB-ASI 8b/10b decoding The GS9091B is a 270Mb/s equalizing and reclocking deserializer with an internal FIFO. It provides a complete receive solution for SD-SDI and DVB-ASI applications. * Integrated Cable Equalizer * 500m typical equalization of Belden 1694A cable * Integrated line-based FIFO for data alignment/delay, clock phase interchange, DVB-ASI data packet extraction and clock rate interchange, and ancillary data packet extraction * Integrated VCO and reclocker * User selectable additional processing features including: TRS, ANC data checksum, and EDH CRC error detection and correction programmable ANC data detection illegal code remapping * Internal flywheel for noise immune H, V, F extraction * Automatic standards detection and indication * Enhanced Gennum Serial Peripheral Interface (GSPI) * JTAG test interface * Polarity insensitive for DVB-ASI and SMPTE signals * +1.8V core power supply with optional +1.8V or +3.3V I/O power supply * Small footprint (11mm x 11mm) * Low power operation (typically 350mW) * Pb-free and RoHS compliant Applications * SMPTE 259M-C Serial Digital Interfaces * DVB-ASI Serial Digital Interfaces GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 In addition to equalizing, reclocking and deserializing the input data stream, the GS9091B performs NRZI -to-NRZ decoding, descrambling as per SMPTE 259M-C, and word alignment when operating in SMPTE mode. When operating in DVB-ASI mode, the device will word align the data to K28.5 sync characters and 8b/10b decode the received stream. The integrated equalizer is optimized for 270Mb/s and can typically equalize up to 500m of Belden 1694A cable. Both the equalizer and the internal reclocker are fully compatible with both SMPTE and DVB-ASI input streams. The GS9091B includes a range of data processing functions such as EDH support (error detection and handling), and automatic standards detection. The device can also detect and extract SMPTE 352M payload identifier packets and independently identify the received video standard. This information is read from internal registers via the host interface port. The GS9091B also incorporates a video line-based FIFO. This FIFO may be used in four user-selectable modes to carry out tasks such as data alignment / delay, clock phase interchange, MPEG packet extraction and clock rate interchange, and ancillary data packet extraction. Parallel data outputs are provided in 10-bit multiplexed format, with the associated parallel clock output signal operating at 27MHz. The device may also be used in a low-latency data pass through mode where only descrambling and word alignment will be performed in SMPTE mode. www.semtech.com 1 of 73 Proprietary & Confidential Functional Block Diagram RD_CLK RD_RESET ASI sync detect Reclocker S->P SMPTE sync detect DDI Equalizer IOPROC_EN Programmable I/O LOCK detect pll_lock DDI STAT[3:0] FW_EN DVB_ASI AUTO/MAN SMPTE_BYPASS LOCKED PCLK LFLF+ LB_CONT EQ_BYPASS carrier_detect SMPTE Descramble, Word Alignment and Flywheel DVB-ASI Word Alignment and 8b/10b Decode Power On Reset DOUT[9:0] TRS Check CSUM Check ANC Data Detection TRS Correct CSUM Correct EDH Check & Correct Illegal Code Remap DATA_ERROR FIFO HOST Interface / JTAG test JTAG_EN CS_TMS SCLK_TCK SDIN_TDI SDOUT_TDO RESET GS9091B Functional Block Diagram GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 2 of 73 Proprietary & Confidential Revision History Version ECO PCN Date Changes and/or Modifications 3 011367 - February 2013 Updated to the Semtech template. 2 150199 50711 July 2008 DVB_ASI operation specification change in Auto mode. 1 144807 - April 2007 Converting to Data Sheet. Modified Electrical Characteristics. 0 139930 - November 2006 New Document. Contents Key Features ........................................................................................................................................................1 Applications.........................................................................................................................................................1 Description...........................................................................................................................................................1 Functional Block Diagram ..............................................................................................................................2 Revision History .................................................................................................................................................3 1. Pin Out...............................................................................................................................................................5 1.1 Pin Assignment ..................................................................................................................................5 2. Electrical Characteristics ......................................................................................................................... 12 2.1 DC Electrical Characteristics ..................................................................................................... 12 2.2 AC Electrical Characteristics ..................................................................................................... 14 2.3 Solder Reflow Profiles .................................................................................................................. 16 2.4 Host Interface Map ........................................................................................................................ 17 2.4.1 Host Interface Map (R/W registers) ............................................................................. 20 2.4.2 Host Interface Map (Read only registers) .................................................................. 23 3. Detailed Description.................................................................................................................................. 26 3.1 Functional Overview .................................................................................................................... 26 3.2 Cable Equalization ........................................................................................................................ 27 3.3 Clock and Data Recovery ............................................................................................................ 27 3.3.1 Internal VCO and Phase Detector................................................................................ 27 3.4 Serial-To-Parallel Conversion ................................................................................................... 27 3.5 Modes Of Operation ..................................................................................................................... 27 3.5.1 Lock Detect .......................................................................................................................... 28 3.5.2 Auto Mode............................................................................................................................ 29 3.5.3 Manual Mode ...................................................................................................................... 29 3.6 SMPTE Functionality .................................................................................................................... 30 3.6.1 SMPTE Descrambling and Word Alignment ............................................................ 30 3.6.2 Internal Flywheel .............................................................................................................. 30 3.6.3 Switch Line Lock Handling............................................................................................. 31 3.6.4 HVF Timing Signal Generation ..................................................................................... 32 3.7 DVB-ASI Functionality ................................................................................................................ 33 3.7.1 DVB-ASI 8b/10b Decoding............................................................................................. 34 GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 3 of 73 Proprietary & Confidential 3.7.2 Status Signal Outputs ....................................................................................................... 34 3.8 Data-Through Functionality ...................................................................................................... 34 3.9 Additional Processing Features ................................................................................................ 35 3.9.1 FIFO Load Pulse ................................................................................................................. 35 3.9.2 Ancillary Data Detection and Indication................................................................... 36 3.9.3 EDH Packet Detection...................................................................................................... 37 3.9.4 EDH Flag Detection........................................................................................................... 38 3.9.5 SMPTE 352M Payload Identifier................................................................................... 41 3.9.6 Automatic Video Standard and Data Format Detection ...................................... 42 3.9.7 Error Detection and Indication ..................................................................................... 43 3.9.8 Additional SMPTE Mode Processing ........................................................................... 48 3.10 Internal FIFO Operation ........................................................................................................... 51 3.10.1 Video Mode ....................................................................................................................... 51 3.10.2 DVB-ASI Mode ................................................................................................................. 53 3.10.3 Ancillary Data Extraction Mode ................................................................................ 56 3.10.4 Bypass Mode..................................................................................................................... 58 3.11 Parallel Data Outputs ................................................................................................................. 59 3.11.1 Parallel Data Bus Output Buffers............................................................................... 59 3.11.2 Parallel Output in SMPTE Mode................................................................................. 60 3.11.3 Parallel Output in DVB-ASI Mode............................................................................. 60 3.11.4 Parallel Output in Data-Through Mode................................................................... 60 3.12 Programmable Multi-Function Outputs .............................................................................. 60 3.13 GS9091B Low-latency Mode ................................................................................................... 62 3.14 GSPI Host Interface ..................................................................................................................... 63 3.14.1 Command Word Description ...................................................................................... 63 3.14.2 Data Read and Write Timing ....................................................................................... 64 3.14.3 Configuration and Status Registers........................................................................... 66 3.15 JTAG operation ............................................................................................................................ 67 3.16 Device Power Up ......................................................................................................................... 68 4. References & Relevant Standards ......................................................................................................... 69 5. Application Information .......................................................................................................................... 70 5.1 Typical Application Circuit ........................................................................................................ 70 6. Package & Ordering Information .......................................................................................................... 71 6.1 Package Dimensions ..................................................................................................................... 71 6.2 Packaging Data ............................................................................................................................... 72 6.3 Marking Diagram ........................................................................................................................... 72 6.4 Ordering Information ................................................................................................................... 72 GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 4 of 73 Proprietary & Confidential 1. Pin Out 1.1 Pin Assignment 1 2 3 4 5 6 7 8 9 10 A LF+ NC LB_ CONT VCO_ VDD VBG FIFO_EN AUTO/ MAN LOCKED PCLK DOUT9 B LF- PLL_ VDD PLL_ GND VCO_ GND NC FW_EN CORE _VDD SMPTE_ DVB_ASI BYPASS DOUT8 C ANA_ VDD ANA_ VDD NC NC NC NC NC IO_VDD NC DOUT7 D ANA_ GND ANA_ GND NC CORE _GND CORE _GND IO_GND IO_GND NC NC DOUT6 E EQ_GND TERM NC CORE _GND CORE _GND IO_GND IO_GND NC IO_VDD DOUT5 F SDI HEAT_ SINK_ GND HEAT_ SINK_ GND CORE _GND CORE _GND IO_GND IO_GND NC IO_VDD DOUT4 G SDI HEAT_ SINK_ GND HEAT_ SINK_ GND CORE _GND CORE _GND IO_GND IO_GND NC NC DOUT3 H EQ_VDD HEAT_ SINK_ GND HEAT_ SINK_ GND NC NC NC NC IO_VDD RD_ RESET DOUT2 J AGC+ EQ_ JTAG_EN BYPASS CS_ TMS SDOUT _TDO CORE _VDD DATA_ ERROR STAT2 STAT3 DOUT1 K AGC- IOPROC _EN RESET SCLK _TCK SDIN _TDI STAT0 STAT1 RD_CLK DOUT0 NC Figure 1-1: Pin Assignment GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 5 of 73 Proprietary & Confidential Table 1-1: Ball List and Description Ball Name Timing Type Description A1 LF+ Analog Input Loop filter component connection. Connect to LF- through a 4.4nF capacitor. A2, B5, C3, C4, C5, C6, C7, C9, D3, D8, D9, E3, E8, F8, G8, G9, H4, H5, H6, H7, K2 NC - - No connect. Not connected internally. A3 LB_CONT Analog Input A4 VCO_VDD Analog Input Power Power supply connection for Voltage-Controlled-Oscillator. Connect to +1.8V DC. A5 VBG Analog Input Bandgap filter capacitor. Connect to GND as shown in Typical Application Circuit. CONTROL SIGNAL INPUT Control voltage to fine-tune the loop bandwidth of the PLL. CONTOL SIGNAL INPUT Signal levels are LVCMOS / LVTTL compatible. Used to enable / disable the internal FIFO. A6 FIFO_EN Non Synchronous Input When FIFO_EN is HIGH, the internal FIFO will be enabled. Data will be clocked out of the device on the rising edge of the RD_CLK input pin if the FIFO is in video mode or DVB-ASI mode. When FIFO_EN is LOW, the internal FIFO is bypassed and parallel data is clocked out on the rising edge of the PCLK output. CONTROL SIGNAL INPUT Signal levels are LVCMOS / LVTTL compatible. A7 AUTO/MAN Non Synchronous Input When set HIGH, the GS9091B will operate in Auto mode. The SMPTE_BYPASS pin becomes an output status signal set by the device. In this mode, the GS9091B will automatically detect, reclock, deserialize, and process SMPTE compliant input data. When set LOW, the GS9091B will operate in Manual mode. The DVB_ASI and SMPTE_BYPASS pins become input control signals. In this mode, the application layer must set these two external pins for the correct reception of either SMPTE or DVB-ASI data. Manual mode also supports the reclocking and deserializing of data not conforming to SMPTE or DVB-ASI streams. STATUS SIGNAL OUTPUT Signal levels are LVCMOS / LVTTL compatible. A8 LOCKED Synchronous with PCLK Output The LOCKED pin will be HIGH whenever the device has correctly received and locked to SMPTE compliant data in SMPTE mode or DVB-ASI compliant data in DVB-ASI mode, or when the reclocker has achieved lock in Data-Through mode. It will be LOW otherwise. When the pin is LOW, all digital output signals will be forced to logic LOW levels. A9 PCLK - Output PIXEL CLOCK OUTPUT Signal levels are LVCMOS / LVTTL compatible. 27MHz parallel clock output. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 6 of 73 Proprietary & Confidential Table 1-1: Ball List and Description (Continued) Ball Name Timing Type Description PARALLEL VIDEO DATA BUS Signal levels are LVCMOS / LVTTL compatible. A10, B10, C10, D10, E10, F10, G10, H10, J10, K10 DOUT[9:0] Synchronous with RD_CLK or PCLK Output When the internal FIFO is enabled and configured for either video mode or DVB-ASI mode, parallel data will be clocked out of the device on the rising edge of RD_CLK. When the internal FIFO is in bypass mode, parallel data will be clocked out of the device on the rising edge of PCLK. DOUT9 is the MSB and DOUT0 is the LSB. B1 LF- Analog B2 PLL_VDD Analog B3 PLL_GND Analog B4 VCO_GND Analog Input Input Power Input Power Input Power Loop filter component connection. Connect to LF+ through a 4.4nF capacitor. Power supply connection for phase-locked loop. Connect to +1.8V DC. Ground connection for phase-locked loop. Connect to GND. Ground connection for Voltage-Controlled-Oscillator. Connect to GND. CONTOL SIGNAL INPUT Signal levels are LVCMOS / LVTTL compatible. Used to enable or disable the noise immune flywheel of the device. B6 FW_EN Non Synchronous Input When set HIGH, the internal flywheel is enabled. This flywheel is used in the extraction of timing signals, the generation of TRS signals, the automatic detection of video standards, and in manual switch line lock handling. When set LOW, the internal flywheel is disabled. Timing based TRS errors will not be detected. B7, J6 CORE_VDD Non Synchronous Input Power Power supply for digital logic blocks. Connect to +1.8V DC. CONTROL SIGNAL INPUT / STATUS SIGNAL OUTPUT Signal levels are LVCMOS / LVTTL compatible. This pin is an input set by the application layer in Manual mode, and an output set by the device in Auto mode. B8 SMPTE_BYPASS Non Synchronous Input / Output Auto Mode (AUTO/MAN = HIGH): The SMPTE_BYPASS pin will be HIGH only when the device has locked to a SMPTE compliant data stream. It will be LOW otherwise. When the pin is LOW, no I/O processing features are available. Manual Mode (AUTO/MAN = LOW): When the application layer sets this pin HIGH in conjunction with DVB_ASI = LOW, the device will be configured to operate in SMPTE mode. All I/O processing features may be enabled in this mode. When SMPTE_BYPASS is set LOW, the device will not support the descrambling, decoding, or word alignment of received SMPTE data. No I/O processing features will be available. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 7 of 73 Proprietary & Confidential Table 1-1: Ball List and Description (Continued) Ball Name Timing Type Description CONTROL SIGNAL INPUT / STATUS SIGNAL OUTPUT Signal levels are LVCMOS / LVTTL compatible. B9 DVB_ASI Non Synchronous Input / Output This pin and its function are only supported in Manual mode (AUTO/MAN = LOW). When the application layer sets this pin HIGH, the device will be configured to operate in DVB-ASI mode. The SMPTE_BYPASS pin will be ignored. When set LOW, the device will not support the decoding or word alignment of received DVB-ASI data. C1, C2 ANA_VDD Analog IO_VDD Non Synchronous Input Power Power supply connection for analog core. Connect to +3.3V DC. Power supply for digital I/O. C8, E9, F9, H8 Input Power For a 3.3V tolerant I/O, connect pins to either +1.8V DC or +3.3V DC. For a 5V tolerant I/O, connect pins to a +3.3V DC. Input Power Ground connection for analog core. Connect to GND. D1, D2 ANA_GND Analog D4, D5, E4, E5, F4, F5, G4, G5 CORE_GND Non Synchronous Input D6, D7, E6, E7, F6, F7, G6, G7 IO_GND Non Synchronous Input Power Ground connection for digital I/O. Connect to GND. E1 EQ_GND Analog Input Power Ground connection for equalizer core. Connect to GND. E2 TERM Analog Input Termination for serial digital input. AC couple to ANA_GND SDI, SDI Analog Input Serial digital differential input pair. HEAT_SINK_GND Analog Input Power Heat sink connection. Connect to main ground plane of application board. EQ_VDD Analog Input Power Power supply connection for equalizer core. Connect to +3.3V DC. F1, G1 F2, F3, G2, G3, H2, H3 H1 Power Ground connection for digital logic blocks. Connect to GND. FIFO READ RESET Signal levels are LVCMOS / LVTTL compatible. H9 RD_RESET Synchronous with RD_CLK Input Valid input only when the device is in SMPTE mode (SMPTE_BYPASS = HIGH and DVB-ASI = LOW), and the internal FIFO is configured for video mode (Section 3.10.1). A HIGH to LOW transition will reset the FIFO pointer to address zero of the memory. J1, K1 AGC+, AGC- Analog Input External AGC capacitor connection. Connect J1 and K1 together through a 1uF capacitor. CONTOL SIGNAL INPUT Signal levels are 3.3V CMOS / LVTTL compatible. J2 EQ_BYPASS Analog Input Equalizer bypass. When EQ_BYPASS is HIGH, the equalizer stages are bypassed. When EQ_BYPASS is LOW, normal operation of the equalizer stages resumes. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 8 of 73 Proprietary & Confidential Table 1-1: Ball List and Description (Continued) Ball Name Timing Type Description CONTROL SIGNAL INPUT Signal levels are LVCMOS / LVTTL compatible. J3 JTAG_EN Non Synchronous Used to select JTAG Test Mode or Host Interface Mode. Input When set HIGH, CS_TMS, SCLK_TCK, SDOUT_TDO, and SDIN_TDI are configured for JTAG boundary scan testing. When set LOW, CS_TMS, SCLK_TCK, SDOUT_TDO, and SDIN_TDI are configured as GSPI pins for normal host interface operation. CONTROL SIGNAL INPUT Signal levels are LVCMOS / LVTTL compatible. Chip Select / Test Mode Select J4 CS_TMS Synchronous with SCLK_TCK Input Host Mode (JTAG_EN = LOW): CS_TMS operates as the host interface chip select, CS, and is active LOW. JTAG Test Mode (JTAG_EN = HIGH): CS_TMS operates as the JTAG test mode select, TMS, and is active HIGH. CONTROL SIGNAL INPUT Signal levels are LVCMOS / LVTTL compatible. Serial Data Output / Test Data Output J5 SDOUT_TDO Synchronous with SCLK_TCK Output Host Mode (JTAG_EN = LOW): SDOUT_TDO operates as the host interface serial output, SDOUT, used to read status and configuration information from the internal registers of the device. JTAG Test Mode (JTAG_EN = HIGH): SDOUT_TDO operates as the JTAG test data output, TDO. STATUS SIGNAL OUTPUT. Signal levels are LVCMOS / LVTTL compatible. The DATA_ERROR pin will be LOW when an error within the received data stream has been detected by the device. This pin is an inverted logical OR-ing of all detectable errors listed in the internal ERROR_STATUS register. J7 DATA_ERROR Synchronous with PCLK Output Once an error is detected, DATA_ERROR will remain LOW until the start of the next video frame / field, or until the ERROR_STATUS register is read via the host interface. The DATA_ERROR pin will be HIGH when the received data stream has been detected without error. NOTE: It is possible to program which error conditions are monitored by the device by setting appropriate bits in the ERROR_MASK register HIGH. All error conditions are detected by default. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 9 of 73 Proprietary & Confidential Table 1-1: Ball List and Description (Continued) Ball Name Timing Type Description CONTROL SIGNAL INPUT Signal Levels are LVCMOS / LVTTL compatible. Used to enable or disable the I/O processing features. When set HIGH, the following I/O processing features of the device are enabled: * Illegal Code Remapping * EDH CRC Error Correction K3 IOPROC_EN Non Synchronous * Ancillary Data Checksum Error Correction Input * TRS Error Correction * EDH Flag Detection To enable a subset of these features, keep IOPROC_EN HIGH and disable the individual feature(s) in the IOPROC_DISABLE register accessible via the host interface. When set LOW, the device will enter low-latency mode. NOTE: When the internal FIFO is configured for Video mode or Ancillary Data Extraction mode, IOPROC_EN must be set HIGH (see Section 3.10). CONTROL SIGNAL INPUT Signal levels are LVCMOS / LVTTL compatible. Used to reset the internal operating conditions to default setting or to reset the JTAG test sequence. K4 RESET Non Synchronous Input Host Mode (JTAG_EN = LOW): When asserted LOW, all functional blocks will be set to default conditions and all input and output signals become high impedance. When set HIGH, normal operation of the device resumes 10usec after the LOW-to-HIGH transition of the RESET signal. JTAG Test Mode (JTAG_EN = HIGH): When asserted LOW, all functional blocks will be set to default and the JTAG test sequence will be held in reset. When set HIGH, normal operation of the JTAG test sequence resumes. CONTROL SIGNAL INPUT Signal levels are LVCMOS / LVTTL compatible. K5 SCLK_TCK Non Synchronous Input Serial Data Clock / Test Clock. All JTAG / Host Interface address and data are shifted into/out of the device synchronously with this clock. Host Mode (JTAG_EN = LOW): SCLK_TCK operates as the host interface serial data clock, SCLK. JTAG Test Mode (JTAG_EN = HIGH): SCLK_TCK operates as the JTAG test clock, TCK. CONTROL SIGNAL INPUT Signal levels are LVCMOS / LVTTL compatible. Serial Data Input / Test Data Input K6 SDIN_TDI Synchronous with SCLK_TCK Input Host Mode (JTAG_EN = LOW): SDIN_TDI operates as the host interface serial input, SDIN, used to write address and configuration information to the internal registers of the device. JTAG Test Mode (JTAG_EN = HIGH): SDIN_TDI operates as the JTAG test data input, TDI. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 10 of 73 Proprietary & Confidential Table 1-1: Ball List and Description (Continued) Ball Name Timing Type Description MULTI FUNCTION I/O PORT Signal levels are LVCMOS / LVTTL compatible. Programmable multi-function outputs. By programming the bits is the IO_CONFIG register, each pin can output one of the following signals: * H * V K7, K8, J8, J9 STAT[0:3] Synchronous with PCLK or RD_CLK * F Output * FIFO_LD * ANC * EDH_DETECT * FIFO_FULL * FIFO_EMPTY These pins are set to certain default values depending on the configuration of the device and the internal FIFO mode selected. See Section 3.12 for details. K9 RD_CLK - GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 Input FIFO READ CLOCK Signal levels are LVCMOS / LVTTL compatible. The application layer clocks the parallel data out of the FIFO on the rising edge of RD_CLK. 11 of 73 Proprietary & Confidential 2. Electrical Characteristics Table 2-1: Absolute Maximum Ratings Parameter Value/Units Supply Voltage Core -0.3V to +2.1V Supply Voltage I/O -0.3V to +3.47V Input Voltage Range (LF+, LF-, LB_CONT, VBG) -0.5V to +2.3V Input Voltage Range (SDI, SDI, AGC+, AGC-, EQ_BYPASS) -0.5V to +3.6V Input Voltage Range (All Other) -0.5V to +5.25V Ambient Operating Temperature -20C < TA < 85C Storage Temperature -40C < TSTG < 125C ESD protection on all pins (see Note 1) 1kV Notes: 1. MIL STD 883 ESD protection will be applied to all pins on the device. 2. Absolute Maximum Ratings are those values beyond which damage to the device may occur. Functional operation under these conditions or at any other condition beyond those indicated in the AC/DC Electrical Characteristic sections is not implied. 2.1 DC Electrical Characteristics Table 2-2: DC Electrical Characteristics VDD = 1.8V 5%, 3.3V 5%; TA = 0C to 70C, unless otherwise specified. Typical values: VCC = 1.8V, 3.3V and TA =25C Parameter Symbol Condition Min Typ Max Units Notes System Operating Temperature Range TA - 0 25 70 C 1 Core Power Supply Voltage CORE_VDD - 1.71 1.8 1.89 V - Analog Core Power Supply Voltage ANA_VDD - 3.13 3.3 3.47 V - Digital I/O Buffer Power Supply Voltage IO_VDD 1.8V Operation 1.71 1.8 1.89 V - IO_VDD 3.3V Operation 3.13 3.3 3.47 V - PLL Power Supply Voltage PLL_VDD - 1.71 1.8 1.89 V - VCO Power Supply Voltage VCO_VDD - 1.71 1.8 1.89 V - Equalizer Power Supply Voltage EQ_VDD - 3.13 3.3 3.47 V - Total 1.8V Supply - 64 80 mA 2 Core Supply Current IDD Total 3.3V Supply - 69 92 mA 3 GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 12 of 73 Proprietary & Confidential Table 2-2: DC Electrical Characteristics (Continued) VDD = 1.8V 5%, 3.3V 5%; TA = 0C to 70C, unless otherwise specified. Typical values: VCC = 1.8V, 3.3V and TA =25C Parameter I/O Supply Current Power Dissipation Symbol Condition Min Typ Max Units Notes I/O Supply, 1.8V Operation - 4.5 8 mA 4 I/O Supply, 3.3V Operation - 8.5 14 mA 4 CORE_VDD = 1.8V IO_VDD = 1.8V - 350 - mW - CORE_VDD = 1.89V IO_VDD = 3.47V - - 490 mW - IIO PD Digital I/O Input Voltage, Logic LOW VIL 1.8V Operation or 3.3V Operation - - 0.35 x IO_VDD V - Input Voltage, Logic HIGH VIH 1.8V Operation or 3.3V Operation 0.65 x IO_VDD - - V - Output Voltage, Logic LOW VOL IOL = 8mA @ 3.3V, 4mA @ 1.8V - - 0.4 V - VOH IOL = -8mA @ 3.3V, -4mA @ 1.8V IO_VDD - 0.4 - - V - VIL Logic LOW - - 0.8 V - VIH Logic HIGH 2.4 - - V - Input Common Mode Voltage VCMIN TA = 25C - 1.75 - V - Input Resistance - single ended - 1.64 - k - Output Voltage, Logic HIGH EQ_BYPASS Input Voltage Serial Digital Inputs Notes: 1. 2. 3. 4. All DC and AC electrical parameters within specification. Maximum supply current at TA = 0C and VDD = 1.89V supply. Maximum supply current at TA = 75C and VDD = 3.47V supply. I/O currents are based on output drivers driving one CMOS load. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 13 of 73 Proprietary & Confidential 2.2 AC Electrical Characteristics Table 2-3: AC Electrical Characteristics VDD = 1.8V 5%, 3.3V 5%; TA = 0C to 70C, unless otherwise specified. Typical values: VCC = 1.8V, 3.3V and TA =25C Parameter Symbol Condition Min Typ Max Units Notes Input Voltage Swing VSDI TA =25C, differential 720 800 950 mVp-p 1 Lock Time (Asynchronous Switch) tLOCK TA =25C, 500m of Belden 1694A - 560 - us 2 Serial Input Data Rate DRSDI - - 270 - Mb/s - 204 byte mode - - 213.9 Mb/s 3,5 DVB-ASI Payload Data Rate DRASI 188 byte mode - - 213.7 Mb/s 4,5 - 500 - m - 15 - - dB 6 System Serial Digital Input Achievable Cable Length - Belden 1694A Cable 270MHz Input Return Loss - - Input Capacitance - single ended - 1 - pF - Parallel Output Clock Frequency fPCLK - - 27 - MHz - Parallel Output Clock Duty Cycle DCPCLK - 40 - 60 % - Variation of Parallel Output Clock (from 27MHz) - -7 - +7 % 7 Output Data Hold Time tOH With 15pF load 3.0 - - ns 8 Output Delay Time tOD With 15pF load - - 10.0 ns 8 GSPI Input Clock Frequency fGSPI - - - 54.0 MHz - GSPI Clock Duty Cycle DCGSPI - 40 - 60 % - GSPI Setup Time tGS - 1.5 - - ns - Parallel Output Device Unlocked TA = 5C to 45C GSPI GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 14 of 73 Proprietary & Confidential Table 2-3: AC Electrical Characteristics (Continued) VDD = 1.8V 5%, 3.3V 5%; TA = 0C to 70C, unless otherwise specified. Typical values: VCC = 1.8V, 3.3V and TA =25C Parameter Symbol Condition GSPI Hold Time tGH - Min Typ Max Units Notes 1.5 - - ns - Notes: 1. 0m cable length. 2. Time from input no-data to data switch and LOCKED pin set HIGH. 3. Transmission format includes 204 byte data packets preceded by two K28.5 synchronization characters. Payload data rate excludes the two K28.5 synchronization characters. 4. Transmission format includes 188 byte data packets preceded by two K28.5 synchronization characters. Payload data rate excludes the two K28.5 synchronization characters. 5. Maximum payload is achieved via data packet mode, however, any combination of burst and packet mode is supported as long as each byte or packet is preceded by two K28.5 characters. 6. 5MHz to 270MHz. 7. When the serial input to the GS9091B is removed, the PCLK output signal will continue to operate at 27MHz and the internal VCO will remain at this frequency within +/-7% over the range 5oC to 45oC. Over the full operating temperature range (0oC to 70oC), the VCO may deviate from 27MHz up to +/-13%. 8. Timing includes the following outputs: DOUT[9:0], H, V, F, ANC, EDH_DETECT, FIFO_FULL, FIFO_EMPTY, FIFO_LD, WORDERR, SYNCOUT. When the FIFO is enabled, the outputs are measured with respect to RD_CLK. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 15 of 73 Proprietary & Confidential 2.3 Solder Reflow Profiles The device is manufactured with Matte-Sn terminations and is compatible with both standard eutectic and Pb-free solder reflow profiles. MSL qualification was performed using the maximum Pb-free reflow profile shown in Figure 2-1. The recommended standard eutectic reflow profile is shown in Figure 2-2. Temperature 60-150 sec. 20-40 sec. 260C 250C 3C/sec max 217C 6C/sec max 200C 150C 25C Time 60-180 sec. max 8 min. max Figure 2-1: Maximum Pb-free Solder Reflow Profile (Preferred) 60-150 sec. Temperature 10-20 sec. 230C 220C 3C/sec max 183C 6C/sec max 150C 100C 25C Time 120 sec. max 6 min. max Figure 2-2: Standard Eutectic Solder Reflow Profile GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 16 of 73 Proprietary & Confidential 28h FIFO_LD_POSITION[12:0] 24h 23h 22h 21h 20h 1Fh 1Eh 1Dh 1Ch 1Bh FF_PIXEL_END_F1[12:0] FF_PIXEL_START_F1[12:0] FF_PIXEL_END_F0[12:0] FF_PIXEL_START_F0[12:0] AP_PIXEL_END_F1[12:0] AP_PIXEL_START_F1[12:0] AP_PIXEL_END_F0[12:0] AP_PIXEL_START_F0[12:0] FF_LINE_END_F1[10:0] FF_LINE_START_F1[10:0] Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used 14 15 GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 25h ERROR_MASK_REGISTER 26h 27h Addres s Register Name Table 2-4: Host Interface Map 2.4 Host Interface Map Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used 13 Not Used Not Used b12 b12 b12 b12 b12 b12 b12 b12 Not Used b12 12 Not Used Not Used b11 b11 b11 b11 b11 b11 b11 b11 Not Used b11 11 b10 b10 b10 b10 b10 b10 b10 b10 b10 b10 Not Used b10 10 b9 b9 b9 b9 b9 b9 b9 b9 b9 b9 Not Used b9 9 b8 b8 b8 b8 b8 b8 b8 b8 b8 b8 Not Used b8 8 b7 b7 b7 b7 b7 b7 b7 b7 b7 b7 Not Used b7 7 b6 b6 b6 b6 b6 b6 b6 b6 b6 b6 VD_STD _ ERR_ MASK b6 6 b5 b5 b5 b5 b5 b5 b5 b5 b5 b5 FF_CRC_ ERR_ MASK b5 5 b4 b4 b4 b4 b4 b4 b4 b4 b4 b4 AP_CRC _ ERR_ MASK b4 4 b2 b2 b2 b2 b2 b2 b2 b2 b2 b2 CCS_ER R_MASK b2 2 b0 0 b0 b0 b0 b0 b0 b0 b0 b0 b0 b0 EAV_ER R_MASK 17 of 73 b1 b1 b1 b1 b1 b1 b1 b1 b1 b1 SAV_ER R_MASK b1 1 Proprietary & Confidential b3 b3 b3 b3 b3 b3 b3 b3 b3 b3 LOCK_ ERR_ MASK b3 3 1Ah 19h 18h 17h 16h 15h 14h 13h 12h 11h 10h 0Fh 0Eh 0Dh 0Ch 0Bh 0Ah 09h FF_LINE_END_F0[10:0] FF_LINE_START_F0[10:0] AP_LINE_END_F1[10:0] AP_LINE_START_F1[10:0] AP_LINE_END_F0[10:0] AP_LINE_START_F0[10:0] RASTER_STRUCTURE4[10:0] RASTER_STRUCTURE3[12:0] RASTER_STRUCTURE2[12:0] RASTER_STRUCTURE1[10:0] VIDEO_FORMAT_OUT_B(4,3) VIDEO_FORMAT_OUT_A(2,1) ANC_TYPE(5)[15:0] ANC_TYPE(4)[15:0] ANC_TYPE(3)[15:0] ANC_TYPE(2)[15:0] ANC_TYPE(1)[15:0] ANC_LINE_B[10:0] Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used VFO4-b 6 VFO2-b 6 Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used VFO4-b 7 VFO2-b 7 b14 Not Used Not Used b14 b14 b14 b15 b15 b15 b15 b14 Not Used Not Used b15 14 15 GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 Addres s Register Name Table 2-4: Host Interface Map (Continued) Not Used b13 Not Used b12 b12 b12 b13 b13 b12 b12 VFO2-b 4 VFO4-b 4 Not Used b12 b12 Not Used Not Used Not Used Not Used Not Used Not Used Not Used 12 b13 b13 VFO2-b 5 VFO4-b 5 Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used 13 Not Used b11 b11 b11 b11 b11 VFO2-b 3 VFO4-b 3 Not Used b11 b11 Not Used Not Used Not Used Not Used Not Used Not Used Not Used 11 b10 b10 b10 b10 b10 b10 VFO2-b 2 VFO4-b 2 b10 b10 b10 b10 b10 b10 b10 b10 b10 b10 10 b9 b9 b9 b9 b9 b9 VFO2-b 1 VFO4-b 1 b9 b9 b9 b9 b9 b9 b9 b9 b9 b9 9 b8 b8 b8 b8 b8 b8 VFO2-b 0 VFO4-b 0 b8 b8 b8 b8 b8 b8 b8 b8 b8 b8 8 b7 b7 b7 b7 b7 b7 VFO1-b 7 VFO3-b 7 b7 b7 b7 b7 b7 b7 b7 b7 b7 b7 7 b6 b6 b6 b6 b6 b6 VFO1-b 6 VFO3-b 6 b6 b6 b6 b6 b6 b6 b6 b6 b6 b6 6 b5 b5 b5 b5 b5 b5 VFO1-b 5 VFO3-b 5 b5 b5 b5 b5 b5 b5 b5 b5 b5 b5 5 b4 b4 b4 b4 b4 b4 VFO1-b 4 VFO3-b 4 b4 b4 b4 b4 b4 b4 b4 b4 b4 b4 4 b2 b2 b2 b2 b2 b2 VFO1-b 2 VFO3-b 2 b2 b2 b2 b2 b2 b2 b2 b2 b2 b2 2 b0 b0 b0 b0 b0 b0 b0 b0 b0 b0 0 b0 b0 b0 b0 b0 b0 VFO1-b 0 VFO3-b 0 18 of 73 b1 b1 b1 b1 b1 b1 VFO1-b 1 VFO3-b 1 b1 b1 b1 b1 b1 b1 b1 b1 b1 b1 1 Proprietary & Confidential b3 b3 b3 b3 b3 b3 VFO1-b 3 VFO3-b 3 b3 b3 b3 b3 b3 b3 b3 b3 b3 b3 3 08h 07h 06h 05h 04h 03h 02h 01h 00h ANC_LINE_A[10:0] FIFO_FULL_OFFSET FIFO_EMPTY_OFFSET IO_CONFIG DATA_FORMAT EDH_FLAG_OUT EDH_FLAG_IN ERROR_STATUS IOPROC_DISABLE ANC-ID A ANC-ID A _IN Not Used Not Used Not Used Not Used ANC-UE S ANC-UE S _IN Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used ANC-ID H _IN ANC-ID H Not Used Not Used ANC-ED A _IN Not Used Not Used ANC-ED H _IN ANC-ED H AP_CRC _V EDH_ FLAG_ UPDATE ANC-ED A STAT3_ CONFIG b1 STAT3_ CONFIG b2 ANC_ DATA_ SWITCH Not Used Not Used ANC_ DATA_ DELETE Not Used b10 10 Not Used Not Used 11 Not Used Not Used Not Used 12 ANC_PK T_EXT Not Used FF-UES_I N FF-UES FF_CRC_ V STAT3_ CONFIG b0 b9 b9 b9 9 Not Used FIFO_ MODE b0 FIFO_ MODE b1 FF-IDH_I N FF-IDH VERSIO N_352M STAT2_ CONFIG b1 b7 b7 b7 7 Not Used FF-IDA_I N FF-IDA EDH_ DETECT STAT2_ CONFIG b2 b8 b8 b8 8 Not Used FF_CRC_ ERR VD_STD _ ERR H_ CONFIG FF-EDH_ IN FF-EDH Not Used STAT1_ CONFIG b2 b5 b5 b5 5 FF-EDA_ IN FF-EDA Not Used STAT2_ CONFIG b0 b6 b6 b6 6 Not Used AP_CRC _ ERR AP-UES_ IN AP-UES STD_ LOCK STAT1_ CONFIG b1 b4 b4 b4 4 EDH_CR C_INS CCS_ER R AP-IDH_ IN AP-IDH b0 b0 b0 0 TRS_IN EAV_ER R AP-EDH _IN AP-EDH DATA_ FORMA T b0 STAT0_ CONFIG b0 19 of 73 ANC_ CSUM_ INS SAV_ER R AP-EDA _IN AP-EDA DATA_ FORMA T b1 STAT0_ CONFIG b1 b1 b1 b1 1 Proprietary & Confidential ILLEGAL _REMAP LOCK_ ERR AP-IDA_ IN AP-IDA DATA_ FORMA T b2 DATA_ FORMA T b3 b2 b2 b2 2 STAT0_ CONFIG b2 b3 b3 b3 3 STAT1_ CONFIG b0 NOTE: Addresses 02Ch to 42Bh store the contents of the internal FIFO. The contents may be accessed in Ancillary Data Extraction mode (see Section 3.10.3). Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used Not Used 13 14 15 GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 Addres s Register Name Table 2-4: Host Interface Map (Continued) 28h FIFO_LD_POSITION[12:0] 24h 23h 22h 21h 20h 1Fh 1Eh 1Dh 1Ch 1Bh 1Ah 19h 18h 17h 16h 15h FF_PIXEL_END_F1[12:0] FF_PIXEL_START_F1[12:0] FF_PIXEL_END_F0[12:0] FF_PIXEL_START_F0[12:0] AP_PIXEL_END_F1[12:0] AP_PIXEL_START_F1[12:0] AP_PIXEL_END_F0[12:0] AP_PIXEL_START_F0[12:0] FF_LINE_END_F1[10:0] FF_LINE_START_F1[10:0] FF_LINE_END_F0[10:0] FF_LINE_START_F0[10:0] AP_LINE_END_F1[10:0] AP_LINE_START_F1[10:0] AP_LINE_END_F0[10:0] AP_LINE_START_F0[10:0] 15 14 GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 14h 25h ERROR_MASK_REGISTER 26h 27h Address Register Name 13 Table 2-5: Host Interface Map (R/W registers) b11 b11 b11 b11 b11 b11 b11 b11 b12 b12 b12 b12 b12 b12 b12 b11 b12 b12 11 12 2.4.1 Host Interface Map (R/W registers) b9 b9 b9 b9 b9 b9 b9 b9 b9 b10 b10 b10 b10 b10 b10 b10 b10 b9 b9 b9 b9 b9 b9 b9 b9 9 b10 b10 b10 b10 b10 b10 b10 b10 b10 10 b8 b8 b8 b8 b8 b8 b8 b8 b8 b8 b8 b8 b8 b8 b8 b8 b8 8 b7 b7 b7 b7 b7 b7 b7 b7 b7 b7 b7 b7 b7 b7 b7 b7 b7 7 b6 b6 b6 b6 b6 b6 b6 b6 b6 b6 b6 b6 b6 b6 b6 b6 VD_STD _ ERR_ MASK b6 6 b5 b5 b5 b5 b5 b5 b5 b5 b5 b5 b5 b5 b5 b5 b5 b5 FF_CRC_ ERR_ MASK b5 5 b4 b4 b4 b4 b4 b4 b4 b4 b4 b4 b4 b4 b4 b4 b4 b4 AP_CRC _ ERR_ MASK b4 4 b2 b2 b2 b2 b2 b2 b2 b2 b2 b2 b2 b2 b2 b2 b2 b2 CCS_ER R_MASK b2 2 b0 0 b0 b0 b0 b0 b0 b0 b0 b0 b0 b0 b0 b0 b0 b0 b0 b0 EAV_ER R_MASK 20 of 73 b1 b1 b1 b1 b1 b1 b1 b1 b1 b1 b1 b1 b1 b1 b1 b1 SAV_ER R_MASK b1 1 Proprietary & Confidential b3 b3 b3 b3 b3 b3 b3 b3 b3 b3 b3 b3 b3 b3 b3 b3 LOCK_ ERR_ MASK b3 3 0Dh 0Ch 0Bh 0Ah 09h 08h 07h 06h 05h 04h ANC_TYPE(4)[15:0] ANC_TYPE(3)[15:0] ANC_TYPE(2)[15:0] ANC_TYPE(1)[15:0] ANC_LINE_B[10:0] ANC_LINE_A[10:0] FIFO_FULL_OFFSET FIFO_EMPTY_OFFSET IO_CONFIG DATA_FORMAT b15 b15 b15 b15 b15 15 b14 b14 b14 b14 b14 14 GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 01h 02h 03h 0Eh 0Fh 10h 11h 12h 13h Address ANC_TYPE(5)[15:0] Register Name b13 b13 b13 b13 b13 13 ANC_ DATA_ SWITCH b12 b12 b12 b12 b12 12 b11 b11 b11 b11 b11 11 EDH_ FLAG_ UPDATE STAT3_ CONFIG b2 ANC_ DATA_ DELETE Table 2-5: Host Interface Map (R/W registers) (Continued) STAT3_ CONFIG b1 b8 b9 STAT3_ CONFIG b0 b9 b8 b9 b10 STAT2_ CONFIG b2 b8 b8 b9 b10 b8 b8 b8 b8 b8 8 b9 b9 b9 b9 b9 9 b10 b10 b10 b10 b10 10 STAT2_ CONFIG b1 b7 b7 b7 b7 b7 b7 b7 b7 b7 7 STAT2_ CONFIG b0 b6 b6 b6 b6 b6 b6 b6 b6 b6 6 STAT1_ CONFIG b2 b5 b5 b5 b5 b5 b5 b5 b5 b5 5 STAT1_ CONFIG b1 b4 b4 b4 b4 b4 b4 b4 b4 b4 4 STAT0_ CONFIG b2 b2 b2 b2 b2 b2 b0 b0 b0 b0 b0 b0 b0 b0 b0 0 STAT0_ CONFIG b0 21 of 73 STAT0_ CONFIG b1 b1 b1 b1 b1 b1 b1 b1 b2 b2 b1 b1 1 b2 b2 2 Proprietary & Confidential STAT1_ CONFIG b0 b3 b3 b3 b3 b3 b3 b3 b3 b3 3 00h IOPROC_DISABLE 14 13 12 11 10 7 FIFO_ MODE b0 8 FIFO_ MODE b1 9 ANC_PK T_EXT H_ CONFIG 6 5 4 3 EDH_CR C_INS 2 0 TRS_IN 22 of 73 ANC_ CSUM_ INS 1 Proprietary & Confidential ILLEGAL _REMAP NOTE: Addresses 02Ch to 42Bh store the contents of the internal FIFO. The contents may be accessed in Ancillary Data Extraction mode (see Section 3.10.3). 15 GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 Address Register Name Table 2-5: Host Interface Map (R/W registers) (Continued) 13h RASTER_STRUCTURE3[12:0] 15 14 GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 14h 15h 16h 17h 18h 19h 1Ah 1Bh 1Ch 1Dh 1Eh 1Fh 20h 21h 22h 23h 24h 25h 26h 27h 28h Address RASTER_STRUCTURE4[10:0] Register Name 13 Table 2-6: Host Interface Map (Read only registers) b12 12 b11 11 2.4.2 Host Interface Map (Read only registers) b10 b10 10 b9 b9 9 b8 b8 8 b7 b7 7 b6 b6 6 b5 b5 5 b4 b4 4 b2 b2 2 23 of 73 b1 b1 1 Proprietary & Confidential b3 b3 3 b0 b0 0 12h 11h 10h 0Fh RASTER_STRUCTURE2[12:0] RASTER_STRUCTURE1[10:0] VIDEO_FORMAT_OUT_B(4,3) VIDEO_FORMAT_OUT_A(2,1) 03h 02h 01h EDH_FLAG_OUT EDH_FLAG_IN ERROR_STATUS ANC-ID A ANC-ID A _IN ANC-UE S _IN Not Used VFO2-b 5 ANC-UE S VFO2-b 6 VFO2-b 7 VFO4-b 5 13 Not Used VFO4-b 6 14 VFO4-b 7 15 GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 04h DATA_FORMAT 05h 06h 07h 08h 09h 0Ah 0Bh 0Ch 0Dh 0Eh Address Register Name ANC-ID H _IN ANC-ID H VFO2-b 4 VFO4-b 4 b12 12 ANC-ED A _IN ANC-ED A VFO2-b 3 VFO4-b 3 b11 11 Table 2-6: Host Interface Map (Read only registers) (Continued) ANC-ED H _IN ANC-ED H AP_CRC _V VFO2-b 2 FF-UES_I N FF-UES FF_CRC_ V VFO2-b 1 VFO4-b 1 b9 b10 VFO4-b 2 b9 9 b10 10 FF-IDA_I N FF-IDA EDH_ DETECT VFO2-b 0 VFO4-b 0 b8 b8 8 FF-IDH_I N FF-IDH VERSIO N_352M VFO1-b 7 VFO3-b 7 b7 b7 7 FF-EDH_ IN FF_CRC_ ERR VD_STD _ ERR FF-EDH VFO1-b 5 VFO3-b 5 b5 b5 5 FF-EDA_ IN FF-EDA VFO1-b 6 VFO3-b 6 b6 b6 6 AP_CRC _ ERR AP-UES_ IN AP-UES STD_ LOCK VFO1-b 4 VFO3-b 4 b4 b4 4 CCS_ER R AP-IDH_ IN AP-IDH DATA_ FORMA T b2 VFO1-b 2 VFO3-b 2 b2 b2 2 b0 b0 0 EAV_ER R AP-EDH _IN AP-EDH DATA_ FORMA T b0 VFO1-b 0 VFO3-b 0 24 of 73 SAV_ER R AP-EDA _IN AP-EDA DATA_ FORMA T b1 VFO1-b 1 VFO3-b 1 b1 b1 1 Proprietary & Confidential LOCK_ ERR AP-IDA_ IN AP-IDA DATA_ FORMA T b3 VFO1-b 3 VFO3-b 3 b3 b3 3 00h Address 14 13 12 11 10 9 8 7 6 5 4 NOTE: Addresses 02Ch to 42Bh store the contents of the internal FIFO. The contents may be accessed in Ancillary Data Extraction mode (see Section 3.10.3). 15 GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 Register Name Table 2-6: Host Interface Map (Read only registers) (Continued) 2 25 of 73 1 Proprietary & Confidential 3 0 3. Detailed Description * Functional Overview * Cable Equalization * Clock and Data Recovery * Serial-To-Parallel Conversion * Modes Of Operation * SMPTE Functionality * DVB-ASI Functionality * Data-Through Functionality * Additional Processing Features * Internal FIFO Operation * Parallel Data Outputs * Programmable Multi-Function Outputs * GS9091B Low-latency Mode * GSPI Host Interface * JTAG operation * Device Power Up 3.1 Functional Overview The GS9091B is a 270Mb/s equalizing and reclocking deserializer with an internal FIFO and programmable multi-function output port. The device has two basic modes of operation. In Auto mode, the GS9091B can automatically detect SMPTE data streams at its input. In Manual mode, the device can be set to process SMPTE or DVB/ASI data streams. The digital signal processing core handles ancillary data detection/indication, error detection and handling (EDH), SMPTE352M extraction, and automatic video standards detection. These features are all enabled by default, but may be individually disabled via internal registers accessible through the GSPI host interface. The provided programmable multi-function output pins may be configured to output various status signals including H, V, and F timing, ancillary data detection, EDH detection, and a FIFO load pulse. The internal FIFO supports 4 modes of operation, which may be used for data alignment, data delay, MPEG packet extraction, or ancillary data extraction. The GS9091B contains a JTAG interface for boundary scan test implementations. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 26 of 73 Proprietary & Confidential 3.2 Cable Equalization The input signal passes through a variable gain equalizing stage whose frequency response closely matches the inverse of the cable loss characteristic. The serial data signal may be connected to the input pins (SDI/SDI) in either a differential or single ended configuration. AC coupling of the inputs is recommended, as the SDI and SDI inputs are internally biased at approximately 1.8V. The cable equalization block is powered by the EQ_VDD and EQ_GND pins. The cable equalizer can be bypassed by setting the EQ_BYPASS pin HIGH. 3.3 Clock and Data Recovery The GS9091B contains an integrated clock and data recovery block. The function of this block is to lock to the input data stream, extract a clean clock, and retime the serial digital data to remove high frequency jitter. The operating centre frequency of the reclocker is 270Mb/s. 3.3.1 Internal VCO and Phase Detector The GS9091B uses an internal VCO and PFD as part of the reclocker's phase-locked loop. Each block requires a +1.8V DC power supply, which is supplied via the VCO_VDD / VCO_GND and PLL_VDD / PLL_GND pins. 3.4 Serial-To-Parallel Conversion The function of this block is to extract 10-bit parallel data words from the reclocked serial data stream and simultaneously present them to the SMPTE and DVB-ASI word alignment blocks. 3.5 Modes Of Operation The GS9091B has two basic modes of operation: Auto mode and Manual mode. Auto mode is enabled when AUTO/MAN is set HIGH, and Manual mode is enabled when AUTO/MAN is set LOW. As indicated in Figure 3-1. DVB_ASI and data through are only supported in Manual mode. In Auto mode (AUTO/MAN = HIGH), the GS9091B will automatically detect, equalize, reclock, deserialize, and process SMPTE 259M-C input data. In Manual mode (AUTO/MAN = LOW), the SMPTE_BYPASS and DVB_ASI pins must be set as per Table 3-2 for the correct reception of either SMPTE or DVB-ASI data. Manual mode also supports the equalizing, reclocking and deserializing of 270Mb/s data not conforming to SMPTE or DVB-ASI streams. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 27 of 73 Proprietary & Confidential Auto Mode (Section 3.6.2) SMPTE Functionality (section 3.7) GS9091 SMPTE Functionality (section 3.7) Manual Mode (Section 3.6.3) DVB-ASI Functionality (section 3.8) Data-Through Functionality (Section 3.9) Figure 3-1: GS9091B's Modes of Operation 3.5.1 Lock Detect Once the reclocker has locked to the received serial digital data stream, the lock detect block of the GS9091B searches for the appropriate sync words, and indicates via the LOCKED output pin when the device has successfully achieved lock. The LOCKED pin is designed to be stable. It will not toggle during the locking process, nor will it glitch during a SMPTE synchronous switch. The lock detection process is summarized in Figure 3-2. Power Up or RESET Valid Serial Digital Input? Device sets LOCKED pin LOW NO (Input data invalid) YES Device in Auto Mode? YES (Section 3.6.2) Internal reclocker NO locked? NO YES (Device in Manual Mode) SMPTE TRS words detected? NO Device sets SMPTE_BYPASS pin LOW Device outputs 27MHz +/- 7% clock on PCLK pin Device sets all other output pins LOW YES SMPTE_BYPASS and DVB_ASI pins must be set to support different functionalities (Section 3.6.3). Device sets LOCKED pin HIGH Device sets SMPTE_BYPASS status pin (Section 3.6.2) Device outputs accurate 27MHz clock on PCLK pin Figure 3-2: Lock Detection Process GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 28 of 73 Proprietary & Confidential The lock detection algorithm (Figure 3-2) first determines if the input is a 270Mb/s serial digital data stream. When the serial data input signal is considered invalid, the LOCKED pin will be set LOW, and all device outputs will be forced LOW, except PCLK. If a valid serial digital input signal has been detected, and the device is in Auto mode, the lock algorithm will attempt to detect the presence of SMPTE TRS words. Assuming that a valid 270Mb/s SMPTE signal has been applied to the device, the LOCKED pin will be set HIGH. For serial inputs that do not conform to SMPTE or DVB-ASI formats, the device can achieve the locked state in manual mode. In Auto mode, the LOCKED signal will be asserted LOW, the parallel outputs will be latched to logic LOW, and the SMPTE_BYPASS output signal will also be set LOW. In Manual mode, the SMPTE_BYPASS and DVB_ASI input pins must be set LOW. If the GS9091B achieves lock to the input data signal, data will be passed directly to the parallel outputs without any further processing (see Section 3.8). 3.5.2 Auto Mode The GS9091B is in Auto mode when the AUTO/MAN input pin is set HIGH. In this mode, SMPTE_BYPASS becomes an output status pin, as shown in Table 3-1. Table 3-1: Auto Mode Output Status Signals Pin Settings Format SMPTE_BYPASS SD SMPTE HIGH NOT SMPTE LOW 3.5.3 Manual Mode The GS9091B is in Manual mode when the AUTO/MAN input pin is set LOW. In this mode, the SMPTE_BYPASS and DVB_ASI pins become input signals, and the operating mode of the device is set by these pins as shown in Table 3-2 . Table 3-2: Manual Mode Input Status Signals Pin Settings Format SMPTE_BYPASS DVB_ASI SD SMPTE HIGH LOW DVB-ASI X HIGH NOT SMPTE OR DVB-ASI (Data-Through mode)* LOW LOW *Note: See Section 3.8 for more detail on Data-Through mode GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 29 of 73 Proprietary & Confidential 3.6 SMPTE Functionality The GS9091B is in SMPTE mode once the device has detected two SMPTE TRS sync words. The GS9091B will remain in SMPTE mode until six SMPTE TRS sync words fail to be detected. TRS word detection is a continuous process, and the device will identify both 8-bit and 10-bit TRS words. In Auto mode, the GS9091B sets the SMPTE_BYPASS pin HIGH to indicate that it has locked to a SMPTE input data stream. When operating in Manual mode, the DVB_ASI pin must be set LOW and the SMPTE_BYPASS pin must be set HIGH in order to enable SMPTE operation. 3.6.1 SMPTE Descrambling and Word Alignment The GS9091B performs NRZI-to-NRZ decoding, descrambling according to SMPTE 259M-C, and word alignment of the data to the TRS sync words when in SMPTE mode. Note: When 8-bit data is embedded into the SMPTE signal, the source must have the two LSBs of the 10-bit stream set to logic LOW in order for word alignment to function correctly. 3.6.2 Internal Flywheel The GS9091B has an internal flywheel for the generation of internal / external timing signals, the detection and correction of certain error conditions, and the automatic detection of video standards. The flywheel is only operational in SMPTE mode. The flywheel 'learns' the video standard by timing the horizontal and vertical reference information contained in the TRS ID words of the received video stream. The flywheel maintains information about the total line length, active line length, total number of lines per field / frame, and total active lines per field / frame for the received video stream. Full synchronization of the flywheel to the received video standard therefore requires one complete video frame. Once synchronization has been achieved, the flywheel will continue to monitor the received TRS timing information to maintain synchronization. The FW_EN input pin controls the synchronization mechanism of the flywheel. When this input signal is LOW, the flywheel will re-synchronize all pixel and line based counters on every received TRS ID word. When FW_EN is set to logic HIGH, re-synchronization occurs when the flywheel detects three to four consecutive video lines containing mistimed TRS information. This provides a measure of noise immunity to internal and external timing signal generation. The flywheel will be disabled if the device loses lock, or a LOW-to-HIGH transition occurs on the RESET pin. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 30 of 73 Proprietary & Confidential 3.6.3 Switch Line Lock Handling The principle of switch line lock handling is that the switching of synchronous video sources will only disturb the horizontal timing and alignment of the stream, whereas the vertical timing remains in synchronization. 3.6.3.1 Automatic Switch Line Lock Handling The GS9091B also implements automatic switch line lock handling. By utilizing both the synchronous switch point defined in SMPTE RP168, and the automatic video standards detect function, the device automatically re-synchronizes the flywheel at the switch point. This will occur whether or not the device has detected TRS word errors. Word alignment re-synchronization will also take place at this time. Automatic switch line lock handling will occur regardless of the setting of the FW_EN pin. The switch line is defined as follows: * for 525 line interlaced systems: re-sync takes place at the end of lines 10 & 273 * for 625 line interlaced systems: re-sync takes place at the end of lines 6 & 319 A full list of 270Mb/s video standards and switching lines is shown in Table 3-3. At every PCLK cycle the device samples the FW_EN pin. When the FW_EN pin is set LOW anywhere within the active line, the flywheel will re-synchronize immediately to the next TRS word. 3.6.3.2 Manual Switch Line Lock Handling The ability to manually re-synchronize the flywheel is also important when switching asynchronous sources or to implement other non-standardized video switching functions. To account for the horizontal disturbance caused by a synchronous switch, it is necessary to re-synchronize the flywheel immediately after the switch has taken place. Rapid re-synchronization of the GS9091B to the new video standard can be achieved by disabling the flywheel (setting the FW_EN pin to logic LOW) after the switch, and re-enabling the flywheel after the next TRS word. Table 3-3: Switch Line Position for 270MB/s Digital Systems Video Format Sampling Signal Standard Parallel Interface Serial Interface Switch Line Number 720x576/50 (2:1) 4:2:2 BT.656 BT.656 + 305M 259M-C 6, 319 720x483/59.94 (2:1) 4:2:2 125M 125M + 305M 259M-C 10, 273 525 720x483/59.94 (2:1) 4:2:2 125M 125M 259M-C 10, 273 625 720x576/50 (2:1) 4:2:2 BT.656 125M 259M-C 6, 319 System SDTI GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 31 of 73 Proprietary & Confidential 3.6.4 HVF Timing Signal Generation The GS9091B extracts timing parameters, and outputs them to the F, V and H pins, from either the received TRS signals (FW_EN = LOW) or from the internal flywheel-timing generator (FW_EN = HIGH). Horizontal blanking period (H), vertical blanking period (V), and field odd / even timing (F) are extracted and are available for output on any of the multi-function output port pins, if so programmed (see Section 3.12). The H signal timing is configurable via the H_CONFIG bit of the internal IOPROC_DISABLE register as either active line-based blanking, or TRS-based blanking (see Table 3-14 in Section 3.9.8). Active line-based blanking is enabled when the H_CONFIG bit is set LOW. In this mode, the H output is HIGH for the entire horizontal blanking period, including the EAV and SAV TRS words. This is the default H timing used by the device. When H_CONFIG is set HIGH, TRS based blanking is enabled. In this case, the H output will be HIGH for the entire horizontal blanking period as indicated by the H bit in the received TRS ID words. The timing of these signals is shown in Figure 3-3. Note 1: When the internal FIFO is configured for video mode, the H, V, and F signals will be timed to the data output from the FIFO (see Section 3.10.1). Note 2: When the GS9091B is configured for Low-latency mode, the H, V, and F output timing will be TRS-based as shown in Section 3.13. Active line-based timing is not available in this mode, and the setting of the H_CONFIG host interface bit will be ignored. PCLK Y/Cr/Cb DATA OUT 3FF 000 000 XYZ (eav) 3FF 000 000 XYZ (sav) H V F H SIGNAL TIMING: H_CONFIG = LOW H_CONFIG = HIGH Figure 3-3: H,V,F Timing GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 32 of 73 Proprietary & Confidential 3.7 DVB-ASI Functionality DVB_ASI functionality is only supported in Manual mode. In Manual mode, the DVB_ASI pin must be set to logic HIGH in order to enable DVB-ASI operation. The SMPTE_BYPASS pin will be ignored. When using DVB-ASI mode, the use of application circuit in Figure 3-4 on page 33 is suggested. The use of this application circuit will prevent the internal PLL from false locking to a DVB-ASI signal harmonic rather than the 270MHz fundamental. This application circuit will detect the false lock state and restart the on-chip PLL. The application circuit does this by detecting if the LOCK has been de-asserted for longer than ~700s, and if so resets the PLL by discharging the loop filter capacitor through a CMOS switch. The applications circuit below show how this can be implemented by using a STG719 switch as a reference. Other low leakage CMOS switches may also be substituted within the circuit. STG719 1 In 1 6 S2 2 5 D LF+ 6 5 LF- GS9090B GS9091B RESTART_PLL 3 STG719 LOCKED 4 S1 OUT IN FPGA or Microcontroller GPIO Figure 3-4: GS9091B False Lock Restart Circuit The circuit above can be implemented using either a small state machine in an FPGA or general purpose I/O on a microcontroller in combination with some firmware. Typically, a system using the GS9091B will have an existing FPGA and/or microcontroller that may have some spare I/O that can be used to implement the false lock restart circuit. The choice of method will depend on what spare system resources are available. In either case, the waveform shown in Figure 3-5 on page 33 represents how the PLL restart must be driven. The delay values of 700s and 20s are nominal but the values can be longer. In the case where the SDI inputs are not driven with a valid DVB-ASI signal, the RESTART_PLL signal should be repeated indefinitely as long as LOCKED remains de-asserted. DDI VALID DVB-ASI INPUT SIGNAL VALID DVB-ASI INPUT SIGNAL POWER_OK LOCKED RES TART_PL L ~700s ~20s ~700s ~20s Figure 3-5: GS9091B False Lock Restart Circuit Waveforms of False Lock After Power-up and False Lock After a Signal Switch. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 33 of 73 Proprietary & Confidential 3.7.1 DVB-ASI 8b/10b Decoding The GS9091B will word align the data to the K28.5 sync characters, and 8b/10b decode and bit-swap the data to achieve bit alignment with the data outputs. Note: DVB-ASI sync words must be immediately followed by an MPEG packet header for word alignment to correctly function. The extracted 8-bit data will be presented to DOUT [7:0], bypassing all internal SMPTE mode data processing. 3.7.2 Status Signal Outputs In DVB-ASI mode, the DOUT9 and DOUT8 pins will be configured as DVB-ASI status signals WORDERR and SYNCOUT respectively. SYNCOUT will be HIGH whenever a K28.5 sync character is present on the output. WORDERR will be HIGH whenever the device has detected an illegal 8b/10b code word or there is a running disparity error. 3.8 Data-Through Functionality The GS9091B may be configured to operate as a simple serial-to-parallel converter. In this mode, the data is output to the parallel output without performing any decoding, descrambling, or word-alignment. Data-Through functionality is enabled when the AUTO/MAN, SMPTE_BYPASS, and DVB_ASI input pins are set to logic LOW. Under these conditions, the GS9091B allows 270Mb/s input data not conforming to SMPTE or DVB-ASI streams to be reclocked and deserialized. If the device is in Data-Through mode, and the reclocker locks to the data stream, the LOCKED pin will be representative of the serial digital input data frequency. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 34 of 73 Proprietary & Confidential 3.9 Additional Processing Features The GS9091B contains additional processing features that are available in SMPTE mode only (see Section 3.6). 3.9.1 FIFO Load Pulse To aid in the implementation of auto-phasing and line synchronization functions, the GS9091B will generate a FIFO load pulse to reset line-based FIFO storage. This FIFO_LD signal is available for output on one of the multi-function output port pins, if so programmed (see Section 3.12). The FIFO_LD pulse is an active LOW signal which will assert LOW for one PCLK period, generating a FIFO write reset signal. This signal is co-timed to the SAV XYZ code word present on the output data bus. This ensures that the next PCLK cycle will correspond with the first active sample of the video line. Note: When the internal FIFO of the GS9091B is set to operate in video mode, the FIFO_LD pulse can be used to drive the RD_RESET input to the device (see Section 3.10.1). Figure 3-6 shows the default timing relationship between the FIFO_LD signal and the output video data. PCLK Y'CbCr DATA 3FF 000 000 XYZ FIFO_LD Figure 3-6: FIFO_LD Pulse Timing 3.9.1.1 Programmable FIFO Load Position The position of the FIFO_LD pulse can be moved in PCLK increments from its default position at the SAV XYZ code word to a maximum of one full line from the default position. The offset number of PCLK's must be programmed in the FIFO_LD_POSITION[12:0] internal register (address 28h), via the host interface. The FIFO_LD_POSITION[12:0] register is designed to accommodate the longest SD line length. If a value greater than the maximum line length at the operating SD standard is programmed in this register, the FIFO_LD pulse will not be generated. After a device reset, the FIFO_LD_POSITION[12:0] register is set to zero and the FIFO_LD pulse will assume the default timing. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 35 of 73 Proprietary & Confidential 3.9.2 Ancillary Data Detection and Indication The GS9091B will detect all types of ancillary data in either the vertical or horizontal data spaces. The ANC status signal is provided to indicate the position of ancillary data in the output data stream. This signal is available for output on the multi-function output port pins (see Section 3.12). The ANC status signal is synchronous with PCLK and can be used as a clock enable to external logic, or as a write enable to an external FIFO or other memory device. The ANC signal will be asserted HIGH whenever ancillary data is detected in the video data stream (see Figure 3-7). Both 8-bit and 10-bit ancillary data preambles will be detected by the GS9091B. Note: When the internal FIFO is configured for video mode, the ANC signal will be timed to the data output from the FIFO (see Section 3.10.1). PCLK Y'CbCr DATA 000 3FF 3FF DID DBN DC ANC DATA ANC DATA CSUM BLANK ANC Figure 3-7: ANC Status Signal 3.9.2.1 Programmable Ancillary Data Detection The GS9091B will detect all types of ancillary data by default. In addition, up to five different ancillary data types can be programmed for detection. This is accomplished by programming the ANC_TYPE registers with the DID and/or SDID values, via the host interface, for each data type to be detected (see Table 3-4). The GS9091B will compare the received DID and/or SDID with the programmed values and assert ANC only if an exact match is found. If the DID or SDID values are set to zero in the ANC_TYPE register, a comparison or match for that code word will not be made. For example, if the DID is programmed but the SDID is set to zero, the device will detect all ancillary data types matching the DID value, regardless of the SDID. If both DID and SDID values are non-zero, then the received ancillary data type must match both the DID and SDID cases before the device will assert ANC HIGH. In the case where all five DID and SDID values are set to zero, the GS9091B will detect all ancillary data types. This is the default setting after a device reset. If greater than one, but less than five, DID and/or SDID values have been programmed, then only those matching ancillary data types will be detected and indicated. Note: See SMPTE 291M for a definition of ancillary data terms. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 36 of 73 Proprietary & Confidential Table 3-4: Host Interface Description for Programmable Ancillary Data Type registers Register Name Bit Name Description R/W Default 15-8 ANC_TYPE1[15:8] Used to program the DID for ancillary data detection at ANC output R/W 0 7-0 ANC_TYPE1[7:0] Used to program the SDID for ancillary data detection at ANC output. Should be set to zero if no SDID is present in the ancillary data packet to be detected. R/W 0 15-8 ANC_TYPE2[15:8] Used to program the DID for ancillary data detection at ANC output R/W 0 7-0 ANC_TYPE2[7:0] Used to program the SDID for ancillary data detection at ANC output. Should be set to zero if no SDID is present in the ancillary data packet to be detected. R/W 0 15-8 ANC_TYPE3[15:8] Used to program the DID for ancillary data detection at ANC output R/W 0 7-0 ANC_TYPE3[7:0] Used to program the SDID for ancillary data detection at ANC output. Should be set to zero if no SDID is present in the ancillary data packet to be detected. R/W 0 15-8 ANC_TYPE4[15:8] Used to program the DID for ancillary data detection at ANC output R/W 0 7-0 ANC_TYPE4[7:0] Used to program the SDID for ancillary data detection at ANC output. Should be set to zero if no SDID is present in the ancillary data packet to be detected. R/W 0 15-8 ANC_TYPE5[15:8] Used to program the DID for ancillary data detection at ANC output R/W 0 7-0 ANC_TYPE5[7:0] Used to program the SDID for ancillary data detection at ANC output. Should be set to zero if no SDID is present in the ancillary data packet to be detected. R/W 0 ANC_TYPE 1 Address: 0Ah ANC_TYPE 2 Address: 0Bh ANC_TYPE 3 Address: 0Ch ANC_TYPE 4 Address: 0Dh ANC_TYPE 5 Address: 0Eh 3.9.3 EDH Packet Detection The GS9091B will determine if EDH packets are present in the incoming video data and assert the EDH_DETECT output status signal appropriately. EDH_DETECT will be set HIGH when EDH packets have been detected and will remain HIGH until EDH packets are no longer present. The signal will be set LOW at the end of the vertical blanking (falling edge of V) if an EDH packet has not been received and detected during vertical blanking. EDH_DETECT can be programmed to be available for output on the multi-function output port pins (see Section 3.12). The EDH_DETECT bit is also available in the DATA_FORMAT register at address 04h (see Table 3-7). GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 37 of 73 Proprietary & Confidential 3.9.4 EDH Flag Detection As described in Section 3.9.3, the GS9091B can detect EDH packets in the received data stream. The EDH flags for ancillary data, active picture, and full field areas are extracted from the detected EDH packets and placed in the EDH_FLAG_IN register at address 02h (Table 3-5). When the EDH_FLAG_UPDATE bit in the DATA_FORMAT register 04h (Table 3-7) is set HIGH, the GS9091B will update the ancillary data, full field, and active picture EDH flags according to SMPTE RP165. The updated EDH flags are available in the EDH_FLAG_OUT register at address 03h (Table 3-6). The EDH packet output from the device will contain the updated flags. One set of flags is provided for both fields 1 and 2. Field 1 flag data will be overwritten by field 2 flag data. When EDH packets are not detected, the UES flags in the EDH_FLAG_OUT register will be set HIGH to signify that the received signal does not support Error Detection and Handling. In addition, the EDH_DETECT bit will be set LOW. These flags are set regardless of the setting of the EDH_FLAG_UPDATE bit. EDH_FLAG_OUT and EDH_FLAG_UPDATE may be read by the host interface at any time during the received frame except on the lines defined in SMPTE RP165, where these flags are updated. The GS9091B will indicate the CRC validity for both active picture and full field CRCs. The AP_CRC_V bit in the DATA_FORMAT register indicates the active picture CRC validity, and the FF_CRC_V bit indicates the full field CRC validity (see Table 3-7). When EDH_DETECT = LOW, these bits will be cleared. The EDH_FLAG_OUT and EDH_FLAG_UPDATE register values remain set until overwritten by the decoded flags in the next received EDH packet in the following field. When an EDH packet is not detected during vertical blanking, the flag registers will be cleared at the end of the vertical blanking period. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 38 of 73 Proprietary & Confidential Table 3-5: Host Interface Description for EDH Flag Registers Register Name EDH_FLAG_IN Address: 02h Bit Name Description R/W Default 15 - Not Used - - 14 ANC-UES_IN Ancillary Unknown Error Status Flag R 0 13 ANC-IDA_IN Ancillary Internal device error Detected Already Flag. R 0 12 ANC-IDH_IN Ancillary Internal device error Detected Here Flag. R 0 11 ANC-EDA_IN Ancillary Error Detected Already Flag. R 0 10 ANC-EDH_IN Ancillary Error Detected Here Flag. R 0 9 FF-UES_IN Full Field Unknown Error Status Flag. R 0 8 FF-IDA_IN Full Field Internal device error Detected Already Flag. R 0 7 FF-IDH_IN Full Field Internal device error Detected Here Flag. R 0 6 FF-EDA_IN Full Field Error Detected Already Flag. R 0 5 FF-EDH_IN Full Field Error Detected Here Flag. R 0 4 AP-UES_IN Active Picture Unknown Error Status Flag. R 0 3 AP-IDA_IN Active Picture Internal device error Detected Already Flag. R 0 2 AP-IDH_IN Active Picture Internal device error Detected Here Flag R 0 1 AP-EDA_IN Active Picture Error Detected Already Flag. R 0 0 AP-EDH_IN Active Picture Error Detected Here Flag. R 0 GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 39 of 73 Proprietary & Confidential Table 3-6: Host Interface Description for EDH Flag Registers Register Name EDH_FLAG_OUT Address: 03h Bit Name Description R/W Default 15 - Not Used - - 14 ANC-UES Ancillary Unknown Error Status Flag R 0 13 ANC-IDA Ancillary Internal device error Detected Already Flag. R 0 12 ANC-IDH Ancillary Internal device error Detected Here Flag. R 0 11 ANC-EDA Ancillary Error Detected Already Flag. R 0 10 ANC-EDH Ancillary Error Detected Here Flag. R 0 9 FF-UES Full Field Unknown Error Status Flag. R 0 8 FF-IDA Full Field Internal device error Detected Already Flag. R 0 7 FF-IDH Full Field Internal device error Detected Here Flag. R 0 6 FF-EDA Full Field Error Detected Already Flag. R 0 5 FF-EDH Full Field Error Detected Here Flag. R 0 4 AP-UES Active Picture Unknown Error Status Flag. R 0 3 AP-IDA Active Picture Internal device error Detected Already Flag. R 0 2 AP-IDH Active Picture Internal device error Detected Here Flag R 0 1 AP-EDA Active Picture Error Detected Already Flag. R 0 0 AP-EDH Active Picture Error Detected Here Flag. R 0 GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 40 of 73 Proprietary & Confidential Table 3-7: Host Interface Description for Data Format Register Register Name DATA_FORMAT Bit Name Description R/W Default 15-12 - Not Used - - 11 EDH_FLAG_UPDATE When set HIGH by the application layer, the device will update the ancillary data, full field, and active picture EDH flags according to SMPTE RP165. R/W 0 10 AP_CRC_V Active Picture CRC Valid bit. R 0 9 FF_CRC_V Full Field CRC Valid bit. R 0 8 EDH_DETECT Set HIGH by the device when EDH packets are detected in the incoming video data. R 0 7 VERSION_352M Indicates whether decoded SMPTE 352M packet is version 0 or version 1. See Section 3.9.5. R 0 6-5 - Not Used - - 4 STD_LOCK Standard Lock bit. This bit will be set HIGH when the flywheel has achieved full synchronization to the received video standard. See Section 3.9.6. R 0 3-0 DATA_FORMAT[3:0] Displays the data format being carried on the serial digital interface. See Section 3.9.6.1. R 0 Address: 04h 3.9.5 SMPTE 352M Payload Identifier The GS9091B can receive and detect the presence of the SMPTE 352M payload identifier. Upon detection of this packet, the device will extract the four words contained in the packet to the VIDEO_FORMAT_OUT_A and VIDEO_FORMAT_OUT_B registers at addresses 10h and 0fh (Table 3-8). The device will also indicate the version of the payload packet in bit 7 of the DATA_FORMAT register (Table 3-7). When bit 7 is set HIGH the received SMPTE 352M packet is version 1, otherwise it is version 0. The VIDEO_FORMAT registers will only be updated if the received checksum is the same as the locally calculated checksum. If the device loses lock to the input data stream (LOCKED = LOW), or if the SMPTE_BYPASS pin is asserted LOW, the VIDEO_FORMAT_OUT_A and VIDEO_FORMAT_OUT_B registers will be cleared to zero, indicating an undefined format. This is also the default setting after a device reset. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 41 of 73 Proprietary & Confidential Table 3-8: Host Interface Description for SMPTE 352M Payload Identifier Registers Register Name Bit Name Description R/W Default 15-8 SMPTE 352M Byte 4 Data will be available in this register when Video Payload Identification Packets are detected in the data stream. R 0 7-0 SMPTE 352M Byte 3 Data will be available in this register when Video Payload Identification Packets are detected in the data stream. R 0 15-8 SMPTE 352M Byte 2 Data will be available in this register when Video Payload Identification Packets are detected in the data stream. R 0 7-0 SMPTE 352M Byte 1 Data will be available in this register when Video Payload Identification Packets are detected in the data stream. R 0 VIDEO_FORMAT_OUT_B Address: 10h VIDEO_FORMAT_OUT_A Address: 0Fh 3.9.6 Automatic Video Standard and Data Format Detection The GS9091B can detect the input video standard and data format by using the timing parameters extracted from the received TRS ID. Total samples per line, active samples per line, total lines per frame, and active lines per field are all calculated and presented to the host interface via the RASTER_STRUCTURE registers (Table 3-9). Also associated with the RASTER_STRUCTURE registers is the STD_LOCK status bit. The GS9091B will set STD_LOCK HIGH when the flywheel has achieved full synchronization to the received video standard. STD_LOCK is stored in the DATA_FORMAT register (Table 3-7). The four RASTER_STRUCTURE registers, as well as the STD_LOCK status bit will default to zero after a device reset, or if the device loses lock to the input data stream (LOCKED = LOW). Table 3-9: Host Interface Description for Raster Structure Registers Register Name Bit Name Description RASTER_STRUCTURE1 Address: 11h 15-11 - 10-0 RASTER_STRUCTURE2 Address: 12h RASTER_STRUCTURE3 Address: 13h RASTER_STRUCTURE4 Address: 14h R/W Default Not Used - - RASTER_STRUCTURE1[10:0] Total Lines Per Frame R 0 15-13 - Not Used - - 12-0 RASTER_STRUCTURE2[12:0] Total Words Per Line R 0 15-13 - Not Used - - 12-0 RASTER_STRUCTURE3[12:0] Words Per Active Line R 0 15-11 - Not Used - - 10-0 RASTER_STRUCTURE4[10:0] Active Lines Per Field R 0 GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 42 of 73 Proprietary & Confidential 3.9.6.1 Data Format Indication The GS9091B can extract the data format being carried on the serial digital interface (i.e. SDTI, SDI, or DVB-ASI). This information is represented by bits 0 to 3 of the DATA_FORMAT register (Table 3-7). DATA_FORMAT[3:0] register codes are shown in Table 3-10. The DATA_FORMAT[3:0] register defaults to Fh (undefined) after a system reset. The register will also be set to its default value if the device is not locked (LOCKED = LOW), or if both SMPTE_BYPASS and DVB_ASI pins are LOW. Table 3-10: Data Format Register Codes Data Format[3:0] Data Format Applicable Standards 0h SDTI DVCPRO - No ECC SMPTE 321M 1h SDTI DVCPRO - ECC SMPTE 321M 2h SDTI DVCAM SMPTE 322M 3h SDTI CP SMPTE 326M 4h Other SDTI fixed block size - 5h Other SDTI variable block size - 6h SDI - 7h DVB-ASI - 8h ~ Eh Reserved - Unknown data format - Fh 3.9.7 Error Detection and Indication The GS9091B contains a number of error detection functions to enhance operation of the device when operating in SMPTE mode. These functions, except lock error detection, will not be available in DVB-ASI mode (Section 3.7) or Data-Through mode (Section 3.8). The ERROR_STATUS register is at address 01h (Table 3-11). All bits, except the LOCK_ERR bit, will be cleared at the start of each video field or when read by the host interface, whichever condition occurs first. All bits, with the exception of the LOCK_ERR, will also be cleared if a change in the video standard is detected, if the device loses lock to the input data stream (LOCKED = LOW), or if the SMPTE_BYPASS pin is asserted LOW. The ERROR_STATUS register, including the LOCK_ERR bit, will be set LOW during a system reset (RESET = LOW). GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 43 of 73 Proprietary & Confidential The ERROR_MASK register (Table 3-12) is available to individually mask each error type in the ERROR_STATUS register. Each error type may be individually masked by setting its corresponding bit HIGH. The bits of the ERROR_MASK register will default to '0' after a device reset, thus allowing all error types to be detected. The DATA_ERROR signal pin indicates the status of the ERROR_STATUS register. This output pin is an inverted logical OR of each error status flag stored in the ERROR_STATUS register. DATA_ERROR will be set LOW by the device when an error condition that has not been masked is detected. Table 3-11: Host Interface Description for Error Status Register Register Name Bit Name Description R/W Default 15-7 - Not Used - - 6 VD_STD_ERR Video Standard Error Flag. Set HIGH when a mismatch between the received SMPTE 352M packets (version 1 or version 0) and the calculated video standard occurs. R 0 5 FF_CRC_ERR Full Field CRC Error Flag. Set HIGH when a Full Field (FF) CRC mismatch has been detected in Field 1 or 2 R 0 4 AP_CRC_ERR Active Picture CRC Error Flag. Set HIGH when an Active Picture (AP) CRC mismatch has been detected in Field 1 or 2. R 0 3 LOCK_ERR Lock Error Flag. Set HIGH whenever the LOCKED pin is LOW (indicating the device is not correctly locked). R 0 2 CS_ERR Checksum Error Flag. Set HIGH when ancillary data packet checksum error has been detected. R 0 1 SAV_ERR Start of Active Video Error Flag. Set HIGH when TRS errors are detected in either 8-bit or 10-bit TRS words. R 0 0 EAV_ERR End of Active Video Error Flag. Set HIGH when TRS errors are detected in either 8-bit or 10-bit TRS words. R 0 ERROR_STATUS Address: 01h GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 44 of 73 Proprietary & Confidential Table 3-12: Host Interface Description for Error Mask Register Register Name Bit Name 15-7 - 6 VD_STD_ERR_MASK 5 ERROR_MASK Address: 25h Description R/W Default - - Video Standard Error Flag Mask bit. R/W 0 FF_CRC_ERR_MASK Full Field CRC Error Flag Mask bit. R/W 0 4 AP_CRC_ERR_MASK Active Picture CRC Error Flag Mask bit R/W 0 3 LOCK_ERR_MASK Lock Error Flag Mask bit. R/W 0 2 CS_ERR_MASK Checksum Error Flag Mask bit. R/W 0 1 SAV_ERR_MASK Start of Active Video Error Flag Mask bit. R/W 0 0 EAV_ERR_MASK End of Active Video Error Flag Mask bit. R/W 0 Not Used 3.9.7.1 Video Standard Error Detection If a mismatch between the decoded SMPTE 352M packets and the calculated video standard occurs, the GS9091B will indicate a video standard error by setting the VD_STD_ERR bit of the ERROR_STATUS register HIGH. The device will detect errors in both version 1 and version 0 352M packets. 3.9.7.2 EDH CRC Error Detection The GS9091B calculates the Full Field (FF) and Active Picture (AP) CRC words according to SMPTE RP165 in support of Error Detection and Handling packets in SD signals. These calculated CRC values are compared with the received CRC values. If a mismatch is detected, the error is flagged in the AP_CRC_ERR and/or FF_CRC_ERR bits of the ERROR_STATUS register. These two flags are shared between fields 1 and 2. The AP_CRC_ERR bit will be set HIGH when an active picture CRC value mismatch has been detected in field 1 or 2. The FF_CRC_ERR bit will be set HIGH when a full field CRC value mismatch has been detected in field 1 or 2. EDH CRC errors will only be indicated when the device has correctly received EDH packets. SMPTE RP165 specifies the calculation ranges and scope of EDH data for standard 525 and 625 component digital interfaces. The GS9091B will utilize these standard ranges by default. If the received video format does not correspond to 525 or 625 digital component video standards as determined by the flywheel pixel and line counters, the ranges will be based on the line and pixel ranges programmed by the host interface. In the absence of user-programmed calculation ranges, the ranges will be determined from the received TRS timing information. The registers available to the host interface for programming EDH calculation ranges include active picture and full field line/pixel start and end positions for both fields (Table 3-13). These registers default to '0' after a device reset. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 45 of 73 Proprietary & Confidential If any or all of these register values are zero, then the EDH CRC calculation ranges will be determined from the flywheel generated timing. The first active and full field pixel will always be the first pixel after the SAV TRS code word. The last active and full field pixel will always be the last pixel before the start of the EAV TRS code words. Table 3-13: Host Interface Description for EDH Calculation Range Registers Register Name AP_LINE_START_F0 Address: 15h AP_LINE_END_F0 Address: 16h AP_LINE_START_F1 Address: 17h AP_LINE_END_F1 Address: 18h FF_LINE_START_F0 Address: 19h FF_LINE_END_F0 Address: 1Ah FF_LINE_START_F1 Address: 1Bh FF_LINE_END_F1 Address: 1Ch AP_PIXEL_START_F0 Address: 1Dh Bit Name Description 15-11 - Not Used 10-0 AP_LINE_START_F0[10:0] Field 0 Active Picture start line data used to set EDH calculation range outside of SMPTE RP 165 values. 15-11 - Not Used 10-0 AP_LINE_END_F0[10:0] Field 0 Active Picture end line data used to set EDH calculation range outside of SMPTE RP 165 values. 15-11 - Not Used 10-0 AP_LINE_START_F1[10:0] Field 1 Active Picture start line data used to set EDH calculation range outside of SMPTE RP 165 values. 15-11 - Not Used 10-0 AP_LINE_END_F1[10:0] Field 1 Active Picture end line data used to set EDH calculation range outside of SMPTE RP 165 values. 15-11 - Not Used 10-0 FF_LINE_START_F0[10:0] Field 0 Full Field start line data used to set EDH calculation range outside of SMPTE RP 165 values. 15-11 - Not Used 10-0 FF_LINE_END_F0[10:0] Field 0 Full Field end line data used to set EDH calculation range outside of SMPTE RP 165 values. 15-11 - Not Used 10-0 FF_LINE_START_F1[10:0] Field 1 Full Field start line data used to set EDH calculation range outside of SMPTE RP 165 values. 15-11 - Not Used 10-0 FF_LINE_END_F1[10:0] Field 1 Full Field end line data used to set EDH calculation range outside of SMPTE RP 165 values. 15-13 - Not Used 12-0 AP_PIXEL_START_F0[12:0] Field 0 Active Picture start pixel data used to set EDH calculation range outside of SMPTE RP 165 values. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 R/W Default - - R/W 0 - - R/W 0 - - R/W 0 - - R/W 0 - - R/W 0 - - R/W 0 - - R/W 0 - - R/W 0 - - R/W 0 46 of 73 Proprietary & Confidential Table 3-13: Host Interface Description for EDH Calculation Range Registers (Continued) Register Name AP_PIXEL_END_F0 Address: 1Eh AP_PIXEL_START_F1 Address: 1Fh AP_PIXEL_END_F1 Address: 20h FF_PIXEL_START_F0 Address: 21h FF_PIXEL_END_F0 Address: 22h FF_PIXEL_START_F1 Address: 23h FF_PIXEL_END_F1 Address: 24h Bit Name Description 15-13 - Not Used 12-0 AP_PIXEL_END_F0[12:0] Field 0 Active Picture end pixel data used to set EDH calculation range outside of SMPTE RP 165 values. 15-13 - Not Used 12-0 AP_PIXEL_START_F1[12:0] Field 1 Active Picture start pixel data used to set EDH calculation range outside of SMPTE RP 165 values. 15-13 - Not Used 12-0 AP_PIXEL_END_F1[12:0] Field 1 Active Picture end pixel data used to set EDH calculation range outside of SMPTE RP 165 values. 15-13 - Not Used 12-0 FF_PIXEL_START_F0[12:0] Field 0 Full Field start pixel data used to set EDH calculation range outside of SMPTE RP 165 values. 15-13 - Not Used 12-0 FF_PIXEL_END_F0[12:0] Field 0 Full Field end pixel data used to set EDH calculation range outside of SMPTE RP 165 values. 15-13 - Not Used 12-0 FF_PIXEL_START_F1[12:0] Field 1 Full Field start pixel data used to set EDH calculation range outside of SMPTE RP 165 values. 15-13 - Not Used 12-0 FF_PIXEL_END_F1[12:0] Field 1 Full Field end pixel data used to set EDH calculation range outside of SMPTE RP 165 values. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 R/W Default - - R/W 0 - - R/W 0 - - R/W 0 - - R/W 0 - - R/W 0 - - R/W 0 - - R/W 0 47 of 73 Proprietary & Confidential 3.9.7.3 Lock Error Detection The LOCKED pin of the GS9091B asserts HIGH when the device has correctly locked to the received data stream (see Section 3.5.1). The GS9091B will also indicate lock error to the host interface when LOCKED = LOW by setting the LOCK_ERR bit in the ERROR_STATUS register HIGH (Table 3-11). 3.9.7.4 Ancillary Data Checksum Error Detection The GS9091B will calculate checksums for all received ancillary data types and compare the calculated values to the received checksum words. If a mismatch is detected, the CS_ERR bit of the ERROR_STATUS register will be set HIGH (Table 3-11). Although the GS9091B will calculate and compare checksum values for all ancillary data types by default, the host interface may be programmed to check only certain types of ancillary data checksums, as described in Section 3.9.2.1. 3.9.7.5 TRS Error Detection TRS error flags are generated by the GS9091B when the received TRS H timing does not correspond to the internal flywheel timing, or when the received TRS Hamming codes are incorrect. These errors are flagged via the SAV_ERR and/or EAV_ERR bits of the ERROR_STATUS register (Table 3-11). Both 8-bit and 10-bit SAV and EAV errors are handled by the GS9091B. Note: H timing based TRS errors will only be detected if the FW_EN pin is set HIGH. F & V timing errors are not detected or corrected. 3.9.8 Additional SMPTE Mode Processing The GS9091B contains an additional processing block which is available in SMPTE mode only. The IOPROC_EN pin must be set HIGH to enable these functions. These functions, which are all enabled by default, may be enabled or disabled individually by setting bits 0 to 3 in the IOPROC_DISABLE register (Table 3-14). Note: After a device reset, these functions will revert to their default values. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 48 of 73 Proprietary & Confidential Table 3-14: Host Interface Description for Internal Processing Disable Register Register Name Bit Name Description 15-10 - Not Used ANC_PKT_EXT Ancillary Packet Extraction. When the FIFO is configured for Ancillary Data Extraction mode, the application layer must set this bit HIGH to begin extraction. 9 R/W Default - - R/W 0 NOTE: Setting ANC_PKT_EXT LOW will not automatically disable ancillary data extraction (see Section 3.10.3.1). 8-7 6 IOPROC_DISABLE Address: 00h FIFO_MODE[1:0] FIFO Mode: These bits control which mode the internal FIFO is operating in (see Table 3-15) R/W 0 H_CONFIG Horizontal sync timing output configuration. Set LOW for active line blanking timing. Set HIGH for H blanking based on the H bit setting of the TRS word. See Figure 3-3 in Section 3.6.4. R/W 0 Not Used. 5-4 ILLEGAL_REMAP Illegal Code re-mapping. Correction of illegal code words within the active picture. Set HIGH to disable. The IOPROC_EN pin must be set HIGH. R/W 0 2 EDH_CRC_INS Error Detection & Handling (EDH) Cyclical Redundancy Check (CRC) error correction insertion. Set HIGH to disable. The IOPROC_EN pin must be set HIGH. R/W 0 1 ANC_CSUM_INS Ancillary Data Checksum insertion. Set HIGH to disable. The IOPROC_EN pin must be set HIGH. R/W 0 R/W 0 3 0 TRS_INS Timing Reference Signal Insertion. The device will correct TRS based errors when set LOW (see Section 3.9.8.4). The IOPROC_EN pin must also be HIGH. Set this bit HIGH to disable. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 49 of 73 Proprietary & Confidential 3.9.8.1 Illegal Code Remapping If the ILLEGAL_REMAP bit of the IOPROC_DISABLE register is set LOW, the GS9091B will remap all codes within the active picture between the values 3FCh and 3FFh to 3FBh. All codes within the active picture area between the values 00h and 03h will be re-mapped to 04h. In addition, 8-bit TRS and ancillary data preambles will be remapped to 10-bit values. 3.9.8.2 EDH CRC Error Correction If the EDH_CRC_INS bit of the IOPROC_DISABLE register is set LOW, the GS9091B will calculate and overwrite the active picture and full field CRC words into the EDH data packets received by the device. Additionally, when EDH_CRC_INS is LOW, the device will set the active picture and full field CRC `V' bits HIGH in the EDH packet (see Section 3.9.4). The AP_CRC_V and FF_CRC_V register bits will only report the received EDH validity flags. EDH CRC calculation ranges are described in Section 3.9.7.2. Note: Although the GS9091B will modify and insert EDH CRC words and EDH packet checksums, the device will only update EDH error flags when the EDH_FLAG_UPDATE bit is set HIGH (see Section 3.9.4). 3.9.8.3 Ancillary Data Checksum Error Correction If the ANC_CSUM_INS bit of the IOPROC_DISABLE register is set LOW, ancillary checksum error correction and insertion is enabled, and the GS9091B will calculate and overwrite ancillary data checksums for all ancillary data words by default. If the Ancillary Data type has been specified in the ANC_TYPE registers of the host interface (see Section 3.9.2.1), only the checksums for the ancillary data programmed will be updated. 3.9.8.4 TRS Error Correction If the TRS_INS bit of the IOPROC_DISABLE register is set LOW, TRS error correction and insertion is enabled. In this mode, the GS9091B will calculate and overwrite 10-bit TRS code words as required. TRS code word generation will be performed using the timing parameters generated by the flywheel to provide an element of noise immunity, and will only take place if the flywheel in enabled (FW_EN = HIGH). Note: Only H timing based errors will be corrected (see Section 3.9.7.5). GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 50 of 73 Proprietary & Confidential 3.10 Internal FIFO Operation The GS9091B contains an internal video line-based FIFO, which can be programmed by the application layer to work in any of the following modes: 1. Video Mode, 2. DVB-ASI Mode, 3. Ancillary Data Extraction Mode, or 4. Bypass Mode The FIFO can be configured to one of the four modes by using the host interface to set the FIFO_MODE[1:0] bits of the IOPROC_DISABLE register (see Table 3-14 in Section 3.9.8). The setting of these bits is shown in Table 3-15. To enable the FIFO, the FIFO_EN pin must be set HIGH. Additionally, if the FIFO is configured for video mode or ancillary data extraction mode, the IOPROC_EN pin must be set HIGH. The FIFO is fully asynchronous, allowing simultaneous read and write access. It has a depth of 2048 words, which will accommodate 1 full line of SD video for both 525 and 625 standards. The FIFO is 15 bits wide: 10 bits for video data and 5 bits for other signals, such as H, V, F, EDH_DETECT, and ANC. Table 3-15: FIFO Configuration Bit Settings FIFO Mode FIFO_MODE[1:0] Register Setting FIFO_EN Pin Setting IOPROC_EN Pin Setting Video Mode 00b HIGH HIGH DVB-ASI Mode 01b HIGH X Ancillary Data Extraction Mode 10b HIGH HIGH Bypass Mode 11b X X Note: `X' signifies `don't care'. The pin is ignored and may be set HIGH or LOW. 3.10.1 Video Mode The internal FIFO is in video mode when the FIFO_EN and IOPROC_EN pins are set HIGH, and the FIFO_MODE[1:0] bits in the IOPROC_DISABLE register are configured to 00b. By default, the FIFO_MODE[1:0] bits are set to 00b by the device whenever the SMPTE_BYPASS pin is set HIGH and the DVB_ASI pin is set LOW (i.e. the device is in SMPTE mode); however, the FIFO_MODE[1:0] bits may be programmed as required. Figure 3-8 shows the input and output signals of the FIFO when it is configured for video mode. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 51 of 73 Proprietary & Confidential Application Interface Internal 10-bit Video Data 10-bit Video Data H H V V FIFO (Video Mode) F ANC F ANC EDH_DETECT EDH_DETECT RD_RESET WR_RESET WR_CLK (PCLK) RD_CLK Figure 3-8: FIFO in Video Mode When operating in video mode, the GS9091B will write data sequentially into the FIFO, starting with the first active pixel in location zero of the memory. In this mode, it is possible to use the FIFO for clock phase interchange and data alignment / delay. The extracted H, V, and F information will also be written into the FIFO. The H, V, and F outputs will be timed to the video data read from the FIFO (see Section 3.6.4). The device will ensure write-side synchronization is maintained, according to the extracted PCLK and flywheel timing information. Full read-control of the FIFO is made available such that data will be clocked out of the FIFO on the rising edge of the externally provided RD_CLK signal. When there is a HIGH-to-LOW transition at the RD_RESET pin, the first pixel presented to the video data bus will be the first 000 of the SAV (see Figure 3-9). The FIFO_LD pulse may be used to control the RD_RESET pin. Note: The RD_RESET pulse should not be held LOW for more than one RD_CLK cycle. RD_CLK Y'CbCr DATA 3FF 000 000 XYZ RD_RESET Figure 3-9: RD_RESET Pulse Timing In video mode, the ANC output signal will be timed to the data output from the FIFO (see Section 3.9.2 for more detail). GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 52 of 73 Proprietary & Confidential 3.10.2 DVB-ASI Mode The internal FIFO is in DVB-ASI mode when the FIFO_EN pin is set HIGH, and the FIFO_MODE[1:0] bits in the IOPROC_DISABLE register are configured to 01b. By default, the FIFO_MODE[1:0] bits are set to 01b by the device whenever the DVB_ASI pin is set HIGH (i.e. the device is in DVB-ASI mode); however, the FIFO_MODE[1:0] bits may be programmed as required. Figure 3-10 shows the input and output signals of the FIFO when it is configured for DVB-ASI Mode. Application Interface Internal 8-bit MPEG Data 8-bit MPEG Data WORDERR WORDERR SYNCOUT FIFO (DVB-ASI Mode) SYNCOUT FIFO_EMPTY FIFO_FULL WR_CLK (PCLK gated with SYNCOUT) RD_CLK Figure 3-10: FIFO in DVB-ASI Mode When operating in DVB-ASI mode, the GS9091B's FIFO can be used for clock rate interchange operation. The extracted 8-bit MPEG packets will be written into the FIFO at 27MHz based on the SYNCOUT signal from the internal DVB-ASI decoder block. The SYNCOUT and WORDERR bits are also stored in the FIFO (see Section 3.7.2). When SYNCOUT goes HIGH, K28.5 stuffing characters have been detected and no data will be written into the FIFO. Data is read out of the FIFO using the RD_CLK pin. In DVB-ASI mode, the RD_RESET pin is not used. Note: With the internal FIFO enabled in DVB-ASI mode, SYNCOUT will always be LOW since the K28.5 sync characters are not stored in the FIFO. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 53 of 73 Proprietary & Confidential 3.10.2.1 Reading From the FIFO The FIFO contains internal read and write pointers used to designate which spot in the FIFO the MPEG packet will be read from or written to. These internal pointers control the status flags FIFO_EMPTY and FIFO_FULL, which are available for output on the multi-function output port pins, if so programmed (see Section 3.12). In the case where the write pointer is originally ahead of the read pointer, the FIFO_EMPTY flag will be set HIGH when both pointers arrive at the same address (see block A in Figure 3-12). This flag can be used to determine when to stop reading from the device. A write and read pointer offset may be programmed in the FIFO_EMPTY_OFFSET[9:0] register of the host interface. If an offset value is programmed in this register, the FIFO_EMPTY flag will be set HIGH when the read and write pointers of the FIFO are at the same address, and will remain HIGH until the write pointer reaches the programmed offset. Once the pointer offset has been exceeded, the FIFO_EMPTY flag will go LOW (see block B in Figure 3-12). In the case where the read pointer is originally ahead of the write pointer, the FIFO_FULL flag will be set HIGH when both pointers arrive at the same address (see block C in Figure 3-12). This flag can be used to determine when to begin reading from the device. A read and write pointer offset may also be programmed in the FIFO_FULL_OFFSET[9:0] register of the host interface. If an offset value is programmed in this register, the FIFO_FULL flag will be set HIGH when the read and write pointers of the FIFO are at the same address, and will remain set HIGH until the read pointer reaches the programmed offset. Once the pointer offset has been exceeded, the FIFO_FULL flag will be cleared (see block D in Figure 3-12). Gating the RD_CLK Using the FIFO_EMPTY Flag Using the asynchronous FIFO_EMPTY flag to gate RD_CLK requires external clock gating circuity. The recommended circuit for this application is shown in Figure 3-11. FIFO_EMPTY D SET CLR Q Q D SET CLR Q Q D SET CLR Q Q GATED RD_CLK RD_CLK RD_CLK FIFO_EMPTY GATED RD_CLK Figure 3-11: Recommended Circuit to Gate RD_CLK Using the FIFO_EMPTY Flag GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 54 of 73 Proprietary & Confidential B A Read Pointer Read Pointer Exmple 1: FIFO Empty Flag Operation when FIFO_EMPTY[9:0] = 0h Address Address 0 Exmple 2: FIFO Empty Flag Operation when FIFO_EMPTY[9:0] = 3FFh 2047 1023 2047 0 FIFO FIFO Write Pointer Write Pointer FIFO_EMPTY FIFO_EMPTY C D Read Pointer Exmple 4: FIFO Full Flag Operation when FIFO_FULL[9:0] = 3FFh Read Pointer Exmple 3: FIFO Full Flag Operation when FIFO_FULL[9:0] = 0h Address Address 5 0 1023 2047 2047 FIFO Write Pointer Write Pointer FIFO_FULL FIFO_FULL Figure 3-12: Reading From the FIFO in DVB-ASI Mode GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 55 of 73 Proprietary & Confidential 3.10.3 Ancillary Data Extraction Mode The internal FIFO is ancillary data extraction mode when the FIFO_EN and IOPROC_EN pins are set HIGH, and the FIFO_MODE[1:0] bits in the IOPROC_DISABLE register are configured to 10b. Once the FIFO enters ancillary data extraction mode, it takes 2200 PCLKs (82s) to initialize the FIFO before ancillary data extraction can begin. In this mode, the FIFO is divided into two separate blocks of 1024 words each. This allows ancillary data to be written to one side of the FIFO and from the other. Thus, in each half of the FIFO, the GS9091B will write the contents of the packets up to a maximum of 1024 8-bit words. As described in Section 3.9.2.1, up to five specific types of ancillary data to be extracted can be programmed in the ANC_TYPE registers. If the ANC_TYPE registers are all set to zero, the device will extract all types of ancillary data. The entire packet, including the ancillary data flag (ADF), data identification (DID), secondary data identification (SDID), data count (DC), and checksum word will be written into the memory. The device will detect ancillary data packet DID's placed anywhere in the video data stream, including the active picture area. Additionally, the lines from which the packets are to be extracted from can be programmed into the ANC_LINE_A[10:0] and ANC_LINE_B[10:0] registers, allowing ancillary data from a maximum of two lines per frame to be extracted. If only one line number register is programmed (with the other set to zero), ancillary data packets will be extracted from one line per frame only. When both registers are set to zero, the device will extract packets from all lines. The extracted ancillary data is read through the host interface starting at address 02Ch up to 42Bh inclusive (1024 words). This must be done while there is a valid video signal present at the serial input and the device is locked (LOCKED = HIGH). 3.10.3.1 Ancillary Data Extraction and Reading To start ancillary data extraction, the ANC_PKT_EXT bit of the IOPROC_DISABLE register must be set HIGH (see Table 3-14 in Section 3.9.8). Packet extraction will begin in the following frame after this bit has been set HIGH. Note: Ancillary data extraction will not begin until 2200 PCLKs (82us) after the device has entered into ancillary data extraction mode (FIFO_MODE[1:0] = 10b), regardless of the setting of the ANC_PKT_EXT bit. When the FIFO is configured for ancillary data extraction mode, setting the IOPROC_EN pin LOW will disable packet extraction. If IOPROC_EN is LOW, the setting of the ANC_PKT_EXT host interface bit will be ignored. Clearing the ANC_PKT_EXT bit will not automatically disable ancillary data extraction. To disable ancillary data extraction, switch the FIFO into bypass mode by setting FIFO_MODE[1:0] = 11b. 2200 PCLK cycles after the device re-enters ancillary data extraction mode, data extraction will commence immediately if ANC_PKT_EXT is still HIGH. The ANC output flag available on the I/O output pin (see Section 3.12) can be used to determine the length of the ancillary data extracted and when to begin reading the GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 56 of 73 Proprietary & Confidential extracted data from memory. Recall that ANC is HIGH whenever ancillary data has been detected. In addition, the data count (DC) word, which is located three words after the ancillary data flag (ADF) in the memory, can be read to determine how many valid user data words (UDW) are present in the extracted packet (see SMPTE 291M for more details). The DC value can then be used to preset how many address reads must be performed to obtain only the user data words. Ancillary data will be written into the first half of the FIFO until it is full or until the ANC_DATA_SWITCH bit is toggled (i.e. a HIGH-to-LOW or LOW-to-HIGH transition). If the ANC_DATA_SWITCH bit is not toggled, extracted data will not be written into memory after the first half of the FIFO is full (see block A in Figure 3-13). When the ANC_DATA_SWITCH bit is toggled, new extracted data will be written to the second half starting at address zero (see block B in Figure 3-13). The data in the first half of the FIFO may still be read. Once the data in the first half of the FIFO has been read, the ANC_DATA_SWITCH may be toggled again to enable the second half of the FIFO to be read. The first half of the FIFO will be cleared, and the device will continue to write ancillary data to the second half of the FIFO (see block C in Figure 3-13). If the ANC_DATA_SWITCH bit is toggled again, new extracted data will be written to the first half starting at address zero (see block D in Figure 3-13). The data in the second half of the FIFO may still be read. Toggling ANC_DATA_SWITCH again will clear the second half of the FIFO and restore the read and write pointers to the situation shown in block A. The switching process (shown in blocks A to D in Figure 3-13) will continue with each toggle of the ANC_DATA_SWITCH bit. Note: At least 1100 PCLK cycles (41us) must pass between toggles of the ANC_DATA_SWITCH bit. Also, the ANC_DATA_SWITCH bit must be toggled at a point in the video where no extraction is occurring (i.e. the ANC signal is LOW). By default, the ancillary data is not removed from the video stream. If desired, the ancillary data may be deleted from the video stream after extraction by setting the ANC_DATA_DELETE bit of the host interface HIGH. In this case, all existing ancillary data will be removed and replaced with blanking values. If any of the ANC_TYPE registers are programmed with a DID and/or a DID and SDID, only the ancillary data packets with the matching ID's will be deleted from the video stream. Note: After the ancillary data determined by the ANC_TYPE registers has been deleted, other existing ancillary data may not be contiguous. The device will not concatenate the remaining ancillary data. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 57 of 73 Proprietary & Confidential A 0 Application layer read pointer B 0 ANC_DATA ANC_DATA Internal write pointer 0 ANC_DATA Application layer read pointer ANC_DATA ANC_DATA Internal write pointer 0 ANC_DATA ANC_DATA ANC_DATA ANC_DATA ANC_DATA ANC_DATA ANC_DATA 1023 1023 1023 1023 ANC_DATA_SWITCH = HIGH ANC_DATA_SWITCH = LOW ANC_DATA_SWITCH bit is toggled HIGH. New ancillary data is written to second half of FIFO starting at adress zero. Application layer continues to read from the first half of the FIFO. D C 0 Application layer 0 read pointer ANC_DATA Internal write pointer 0 0 %% ANC_DATA ANC_DATA ANC_DATA ANC_DATA Application layer read pointer ANC_DATA Internal write pointer ANC_DATA ANC_DATA ANC_DATA ANC_DATA ANC_DATA ANC_DATA ANC_DATA ANC_DATA ANC_DATA ANC_DATA %% 1023 1023 1023 ANC_DATA_SWITCH = LOW ANC_DATA_SWITCH toggled LOW. First half of FIFO cleared and ancillary data read from second half of FIFO. Device continues to write ancillary data to second half of FIFO. 1023 ANC_DATA_SWITCH = HIGH ANC_DATA_SWITCH bit is toggled HIGH. New ancillary data is written to first half of FIFO starting at address zero. Application layer continues to read from second half of FIFO. Toggling ANC_DATA_SWITCH back LOW will clear the second half of the FIFO and go back the situation depicted in box A. NOTE: At least 1100 PCLK cycles must pass between toggles of the ANC_DATA_SWITCH bit. The bit must be toggled at a point where no extraction is occuring (i.e. the ANC signal is LOW). Figure 3-13: Ancillary Data Extraction and Reading 3.10.4 Bypass Mode The internal FIFO is in bypass mode when the FIFO_EN or IOPROC_EN pin is set LOW, or the FIFO_MODE[1:0] bits in the IOPROC_DISABLE register are configured to 11b. By default, the FIFO_MODE[1:0] bits are set to 11b by the device whenever both the SMPTE_BYPASS and DVB_ASI pins are LOW; however, the FIFO_MODE[1:0] bits may be programmed as required. In bypass mode, the FIFO is not inserted into the video path and data is presented to the output of the device synchronously with the PCLK output. The FIFO will be disabled and placed in static mode to save power. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 58 of 73 Proprietary & Confidential 3.11 Parallel Data Outputs The parallel data outputs are clocked out of the device on the rising edge of PCLK as shown in Figure 3-14. tOH tOD PCLK 50% VOH VOH VOL VOL VOH VOH VOL VOL DOUT[9:0] CONTROL SIGNAL OUTPUT Figure 3-14: PCLK to Data & Control Signal Output Timing The output data format is defined by the settings of the external SMPTE_BYPASS and DVB_ASI pins (see Table 3-16). In Manual mode, these pins are set as inputs to the device. In Auto mode, the GS9091B sets these pins as output status signals. Table 3-16: Parallel Data Output Format Pin Settings Output Data Format DOUT[9:0] SMPTE_BYPASS DVB_ASI 10-bit Data DATA LOW LOW 10-bit Multiplexed SD Luma / Chroma HIGH LOW 10-bit DVB-ASI DVB-ASI data LOW HIGH 3.11.1 Parallel Data Bus Output Buffers The parallel data outputs of the GS9091B are driven by high-impedance buffers that support both LVTTL and LVCMOS levels. These buffers use either +1.8V or +3.3V, supplied at the IO_VDD and IO_GND pins. When interfacing with +5V logic levels, the IO_VDD pins should be supplied with +3.3V. For a low power connection, the IO_VDD pins may be connected to +1.8V. All output buffers, including the PCLK output, will be in a high-impedance state when the RESET signal is asserted LOW. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 59 of 73 Proprietary & Confidential 3.11.2 Parallel Output in SMPTE Mode When the device is operating in SMPTE mode (see Section 3.6), SMPTE data is output on the DOUT[9:0] pins. 3.11.3 Parallel Output in DVB-ASI Mode When operating in DVB-ASI mode (see Section 3.7), the decoded 8-bit data words will be presented on DOUT[7:0]. DOUT7 = HOUT is the most significant bit of the decoded transport stream data and DOUT0 = AOUT is the least significant bit. DOUT9 will be configured as the DVB-ASI status signal WORDERR and DOUT8 as SYNCOUT. See Section 3.7.2 for a description of these DVB-ASI specific output signals. 3.11.4 Parallel Output in Data-Through Mode When operating in Data-Through mode (see Section 3.8), the GS9091B presents data to the output data bus without performing any decoding, descrambling, or word-alignment. 3.12 Programmable Multi-Function Outputs The GS9091B has a 4-pin multi-function output port, STAT[3:0]. Each pin can be programmed to output one of the following signals: H, V, F, FIFO_LD, ANC, EDH_DETECT, FIFO_FULL, and FIFO_EMPTY. Table 3-17: Output Signals Available on Multi-Function Output Ports Output Status Signal Reference H Section 3.6.4 V Section 3.6.4 F Section 3.6.4 FIFO_LD Section 3.9.1 ANC Section 3.9.2 EDH_DETECT Section 3.9.3 FIFO_FULL Section 3.10.2.1 FIFO_EMPTY Section 3.10.2.1 Each of the STAT[3:0] pins can be configured individually using the STAT0_CONFIG[2:0], STAT1_CONFIG[2:0], STAT2_CONFIG[2:0], and STAT3_CONFIG[2:0] registers. Table 3-18 shows the setting of the IO_CONFIG registers for each of the available output signals. GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 60 of 73 Proprietary & Confidential Table 3-18: IO_CONFIG Settings Function I/O IO_CONFIG Setting H Output 000b V Output 001b F Output 010b FIFO_LD Output 011b ANC Output 100b EDH_DETECT Output 101b FIFO_FULL Output 110b FIFO_EMPTY Output 111b The default setting for each IO_CONFIG register depends on the configuration of the device and the internal FIFO mode selected. This is shown in Table 3-19. If the programmed signal is not relevant to the current mode of operation, the output will be set to a high-impedance state. Table 3-19: IO_CONFIG Default Configuration Device Configuration SMPTE Functionality SMPTE_BYPASS = HIGH DVB_ASI = LOW FIFO: Video Mode or Ancillary Data Extraction Mode DVB-ASI DVB_ASI = HIGH FIFO: DVB-ASI Mode Data-Through SMPTE_BYPASS = LOW DVB_ASI = LOW IO_CONFIG Register I/O Function Default IO_CONFIG Setting STAT0_CONFIG Output H 000b STAT1_CONFIG Output V 001b STAT2_CONFIG Output F 010b STAT3_CONFIG Output FIFO_LD 011b STAT0_CONFIG Output FIFO_FULL 110b STAT1_CONFIG Output FIFO_EMPTY 111b STAT2_CONFIG Output High Z 000b STAT3_CONFIG Output High Z 000b STAT0_CONFIG Output High Z 000b STAT1_CONFIG Output High Z 000b STAT2_CONFIG Output High Z 000b STAT3_CONFIG Output High Z 000b GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 61 of 73 Proprietary & Confidential 3.13 GS9091B Low-latency Mode When the IOPROC_EN pin is set LOW, the GS9091B will be set into low-latency mode. The parallel data will be output with the minimum PCLK latency possible. The FIFO and all processing blocks except the descrambling and word alignment blocks will be bypassed when SMPTE_BYPASS is HIGH. Low-latency mode will also be selected when SMPTE_BYPASS is set LOW, regardless of the setting of the IOPROC_EN signal (see Table 3-20). In DVB-ASI mode, the device latency is less than in SMPTE mode. Table 3-20: Pin Settings in Low-latency Mode IOPROC_EN Setting SMPTE_BYPASS Setting Latency (PCLK Cycles) LOW LOW 9 HIGH LOW 10 LOW HIGH 10 HIGH HIGH 25 Note: Latency applies to parallel processing core only. When the GS9091B is configured for low-latency mode, the H,V, and F output timing will be based on the incoming TRS codes as shown in Figure 3-14. Active line-based timing is not available and the setting of the H_CONFIG host interface bit will be ignored. PCLK Y/Cr/Cb DATA OUT 3FF 000 000 XYZ (eav) 3FF 000 000 XYZ (sav) H V F Figure 3-15: H,V,F Timing In Low-latency Mode GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 62 of 73 Proprietary & Confidential 3.14 GSPI Host Interface The GSPI, or Gennum Serial Peripheral Interface, is a 4-wire interface provided to allow access to the host interface of the GS9091B and/or to provide additional status information through configuration registers in the device. The GSPI comprises a serial data input signal SDIN, serial data output signal SDOUT, an active low chip select CS, and a burst clock SCLK. The burst clock must have a duty cycle between 40% and 60%. Because these pins are shared with the JTAG interface port, an additional control signal pin JTAG_EN is provided. When JTAG_EN is LOW, the GSPI interface is enabled. When operating in GSPI mode, the SCLK, SDIN, and CS signals are provided by the application interface. The SDOUT pin is a non-clocked loop-through of SDIN and may be connected to the SDIN of another device, allowing multiple devices to be connected to the GSPI chain. The interface is illustrated in Figure 3-16. Application Host GS9091B SCLK CS1 SDOUT SCLK CS SDIN SDOUT GS9091B SCLK CS2 CS SDIN SDIN SDOUT Figure 3-16: GSPI Application Interface Connection All read or write access to the GS9091B is initiated and terminated by the host processor. Each access always begins with a 16-bit command word on SDIN indicating the address of the register of interest. This is followed by a 16-bit data word on SDIN in write mode, or a 16-bit data word on SDOUT in read mode. 3.14.1 Command Word Description The command word consists of a 16-bit word transmitted MSB first and contains a read/write bit, an Auto-Increment bit and a 12-bit address. Figure 3-17 shows the command word format and bit configurations. Command words are clocked into the GS9091B on the rising edge of the serial clock SCLK, which operates in a burst fashion. When the Auto-Increment bit is set LOW, each command word must be followed by only one data word to ensure proper operation. If the Auto-Increment bit is set HIGH, the following data word will be written into the address specified in the command word, GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 63 of 73 Proprietary & Confidential and subsequent data words will be written into incremental addresses from the previous data word. This facilitates multiple address writes without sending a command word for each data word. Auto-Increment may be used for both read and write access. 3.14.2 Data Read and Write Timing Read and write mode timing for the GSPI interface is shown in Figure 3-19 and Figure 3-20 respectively. The timing parameters are defined in Table 3-21. When several devices are connected to the GSPI chain, only one CS must be asserted during a read sequence. During the write sequence, all command and following data words input at the SDIN pin are output at the SDOUT pin as is. Where several devices are connected to the GSPI chain, data can be written simultaneously to all the devices that have CS set LOW. Table 3-21: GSPI Timing Parameters Parameter Definition Specification t0 The minimum duration of time chip select, CS, must be LOW before the first SCLK rising edge. 1.5 ns t1 The minimum SCLK period. 12.5 ns t2 Duty cycle tolerated by SCLK. t3 Minimum input setup time. 1.5 ns t4 Write Cycle: the minimum duration of time between the last SCLK command (or data word if the Auto-Increment bit is HIGH) and the first SCLK of the data word. 37.1 ns t5 Read Cycle: the minimum duration of time between the last SCLK command (or data word if the Auto-Increment bit is HIGH) and the first SCLK of the data word. 148.4 ns t5 Read Cycle - FIFO in ANC Extraction Mode: the minimum duration of time between the last SCLK command (or data word if the Auto-Increment bit is HIGH) and the first SCLK of the data word. 222.6 ns t6 Minimum output hold time. 1.5 ns t7 The minimum duration of time between the last SCLK of the GSPI transaction and when CS can be set HIGH. 37.1 ns t8 Minimum input hold time. 1.5 ns GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 40% to 60% 64 of 73 Proprietary & Confidential LSB MSB R/W RSV RSV AutoInc A10 A11 A8 A9 A7 A5 A6 A4 A2 A3 A1 A0 R/W: Read command when R/W = 1 Write command when R/W = 0 RSV = Reserved. Must be set to zero. Figure 3-17: Command Word Format LSB MSB D15 D12 D13 D14 D10 D11 D8 D9 D7 D5 D6 D4 D2 D3 D1 D0 Figure 3-18: Data Word Format duty cycle t2 t0 t4 t5 period SCLK t3 CS input data setup time t6 SDIN R/W RSV RSV RSV RSV RSV RSV RSV RSV RSV A5 A4 A3 A2 A1 output data hold time A0 SDOUT D15 D14 D13 D12 D11 D10 D9 D8 D7 D6 D5 D4 D3 D2 D1 D0 Figure 3-19: GSPI Read Mode Timing t2 t0 duty cycle t4 period SCLK t3 CS SDIN R/W RSV RSV RSV RSV RSV input data setup time RSV RSV RSV RSV A5 A4 A3 A2 A1 A0 D15 D14 D13 D12 D11 D10 D9 D8 D7 D6 D5 D4 D3 D2 D1 D0 Figure 3-20: GSPI Write Mode Timing GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 65 of 73 Proprietary & Confidential 3.14.3 Configuration and Status Registers Table 3-22 summarizes the GS9091B's internal status and configuration registers. All of these registers are available to the host via the GSPI and are all individually addressable. Where status registers contain less than the full 16 bits of information, two or more registers may be combined at a single logical address. Table 3-22: GS9091B Internal Registers Address Register Name Reference 00h IOPROC_DISABLE Section 3.9.8 01h ERROR_STATUS Section 3.9.7 02h EDH_FLAG_IN Section 3.9.4 03h EDH_FLAG_OUT Section 3.9.4 04h DATA_FORMAT Section 3.9.6.1 05h IO_CONFIG Section 3.12 06h FIFO_EMPTY_OFFSET Section 3.10.2.1 07h FIFO_FULL_OFFSET Section 3.10.2.1 08h - 0Eh ANC_TYPE Section 3.9.2 11h - 14h RASTER_STRUCTURE Section 3.9.6 15h - 24h EDH_CALC_RANGES Section 3.9.7.2 25h ERROR_MASK Section 3.9.7 28h FIFO_LD_POSITION Section 3.9.1.1 02Ch - 42Bh INTERNAL FIFO Section 3.10.3 GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 66 of 73 Proprietary & Confidential 3.15 JTAG operation When the JTAG_EN pin is set HIGH, the host interface port (as described in Section 3.14) will be configured for JTAG test operation. In this mode, pins J4, K5, J5, and K6 become TMS, TCK, TDO, and TDI respectively. In addition, the RESET pin will operate as the test reset pin, as well as resetting the internal registers. Boundary scan testing using the JTAG interface will be possible in this mode. There are two methods in which JTAG can be used on the GS9091B: 1. As a stand-alone JTAG interface to be used at in-circuit ATE (Automatic Test Equipment) during PCB assembly; or 2. Under control of the host for applications such as system power self tests. When the JTAG tests are applied by ATE, care must be taken to disable any other devices driving the digital I/O pins. If the tests are to be applied only at ATE, this can be accomplished with tri-state buffers used in conjunction with the JTAG_EN input signal. This is shown in Figure 3-21. Alternatively, if the test capabilities are to be used in the system, the host may still control the JTAG_EN input signal, but some means for tri-stating the host must exist in order to use the interface at ATE. This is represented in Figure 3-22. Application HOST GS9091B CS_TMS SCLK_TCK SDIN_TDI SDOUT_TDO JTAG_EN In-circuit ATE probe Figure 3-21: In-Circuit JTAG Application HOST GS9091B CS_TMS SCLK_TCK SDIN_TDI SDOUT_TDO JTAG_EN Tri-State In-circuit ATE probe Figure 3-22: System JTAG GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 67 of 73 Proprietary & Confidential 3.16 Device Power Up The GS9091B has a recommended power supply sequence. To ensure correct power up, power the CORE_VDD pins before the IO_VDD pins. In order to initialize all internal operating conditions to their default state the application layer must hold the RESET pin LOW for a minimum of treset = 1ms. (See Figure 3-23) Device pins can be driven prior to power up without causing damage. CORE_VDD +1.71V +1.8V treset treset Reset Reset RESET Figure 3-23: Reset pulse GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 68 of 73 Proprietary & Confidential 4. References & Relevant Standards Table 4-1: References and Relevant Standards SMPTE 125M Component video signal 4:2:2 - bit parallel interface SMPTE 259M 10-Bit 4:2:2 Component and 4fSC Composite Digital Signals - Serial Digital Interface SMPTE 291M Ancillary Data Packet and Space Formatting SMPTE 293M 720 x 483 active line at 59.94 Hz progressive scan production - digital representation SMPTE 305.2M Serial Data Transport Interface SMPTE 352M Video Payload Identification for Digital Television Interfaces SMPTE RP165 Error Detection Checkwords and Status Flags for Use in Bit-Serial Digital Interfaces for Television SMPTE RP168 Definition of Vertical Interval Switching Point for Synchronous Video Switching GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 69 of 73 Proprietary & Confidential JP3 EQ_GND 1 RESETb IO_VDD 75 R13 R14 75 1u C37 9 7 5 3 1 R20 100K C40 100n C43 (NP) C42 (NP) J10 J11 C45 1u GND_D RESETb R27 1K IO_VDD C44 (NP) R18 (NP) C47 1u C41 1u 10n GND_D R17 (NP) R16 (NP) EQ_GND EQ_GND C46 EQ_VCC C35 (NP) C33 (NP) C34 4n7 B3S-1002 S1 GND_D LOCKED DATA_ERRORb A8 J7 K9 H9 A7 B8 B9 A6 B6 K3 K4 AUTO_MANb SMPTE_BY PASSb DVB_ASI FIFO_EN FW_EN IOPROC_EN RESETb J3 J4 J5 K6 K5 H1 E1 J2 J1 K1 F1 G1 E2 A3 A5 A1 B1 C48 10n C24 10n C22 1u C18 1u JTAG_HOSTb EQ_BY PASS C39 1u GND_A GND_A GND_A GND_A R12 100K GND_D C38 10n EQ_GND SCLK_TCK SDIN_TDI SDOUT_TDO CSb_TMS GND_D R21 100K IO_VDD R15 37R4 1U C36 HEADER 5X2 10 8 6 4 2 JP5 R19 100K EQ_GND 6.2n L1 +1.8V_A R11 (NP) R9 0 GND_A LOCKED DATA_ERROR RD_CLK RD_RESET AUTO/MAN SMPTE_BY PASS DVB_ASI FIFO_EN FW_EN IOPROC_EN RESET JTAG/HOST CS_TMS SDOUT_TDO SDIN_TDI SCLK_TCK EQ_VDD EQ_GND EQ_BY PASS AGC+ AGC- SDI SDI TERM LB_CONT VBG LF+ LF- U4 R10 0 +3.3V C1 C2 ANA_VDD ANA_VDD C16 10n D1 D2 ANA_GND ANA_GND C23 10n C21 1u +1.8V_A GND_A R7 0 GND_D EQ_GND C17 10n C15 1u C14 1u C13 10n B4 A4 GS9091 VCO_GND VCO_VDD GND_D GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 Vref _IO IO_VDD GND_D BNC 3 2 B3 B2 PLL_GND PLL_VDD HEAT_SINK_GND HEAT_SINK_GND HEAT_SINK_GND HEAT_SINK_GND HEAT_SINK_GND HEAT_SINK_GND F2 F3 G2 G3 H2 H3 +1.8V_A R8 0 +1.8V B7 J6 CORE_VDD CORE_VDD CORE_GND CORE_GND CORE_GND CORE_GND CORE_GND CORE_GND CORE_GND CORE_GND GND_D D4 D5 E4 E5 F4 F5 G4 G5 5.1 Typical Application Circuit NC NC NC NC NC NC NC NC NC NC NC NC NC NC NC NC NC NC NC NC NC C27 10n A2 B5 C3 C4 C5 C6 C7 C9 D3 D8 D9 E3 E8 F8 G8 G9 H4 H5 H6 H7 K2 J9 J8 K8 K7 A10 B10 C10 D10 E10 F10 G10 H10 J10 K10 A9 R28 C26 1u GND_D STAT3 STAT2 STAT1 STAT0 GND_D +1.8V C20 10n DOUT9 DOUT8 DOUT7 DOUT6 DOUT5 DOUT4 DOUT3 DOUT2 DOUT1 DOUT0 PCLK C25 10n C19 10n C28 1u 0 C30 1u TP1 GND_D GND_D 1K 1K 1K PCLK DOUT9 DOUT8 DOUT7 DOUT6 DOUT5 DOUT4 DOUT3 DOUT2 DOUT1 DOUT0 GND_D C32 1u IO_VDD 47 45 43 41 39 37 35 33 31 29 27 25 23 21 19 17 15 13 11 9 7 5 3 1 JP4 10 8 6 4 2 9 7 5 3 1 HEADER 5X2 JP2 48 46 44 42 40 38 36 34 32 30 28 26 24 22 20 18 16 14 12 10 8 6 4 2 C3 100n 7 11 U2E 14 7 5 U2C 14 7 1 U2A 14 IO_VDD 9 U2D GND_D 2 IO_VDD J9 J8 J7 J6 J5 J4 J3 J2 R5 R3 R2 R1 R23 R22 GND_D 74LVC04APWR 12 74LVC04APWR 8 74LVC04APWR 4 74LVC04APWR Control Signals 7 13 U2F 74LVC04APWR 10 7 74LVC04APWR 14 6 14 7 3 U2B 14 GND_D GND_D GND_D SQT-105-01-F-D-RA DATA_ERRORb SMPTE_BY PASSb LOCKED DVB_ASI Device Status NOTE: For DVB_ASI functionality, please refer to section 3.7 for the additional recommended application circuit. R24 R25 R26 C31 10n TP2 TP3 TP4 C29 10n 1 C8 E9 F9 H8 IO_VDD IO_VDD IO_VDD IO_VDD IO_GND IO_GND IO_GND IO_GND IO_GND IO_GND IO_GND IO_GND D6 D7 E6 E7 F6 F7 G6 G7 1 1 5. Application Information 1 1K 1K 100R 100R 100R 100R D1 2 D2 D3 2 2 D4 RED LED 2 70 of 73 Proprietary & Confidential DVB_ASI SMPTE_BY PASSb IOPROC_EN JTAG_HOSTb AUTO_MANb FW_EN FIFO_EN EQ_BY PASS 1 Y ELLOW LED 1 GREEN LED 1 Y ELLOW LED 1 +3.3V 6. Package & Ordering Information 6.1 Package Dimensions BOTTOM VIEW TOP VIEW O0.10 S C O0.25 S C A B O0.40~0.60(100X) PIN 1 CORNER 1 2 3 4 5 6 7 8 9 10 10 9 8 7 6 PIN 1 CORNER 5 4 3 2 1 A A B B C 1.00 C E F D E 9.00 11 0.10 D F G G H H J J K K 0.700.05 -A0.15 0.25 C 1.00 9.00 -B- 0.20(4X) 11 0.10 Substrate Thickness : Ball Pitch : 1.00 0.50 0.70 1.71 REF. 0.30~0.50 SEATING PLANE (0.61) -C- 0.61 Mold Thickness : Ball Diameter : * THE BALL DIAMETER, BALL PITCH, STAND-OFF & PACKAGE THICKNESS ARE DIFFERENT FROM JEDEC SPEC M0192 (LOW PROFILE BGA FAMILY) Figure 6-1: Packaging Dimensions GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 71 of 73 Proprietary & Confidential 6.2 Packaging Data Parameter Value Package Type 11mm x 11mm 100 LBGA Moisture Sensitivity Level 3 Junction to Case Thermal Resistance, j-c 41.4 Junction to Air Thermal Resistance, j-a (at zero airflow) 74.5 Psi, 55.2 Pb-free and RoHS compliant Yes 6.3 Marking Diagram Pin 1 ID GS9091B XXXXE3 YYWW XXXX - Lot/Work Order ID YYWW - Date Code YY - 2-digit year WW - 2-digit week number 6.4 Ordering Information Part Number Package Temperature Range GS9091BCBE3 Pb-free 100-BGA 0oC to 70oC GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 72 of 73 Proprietary & Confidential DOCUMENT IDENTIFICATION CAUTION FINAL DATA SHEET ELECTROSTATIC SENSITIVE DEVICES Information relating to this product and the application or design described herein is believed to be reliable, however such information is provided as a guide only and Semtech assumes no liability for any errors in this document, or for the application or design described herein. Semtech reserves the right to make changes to the product or this document at any time without notice. DO NOT OPEN PACKAGES OR HANDLE EXCEPT AT A STATIC-FREE WORKSTATION (c) Semtech 2012 All rights reserved. Reproduction in whole or in part is prohibited without the prior written consent of the copyright owner. The information presented in this document does not form part of any quotation or contract, is believed to be accurate and reliable and may be changed without notice. No liability will be accepted by the publisher for any consequence of its use. Publication thereof does not convey nor imply any license under patent or other industrial or intellectual property rights. Semtech assumes no responsibility or liability whatsoever for any failure or unexpected operation resulting from misuse, neglect improper installation, repair or improper handling or unusual physical or electrical stress including, but not limited to, exposure to parameters beyond the specified maximum ratings or operation outside the specified range. SEMTECH PRODUCTS ARE NOT DESIGNED, INTENDED, AUTHORIZED OR WARRANTED TO BE SUITABLE FOR USE IN LIFE-SUPPORT APPLICATIONS, DEVICES OR SYSTEMS OR OTHER CRITICAL APPLICATIONS. INCLUSION OF SEMTECH PRODUCTS IN SUCH APPLICATIONS IS UNDERSTOOD TO BE UNDERTAKEN SOLELY AT THE CUSTOMER'S OWN RISK. Should a customer purchase or use Semtech products for any such unauthorized application, the customer shall indemnify and hold Semtech and its officers, employees, subsidiaries, affiliates, and distributors harmless against all claims, costs damages and attorney fees which could arise. Notice: All referenced brands, product names, service names and trademarks are the property of their respective owners. Contact Information Semtech Corporation Gennum Products Division 200 Flynn Road, Camarillo, CA 93012 Phone: (805) 498-2111, Fax: (805) 498-3804 www.semtech.com GS9091B GenLINX(R) II 270Mb/s Deserializer for SDI and DVB-ASI Final Data Sheet 38910 - 3 February 2013 73 of 73 73 Proprietary & Confidential