HXC2000C01 CROSS CONVERTER FROM 3G/HD/SD-SDI TO 3G/HD/SD-SDI WITH ADVANCED MOTION COMPENSATED DE-INTERLACING

Version 1.0

Albalá Ingenieros, S.A. 07 March 2018 - © Albalá Ingenieros S.A. - All rights reserved Medea, 4 - 28037 Madrid - Spain HXC2000C01 HXC2000C01 CROSS CONVERTER FROM 3G/HD/SD-SDI TO 3G/HD/SD-SDI WITH ADVANCED MOTION COMPENSATED DE-INTERLACING Version 1.0

1. DESCRIPTION ...... 5 1.1. The HXC2000C01 ...... 5 1.2. Features ...... 6 1.3. Block diagram ...... 7 2. SPECIFICATIONS ...... 9 3. INSTALLATION ...... 11 3.1. Initial inspection ...... 11 3.2. Safety instructions ...... 11 3.3. Environmental considerations ...... 12 3.4. Power considerations ...... 12 3.5. Installing the module in the mounting frame ...... 12 3.6. Interconnection ...... 13 3.6.1. Electrical SDI video connections ...... 13 3.6.2. Analog video connections ...... 14 4. OPERATION ...... 15 4.1. Front panel description ...... 15 4.2. Supported formats ...... 16 4.3. Functional description ...... 16 4.3.1. Synchronization ...... 17 4.3.2. Deinterlacing ...... 17 4.3.3. Sampling structure conversion, scaling and aspect ratio adjustment ...... 18 4.3.4. Latency ...... 20 4.3.5. Ancillary data processing ...... 20 4.4. User configurations and GPIOs ...... 20 4.5. Module remote control and supervision ...... 21 4.5.1. Details of the HXC2000C01 registers ...... 22 5. GLOSSARY ...... 29 6. REGULATIONS ...... 31 7. VERSIONS ...... 33 HXC2000C01 Albalá Ingenieros | Manual HXC2000C01

1. DESCRIPTION

1.1. The HXC2000C01 The HXC2000C01 is a 3G/HD/SD-SDI digital video format converter that can convert between signals with the same field frequency (50Hz or 59,94Hz) and perform the necessary deinterlacing, scaling and aspect ratio conversion. In order to perform format conversion the HXC2000C01 includes an advanced deinterlacer with motion compensation and a sampling structure converter with horizontal and vertical polyphase filters capable of both upconversion and downconversion. The HXC2000C01 module includes a 3G/HD/SD-SDI video input (IN), a 3G/HD/SD-SDI video output for the converter and synchronized signal distributed over two connectors (OUT1/OUT2) and an analog reference input with loop-through (REF. LOOP). The HXC2000C01 module can decode both Coded Frame Aspect Ratio (CF) and Active Format Description Code (AFD) information present in the input signal in order to determine the necessary format conversion. Information regarding the format can come in the form of ancillary data packets as per SMPTE 2016-3 or coded as Video Index Information VII or Wide Screen Signaling (WSS) as per SMPTE RP 186 (VII), ITU-R BT.1119-2 (WSS, 625 lines) and JEITA CPR-1204 (WSS, 525 lines). Format information can also be inserted into the output signal in accordance with these standards. In addition to converting the format of the video signal, the HXC2000C01 can pass the audio, teletext and timecode information present in the input video signal to the output. When passing audio both channel reassignment and gain adjustment of the pairs if desired. The HXC2000C01 module can function as both a frame synchronizer and a delayer. For frame synchronizer operation the output video signal is synchronized to the analog reference signal, whereas for delayer operation the output video signal is synchronized to the input video being received for format conversion. It is possible to monitor the HXC2000C01 status remotely using a communications controller module installed in the same mounting frame. In addition, certain controller modules provide SNMP management and the ability to record events in a file including date and time information for further analysis. The HXC2000C01 is a TL2000 terminal line module and can be housed in a two rack unit (2 RU) UR2000 mounting frame.

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1.2. Features • 3G/HD/SD-SDI digital video signal format cross-converter with frame synchronization. • Provides: - One 3G/HD/SD-SDI input. - One 3G/HD/SD-SDI output resulting from conversion, synchronized and distributed to two connectors. - One analog reference input with loop-through. • Deinterlaces the input signal using a robust motion-compensated algorithm. • Allows pass through of the embedded audio, teletext and timecode in the signal from input to output. • Includes an audio matrix with gain control capable of reassigning the audio pairs at the SDI input to the SDI output. • Inserts VII, WSS and SMPTE 2016-3 information into the down-converted signal. • Can operate in sync with the analog reference or with the digital input signal itself. In both cases both horizontal and vertical delays are adjustable. • Supports the following video formats: - SMPTE ST 424 (3Gbit/s): 1080p50/59.94. - SMPTE ST 292-1 (1,5Gbit/s): 1080i50/5.94, 720p50/59.94. - SMPTE ST 259 (270Mbit/s): 576i50 y 486i59.94. • Can be configured to deliver a test signal (black or colour bars) with a caption or to freeze the last correct frame when the input signal is lost. • The output signal format is configurable: the Coded Frame and its AFD can be calculated automatically or forced manually. • Provides 16 presets for storage of module configuration. • Module control and supervision can be done remotely when the mounting frame is equipped with a communications controller module. • Low power.

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1.3. Block diagram

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HXC2000C01

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2. SPECIFICATIONS

SD/HD/3G-SDI digital video signal input Connector BNC Impedance 75Ω ± 1 % Return loss: Up to 3 GHz >10 dB Up to 1.5 GHz >15 dB Number of inputs 1 Equalizable cable length: Belden 8281, SD 270Mbit/s >300 m Belden 1694A, HD 1,5Gbit/s >150 m Belden 1694A, HD 3Gbit/s >110 m SD/HD/3G-SDI digital video signal output Connector BNC Impedance 75Ω ± 1 % Return loss: Up to 3 GHz >10 dB Up to 1.5 GHz >15 dB Number of outputs 2

Amplitude 800mVpp ± 10 % Frequency stability ±1ppm without reference signal SD/HD/3G-SDI digital video signal Signal formats According to SMPTE ST 424, SMPTE ST 292-1, SMPTE ST 259 standards Bit rates 270Mbit/s, 1.483Gbit/s, 1.485Gbit/s, 2.967Gbit/s and 2.970Gbit/s Accepted formats 625i50, 525i59.94, 720p50, 720p59.94, 1080i50, 1080i59.94, 1080p50, 1080p59.94 Embedded audio format According to SMPTE 272M, SMPTE ST 299-1 standards, 48kHz synchronous with video Video reference signal input Connector BNC Return loss >30dB up to 40 MHz Type Passive Loop-Through

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Reference signal types Black-burst and tri-level sync Signal format According to ITU-R BT.470-6, ITU-R BT.709-7, ITU-R BT.1847, SMPTE ST 296 and SMPTE 274M standards Accepted formats 625i50, 525i59.94, 720p50, 720p59.94, 1080i50, 1080i59.94, 1080p50, 1080p59.94 Input signal amplitude ±6dB referred to nominal General Power consumption 8 W Operating temperature range 0 .. 50 °C Approximate weight 250 g

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3. INSTALLATION

THE HXC2000C01 MODULE CONTAINS ELECTRONIC DEVICES SENSITIVE TO ELECTROSTATIC DISCHARGE. Always use antistatic bags clearly identified with a high degree of shielding for storage and transportation.

3.1. Initial inspection Verify that the package has been properly handled during transport. After opening the packaging, check that the HXC2000C01 module is inside. You must notify your Albalá Ingenieros distributor or dealer of any damage or defects observed. Follow the instructions in this manual to install this module in the mounting frame.

3.2. Safety instructions • This equipment must be connected to a mains outlet with a protective earth connection. Never use extension cords that do not have protective earthing connection. The lack of an effective electrical connection between the ground pin in the mains input connector of the equipment and the protective earth of the electrical power distribution can cause serious harm. • All modules of the Albalá Ingenieros TL2000 terminal line can be hot-plugged or unplugged without suffering any damage or affecting the processes that are currently taking place in other modules in the same mounting frame. • The HXC2000C01 module and the mounting frame should always be installed, maintained, operated and removed by personnel with sufficient technical qualifications. The equipment should never be placed in damp areas, near splashing liquid, or in explosive or corrosive atmospheres. Neither modules nor mounting frames can be used in applications that could endanger human life.

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3.3. Environmental considerations This symbol indicates that this equipment must be deposited at a collection point for proper waste treatment once it has reached the end of its useful life.

3.4. Power considerations The numbers of modules that can be installed in a UR2000R1 mounting frame is limited by the power available from the power supply. The sum of the power requirements for all the modules installed must not exceed the capability of the power supply. One UR2000R1 mounting frame together with a PSU2000 power supply can power a maximum of 8 HXC2000C01 modules.

3.5. Installing the module in the mounting frame The following steps should be followed in order to install a HXC2000C01 module in the mounting frame. 1 - Remove the blank panel covering the front of the empty slot chosen for installing the HXC2000C01 in the mounting frame. 2 - Insert the HXC2000C01 module into the front of the mounting frame. The edges of the card slide into two plastic guides inside the mounting frame. 1 - Remove the cover panel at the front of the selected slot and the slot directly to the right in order to install the HXC2000C01 into the mounting frame. 3 - Secure the module to the mounting frame using the two front screws. After these steps, the module is ready to be connected to other equipment.

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3.6. Interconnection The arrangement of the front panel connectors of the HXC2000C01 module is shown in the following figure.

Front panel of the HXC2000C01

The HXC2000C01 module provides one 3G/HD/SD-SDI digital video input (IN), two converted and synchronized 3G/HD/SD-SDI digital video outputs (OUT1, OUT2) and an analog reference input with loop-through (REF. LOOP). The front panel has not been designed to support mechanical stress. All cabling in the rack where the mounting frame is located should be properly supported so that the front panel does not provide mechanical support.

3.6.1. Electrical SDI video connections All electrical SDI video connections are BNC type. The following suggestions should be kept in mind when wiring the electrical signals. BNC connectors used on cables must be suitable for the high frequencies of digital video signals: it is strongly recommended to use high quality connectors from well known manufacturers. All coaxial cable used must be Belden 1694A or similar. This type provides the greatest lengths because it is used to calculate the equalizers in the HXC2000C01. Cables carrying signal between the module and the devices should use single piece construction, avoiding spliced sections with double BNC female or barrel connectors. If it is necessary to split the cable into two sections the same type of wire should be used in both sections.

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The use of analog video coaxial cables RG-59 type or similar is not recommended for digital video except for very short distances.

3.6.2. Analog video connections The reference analog video signal input uses two BNC connectors configured in loop-through. For analog video connections a coaxial cable with 75Ω of characteristic impedance must be used.

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4. OPERATION

This section describes the significance of the front panel indicators of the HXC2000C01 module and their remote control and monitoring ability.

4.1. Front panel description The appearance of the front panel and the elements it contains are shown in the following illustration.

Front panel of the HXC2000C01

In addition to the connectors previously described in the Interconnection section the front panel includes the following indicators and controls: IN: 3G. White. This color indicates that the format of the SDI input signal is 3Gbit/s (1080p50 or 1080p59.94). HDi Cyan. This color indicates that the format of the SDI input signal is 1.5Gbit/s interleaved (1080i50 or 1080i59.94). HDp. Blue. This color indicates that the format of the SDI input signal is 1.5Gbit/s progressive (720p50, 720p59.94, 1080p25 or 1080p29.97). SD. Green. This color indicates that the format of the SDI input signal is SD (486i59.94 or 576i50). OTHER. Yellow. This color indicates that the HXC2000C01 is unable to recognize

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the format of the input SDI signal. FAIL. Red. This color indicates that no signal is present at the SDI input. This LED will blink when the clock recovery circuit is unable to lock to the signal being received. REF.: 3G. White. This color indicates that the format of the input signal is 3Gbit/s SDI (1080p50 or 1080p59.94). HDi Cyan. This color indicates that the format of the input signal is 1.5Gbit/s SDI interleaved (1080i50 or 1080i59.94). HDp. Blue. This color indicates that the format of the input signal is 1.5Gbit/s SDI progressive (720p50, 720p59.94, 1080p25 or 1080p29.97). SD. Green. This color indicates that the format of the input signal is SD (486i59.94 or 576i50). OTHER. Yellow. This color indicates that the HXC2000C01 is unable to recognize the format of the input SDI signal. FAIL. Red. This color indicates that no signal is present at the SDI input. This LED will blink when the oscillator used to generate the output signal is not locked to the reference signal being received. This LED will remain off when digital reference synchronization mode is selected.

4.2. Supported formats The following table lists the SDI video formats that the module is compatible with. Progressive / Standard SMPTE Active lines Field frequency Interlaced 576 Interlaced 50 Hz 259M 486 Interlaced 59.94 Hz 720 Progressive 50 Hz 720 Progressive 59.94 Hz 274M y 292 1080 Interlaced 50 Hz 1080 Interlaced 59.94 Hz 1080 Progressive 50 Hz 424M y 425M 1080 Progressive 59.94 Hz

4.3. Functional description The HXC2000C01 module is a 3G/HD/SD-SDI digital video format converter capable of any conversion between formats with the same field frequency (50Hz or 59.94Hz) performing any necessary deinterlacing, scaling and aspect ratio conversion. The signal delivered by the module can be synchronized to the analog reference or to the input SDI video signal being converted. In the first case the HXC2000C01 operates as a frame synchronizer, whereas in the second case is operates as a delayer. Furthermore the HXC2000C01 is capable of passing ancillary data from the input video to the output video signal.

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The following will explain the various abilities of the HXC2000C01 on a feature-by-feature basis: - Synchronization. - Deinterlacing. - Sampling structure conversion, scaling and aspect ratio adjustment. - Ancillary data processing.

4.3.1. Synchronization The output video signal delivered by the HXC2000C01 module can be synchronized to an analog reference signal if provided or to the input SDI video signal undergoing format conversion. When synchronized to the analog reference it is the Black-burst or tri-level sync signals present in the reference that are used. In this mode the HXC2000C01 operates as a synchronize, adapting the field frequency of the input video signal to that of the analog reference. When the unit synchronizes to the input SDI video signal it maintains the field frequency of that signal. When no signal is present at the input the HXC2000C01 displays a frozen screen with the last frame that was received correctly during a configurable amount of time. The unit then generates a black screen signal or stops outputting signal depending upon its configuration.

4.3.2. Deinterlacing Deinterlacing is the process of estimating those lines which are not present in each field when the format of the input signal received is interlaced. Both the spatial and the temporal resolution aspects of the quality of the converted signal depend largely upon the quality of the deinterlacing algorithm. A large number of different deinterlacing algorithms exist with a wide range of computational requirements, memory requirements and delays. At a high level these algorithms can be placed into three groups based upon the processes they perform: interpolators, motion adaptive and motion compensation. Within the group of interpolation algorithms, the simplest consists of replicating the lines of the same field, with the disadvantage of notably degraded vertical resolution. Another simple algorithm in this family is based upon replication of the lines from the previous field, with the disadvantage of degraded temporal resolution. Within the same-field line replication algorithm there are some variants that attempt to improve the vertical resolution. The simplest of these variants obtain the pixels for the missing lines via interpolation of those vertical pixels immediately adjacent to the missing ones, whereas the most complex variants are the so-called Edge Line Average (ELA)

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algorithms that search for the optimal vertical pixels for interpolation along oblique lines. The Motion Adaptive algorithms combine spatial interpolation (for example, ELA) with temporal interpolation, detecting if movement exists between frames for each pixel that must be estimated. If no movement is detected then a temporal interpolation algorithm is applied for the best vertical resolution, whereas when movement is detected a spatial interpolation algorithm is used to avoid the appearance of artifacts. Finally, there are the Motion Compensated algorithms, those which attempt to estimate the movement that occurs is successive fields. In this manner the estimated lines created while deinterlacing are formed by displacement of the existing lines in the previous and successive fields depending upon the estimated motion. This type of algorithm gives the best results, especially when the image contains fine details and slow movement. The HXC2000C01 implements a robust Motion Compensated algorithm to deinterlace standard definition signals. For high definition signals in interlaced format the deinterlacing is done with a robust motion adaptive algorithm. In both cases the underlying spatial interpolation algorithm is an ELA type. In general, the more complex the algorithm the better the results obtained, however there may be situation where the user prefers to select a given algorithm. In this cases the options are as follows: - Deinterlacing with a robust Motion Compensated algorithm. This is the default option for use with standard definition signals. - Deinterlacing with a robust motion adaptive algorithm. This is the default option for high definition signals. In order to use this algorithm the Motion Compensated algorithm is deactivated. - Deinterlacing with a purely spatial ELA algorithm. - Deinterlacing via pure field replication.

4.3.3. Sampling structure conversion, scaling and aspect ratio adjustment The HXC2000C01 can perform conversion between formats with the same field frequencies and cannot be used to convert between formats with 50Hz field frequencies and those with 59.94Hz. Upconversion to increase the level of definition as well as downconversion to decrease resolution are both possible, along with changes to the aspect ratio of the signal. In order for the unit to operate the user must select the format for the output video and configure the aspect ratio parameters as described in the following paragraph. If upconversion is being performed but scaling is not desired then a scaling ratio of 1:1 can be selected. In this case the active video from the input signal is displayed in the center of the output video image.

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CF and AFD conversion for the output video can be configured to operate automatically or manually by the user. When conversion is done in Manual Mode the user selects the CF and AFD for the input video as well as the CF and AFD for the output video. The supported combination of CF and AFD are shown in the following table:

Coded Frame (CF) Active Format Description Code (AFD) Full Frame 4 / 3 Letterbox 16/9 c Full Frame 16 / 9 Pillarbox 4/3 c

When conversion is done in Automatic Mode the CF and AFD for the input video are determined by the CF and AFD information coded in the input signal, either in data packets SMPTE 2016-3, in VII (Video Index Information) or in WSS (WideScreen Signaling). In cases where this information is not available the AFD defaults to Full Frame and the CF defaults to 4/3 for standard definition formats and 16/9 with high definition formats. In order to determine the output signal AFD the user selects the output signal CF and based upon this selection and the AFD of the input signal received the output signal AFD is calculated according to the following table:

IN OUT CF AFD CF AFD 16 / 9 Full Frame 16 / 9 Full Frame 4 / 3 Letterbox 16/9 c 16 / 9 Pillarbox 4/3 c 16 / 9 Pillarbox 4/3 c 4 / 3 Full Frame 16 / 9 Pillarbox 4/3 c 4 / 3 Full Frame 4 / 3 Full Frame 16 / 9 Full Frame 4 / 3 Letterbox 16/9 c 4 / 3 Letterbox 16/9 c

The HXC2000C01 can insert format information into the output signal using data packets as per SMPTE 2016-3, using the VII (Video Index Information) standard SMPTE RP 186 or using the WSS (WideScreen Signaling) standard ITU-R BT.1119-2 for 625 lines and JEITA CPR-1204 for 525 lines.

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4.3.4. Latency The process of de-interlacing and format conversion involves some latencies that depend upon the type of conversion being performed, and are listed as follows:

INPUT OUTPUT LATENCH FORMAT FORMAT Interlaced Interlaced 4 input fields Interlaced Progressive 3 input fields Progressive Interlaced 2 input frames Progressive Progressive 2 input frames

4.3.5. Ancillary data processing The HXC2000C01 module can pass embedded audio present in the input signal received to the output signal, reassigning the channels and adjusting the gain based upon the configuration set by the user. Other types of data such as teletext, subtitles, timecodes and certain types of ancillary data packets present in the input signal can also be passed through to the output signal

4.4. User configurations and GPIOs The module includes 16 configuration presets.

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4.5. Module remote control and supervision The HXC2000C01 requires remote control for configuration. In order to perform remote configuration and supervision of the module an optional TL2000 family remote communications controller must be installed in the mounting frame. The main function of the communications control module is to interface between a 10/100 Ethernet port and the internal bus of the mounting frame. The following illustration shows the most common control situations: from a computer or control panel via Ethernet. In order to perform remote control and/or supervision, it is recommended to have a TLE2001C02 communications controller installed in the same mounting frame where the HXC2000C01 is located. However, remote control can also be performed using the dedicated Ethernet port when the remote supervision requirements are less demanding. Certain communications control modules provide additional, more advanced functions such as an SNMP agent, logging of status changes of the modules and a Web interface for remote control, etc. Software for simple configuration and supervision with a GUI for multiple modules can be downloaded from the Albalá Ingenieros website.

UR2000 INTERNAL BUS

TLE2001 PSU2000 PSU2000

REMOTE CONTROL UNIT

TL2000 Ethernet OTHER TL2000 COMMUNICATIONS MODULES CONTROLLER MODULE Ethernet

HUB/SWITCH

Ethernet UR2000 INTERNAL BUS Ethernet

TLE2001 PSU2000 PSU2000

Module remote control and supervision

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The following functions of the HXC2000C01 can be performed remotely: - Selection of the reference input and its format. - Configuration of the conversion format. - Adjustment of auxiliary data management. - Configuration of the reassignment of the embedded audio channels. - Supervision of the lock status and embedded audio conversion.

4.5.1. Details of the HXC2000C01 registers The HXC2000C01 module provides control and status registers that can be read and written by means of specific commands described in the communication control module user manuals. The parameter information grouped in the CONTROL or RAM sections is stored in volatile memory. Any modifications to the parameters will be lost when the module power supply is disconnected unless the "EEPROM Save" button within the software has been pressed. The STATUS section parameters are read-only and cannot be modified. The EEPROM section parameters are rarely used and are stored directly in non-volatile memory. The parameters that can be controlled and supervised remotely for each version of the firmware are listed below:

VERSION 1.X CONTROL Name add ext msk snmp trap Description ACTIVE_PRESET 0x00 0x3F Y N Shows the active preset 32=Preset 1, 33=Preset 2, 34=Preset 3, 35=Preset 4, 36=Preset 5, 37=Preset 6, 38=Preset 7, 39=Preset 8, 40=Preset 9, 41=Preset 10, 42=Preset 11, 43=Preset 12, 44=Preset 13, 45=Preset 14, 46=Preset 15, 47=Preset 16, ?=None LOAD_PRESET 0x00 0x7F Y N Allows loading a preset 64=Preset 1, 65=Preset 2, 66=Preset 3, 67=Preset 4, 68=Preset 5, 69=Preset 6, 70=Preset 7, 71=Preset 8, 72=Preset 9, 73=Preset 10, 74=Preset 11, 75=Preset 12, 76=Preset 13, 77=Preset 14, 78=Preset 15, 79=Preset 16, ?='' SAVE_PRESET 0x00 0xFF Y N Allows saving a preset 128=Preset 1, 129=Preset 2, 130=Preset 3, 131=Preset 4, 132=Preset 5, 133=Preset 6, 134=Preset 7, 135=Preset 8, 136=Preset 9, 137=Preset 10, 138=Preset 11, 139=Preset 12, 140=Preset 13, 141=Preset 14, 142=Preset 15, 143=Preset 16, ?='' ANA_REF_FMT 0x01 0x0F Y Y Analog reference input format 0=576i50,1=486i59.94,2=720p50,3=720p59.94,5=1080i50,6=1080i59.94,10=10 80p50,11=1080p59.94 GENLOCK_MODE 0x01 0x10 Y N Allos selecting the reference input signal 0=Analog video, 1=Digital video ENA_AUD_20_BIT 0x01 0x20 Y N Allows embedding 24-bit audio in SD signals 0=Yes, 1=No FAIL_MODE 0x01 0x40 Y N Allows selecting the output video signal if the input fails 0=Freeze, 1=Black

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MODE_CONV 0x02 0x01 Y Y Conversion mode 0=Auto, 1=Manual OUT_AFD 0x03 0x03 Y Y Output active format description 0=Full frame, 1=4/3 centered, 2=16/9 centered, 3=Unsupported OUT_CF 0x03 0x04 Y Y Output coded frame 0=4/3, 1=16/9 ESC_1_1 0x03 0x08 Y N Enables the 1 to 1 scaling rate 0=Disabled, 1=Enabled IN_AFD_EXPCT 0x03 0x30 Y Y Input expected active format description 0=Full frame, 1=4/3 centered, 2=16/9 centered, 3=Unsupported IN_CF_EXPCT 0x03 0x40 Y Y Input expected coded frame 0=4/3, 1=16/9 TX_FMT 0x04 0x0F Y Y Output format 0=576i50,1=486i59.94,2=720p50,3=720p59.94,5=1080i50,6=1080i59.94,10=10 80p50,11=1080p59.94 DEINT_ALGORITHM 0x04 0x70 Y Y Allows selecting the de-interlacing algorithm 0=Motion adaptive, 1=Motion compensation+ Motion adaptive, 2=Field replication, 4=Edge line average OUT_ENA_S2016 0x07 0x01 Y N Enables insertion of SMPTE 2016 packets in OUT 0=No, 1=Yes OUT_ENA_VII 0x07 0x02 Y N Enables insertion of VII in OUT 0=No, 1=Yes OUT_ENA_WSS 0x07 0x04 Y N Enables insertion of WSS in OUT 0=No, 1=Yes OUT_ENA_VITC 0x07 0x08 Y N Enables insertion of DVITC in OUT 0=No, 1=Yes OUT_ENA_ATC 0x07 0x10 Y N Enables insertion of ATC in OUT 0=No, 1=Yes OUT_ENA_TXT 0x07 0x20 Y N Enables insertion of TXT in OUT 0=No, 1=Yes OUT_ENA_CEA608 0x07 0x40 Y N Enables insertion of CEA608 modulation in OUT when format is 486I59.94 and CEA608 or CEA708 paquets are present 0=No, 1=Yes SEL_AUD_PAIR_0 0x08 0x0F Y N Selection of output audio for pair 0 0=Gr1P0,1=Gr1P1,2=Gr2P0,3=Gr2P1,4=Gr3P0,5=Gr3P1,6=Gr4P0,7=Gr4P1,8=No ne SEL_AUD_PAIR_1 0x08 0xF0 Y N Selection of output audio for pair 1 0=Gr1P0,1=Gr1P1,2=Gr2P0,3=Gr2P1,4=Gr3P0,5=Gr3P1,6=Gr4P0,7=Gr4P1,8=No ne SEL_AUD_PAIR_2 0x09 0x0F Y N Selection of output audio for pair 2 0=Gr1P0,1=Gr1P1,2=Gr2P0,3=Gr2P1,4=Gr3P0,5=Gr3P1,6=Gr4P0,7=Gr4P1,8=No ne SEL_AUD_PAIR_3 0x09 0xF0 Y N Selection of output audio for pair 3 0=Gr1P0,1=Gr1P1,2=Gr2P0,3=Gr2P1,4=Gr3P0,5=Gr3P1,6=Gr4P0,7=Gr4P1,8=No ne SEL_AUD_PAIR_4 0x0A 0x0F Y N Selection of output audio for pair 4 0=Gr1P0,1=Gr1P1,2=Gr2P0,3=Gr2P1,4=Gr3P0,5=Gr3P1,6=Gr4P0,7=Gr4P1,8=No ne SEL_AUD_PAIR_5 0x0A 0xF0 Y N Selection of output audio for pair 5 0=Gr1P0,1=Gr1P1,2=Gr2P0,3=Gr2P1,4=Gr3P0,5=Gr3P1,6=Gr4P0,7=Gr4P1,8=No ne SEL_AUD_PAIR_6 0x0B 0x0F Y N Selection of output audio for pair 6 0=Gr1P0,1=Gr1P1,2=Gr2P0,3=Gr2P1,4=Gr3P0,5=Gr3P1,6=Gr4P0,7=Gr4P1,8=No ne SEL_AUD_PAIR_7 0x0B 0xF0 Y N Selection of output audio for pair 7 0=Gr1P0,1=Gr1P1,2=Gr2P0,3=Gr2P1,4=Gr3P0,5=Gr3P1,6=Gr4P0,7=Gr4P1,8=No ne V_DELAY 0x0C 0x07FF Y N Allows adjusting the video vertical delay = x lines H_DELAY 0x0E 0x0FFF Y N Allows adjusting the video horizontal delay = x pixels GRP1_P0_GAIN 0x14 0x7F Y N Group 1 pair 0 gain = 24-x/2 dB GRP1_P0_PHASE 0x14 0x80 Y N Group 1 pair 0 phase 0=Normal, 1=Inverted GRP1_P1_GAIN 0x15 0x7F Y N Group 1 pair 1 gain = 24-x/2 dB GRP1_P1_PHASE 0x15 0x80 Y N Group 1 pair 1 phase 0=Normal, 1=Inverted

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GRP2_P0_GAIN 0x16 0x7F Y N Group 2 pair 0 gain = 24-x/2 dB GRP2_P0_PHASE 0x16 0x80 Y N Group 2 pair 0 phase 0=Normal, 1=Inverted GRP2_P1_GAIN 0x17 0x7F Y N Group 2 pair 1 gain = 24-x/2 dB GRP2_P1_PHASE 0x17 0x80 Y N Group 2 pair 1 phase 0=Normal, 1=Inverted GRP3_P0_GAIN 0x18 0x7F Y N Group 3 pair 0 gain = 24-x/2 dB GRP3_P0_PHASE 0x18 0x80 Y N Group 3 pair 0 phase 0=Normal, 1=Inverted GRP3_P1_GAIN 0x19 0x7F Y N Group 3 pair 1 gain = 24-x/2 dB GRP3_P1_PHASE 0x19 0x80 Y N Group 3 pair 1 phase 0=Normal, 1=Inverted GRP4_P0_GAIN 0x1A 0x7F Y N Group 4 pair 0 gain = 24-x/2 dB GRP4_P0_PHASE 0x1A 0x80 Y N Group 4 pair 0 phase 0=Normal, 1=Inverted GRP4_P1_GAIN 0x1B 0x7F Y N Group 4 pair 1 gain = 24-x/2 dB GRP4_P1_PHASE 0x1B 0x80 Y N Group 4 pair 1 phase 0=Normal, 1=Inverted MSK_IN_PHY_FAIL 0x1C 0x01 N N Absence fail mask 0=Disabled, 1=Enabled MSK_IN_FMT_FAIL 0x1C 0x02 N N Format fail mask 0=Disabled, 1=Enabled MSK_IN_INC_FAIL 0x1C 0x04 N N Incompatible format fail mask 0=Disabled, 1=Enabled MSK_IN_PRS_CRC_F 0x1C 0x08 N N EDH/CRC presence fail mask 0=Disabled, 1=Enabled MSK_IN_CRC_FAIL 0x1C 0x10 N N EDH/CRC fail mask 0=Disabled, 1=Enabled MSK_IN_PRS_S352 0x1C 0x20 N N SMPTE 352 presence fail mask 0=Disabled, 1=Enabled MSK_IN_S352_FAIL 0x1C 0x40 N N SMPTE 352 fail mask 0=Disabled, 1=Enabled MSK_PRES_S2016_F 0x1D 0x01 N N SMPTE 2016 presence fail mask 0=Disabled, 1=Enabled MSK_ERR_S2016_F 0x1D 0x02 N N SMPTE 2016 error fail mask 0=Disabled, 1=Enabled MSK_PRES_AUD_G1 0x1D 0x10 N N Audio group 1 presence fail mask 0=Disabled, 1=Enabled MSK_PRES_AUD_G2 0x1D 0x20 N N Audio group 2 presence fail mask 0=Disabled, 1=Enabled MSK_PRES_AUD_G3 0x1D 0x40 N N Audio group 3 presence fail mask 0=Disabled, 1=Enabled MSK_PRES_AUD_G4 0x1D 0x80 N N Audio group 4 presence fail mask 0=Disabled, 1=Enabled MSK_REF_FAIL 0x1E 0x01 N N Analog reference absence fail mask 0=Disabled, 1=Enabled MSK_REF_FMT_FAIL 0x1E 0x02 N N Analog reference format fail mask 0=Disabled, 1=Enabled MSK_LOCK_FAIL 0x1E 0x04 N N Reference unlock fail 0=Disabled, 1=Enabled MSK_AUD_PAIR0_F 0x1F 0x01 N N Audio pair 0 fail mask 0=Disabled, 1=Enabled MSK_AUD_PAIR1_F 0x1F 0x02 N N Audio pair 1 fail mask 0=Disabled, 1=Enabled MSK_AUD_PAIR2_F 0x1F 0x04 N N Audio pair 2 fail mask 0=Disabled, 1=Enabled MSK_AUD_PAIR3_F 0x1F 0x08 N N Audio pair 3 fail mask 0=Disabled, 1=Enabled MSK_AUD_PAIR4_F 0x1F 0x10 N N Audio pair 4 fail mask 0=Disabled, 1=Enabled MSK_AUD_PAIR5_F 0x1F 0x20 N N Audio pair 5 fail mask 0=Disabled, 1=Enabled MSK_AUD_PAIR6_F 0x1F 0x40 N N Audio pair 6 fail mask 0=Disabled, 1=Enabled

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MSK_AUD_PAIR7_F 0x1F 0x80 N N Audio pair 7 fail mask 0=Disabled, 1=Enabled

EEPROM Name add ext msk snmp trap Description FRZ_TO_BCK_TIME 0x00 0x0031 0xFF N N Freeze to black timeout = x s MUTE_ENA 0x00 0x0032 0x01 N N Enables outputs mute 0=No, 1=Yes VITC_LINE 0x00 0x0033 0x1F N N Allows selecting the VITC line = x VITC_DUP_LINE 0x00 0x0034 0x01 N N Allows selecting it VITC line is duplicated 0=No, 1=Yes INVERT_GPI1_POL 0x00 0x0035 0x01 N N Changes GPI1 polarity to normally closed 0=No, 1=Yes INVERT_GPI2_POL 0x00 0x0035 0x02 N N Changes GPI2 polarity to normally closed 0=No, 1=Yes INVERT_GPI3_POL 0x00 0x0035 0x04 N N Changes GPI3 polarity to normally closed 0=No, 1=Yes INVERT_GPI4_POL 0x00 0x0035 0x08 N N Changes GPI4 polarity to normally closed 0=No, 1=Yes INVERT_GPO1_POL 0x00 0x0035 0x10 N N Changes GPO1 polarity to normally closed 0=No, 1=Yes INVERT_GPO2_POL 0x00 0x0035 0x20 N N Changes GPO2 polarity to normally closed 0=No, 1=Yes INVERT_GPO3_POL 0x00 0x0035 0x40 N N Changes GPO3 polarity to normally closed 0=No, 1=Yes INVERT_GPO4_POL 0x00 0x0035 0x40 N N Changes GPO4 polarity to normally closed 0=No, 1=Yes OP47_LINE 0x00 0x0036 0xFF N N Insertion Line for OP47 packets = x ANC_LINE_0 0x00 0x0037 0xFF N N Allows selecting destination line for SCTE 104 packets = x ANC_LINE_1 0x00 0x003A 0xFF N N Allows selecting destination line for CEA 708 packets = x BLK_N_BAR_ABS 0x03 0x0040 0x01 N N It allows selecting the pattern to generate when there is no input signal and there is not a frozen frame 0=100% bars, 1=Black EN_TEXT_ABS 0x04 0x0040 0x01 N N It allows enabling the text label that appears when there is no signal over black or bars pattern 0=Disabled, 1=Enabled SIZE_TEXT_ABS 0x05 0x0040 0x03 N N It allows selectin the size of the text label that appears when there is no signal over black or bars pattern 0=Small, 1=Large, 2=Very large TEXT_ABS_FOREGND 0x06 0x0040 0x07 N N It allows selecting the foreground colour of the text label that appears when there is no signal over black or bars pattern 0=White, 1=Yellow, 2=Cyan, 3=Green, 4=Magenta, 5=Red, 6=Blue, 7=Black TEXT_ABS_BCKGND 0x06 0x0040 0x38 N N It allows selecting the background colour of the text label that appears when there is no signal over black or bars pattern 0=White, 1=Yellow, 2=Cyan, 3=Green, 4=Magenta, 5=Red, 6=Blue, 7=Black TEXT_ABS_TRANSP 0x06 0x0040 0xC0 N N It allows selectign the insertion mode of the text label that appears when there is no signal over black or bars pattern 0=Solid, 1=Semitransparent_1, 2=Semitransparent_2, 3=Transparent

STATUS Name add ext msk snmp trap Description STAT_FLASH 0x00 0x01 Y N Displays the Flash state 1=OK, 0=Fail IN_PHY_FAIL 0x01 0x01 Y Y Absence fail 0=OK,1=Fail IN_FMT_FAIL 0x01 0x02 Y Y Format fail 0=OK,1=Fail IN_INC_FAIL 0x01 0x04 Y Y Incompatible format fail 0=OK,1=Fail IN_PRES_CRC_FAIL 0x01 0x08 Y N EDH/CRC presence fail 0=OK,1=Fail IN_CRC_FAIL 0x01 0x10 Y Y EDH/CRC fail 0=OK,1=Fail

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IN_PRS_S352_FAIL 0x01 0x20 Y N SMPTE 352 presence fail 0=OK,1=Fail IN_S352_FAIL 0x01 0x40 Y N SMPTE 352 fail 0=OK,1=Fail PRES_S2016_FAIL 0x02 0x01 Y N SMPTE 2016 presence fail 0=OK,1=Fail ERR_S2016_FAIL 0x02 0x02 Y N SMPTE 2016 error fail 0=OK,1=Fail PRES_AUD_G1_FAIL 0x02 0x10 Y Y Audio group 1 presence fail 0=OK,1=Fail PRES_AUD_G2_FAIL 0x02 0x20 Y Y Audio group 2 presence fail 0=OK,1=Fail PRES_AUD_G3_FAIL 0x02 0x40 Y Y Audio group 3 presence fail 0=OK,1=Fail PRES_AUD_G4_FAIL 0x02 0x80 Y Y Audio group 4 presence fail 0=OK,1=Fail REF_FAIL 0x03 0x01 Y Y Analog reference absence fail 0=OK,1=Fail REF_FMT_FAIL 0x03 0x02 Y Y Analog reference format fail 0=OK,1=Fail LOCK_FAIL 0x03 0x04 Y Y Reference unlock fail 0=OK,1=Fail AUD_PAIR0_FAIL 0x04 0x01 Y Y Audio pair 0 fail 0=OK,1=Fail AUD_PAIR1_FAIL 0x04 0x02 Y Y Audio pair 1 fail 0=OK,1=Fail AUD_PAIR2_FAIL 0x04 0x04 Y Y Audio pair 2 fail 0=OK,1=Fail AUD_PAIR3_FAIL 0x04 0x08 Y Y Audio pair 3 fail 0=OK,1=Fail AUD_PAIR4_FAIL 0x04 0x10 Y Y Audio pair 4 fail 0=OK,1=Fail AUD_PAIR5_FAIL 0x04 0x20 Y Y Audio pair 5 fail 0=OK,1=Fail AUD_PAIR6_FAIL 0x04 0x40 Y Y Audio pair 6 fail 0=OK,1=Fail AUD_PAIR7_FAIL 0x04 0x80 Y Y Audio pair 7 fail 0=OK,1=Fail IN_AFD_DETCT 0x05 0x03 Y Y Input detected AFD 0=Full frame, 1=4/3 centered, 2=16/9 centered, 3=Unsupported IN_CF_DETCT 0x05 0x04 Y Y Input detected coded frame 0=4/3, 1=16/9 IN_FORMAT 0x06 0x0F Y Y Input format 0=576i50,1=486i59.94,2=720p50,3=720p59.94,5=1080i50,6=1080i59.94,8=108 0p25,9=1080p29.97,10=1080p50,11=1080p59.94,?=Unknown REF_FORMAT 0x07 0x0F Y Y Reference format 0=576i50,1=486i59.94,2=720p50,3=720p59.94,5=1080i50,6=1080i59.94,8=108 0p25,9=1080p29.97,10=1080p50,11=1080p59.94,?=Unknown TX_FORMAT 0x07 0xF0 Y Y Output format 0=576i50,1=486i59.94,2=720p50,3=720p59.94,5=1080i50,6=1080i59.94,8=108 0p25,9=1080p29.97,10=1080p50,11=1080p59.94,?=Unknown TXT_PRES 0x08 0x01 Y N TXT presence 1=OK, 0=Fail VITC_PRES 0x08 0x02 Y N VITC presence 1=OK, 0=Fail ANC_PRES_0 0x08 0x04 N N SCTE 104 data packet presence 0=No, 1=Yes ANC_PRES_1 0x08 0x08 N N CEA 708 data packet presence 0=No, 1=Yes MUTE 0x09 0x01 Y N Muted output 0=No, 1=Yes BLACK 0x09 0x02 Y N Black output 0=No, 1=Yes GPI1 0x0B 0x01 Y N Transmitted GPI1 0=Off, 1=On GPI2 0x0B 0x02 Y N Transmitted GPI2 0=Off, 1=On GPI3 0x0B 0x04 Y N Transmitted GPI3 0=Off, 1=On

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GPI4 0x0B 0x08 Y N Transmitted GPI4 0=Off, 1=On

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HXC2000C01

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5. GLOSSARY

3G A term used to refer to 1080 line, progressive scan television systems with a serial interface bitrate of approximately 3Gbit/s. 3G/HD/SD-SDI 3G/HD/SD - Serial Digital Interface for high definition or standard definition digital television capable of transmitting bitrates of 2.970Gbit/s, 2.967Gbit/s, 1.485Gbit/s, 1.483Gbit/s and 270Mbit/s. AFD Active Format Description. Is a code describing a video picture in terms of the aspect ratio and other characteristics of the active image within the coded frame. CF Coded Frame Aspect Ratio. The video frame as coded in a compressed bitstream for emission. HD An abbreviation for High Definition Television (HDTV). SD An abbreviation for SDTV (Standard Definition Television). SDI Serial Digital Interface. A standard used for the transmission of uncompressed video signals that can also include audio and time code signals. VII Video Index Information code. System for insertion of ancillary information used by SD-SDI video signals. For example, VIITC can be used to transmit the image format description. Deinterlacing Process that consists of estimating the number of missing lines in each field of an interlaced video signal in order to produce a progressive scan signal.

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HXC2000C01

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6. REGULATIONS

ITU-R BT.1119-2 (1998) Wide-screen signalling for broadcasting. ITU-R BT.1847 (2009) 1280 x 720, 16:9 progressively-captured image format for production and international programme exchange in the 50 Hz environment. See also: SMPTE ST 296 ITU-R BT.470-6 (1998) Conventional analogue television systems. See also: ITU-R BT.1700, SMPTE 170M ITU-R BT.709-7 (2002) Parameter values for the HDTV standards for production and international programme exchange. See also: SMPTE 274M JEITA CPR-1204 (1997) Transfer method of video ID information using vertical blanking interval (525 line system). SMPTE RP 186 (2008) Video Index Information Coding for 525 and 625 Line Television Systems. See also: SMPTE 2016-1 SMPTE 2016-3 (2007) Vertical Ancillary Data Mapping of Active Format Description and Bar Data. SMPTE ST 259 (2008) SDTV Digital Signal/Data Serial Digital Interface. See also: ITU-R BT.656-5 SMPTE 272M (2004) Formatting AES/EBU Audio and Auxiliary Data into Digital Video Ancillary Data Space. SMPTE 274M (2008) 1920 x 1080 Image Sample Structure, Digital Representation and Digital Timing Reference Sequences for Multiple Picture Rates. See also: ITU-R BT.709-7 SMPTE ST 292-1 (2011) 1.5 Gb/s Signal/Data Serial Interface. See also: ITU-R BT.1120-8 SMPTE ST 296 (2012) 1280 x 720 Progressive Image Sample Structure - Analog and Digital Representation and Analog Interface (R2006). See also: ITU-R BT.1847

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SMPTE ST 299-1 (2009) 24-Bit Digital Audio Format for SMPTE 292 Bit-Serial Interface. SMPTE ST 424 (2012) 3 Gb/s Signal/Data Serial Interface.

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7. VERSIONS

Ver. Date Description 0.0 03-03-2018 Preliminary Version 1.0 07-03-2018 First version Albalá Ingenieros, S.A. Medea, 4 - 28037 Madrid Spain +34 913274453 www.albalaing.com [email protected]