SDI II Intel Stratix 10 FPGA IP Design Example User Guide
Version Information
Updated for: |
---|
Intel® Quartus® Prime Design Suite 20.3 |
IP Version 19.1.1 |
1. IP Design Example Quick Start Guide
The IP offers the following design examples:
- Parallel loopback with external voltage-controlled crystal oscillator (VCXO)
- Parallel loopback without external VCXO
- Serial loopback
1.1. Directory Structure
Folders | Files |
---|---|
vid_pattgen | /sdi_ii_colorbar_gen.v |
/sdi_ii_ed_vid_pattgen.v | |
/sdi_ii_makeframe.v | |
/sdi_ii_patho_gen.v | |
/jtag.sdc | |
/pattgen_ctrl.qsys | |
<qsys generated folder> | |
loopback | /loopback_top.v |
/fifo/sdi_ii_ed_loopback.sdc | |
/fifo/sdi_ii_ed_loopback.v | |
/pfd/clock_crossing.v (optional) | |
/pfd/pfd.sdc (optional) | |
/pfd/pfd.v (optional) | |
/reclock/sdi_reclock.v (optional) | |
/reclock/pid_controller.v (optional) | |
/reclock/rcfg_pll_frac.v (optional) | |
du | /du_top.v |
/sdi_ii_rx_rcfg_s10.sv (optional) | |
/rcfg_sdi_cdr.sv (optional) | |
/rcfg_pll_sw.sv (optional) | |
/rcfg_refclk_sw.sv (optional) | |
/sdi_ii_tx_rcfg_s10.sv (optional) | |
/sdi_du_sys.qsys | |
/sdi_rx_phy.ip | |
/tx_pll.ip | |
/tx_pll_alt.ip (optional) | |
<qsys generated folder> | |
rx | /rx_top.v |
/sdi_ii_rx_rcfg_s10.sv (optional) | |
/rcfg_sdi_cdr.sv (optional) | |
/sdi_rx_sys.qsys | |
<qsys generated folder> | |
tx | /tx_top.v |
/rcfg_pll_sw.sv (optional) | |
/rcfg_refclk_sw.sv (optional) | |
/sdi_ii_tx_rcfg_s10.sv (optional) | |
/sdi_tx_sys.qsys | |
/tx_pll.ip | |
/tx_pll_alt.ip(optional) | |
<qsys generated folder> | |
mr_phy_adapter | /sdi_s10_mr_phy_adapter.v |
/rxdata_mwfifo.ip | |
/txdata_mwfifo.ip | |
<qsys generated folder> |
Folders | Files |
---|---|
aldec | /aldec.do |
/rivierapro_setup.tcl | |
cadence | /cds.lib |
/hdl.var | |
/ncsim.sh | |
/ncsim_setup.sh | |
<cds_libs folder> | |
common | /modelsim_files.tcl |
/ncsim_files.tcl | |
/riviera_files.tcl | |
/vcs_files.tcl | |
/vcsmx_files.tcl | |
/xcelium_files.tcl | |
mentor | /mentor.do |
/msim_setup.tcl | |
synopsys | /vcs/filelist.f |
/vcs/vcs_setup.sh | |
/vcs/vcs_sim.sh | |
/vcsmx/synopsys_sim_setup | |
/vcsmx/vcsmx_setup.sh | |
/vcsmx/vcsmx_sim.sh | |
testbench | tb_top.v |
rx_checker/sdi_ii_tb_rx_checker.v | |
rx_checker/tb_data_compare.v | |
rx_checker/tb_dual_link_sync.v | |
rx_checker/tb_fifo_line_test.v | |
rx_checker/tb_frame_locked_test.sv | |
rx_checker/tb_ln_check.v | |
rx_checker/tb_rxsample_test.v | |
rx_checker/tb_trs_locked_test.sv | |
rx_checker/tb_txpll_test.sv | |
rx_checker/tb_vpid_check.v | |
tb_control/sdi_ii_tb_control.v | |
tb_control/tb_clk_rst.v | |
tb_control/tb_data_delay.v | |
tb_control/tb_serial_delay.sv | |
tb_control/tb_tasks.v | |
tb_checker/sdi_ii_tb_tx_checker.v | |
tb_checker/tb_serial_check_counter.v | |
tb_checker/tb_serial_descrambler.v | |
tb_checker/tb_tx_clkout_check.v | |
vid_pattgen/sdi_ii_colorbar_gen.v | |
vid_pattgen/sdi_ii_ed_vid_pattgen.v | |
vid_pattgen/sdi_ii_makeframe.v | |
vid_pattgen/sdi_ii_patho_gen.v | |
xcelium | /cds.lib |
/hdl.var | |
/xcelium_setup.sh | |
/xcelium_sim.sh | |
<cds_libs folder> |
1.2. Hardware and Software Requirements
Hardware
- Intel® Stratix® 10 FPGA (H-tile or L-tile) Development Kit
- SDI Signal Generator
- SDI Signal Analyzer
- High Density Bayonet Neill–Concelman (HD-BNC) to BNC cables for any designs using the development kit on-board HD-BNC connector, or BNC to BNC cables for any designs using an FMC daughter card
- Nextera VIDIO* FMC Development Module VIDIO-12G-A (Nextera 12G SDI FMC daughter card) or Terasic 12G SDI-FMC Daughter Card
Software
- Intel® Quartus® Prime Pro Edition (for hardware testing)
- ModelSim* - Intel® FPGA Edition, ModelSim* - Intel® FPGA Starter Edition, NCSim, Riviera-PRO* , VCS* (Verilog HDL only)/ VCS* MX, or Xcelium* Parallel simulator
1.3. Generating the Design
- Create a project targeting the Intel® Stratix® 10 device family and select the desired device.
- In the IP Catalog, locate and double-click IP. The New IP Variant or New IP Variation window appears.
- Specify a top-level name for your custom IP variation. The parameter editor saves the IP variation settings in a file named <your_ip>.ip .
- Click OK. The parameter editor appears.
- On the IP tab, select your desired IP settings. The generated design example is based on your settings.
-
On the Design Example
tab, select Simulation to generate the
testbench, and select Synthesis to
generate the hardware design example.
You must select at least one of these options to generate the design example files.
- For Generate File Format, select Verilog or VHDL.
- For Select Board, select the relevant FPGA development kit. You may change the target device using the Change Target Device parameter if your board revision does not match the grade of the default targeted device.
- For Select Daughter Card, select Nextera VIDIO 12G-SDI FMC card or Terasic FMC card to pair with an Intel FPGA development kit. If you choose not to use a development kit or use your own custom kit, this parameter will be grayed out, and the generated design will use the on-board HD-BNC pin as a serial data pin.
- Click Generate Example Design.
1.4. Simulating the Design
- Navigate to the simulation folder of your choice.
- Run the simulation script for the supported simulator of your choice. The script compiles and runs the testbench in the simulator.
-
Analyze the results.
Table 3. Steps to Run Simulation Simulator Working Directory Instructions Riviera-PRO* /simulation/aldec In the GUI, type:do aldec.do
NCSim /simulation/cadence In the command line, type:source ncsim.sh
Xcelium* /simulation/xcelium In the command line, type:source xcelium_sim.sh
ModelSim* /simulation/mentor In the GUI, type:do mentor.do
VCS* /simulation/synopsys/vcs In the command line, type:source vcs_sim.sh
VCS* MX /simulation/synopsys/vcsmx In the command line, type:source vcsmx_sim.sh
A successful simulation ends with the following message:#### TRANSMIT TEST COMPLETED SUCCESSFULLY! #### # #### Channel 1: RECEIVE TEST COMPLETED SUCCESSFULLY! ####
1.5. Compiling and Testing the Design
- Ensure that the hardware design example generation is complete.
- Open quartus/sdi_ii_s10_demo.qpf.
- Click Processing > Start Compilation.
- After successful compilation, the Intel® Quartus® Prime Pro Edition software generates a .sof file in your specified directory.
-
Open the Clock
Controller parameter editor, and set the clock frequency in the
Si5341 tab.
- HD/3G-SDI single-rate and triple-rate designs:
- For parallel loopback with external VCXO designs, set Out1 frequency to 148.5 MHz.
- For parallel loopback without external VCXO designs, set Out1 frequency to 100 MHz.
- If you turn on the Dynamic Tx clock switching parameter in the Design Example parameter editor, set Out1 frequency to 148.35165 MHz.
- Multi-rate designs:
- For parallel loopback with external VCXO designs, set Out1 frequency to 148.5 MHz.
- For parallel loopback without external VCXO designs, set Out4 frequency to 148.5 MHz, and set Out5 frequency to 245 MHz.
- If you turn on the Dynamic Tx clock switching parameter in the Design Example parameter editor, set Out4 frequency to 148.3516 MHz, and set Out5 frequency to 148.5 MHz.
Figure 5. Clock Controller - Si5341 - HD/3G-SDI single-rate and triple-rate designs:
-
Configure the selected device on the development board using
the generated .sof file (Tools > Programmer ).
Note: If you missed setting the clock controller and program the device within 18 seconds, you will get an error message. In this case, power cycle the development board and program the .sof file first. Then, specify the settings for the clock controller and program the .sof file again.
-
For serial loopback designs, open the System Console to control
the internal video pattern generator. Click Tools > System Debugging Tools > System Console.
Note: Close the Clock Controller GUI and the Programmer window before you open the System Console.
- After the initialization, type source ../hwtest/tpg_ctrl.tcl in the System Console to open the pattern generator control user interface. Select your desired video format.
1.5.1. Connection and Settings Guidelines
Connections and Settings for HD/3G-SDI Single Rate and Triple Rate Designs
- For parallel loopback design, the on-board HD-BNC RX connector (J18) connects to an external video source and the on-board HD-BNC TX connector (J17) connects to a video analyzer.
- For serial loopback design, the on-board HD-BNC TX connector (J17) connects to an on-board HD-BNC RX connector (J18) or a video analyzer.
- Ensure all switches on the development board are in default
position.Note: Make sure to set both SW1.1 and SW1.2 to 1 to enable JTAG Only Mode.
- The SDI video analyzer displays the video generated from the
source.Note: For parallel loopback designs, you may need to switch the Si516_FS (SW4.2) at the back of the board if you are switching between fractional frame rate and integer frame rate video format.
Switch | Board Label | Description |
---|---|---|
1 | MSEL2 |
|
2 | MSEL1 |
Switch | Board Label | Description |
---|---|---|
1 | RZQ_B2M |
|
2 | SI516_FS |
|
Switch | Board Label | Description |
---|---|---|
1 | Stratix 10 |
|
2 | MAX V |
|
3 | FMC |
|
Connections and Settings for Multi Rate Design
- A VIDIO™ FMC Development Module VIDIO-12G-A (Nextera 12G SDI FMC) daughter card or Terasic 12G-SDI FMC daughter card connects to the FMC Port A on the development board.
- For parallel loopback design, the BNC RX connector connects to an external video source and the TX connector connects to a video analyzer.
- For serial loopback design, the BNC TX connector connects to the BNC RX connector or a video analyzer.
FMC Daughter Card | BNC RX Connector Port | BNC TX Connector Port |
---|---|---|
Nextera 12G SDI FMC daughter card | J2/12G In | J1/12G Out |
Terasic 12G-SDI FMC daughter card | 12G-SDI In 0 | 12G-SDI Out 0 |
- Ensure all switches on the development board are in default position.
Note: Make sure that to set both SW1.1 and SW1.2 to 1 to enable JTAG Only Mode, and turn off SW6.3 to enable the FMC connector.
- The SDI video analyzer displays the video generated from the source.
Jumper Block | Description |
---|---|
J7 | Programming header |
J8 | To switch the generated clock frequency for the TX channel:
|
J9 | To select SDI or IP mode:
|
1.5.2. Design Considerations
You need to consider certain issues when instantiating the IP design examples.
- Serial loopback designs:
- The serial loopback design is mainly for image and TX clock switching demonstrations only. To get a more accurate jitter performance with the daughter card components, use the parallel loopback design and connect it to a clean video source.
- To allow segmented frame video format (1080sF30, 1080sF25) and interlaced video format (1080i60, 1080i50) to be correctly differentiated in the external analyzer, Payload ID must be inserted in the serial loopback design.
- The Omnitek Ultra 4K Analyzer (software version 2.1) may not detect 12G-SDI 2160p59.94 in the serial loopback design. If you encounter such problem, upgrade the Omnitek Ultra 4K analyzer to a later version.
1.6. Design Example Parameters
Parameter |
Value |
Description |
---|---|---|
Available Design Example |
||
Select Design |
Parallel loopback with external VCXO, Parallel loopback without external VCXO, Serial loopback |
Select the design example to be generated.
|
Design Example Options | ||
Tx PLL type |
CMU, fPLL, ATX ATX-fPLL cascading |
Select the transceiver PLL type.
|
Dynamic Tx clock switching |
Off, Tx PLL switching, Tx PLL reference clock switching |
Turn on this option to allow dynamic switching between 1 and 1/1.001 data rates. |
Design Example Files | ||
Simulation |
On, Off |
Turn on this option to generate the necessary files for the simulation testbench. |
Synthesis |
On, Off |
Turn on this option to generate the necessary files for Intel® Quartus® Prime compilation and hardware demonstration. |
Generated HDL Format |
||
Generate File Format |
Verilog, VHDL |
Select your preferred HDL format
for the generated design example fileset. Note: This option only determines the format for the
generated top level IP files. All other files (e.g. example
testbenches and top level files for hardware demonstration) are
in Verilog HDL format.
|
Target Development Kit |
||
Select Daughter Card |
Nextera VIDIO 12G-SDI FMC card, Terasic 12G-SDI FMC card |
Select the daughter card to be paired with the Intel FPGA development kit you select for the Select Board parameter. The design example is configured to utilize the on-board SDI connectors when this option is grayed out. This option is not valid when you select the No Development Kit or Custom Development Kit parameter. |
Select Board |
No Development Kit, Stratix 10 GX FPGA L-tile Development Kit, Stratix 10 GX FPGA H-tile Development Kit, Custom Development Kit |
Select the board for the targeted
design example.
|
Target Device | ||
Change Target Device |
On, Off |
Turn on this option and select the preferred device variant for the development kit. |
2. IP Design Example Detailed Description
- Parallel loopback with external VCXO
- Parallel loopback without external VCXO
- Serial loopback
Features
- All designs use LED status for early debugging stage.
- The simplex serial loopback designs include RX and TX options. To use RX
or TX only components, remove the irrelevant blocks from the designs.
User Requirement Preserve Remove RX Only RX Top - TX Top
TX Only TX Top - RX Top
2.1. Parallel Loopback Design Examples
2.2. Serial Loopback Design Examples
2.3. Design Components
Design Component | Description |
---|---|
IP |
|
L-Tile/H-Tile Transceiver Native PHY Intel® Stratix® 10 FPGA IP |
Note: You must connect the
rx_analogreset_stat
output signal from this block to the RX Reconfiguration
Management module to indicate that the transceiver is in
reset.
The maximum parallel data width on the L-Tile/H-Tile Transceiver Native PHY Intel® Stratix® 10 FPGA IP core can only go up to 40 bits. Therefore, the design requires a PHY adapter block to be compatible with the IP core. For the duplex mode transceiver (SDI triple-rate parallel loopback with external VCXO design example), generate a dummy RX only PHY ( sdi_rx_phy.ip) to get the transceiver configuration files (*_CFG0.sv, *_CFG1.sv, …) for RX reconfiguration. The generated configuration files from the duplex mode transceiver may contain some TX registers. You need not reconfigure the registers because only the SDI RX core requires transceiver reconfiguration. |
Transceiver PHY Reset Controller Intel® Stratix® 10 FPGA IP |
|
RX Reconfiguration Management |
RX transceiver reconfiguration management block that reconfigures the L-Tile/H-Tile Transceiver Native PHY Intel® Stratix® 10 FPGA IP block to receive different data rates from SD-SDI to 12G-SDI standards. To indicate the status of the transceiver, connect rx_cal_busy and rx_analogreset_stat from the transceiver to this block. Note: If you want to use the reconfiguration management block in
your own design, you need to make some assignments in the QSF
file. For guidelines about how to make the QSF assignments,
refer to the Using Generated Reconfiguration Management
for Triple and Multi Rates section in the
IP User
Guide.
|
TX Reconfiguration Management |
TX PLL or transceiver reconfiguration management block that reconfigures the TX PLL or L-Tile/H-Tile Transceiver Native PHY Intel® Stratix® 10 FPGA IP block to change the TX clock dynamically for switching between integer and fractional frame rates. The block requires tx_cal_busy, pll_cal_busy, and tx_analogreset_stat from the transceiver, and the PLLs to indicate the status of the transceiver in a TX PLL switching design. |
TX PLL/TX PLL Alt |
Transmitter PLL block that provides the serial fast clock to Transceiver
Native PHY.
Move the TX PLL out from the TX top if you want to merge the PLL between multiple channels. |
Multi-Rate PHY Adapter |
An adapter block which includes mixed width DCFIFO for converting the bit width of parallel data between transceiver and IP core. This block is required in the Intel® Stratix® 10 design because its transceiver does not support 80-bit parallel data interface. |
Component | Description |
---|---|
Loopback FIFO |
This block contains a dual-clock FIFO (DCFIFO) buffer to
handle the data transmission across asynchronous clock
domains—the receiver recovered clock and transmitter clock
out.
|
Phase Frequency Detector (PFD) |
You require this soft PFD block when you use
the
Intel®
Stratix® 10 FPGA
development kit on-board Si516 VCXO for a parallel loopback
design.
Note: Applicable only for single-rate and
triple-rate parallel loopback with external VCXO
designs.
|
Reclock |
The parallel loopback without external VCXO design requires this module. This block compares the phase between the receiver and transmitter parallel clocks. The output interfaces of this block connect to the reconfiguration Avalon Memory-Mapped (Avalon-MM) interfaces of an fPLL or ATX PLL block. If there is any difference in the frequencies between the clock domains, this module generates the necessary signals to reconfigure the fPLL or ATX PLL block to match the clock frequencies as close as possible. Note: Applicable only for parallel loopback
without external VCXO designs.
|
Component | Description |
---|---|
Video Pattern Generator |
Basic video pattern generator which supports SD-SDI up to 12G-SDI video formats with 4:2:2 YCbCr. The generator enables you to select static video with colorbar pattern or pathological pattern. |
Pattern Gen Control PIO |
Provides a memory-mapped interface for controlling the video pattern generator. |
JTAG to Avalon Master Bridge |
Provides System Console host access to the Parallel I/O (PIO) IP core in the design through the JTAG interface. |
Component | Description |
---|---|
Transceiver Arbiter |
This generic functional block prevents transceivers from recalibrating simultaneously when either RX or TX transceivers within the same physical channel require reconfiguration. The simultaneous recalibration impacts applications where RX and TX transceivers within the same channel are assigned to independent IP implementations. This transceiver arbiter is an extension to the resolution recommended for merging simplex TX and simplex RX into the same physical channel. This transceiver arbiter also assists in merging and arbitrating the Avalon-MM RX and TX reconfiguration requests targeting simplex RX and TX transceivers within a channel as the reconfiguration interface port of the transceivers can only be accessed sequentially. The transceiver arbiter is not required when only either RX or TX transceiver is used in a channel. The transceiver arbiter identifies the requester of a reconfiguration through its Avalon-MM reconfiguration interfaces and ensures that the corresponding tx_reconfig_cal_busy or rx_reconfig_cal_busy is gated accordingly. |
Device Initialization (device_init) | This module contains the
Intel®
Stratix® 10 Reset Release IP
to provide a known initialized state for the system logic to begin
operation. This module also includes a reset delay block to further
delay the signal status from the IP for a safer operation. For more information about the Intel® Stratix® 10 Reset Release IP, refer to the Intel® Stratix® 10 Reset Release IP section in the Intel® Stratix® 10 Configuration User Guide. |
2.4. Clocking Scheme Signals
Clock | Signal Name in Design | Description | |
---|---|---|---|
TX PLL Refclock | tx_pll_refclk |
TX PLL reference clock, of any frequency that is divisible by the
transceiver for that data rate.
You
must connect this clock to a dedicated transceiver reference
clock pin.
Note: For
12G-SDI designs, Intel recommends to place the
refclk pin within the same
transceiver bank as the TX PLL block to ensure optimal
jitter performance in your
design.
|
|
TX PLL Alt Refclock | tx_pll_refclk_alt | Second TX PLL reference
clock which can be any clock frequency that is divisible by
transceiver for that data rate. This clock must be connected to
a dedicated transceiver reference clock pin.
Note: For 12G-SDI designs, Intel recommends to
place the refclk pin within the same
transceiver bank as the TX PLL block to ensure optimal
jitter performance in your
design.
|
|
TX Transceiver Clockout | tx_vid_clkout | Recovered clock
from the transceiver.
|
|
TX PLL Serial Clock | tx_serial_clk |
Serial fast clock generated by TX PLL. The clock frequency is set based on the data rate. |
|
RX Refclock | rx_cdr_refclk |
Transceiver clock data recovery (CDR) reference clock, of any frequency divisible by the transceiver for that data rate. Only a single reference clock frequency is required to support both integer and fractional frame rates. It must be a free running clock connected to the transceiver clock pin. For the Intel® Stratix® 10 design example, a clock frequency of 148.5 MHz is used as a reference clock in all variants. Using a higher clock frequency would require a modification of the RX CDR reference clock value in the L-Tile/H-Tile Transceiver Native PHY Intel® Stratix® 10 FPGA IP core parameter editor. For triple or multi-rate modes, you need to modify the reference clock value for every profile. Refer to the Changing RX CDR in Transceiver Native PHY IP Core section in the SDI II Intel FPGA IP User Guide. Note: Do not share the TX PLL reference clock
with the RX transceiver reference clock for a parallel
loopback design. In parallel loopback designs, the TX PLL
clock is tuned to match the RX recovered clock
frequency.
|
|
rx_core_refclk |
SDI RX core reference clock. The required frequency is 148.5/148.35 MHz or 297/296.7 MHz depending on what you specify for the Rx core clock (rx_coreclk) frequency parameter. This clock must be a free-running clock. Note: For IP versions 19.1 and later,
all
Intel®
Stratix® 10 design examples have the
default setting of 148.5/148.35 MHz to align with the
transceiver reference clock frequency.
Note: For
Intel®
Stratix® 10 devices, assign this clock to a GPIO clock instead of a
transceiver reference clock pin if the following conditions
apply:
|
||
RX Transceiver Clkout | rx_vid_clkout |
Recovered clock from the transceiver.
|
|
Management Clock | rx_rcfg_mgmt_clk |
A free-running clock used by Avalon-MM interfaces for reconfiguration and by the PHY reset controller for transceiver reset sequence. The design example uses a frequency of 148.5 MHz to share between this clock and rx_coreclk. This clock also clocks the reset delay block in the
device initialization module.
Assign
this clock to a GPIO clock instead of a transceiver
reference clock pin if the following conditions apply:
|
|
Component | Required Frequency (MHz) | ||
Avalon-MM reconfiguration |
100 – 150 |
||
Transceiver PHY reset controller |
1 – 500 | ||
tx_rcfg_mgmt_clk |
A free-running clock used by Avalon-MM interfaces for reconfiguration and by the PHY reset controller for transceiver reset sequence. The design example uses a frequency of 148.5 MHz to share between this clock and rx_coreclk. This clock also clocks the reset delay block in the
device initialization
module.
Assign this clock to a GPIO clock instead of a transceiver
reference clock pin if the following conditions apply:
|
||
Component | Required Frequency (MHz) | ||
Avalon-MM reconfiguration |
100 – 150 |
||
Transceiver PHY reset controller |
1 – 500 | ||
2.5. Interface Signals
Signal | Direction | Width | Description |
---|---|---|---|
On-board Oscillator Signals | |||
refclk_qsfp1_p |
Input |
1 |
644.53125 MHz dedicated transceiver reference clock. Programmable to 148.5, 148.35165, or 100 MHz from the Clock Controller. |
refclk4_p |
Input |
1 |
156.25 MHz dedicated transceiver reference clock. Programmable to 148.5 MHz from the Clock Controller. |
refclk_sdi_p |
Input |
1 |
148.5 or 148.35 MHz dedicated transceiver reference clock. |
refclk_fmca_p |
Input |
1 |
625 MHz dedicated transceiver reference clock. Programmable to 297 or 296.7033 MHz from the Clock Control GUI. |
sdi_refclk_sma_p |
Input |
1 |
Dedicated transceiver reference clock that is connected to the second TX PLL in parallel loopback designs with dynamic TX clock switching enabled. Note: You cannot demonstrate the parallel loopback
designs with dynamic TX clock switching on the
Intel®
Stratix® 10 development kits.
|
clk_enet |
Input |
1 |
125 MHz clock. |
User DIP Switch, Push Buttons and LEDs | |||
user_dipsw0 | Input | 1 | DIP switch to switch the LEDs to display between rx_std or RX lock status. |
user_pb0 |
Input |
1 |
Push button to power down LMK03328 after switching the jumper settings. |
cpu_resetn |
Input |
1 |
Global reset. |
user_led_g |
Output |
4 |
Green LED display. |
user_led_r |
Output |
4 |
Red LED display. |
On-board Si516, SDI Cable Driver and Equalizer Related Pins | |||
sdi_rx_p |
Input |
1 |
On-board SDI RX serial data. |
sdi_tx_p |
Output |
1 |
On-board SDI TX serial data. |
sdi_clk148_up |
Output |
1 |
Voltage control for Si516. |
sdi_clk148_down |
Output |
1 |
Voltage control for Si516. |
sdi_mf0_bypass |
Output |
1 |
On-board SDI RX Equalizer Bypass. |
sdi_mf1_auto_sleep |
Output |
1 |
On-board SDI RX Equalizer Auto Sleep. |
sdi_mf1_mute |
Output |
1 |
On-board SDI RX Equalizer Mute. |
sdi_tx_sd_hdn |
Output |
1 |
On-board SDI TX cable driver slew rate control. |
Nextera SDI FMC Daughter Card Pins on FMC Port A | |||
fmca_gbtclk_m2c_p0 |
Input |
1 |
297 or 296.7 MHz dedicated transceiver reference clock from FMC port A. |
fmca_dp_m2c_p2 |
Input |
1 |
SDI RX serial data from FMC port A. |
fmca_la_tx_p1 |
Input |
1 |
RX cable equalizer lock status on Nextera daughter card. |
fmca_dp_c2m_p0 |
Output |
1 |
SDI TX serial data from FMC port A. |
fmca_la_tx_p12 |
Output |
1 |
Initialize LMH1983 on Nextera daughter card. |
fmca_la_tx_n12 |
Output |
1 |
F sync signal LMH1983 on Nextera daughter card. |
fmca_la_tx_p14 |
Output |
1 |
V sync signal LMH1983 on Nextera daughter card. |
fmca_la_tx_n14 | Output | 1 |
H sync signal LMH1983 on Nextera daughter card. |
fmca_la_tx_p15 | Output | 1 |
Power-down signal LMH1983 on Nextera daughter card. |
Terasic SDI FMC Daughter Card Pins on FMC Port A | |||
fmca_dp_m2c_p8 |
Input |
1 |
SDI RX serial data from FMC port A. |
fmca_la_rx_n3 |
Input |
1 |
RX cable equalizer lock status on Terasic daughter card. |
fmca_dp_c2m_p2 |
Output |
1 |
SDI TX serial data from FMC port A. |
Signal | Direction | Width | Description |
---|---|---|---|
Clocks | |||
rx_cdr_refclk |
Input |
1 |
RX transceiver reference clock. This clock must be a free-running clock. |
rx_core_refclk |
Input |
1 |
SDI RX core clock. This clock must be a free-running clock. Note: For
Intel®
Stratix® 10
devices, assign this clock to a GPIO clock instead of a
transceiver reference clock pin if the following conditions
apply:
|
tx_pll_refclk |
Input |
1 |
TX PLL reference clock. This clock must be a free-running clock. |
tx_pll_refclk_alt |
Input |
1 |
Secondary TX PLL reference clock. This clock must be a free-running clock. |
rx_rcfg_mgmt_clk |
Input |
1 |
RX reconfiguration management clock, Avalon-MM interface clock, and PHY reset control input clock. This clock must be a free-running clock. Note: For
Intel®
Stratix® 10
devices, assign this clock to a GPIO clock instead of a
transceiver reference clock pin if the following conditions
apply:
|
tx_rcfg_mgmt_clk |
Input |
1 |
TX reconfiguration management clock, and Avalon-MM interface clock, and PHY reset control input clock. This clock must be a free-running clock. |
rx_vid_clkout |
Output |
1 |
RX transceiver recovered parallel clock for video data. |
tx_vid_clkout |
Output |
1 |
TX transceiver recovered parallel clock for video data. |
Reset | |||
tx_resetn |
Input |
1 |
TX core and PHY reset signal. |
rx_resetn |
Input |
1 |
RX core and PHY reset signal. |
tx_rcfg_mgmt_resetn |
Input |
1 |
TX reconfiguration reset signal. |
rx_rcfg_mgmt_resetn |
Input |
1 |
RX reconfiguration reset signal. |
sdi_rx_rst_proto_out |
Output |
1 |
Reset signal generated to reset the receiver downstream protocol logic. This generated reset signal is synchronous to rx_vid_clkout clock domain. |
Video Signal Interfaces (Interface with Video Image and Processing (VIP) Components) | |||
rx_vid_data |
Output |
20*N |
Receiver parallel video data out.
Note:
N = 4
(multi-rate design) or 1 (triple-rate design)
|
rx_vid_datavalid |
Output |
1 |
Data valid signal generated from SDI RX core. The timing must be synchronous to rx_vid_clkout and has the following settings:
|
rx_vid_std |
Output |
3 |
Received video standard.
|
rx_vid_locked |
Output |
1 |
Frame locked indicates that the IP core has spotted multiple frames with the same timing. |
rx_vid_hsync |
Output |
N |
Horizontal blanking interval timing signal. The receiver asserts this
signal when the horizontal blanking interval is active.
Note:
N = 4 (multi-rate design) or 1
(triple-rate design)
|
rx_vid_vsync |
Output |
N |
Vertical blanking interval timing signal. The receiver asserts this
signal when the vertical blanking interval is active.
Note:
N = 4 (multi-rate design) or 1
(triple-rate design)
|
rx_vid_f |
Output |
N |
Field bit timing signal. This signal indicates which video field is
currently active. For interfaced frame, 0 means first field (F0)
while 1 means second field (F1). For progressive frame, the
value is always 0.
Note:
N = 4
(multi-rate design) or 1 (triple-rate design)
|
rx_vid_trs |
Output |
N |
On-board SDI TX cable driver slew rate control.
Note:
N = 4 (multi-rate design) or 1
(triple-rate design)
|
tx_vid_data |
Output |
20*N |
Receiver output signal that indicates current word is timing reference
signal (TRS). This signal asserts at the first word of 3FF 000
000 TRS.
Note:
N = 4 (multi-rate design)
or 1 (triple-rate design)
|
tx_vid_datavalid |
Input |
1 |
Transmitter parallel data valid. The timing (H: High, L: Low) must be synchronous to tx_pclk clock domain and has the following settings:
|
tx_vid_std |
Input |
3 |
Indicates the desired transmit video standard.
|
tx_vid_trs |
Input |
1 |
Transmitter TRS input. For use in LN, CRC, or payload ID insertion. Assert on the first word of both end of active video (EAV) TRS and start of active video (SAV) TRS. |
Other SDI Video Protocol Interfaces | |||
sdi_tx_enable_crc |
Input |
1 |
Enable CRC insertion for all SDI video standards, except SD-SDI. |
sdi_tx_enable_ln |
Input |
1 |
Enable LN insertion for all SDI video standards, except SD-SDI. |
sdi_tx_ln |
Input |
11*N |
LN insertion in the data stream when sdi_tx_enable_ln = 1. Note:
N = 4 (multi-rate
design) or 1 (triple-rate design)
|
sdi_tx_ln_b |
Input |
11*N |
LN insertion in the data stream when sdi_tx_enable_ln = 1. Only for 3G level B, 6G 8 streams interleaved,
and 12G 16 streams interleaved.
Note:
N = 4 (multi-rate
design) or 1 (triple-rate design)
|
sdi_tx_vpid_overwrite |
Input |
1 |
Enable this signal to overwrite the existing payload ID embedded in the data stream. |
sdi_tx_line_f0 |
Input |
11*N |
Indicates the line number to be inserted with the payload ID. |
sdi_tx_line_f1 |
Input |
11*N |
|
sdi_tx_vpid_byte1 |
Input |
8*N |
Payload ID byte to be inserted in the payload ID field. |
sdi_tx_vpid_byte2 |
Input |
8*N |
|
sdi_tx_vpid_byte3 |
Input |
8*N |
|
sdi_tx_vpid_byte4 |
Input |
8*N |
|
sdi_tx_vpid_byte1_b |
Input |
8*N |
|
sdi_tx_vpid_byte2_b |
Input |
8*N |
|
sdi_tx_vpid_byte3_b |
Input |
8*N |
|
sdi_tx_vpid_byte4_b |
Input |
8*N |
|
sdi_rx_coreclk_is_ntsc_paln |
Input |
1 |
To indicate whether rx_coreclk is 148.5 MHz or 148.35 MHz:
|
sdi_tx_datavalid |
Output |
1 |
Data valid signal generated from SDI TX core. The timing (H: High, L: Low) is synchronous to tx_vid_clkout and has the following settings:
|
sdi_rx_align_locked |
Output |
1 |
Alignment locked indicating the IP core has spotted a TRS and word alignment performed. |
sdi_rx_trs_locked |
Output |
N |
TRS locked indicating the IP core has spotted
six consecutive TRS with same timing.
Note:
N = 4 (multi-rate
design) or 1 (triple-rate design)
|
sdi_rx_clkout_is_ntsc_paln |
Output |
1 |
Indicates that the receiver is receiving video rate at integer or fractional frame rate:
|
sdi_rx_format |
Output |
4*N |
Received video transport format. Refer to the
IP
User Guide for the encoding value.
Note:
N = 4 (multi-rate
design) or 1 (triple-rate design)
|
sdi_rx_ap |
Output |
N |
Active picture interval timing signal. This signal asserts when the active picture interval is active. |
sdi_rx_eav |
Output |
N |
Receiver output signal that indicates current TRS is EAV. This signal is asserted at the fourth word of TRS, which is the XYZ word. |
sdi_rx_ln |
Output |
11*N |
Received line number from protocol. |
sdi_rx_ln_b |
Output |
11*N |
|
sdi_rx_crc_error_c |
Output |
N |
CRC error status signal from protocol. |
sdi_rx_crc_error_y |
Output |
N |
|
sdi_rx_crc_error_c_b |
Output |
N |
|
sdi_rx_crc_error_y_b |
Output |
N |
|
sdi_rx_line_f0 |
Output |
11*N |
Payload ID status from protocol. |
sdi_rx_line_f1 |
Output |
11*N |
|
sdi_rx_vpid_byte1 |
Output |
8*N |
|
sdi_rx_vpid_byte2 |
Output |
8*N |
|
sdi_rx_vpid_byte3 |
Output |
8*N |
|
sdi_rx_vpid_byte4 |
Output |
8*N |
|
sdi_rx_vpid_checksum_error |
Output |
N |
|
sdi_rx_vpid_valid |
Output |
N |
|
sdi_rx_vpid_byte1_b |
Output |
8*N |
|
sdi_rx_vpid_byte2_b |
Output |
8*N |
|
sdi_rx_vpid_byte3_b |
Output |
8*N |
|
sdi_rx_vpid_byte4_b |
Output |
8*N |
|
sdi_rx_vpid_checksum_error_b |
Output |
N |
|
sdi_rx_vpid_valid_b |
Output |
N |
|
Transceiver Interfaces | |||
tx_pll_refclk_sel |
Input |
1 |
Indicates
which
reference
clock to be used by the TX transceiver.
Always set to 1'b0 if you are not doing any TX clock dynamic switching. |
tx_rcfg_cal_busy |
Input |
1 |
Transceiver calibration status to TX PHY reset controller. |
rx_rcfg_cal_busy |
Input |
1 |
Transceiver calibration status to RX PHY reset controller and Rx reconfiguration management module. |
gxb_rx_serial_data |
1 |
RX transceiver serial data. |
|
gxb_tx_serial_data |
Output |
1 |
TX transceiver serial data. |
gxb_rx_ready |
Output |
1 |
RX transceiver status. |
gxb_tx_ready |
Output |
1 |
TX transceiver status. |
gxb_rx_cal_busy |
Output |
1 |
Calibration status signal from RX transceiver. |
gxb_tx_cal_busy |
Output |
1 |
Calibration status signal from TX transceiver. |
tx_pll_locked |
Output |
1 |
TX PLL lock status. |
tx_pll_locked_alt |
Output |
1 |
TX PLL alt lock status. |
cdr_reconfig_busy |
Output |
1 |
RX CDR reconfiguration status. |
tx_reconfig_busy |
Output |
1 |
TX PLL/transceiver reconfiguration status. |
Transceiver Reconfiguration Interfaces | |||
gxb_du_rcfg_write |
Input |
1 |
Reconfiguration interface signals from transceiver arbiter to duplex mode transceiver. |
gxb_du_rcfg_read |
Input |
1 |
|
gxb_du_rcfg_address |
Input |
11 |
|
gxb_du_rcfg_writedata |
Input |
32 |
|
gxb_du_rcfg_readdata |
Output |
32 |
|
gxb_du_rcfg_waitrequest |
Output |
1 |
|
gxb_rx_rcfg_write |
Input |
1 |
Reconfiguration interface signals from transceiver arbiter to RX transceiver. |
gxb_rx_rcfg_read |
Input |
1 |
|
gxb_rx_rcfg_address |
Input |
11 |
|
gxb_rx_rcfg_writedata |
Input |
32 |
|
gxb_rx_rcfg_readdata |
Output |
32 |
|
gxb_rx_rcfg_waitrequest |
Output |
1 |
|
gxb_tx_rcfg_write |
Input |
1 |
Reconfiguration interface signals from transceiver arbiter to TX transceiver. |
gxb_tx_rcfg_read |
Input |
1 |
|
gxb_tx_rcfg_address |
Input |
11 |
|
gxb_tx_rcfg_writedata |
Input |
32 |
|
gxb_tx_rcfg_readdata |
Output |
32 |
|
gxb_tx_rcfg_waitrequest |
Output |
1 |
|
rx_rcfg_readdata |
Input |
32 |
Reconfiguration interface signals from RX reconfiguration management module to transceiver arbiter. |
rx_rcfg_waitrequest |
Input |
1 |
|
rx_rcfg_write |
Output |
1 |
|
rx_rcfg_read |
Output |
1 |
|
rx_rcfg_address |
Output |
11 |
|
rx_rcfg_writedata |
Output |
32 |
|
tx_rcfg_readdata |
Input |
32 |
Reconfiguration interface signals from TX reconfiguration management module to transceiver arbiter |
tx_rcfg_waitrequest |
Input |
1 |
|
tx_rcfg_write |
Output |
1 |
|
tx_rcfg_read |
Output |
1 |
|
tx_rcfg_address |
Output |
11 |
|
tx_rcfg_writedata |
Output |
32 |
|
tx_fpll_rcfg_write |
Input |
1 |
Reconfiguration interface signals to fPLL Avalon-MM interface. |
tx_fpll_rcfg_read |
Input |
1 |
|
tx_fpll_rcfg_writedata |
Input |
32 |
|
tx_fpll_rcfg_address |
Input |
11 |
|
tx_fpll_rcfg_readdata |
Output |
32 |
|
tx_fpll_rcfg_waitrequest |
Output |
1 |
Signal | Direction | Width | Description |
---|---|---|---|
Clocks | |||
sdi_tx_clkout |
Input |
1 |
TX transceiver recovered parallel clock for video data. |
sdi_rx_clkout |
Input |
1 |
RX transceiver recovered parallel clock for video data. |
sdi_reclk_sysclk |
Input |
1 |
Input clock for reclock module (without external VCXO solution). This clock should be the same as fPLL reconfig_clk. Note: For
Intel®
Stratix® 10
devices, assign this clock to a GPIO clock instead of a
transceiver reference clock pin if the following conditions
apply:
|
gxb_tx_ready |
Input |
1 |
Reset signal to the internal FIFO block to indicate that SDI TX is ready to receive. |
Resets | |||
sdi_rx_rst_proto |
Input |
1 |
Reset signal from SDI RX core to indicate that the protocol is currently held in reset. |
sdi_reclk_rst |
Input |
1 |
Reset signal to reclock module (without external VCXO solution). |
SDI Related Signals | |||
sdi_rx_dataout |
Input |
20*N |
Receiver recovered parallel video data.
Note:
N
= 4 (multi-rate design) or 1 (triple-rate design)
|
sdi_rx_dataout_valid |
Input |
1 |
Data valid signal generated from SDI RX core. |
sdi_rx_std |
Input |
3 |
Received video standard from SDI RX core. |
sdi_rx_trs |
Input |
N |
Receiver output signal from the IP core that indicates current
word is TRS.
Note:
N = 4 (multi-rate
design) or 1 (triple-rate design)
|
sdi_rx_trs_locked |
Input |
N |
TRS locked status signal from SDI RX core.
Note:
N = 4 (multi-rate design) or 1 (triple-rate design)
|
sdi_rx_frame_locked |
Input |
1 |
Frame locked status signal from SDI RX core. |
sdi_tx_dataout_valid |
Input |
1 |
Data valid signal generated from SDI TX core. |
sdi_rx_h |
Input |
1 |
Horizontal blanking interval timing signal extracted from SDI RX core. |
sdi_rx_format |
Input |
4 |
Received video transport format. |
sdi_rx_clkout_is_ntsc_paln |
Input |
1 |
Indication from SDI RX core that the receiver is receiving video rate at integer or fractional frame rate. |
sdi_tx_datain |
Output |
20*N |
Parallel video data input to SDI TX core.
Note:
N = 4 (multi-rate design) or 1 (triple-rate design)
|
sdi_tx_datain_valid |
Output |
1 |
Data valid for the transmitter parallel data to SDI TX core. |
sdi_tx_trs |
Output |
1 |
Transmitter TRS input to indicate that the current word is a TRS to SDI TX core. |
sdi_tx_std |
Output |
3 |
Indicates the desired transmit video standard to SDI TX core. |
Voltage Control Signals for On-board Si516 | |||
vcoclk_up |
Output |
1 |
Voltage up signal to Si516 to increase the voltage. |
vcoclk_down |
Output |
1 |
Voltage down signal to Si516 to decrease the voltage. |
fPLL Reconfiguration Signals | |||
pll_locked |
Input |
1 |
PLL lock status signal. |
pll_reconfig_readdata |
Input |
32 |
Reconfiguration interface signals to fPLL Avalon-MM interface. |
pll_reconfig_waitrequest |
Input |
1 |
|
pll_reconfig_write |
Output |
1 |
|
pll_reconfig_read |
Output |
1 |
|
pll_reconfig_writedata |
Output |
32 | |
pll_reconfig_address |
Output |
11 |
Signal | Direction | Width | Description |
---|---|---|---|
On-board Oscillator Signals | |||
clk |
Input |
1 |
Reconfiguration clock. This clock should be sharing the same clock as reconfiguration management blocks. Note: For
Intel®
Stratix® 10
devices, assign this clock to a GPIO clock instead of a
transceiver reference clock pin if the following conditions
apply:
|
reset |
Input |
1 |
Reset signal. This reset should be sharing the same reset as reconfiguration management blocks. |
rx_rcfg_en |
Input |
1 |
RX reconfiguration enable signal. |
tx_rcfg_en |
Input |
1 |
TX reconfiguration enable signal. |
rx_rcfg_ch |
Input |
2 |
Indicates which channel to be reconfigured on RX. Always assign to 2'b00 for SDI case. |
tx_rcfg_ch |
Input |
2 |
Indicates which channel to be reconfigured on TX. Always assign to 2'b00 for SDI case. |
rx_reconfig_mgmt_write |
Input |
1 |
Reconfiguration Avalon-MM interfaces from RX reconfiguration management. |
rx_reconfig_mgmt_read |
Input |
1 |
|
rx_reconfig_mgmt_address |
Input |
11 |
|
rx_reconfig_mgmt_writedata |
Input |
32 |
|
rx_reconfig_mgmt_readdata |
Output |
32 |
|
rx_reconfig_mgmt_waitrequest |
Output |
1 |
|
tx_reconfig_mgmt_write |
Input |
1 |
Reconfiguration Avalon-MM interfaces from TX reconfiguration management. |
tx_reconfig_mgmt_read |
Input |
1 |
|
tx_reconfig_mgmt_address |
Input |
11 |
|
tx_reconfig_mgmt_writedata |
Input |
32 |
|
tx_reconfig_mgmt_readdata |
Output |
32 |
|
tx_reconfig_mgmt_waitrequest |
Output |
1 |
|
reconfig_write |
Output |
1 |
Reconfiguration Avalon-MM interfaces to transceiver. |
reconfig_read |
Output |
1 |
|
reconfig_address |
Output |
11 |
|
reconfig_writedata |
Output |
32 |
|
rx_reconfig_readdata |
Input |
32 |
|
rx_reconfig_waitrequest |
Input |
1 |
|
tx_reconfig_readdata | Input |
1 |
|
tx_reconfig_waitrequest |
Input |
1 |
|
rx_cal_busy |
Input |
1 |
Calibration status signal from RX transceiver. |
tx_cal_busy |
Input |
1 |
Calibration status signal from TX transceiver. |
rx_reconfig_cal_busy |
Output |
1 |
Calibration status signal to RX transceiver PHY reset control. |
tx_reconfig_cal_busy |
Output |
1 |
Calibration status signal from TX transceiver PHY reset control. |
Video Pattern Generator Signals | |||
clk |
Input |
1 |
Clock signal. This clock must be connected to the tx_vid_clkout input signal on TX/Du top. |
rst |
Input |
1 |
Reset signal. This reset signal should be synchronized with the tx_vid_clkout clock signal from the TX/Du top. |
bar_100_75n |
Input |
1 |
Enable this signal to generate 100% color-bar pattern. Disable to generate 75% color-bar pattern. |
enable |
Input |
1 |
This signal acts as a data valid signal to this module. This signal should be connected to the sdi_tx_datavalid signal from the TX/Du top. |
patho |
Input |
1 |
Enable this signal to generate pathological pattern. |
blank |
Input |
1 |
Enable this signal to generate blank signal. |
no_color |
Input |
1 |
Enable this signal to generate bar with no color. |
sgmt_frame |
Input |
1 |
Enable this signal to generate payload ID for segmented frame video format when generating 1080i50 or 1080i60 video. |
tx_std |
Input |
3 |
Indicates the desired transmit video standard. This input signal must match tx_vid_std on the TX/Du top. |
tx_format |
Input |
4 |
Indicates the desired transmit video format. |
dl_mapping |
Input |
1 |
Enable this signal to generate data streams with dual-link mapping. Note: Applicable only for HD dual link or 3G Level B
dual link video standard.
|
ntsc_paln |
Input |
1 |
Enable this signal to generate payload ID for fractional frame rate video format. Disable to generate integer frame rate video format. |
dout |
Output |
20*S |
Data output signal to be connected to the tx_vid_data input signal on the TX/Du top. |
dout_valid |
Output |
1 |
Data valid output signal to be connected to the tx_vid_datavalid input signal on the TX/Du top. |
trs |
Output |
1 |
TRS output signal to be connected to the tx_vid_trs input signal on the TX/Du top. |
ln |
Output |
11*S |
Line number output signal to be connected to the sdi_tx_ln input signal on the TX/Du top. |
dout_b |
Output |
20*S |
Data output signal for link B (HD dual link). |
dout_valid_b |
Output |
1 |
Data valid output signal for link B (HD dual link). |
trs_b |
Output |
1 |
TRS output signal for link B (HD dual link). |
ln_b |
Output |
11*S |
Line number output signal to be connected to the sdi_tx_ln_b input signal on the TX/Du top. |
vpid_byte1 |
Input |
8*N |
The payload ID output signal to be connected to sdi_tx_vpid_byte1 input signal on TX/Du top. |
vpid_byte2 |
Input |
8*N |
The payload ID output signal to be connected to sdi_tx_vpid_byte2 input signal on TX/Du top. |
vpid_byte3 |
Input |
8*N |
The payload ID output signal to be connected to sdi_tx_vpid_byte3 input signal on TX/Du top. |
vpid_byte4 |
Input |
8*N |
The payload ID output signal to be connected to sdi_tx_vpid_byte4 input signal on TX/Du top. |
vpid_byte1_b |
Input |
8*N |
The payload ID output signal to be connected to sdi_tx_vpid_byte1_b input signal on TX/Du top. |
vpid_byte2_b |
Input |
8*N |
The payload ID output signal to be connected to sdi_tx_vpid_byte2_b input signal on TX/Du top. |
vpid_byte3_b |
Input |
8*N |
The payload ID output signal to be connected to sdi_tx_vpid_byte3_b input signal on TX/Du top. |
vpid_byte4_b |
Input |
8*N |
The payload ID output signal to be connected to sdi_tx_vpid_byte4_b input signal on TX/Du top. |
line_f0 |
Output |
11*N |
The line number output signal to be inserted with the payload ID. This signal must connect to sdi_tx_line_f0 input signal on TX/Du top. |
line_f1 |
Output |
11*N |
The line number output signal to be inserted with the payload ID. This signal must connect to sdi_tx_line_f1 input signal on TX/Du top. |
Pattern Generator Control Module Signals | |||
avmm_clk_in_clk |
Input |
1 |
Clock signal to Avalon-MM interface. |
tx_clkout_in_clk |
Input |
1 |
Clock signal to Parallel I/O (PIO) IP. This clock must share the same clock as video pattern generator. |
avmm_clk_reset_n |
Input |
1 |
Reset signal to Avalon-MM interface. |
pattgen_rst_reset_in0 |
Input |
1 |
Input reset signals to a reset synchronizer which synchronizes the reset to the tx_clkout_in_clk clock domain. |
pattgen_rst_reset_in1 |
Input |
1 | |
pattgen_rst_reset_out |
Input |
1 |
Output reset from the reset synchronizer. This reset synchronizes to the tx_clkout_in_clk clock domain and connects to the video pattern generator’s input reset. |
pattgen_ctrl_pio_out_port |
Output |
12 |
Output control signal from PIO to control the video pattern generator. |
Device Initialization Module Signals | |||
clk |
Input |
1 |
Clock signal to reset delay module. |
init_done |
Output |
1 |
Signal that indicates the device has finished its initialization stage after a programmable delay, which is determined by the CNTR_BITS parameter. Note: The CNTR_BITS parameter determines the bit width of
the delay counter. The default value is 16.
|
2.6. Video Pattern Generator Parameters
Parameter | Valid Value | Default Value | Description |
---|---|---|---|
OUTW_MULTP |
1, 4 |
1 |
Defines the width of the output ports. Select 4 for a multi-rate design, otherwise select 1. |
SD_BIT_WIDTH |
10, 20 |
10 |
Defines the generated SD interface bit width. This value must match with the SD interface bit width parameter of the SDI II TX core in the same design. |
TEST_GEN_ANC |
0, 1 |
0 |
Select 1 to generate the ancillary data packet in output stream. The module inserts the embedded Data ID (DID) packet with 10’h242 if TEST_GEN_VPID is not enabled. |
TEST_GEN_VPID |
0, 1 |
0 |
Select 1 to generate the payload ID packet in output streams. The module inserts the embedded Data ID (DID) packet with 10’h241. |
2.7. Hardware Setup
To run the hardware test for parallel loopback designs, connect an SDI video generator to the receiver input pin.
- Connect an external video analyzer to the TX instance to verify full functionality.
- To validate if the RX core locks to the signal and receives the video data correctly, use the on-board LEDs that display the RX status.
To run the hardware test for serial loopback designs, connect the transmitter output pin directly to the receiver input pin.
- To validate if the RX core locks to the signal and receives the video data correctly, use the on-board LEDs that display the RX status.
- You may also connect an SDI signal analyzer to the transmitter output pin to view the generated image.
SW1.1 ON/OFF | Function |
---|---|
ON | D9, D7, and D4 indicate the receiver video standard:
|
OFF |
|
2.8. Simulation Testbench
Component | Description |
---|---|
Testbench Control | This block controls the test sequence of the simulation and generates the necessary stimulus signals to the TX and video pattern generator blocks. |
RX Checker | This checker detects the trs_locked signal from the RX protocol and compares the actual number of transceiver reconfigurations performed versus the expected number. |
TX Checker | This checker verifies if the TX serial data contains a valid TRS signal. |
- HD-SDI single-rate—HD
- 3G-SDI single-rate—3G Level A
- HD-SDI single-rate—HD
- 3G-SDI single-rate/triple-rate—3G Level A
- Multi-rate—12G 8 streams interleaved
#### TRANSMIT TEST COMPLETED SUCCESSFULLY! #### # #### Channel 1: RECEIVE TEST COMPLETED SUCCESSFULLY! ####
2.9. Upgrading Your Design
Upgrading from Previous Versions of the Intel® Quartus® Prime Pro Edition Software
- Click IP Upgrade to upgrade all the IP and Platform Designer files.
- If you have triple-rate or multi-rate designs, update all the
Native PHY config files location to the latest version in the simulation run
script. For example, in the mentor.do file,
update the version as in the following
line:
vlog -sv \$USER_DEFINED_VERILOG_COMPILE_OPTIONS "\$QSYS_SIMDIR/../rtl/du/sdi_rx_phy/altera_xcvr_native_a10_<version>/ sim/reconfig/altera_xcvr_native_a10_reconfig_parameters_CFG0.sv"
Note: You should be able to find the updated Native PHY library path in the specified folder indicated in the line. - Generate the same design example configuration in the new Intel® Quartus® Prime release version.
- Compare the whole design example directory; replace the files that have changes with the new files and copy over the new files to your existing design.
3. SDI II Intel Stratix 10 FPGA IP Design Example User Guide Archives
IP versions are the same as the Intel® Quartus® Prime Design Suite software versions up to 19.1. From Intel® Quartus® Prime Design Suite software version 19.2 or later, IP cores have a new IP versioning scheme.
Intel® Quartus® Prime Version | IP Core Version | User Guide |
---|---|---|
19.2 | 19.1.1 | SDI II Intel Stratix 10 FPGA IP Design Example User Guide |
19.1 | 19.1 | SDI II Intel Stratix 10 FPGA IP Design Example User Guide |
18.0 | 18.0 | SDI II Intel Stratix 10 FPGA IP Design Example User Guide |
17.1 | 17.1 | Intel FPGA SDI II Design Example User Guide for Intel Stratix 10 Devices |
4. Document Revision History for the SDI II Intel Stratix 10 FPGA IP Design Example User Guide
Document Version | Intel® Quartus® Prime Version | Intel® FPGA IP Version | Changes |
---|---|---|---|
2020.10.05 | 20.3 | 19.1.1 |
|
2020.02.25 | 19.2 | 19.1.1 | Edited the note in the description for the Select Board parameter in the Design Example Parameters section. This parameter is not applicable for any designs in Bidirectional mode. |
2019.07.30 | 19.2 | 19.1.1 |
|
2019.04.01 | 19.1 | – |
|
2018.05.07 | 18.0 | – |
|
2017.11.06 | 17.1 | – | Initial release. |