Texas Instruments ADC DJ 00SE Series User manual

User’s Guide
ADCxxDJxx00RF/SE Evaluation Module
ABSTRACT
The ADCxxDJxx00RFEVM/SEEVM is an evaluation board used to evaluate the ADC12DJ5200RF,
ADC12DJ4000RF, ADC08DJ5200RF, ADC12DJ5200SE analog-to-digital converters (ADC) from Texas
Instruments. The ADC12DJ5200RF and SE is a dual-channel, 12/08-bit ADC, capable of operating at sampling
rates up to 5.2 and 4 Giga-samples per second (GSPS) in dual-channel mode, or 10.4 and 8 GSPS in single-
channel mode. The ADC12DJ5200RF/SE, ADC12DJ4000RF, ADC08DJ5200RF output data is transmitted over
a standard JESD204C high-speed serial interface. This evaluation board also includes the following important
features:
• Transformer-coupled signal input network allowing a single-ended signal source from 500 kHz to
9 GHz. ADC12DJ5200SE has an internal balun in the ADC chip.
• The LMX2594 clock synthesizer generates the ADC sampling clock
• The LMK04828, LMK61E2 and LMX2594 onboard system clock generator generates SYSREF and FPGA
reference clocks for the high-speed serial interface
• Transformer-coupled clock input network to test the ADC performance with an external low-noise clock
source
• LM95233 temperature sensor
• High-speed serial data output over a High Pin Count FMC+ interface connector
Note
To improve signal routing quality, serial lane polarity is inverted with respect to the standard FMC
VITA-57 signal mapping. Signal mapping and polarity is shown in Table 8-1).
• Device register programming through USB connector and FTDI USB-to-SPI bus translator
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INB
( J7 )
ADC12DJ5200RF
ADC12DJ5200RF EVM top side
without heat sink installed
INA
( J4 )
USB
Connector
+12V DC
ADC12DJ5200RF EVM top side with
heat sink installed
Power (DC/DC
DQG/'2¶V)
External device
Clock input ( J10 )
INB+/-
INA+/-
External reference
clock input ( J17 )
FMC+
connector
LMK04828
LMK61E2
ADC12DJ5200RF EVM bottom side
LM95233
Heat Sink for the ADC
Copyright © 2016, Texas Instruments Incorporated
LMX2594
Figure 1-1. EVM Orientation
The digital data from the ADCxxDJxx00RFEVM/SEEVM board is quickly and easily captured with the
TSW14J57EVM data capture boards.
Note
The TSW14J57EVM cannot be used for JMODES that use 64b/66b encoding, or serial rates above 15
Gbps.
The TSW14J57EVM captures the high-speed serial data, decodes the data, stores the data in memory, and then
uploads it to a connected PC through a USB interface for analysis. The High-Speed Data Converter Pro (HSDC
Pro) software on the PC communicates with the hardware and processes the data.
With proper hardware selection in the HSDC Pro software, the TSW14J57 device is automatically configured to
support a wide range of operating speeds of the ADCxxDJxx00RFEVM/SEEVM, but the device may not cover
the full operating range of the ADC device. Serial data rates of 15 Gbps down to 1 Gbps are supported.
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Table of Contents
1 Trademarks..............................................................................................................................................................................3
2 Equipment............................................................................................................................................................................... 4
3 Setup Procedure..................................................................................................................................................................... 6
4 Device Configuration............................................................................................................................................................14
5 Troubleshooting the ADC12DJ5200RFEVM/SEEVM..........................................................................................................16
6 References............................................................................................................................................................................ 17
7 HSDC Pro Settings for Optional ADC Device Configuration............................................................................................ 18
8 Signal Routing.......................................................................................................................................................................24
A Analog Inputs....................................................................................................................................................................... 25
B Jumpers and LEDs...............................................................................................................................................................27
B Revision History...................................................................................................................................................................27
List of Figures
Figure 1-1. EVM Orientation........................................................................................................................................................ 2
Figure 2-1. EVM Feature Locations.............................................................................................................................................4
Figure 3-1. EVM Test Setup.........................................................................................................................................................6
Figure 3-2. Configuration GUI EVM Tab...................................................................................................................................... 9
Figure 3-3. Configuration GUI ADC Control.............................................................................................................................. 10
Figure 3-4. High Speed Data Converter Pro (HSDC) GUI.........................................................................................................12
Figure 3-5. Additional Device Parameters Dialog Box...............................................................................................................13
Figure 4-1. Low-Level Register Control Tab.............................................................................................................................. 15
Figure 7-1. ADC12DJ5200RFEVM/SEEVM Clocking System Block Diagram.......................................................................... 19
Figure 7-2. Onboard Clocking System Block Diagram.............................................................................................................. 20
Figure 7-3. External Reference Clocking System Block Diagram............................................................................................. 21
Figure 7-4. External Clock Configuration...................................................................................................................................22
Figure 7-5. Onboard Clocking Configuration............................................................................................................................. 23
Figure A-1. Analog Input Path................................................................................................................................................... 25
Figure A-2. 3 dB attenuation pad...............................................................................................................................................26
List of Tables
Table 4-1. Supported and Non-Supported Features of the JESD204C Device......................................................................... 14
Table 4-2. Low-Level Controls................................................................................................................................................... 15
Table 5-1. Troubleshooting........................................................................................................................................................ 16
Table 8-1. ADCxxDJxx00RFEVM/SEEVM Signal Routing........................................................................................................ 24
Table A-1. Analog Input Path..................................................................................................................................................... 25
Table 10-1. Jumper Settings...................................................................................................................................................... 27
Table 10-2. LEDs....................................................................................................................................................................... 27
1 Trademarks
Trilithic™ is a trademark of Trilithic, Inc.
K&L Microwave™ is a trademark of K&L Microwave.
Microsoft® and Windows® are registered trademarks of Microsoft Corporation.
Rohde & Schwarz® is a registered trademark of Rohde & Schwarz GmbH & Co.
All trademarks are the property of their respective owners.
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2 Equipment
This section describes how to setup the EVM on the bench with the proper equipment to evaluate the full
performance of the ADC device.
2.1 Evaluation Board Feature Identification Summary
INB
( J7 )
( Single-Ended Input )
INA
( J4 )
Single-Ended Input
Mini USB Connector
( J20 )
+12V DC
( J14 )
INB +/-
( J6, J8 )
( Differential Input )
INA +/-
( J3, J5 )
( Differential Input )
DEVCLK
( J10 )
ADC Sampling Clock
External Reference Clock
( J17 )
Copyright © 2016, Texas Instruments Incorporated
Figure 2-1. EVM Feature Locations
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2.2 Required Equipment
The following equipment and documents are included in the EVM evaluation kit:
• Evaluation board (EVM)
• Mini-USB cable
• Power cable
The following equipment is not included in the EVM evaluation kit, but is required for evaluation of this product:
• TSW14J57EVM data capture board and related items
• High-Speed Data Converter Pro software.
• PC computer running Microsoft® Windows® 7, or 10
• Two low-noise signal generator one for DEVCLK (Sampling clock) second for providing reference signal. TI
recommends the following generators:
– Rohde & Schwarz® SMA100B
– Rohde & Schwarz® SMA100A
• One low-noise signal generator for analog input. TI recommends the following generators:
– Rohde & Schwarz® SMA100B
– Rohde & Schwarz® SMA100A
• Bandpass filter for analog input signal (2897 MHz or desired frequency). The following filters are
recommended:
– Bandpass filter, greater than or equal to 60-dB harmonic attenuation, less than or equal to 5% bandwidth,
greater than 18-dBm power, less than 5-dB insertion loss
– Trilithic™ 5VH-series tunable BPF
– K&L Microwave™ BT-series tunable BPF
– TTE KC6 or KC7-series fixed BPF
• Signal-path cables, SMA or BNC (or both SMA and BNC)
By default, the ADCxxDJxx00RFEVM/SEEVM has an external clocking solution. A few small board modifications
enable onboard clocking. If onboard clocking is used, the following equipment is recommended.
• One low-noise signal generators. TI recommends similar models to the analog input source.
• A bandpass filter for the analog input. TI recommends a filter similar to the analog-input path filter.
Note
The frequency of clock source used to drive the external reference clock (labeled REF CLK J17)
displayed on the first page of the GUI under Reference Clock. The reference clock frequency is
calculated by the GUI using JMODE and the sampling frequency (Fs) entered by the user. The
reference clock generator and device clock generator must be frequency-locked using a common
10-MHz reference.
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3 Setup Procedure
Figure 3-1. EVM Test Setup
Note
The HSDC Pro software must be installed before connecting the TSW14J57EVM to the PC for the first
time.
3.1 Install the High Speed Data Converter (HSDC) Pro Software
1. Download the most recent version of the HSDC Pro software from www.ti.com/tool/dataconverterpro-sw.
Follow the installation instructions to install the software.
3.2 Install the Configuration GUI Software
1. Download the Configuration GUI software from the EVM tool folder at ADC12DJ5200RF GUI.
2. Extract files from the .zip file.
3. Run the executable file ( setup.exe ), and follow the instructions.
3.3 Connect the EVM and TSW14J57EVM
With the power off, connect the ADCxxDJxx00RFEVM/SEEVM to the TSW14J57EVM through the FMC
connector as shown in Figure 3-1. Ensure that the standoffs provide the proper height for robust connector
connections.
3.4 Connect the Power Supplies to the Boards (Power Off)
1. Confirm that the power switch on the TSW14J57EVM is in the off position. Connect the power cable to a
12-V DC (minimum 4A) power supply. Ensure the proper supply polarity by confirming that the outer surface
of the barrel connector is GND and the inner portion of the connector is 12 V. Connect the power cable to the
EVM power connector.
2. Confirm that the power switch for the ADC12DJ5200EVMs power supply is in the off position. Connect the
power cable to a 12-V DC (minimum 2 A) power supply. Make sure the proper supply polarity by confirming
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that the outer surface of the barrel connector is GND and the inner portion of the connector is 12 V. Connect
the power cable to the EVM power connector.
CAUTION
Make sure the power connections to the EVMs are the correct polarity. Failure to do so
may result in immediate damage.
Leave the power switches in the off position until directed later.
3.5 Connect the Signal Generators to the EVM (RF Outputs Disabled Until Directed)
Connect a signal generator to the VIN input of the ADC12DJ5200RFEVM through a bandpass filter and
attenuator at the SMA connector. This must be a low-noise signal generator. TI recommends a bandpass filter to
filter the signal from the generator. Configure the signal generator for 2897 MHz, 6 dBm.
Note: ADC12DJ5200SE has an integrated input balun and extenal balun is not required. When using
ADC12DJ5200SEEVM INAP(connector J5) should be used Channel A input and INBP(J6) should be used for
channel B input. To appply an analog input signal use a bandpass filter to filter the signal from the generator.
Configure the signal generator for 2897 MHz, 0 dBm.
When External Clocking is Used
1. Connect a signal generator to the DEVCLK input of the EVM through a bandpass filter. This signal generator
must be a low-noise signal generator. TI recommends a Trilithic-tunable bandpass filter to filter the signal
coming from the generator. Configure the signal generator for the desired clock frequency in the range of
0.8 to 5.2 GHz. For best performance when using an RF signal generator, the power input to the CLK SMA
connector must be 10 dBm (2.0 Vpp into 50 Ω). The signal generator must increase above 10 dBm by
an amount equal to any additional attenuation in the clock signal path, such as the insertion loss of the
bandpass filter. For example, if the filter insertion loss is 2 dB, the signal generator must be set to 10 dBm +
2 dB = 12 dBm.
1. Connect a signal generator to the reference signal input of the EVM at REF CLK(J17). Configure the signal
generator for the desired (260MHz) clock frequency. Set the output power to approximately 6–9 dBm.
Note
a. The Reference clock frequency can be obtained from the ADC12DJ5200EVM GUI. Once
the ADC12DJ5200EVM GUI is configured to the desired JMODE mode and clock rate. The
Reference Clock frequency required by the EVM is displayed on first page of the GUI shown
with red square in Figure 3-2
b. Ensure that the DEVCLK and Reference clock sources are frequency-locked using a common
10-MHz reference to ensure functionality. Frequency locking the input signal generator to the
other generators can also be done if coherent sampling is desired.
c. Do not turn on the RF output of any signal generator at this time.
d. When using the ADC in single-input mode, the device uses both edges of DEVCLK for
sampling.
3.6 Turn On the TSW14J57EVM Power and Connect to the PC
1. Turn on the power switch of the TSW14J57EVM.
2. Connect a mini-USB cable from the PC to the TSW14J57EVM.
3. If this is the first time connecting the TSW14J57EVM to the PC, follow the on-screen instructions to
automatically install the device drivers. See the TSW14J57EVM user's guide for specific instructions.
3.7 Turn On the ADC12DJ5200RFEVM/SEEVM Power Supplies and Connect to the PC
1. Turn on the 12-V power supply to power up the EVM.
2. Connect the EVM to the PC with the mini-USB cable.
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3.8 Turn On the Signal Generator RF Outputs
Turn on the RF signal output of the signal generator connected to VIN. If external clocking is used, turn on the
RF signal outputs connected to DEVCLK and Reference clock.
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3.9 Open the ADC12DJ5200RFEVM/SEEVM GUI and Program the ADC and Clocks
The Device Configuration GUI is installed separately from the HSDC Pro installation and is a stand-alone GUI.
Note
The max clock rate supported by ADC12DJ4000RF is 4000 MHz and only 8-bit mode are suppored by
ADC08DJ5200RF. All the 12-bit and 15-bit modes are disabled on ADC08DJ5200RF.
Figure 3-2. Configuration GUI EVM Tab
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Figure 3-2 and Figure 3-3 show the GUI open to the EVM tab and Control tab respectively. Tabs at the
top of the panel organize the configuration into device and EVM features with user-friendly controls and
a low-level tab for directly configuring the registers. The EVM has three configurable devices, namely the
ADC12DJ5200RF/SE, LMK04828, LMK61E2, and LMX2594. The register map for each device is provided in
the device data sheet (ADC12DJ5200RF/SE 10.4-GSPS Single Channel or 5.2-GSPS Dual Channel, 12-bit, RF,
LMK0482xB Ultra Low-Noise JESD204B Cmplnt Clck Jitter Cleaner w/ Dual Loop PLLs, and LMX2594 15-GHz
Wideband PLLatinum™ RF Synthesizer, respectively).
1. Open the ADC12DJ5200RFEVM GUI.
2. Select the external clock as the clock source.
3. Enter Fs = 5200 MHz MSPS as the external Fs selection.
4. Select JMODE1 for the sampling and Calibration mode.
5. Click Program Clocks and ADC (Note: This action will overwrite any previous device register settings.)
6. The Reference frequency required by the EVM is shown under indicator Reference Clock.
3.10 Calibrate the ADC Device on the EVM
Figure 3-3. Configuration GUI ADC Control
1. With the EVM GUI open on the PC, navigate to the Control tab.
2. To calibrate the ADC, click Cal Triggered/Running once, then click it again. This will stop and re-start the
Calibration engine.
Note
This calibrate button executes a calibration sequence that is required for full performance. This
calibration is performed automatically during the Section 3.9 step but must be performed again,
any time the sampling rate changes, after significant temperature change of the ADC, or after
exiting the power-down mode. See the ADC12DJ5200RF/SE device data sheet, (SLVSEN9) for
details regarding the necessary calibration sequence.
3. To enable background calibration, use the following steps:
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• Navigate to the JESD204C tab and click on JESD Block Enable to stop the JESD204C block.
• Navigate back to the Control tab and click on Enable Calibration Block to disable calibration and allow
setting changes.
• Click on Enable Background Cal.
• If background offset calibration is desired also, click on Enable Background Offset Cal.
• Click on Enable Calibration Block to re-enable the calibration subsystem
• Navigate to the JESD204C tab and click on JESD Block Enable to re-start the JESD204C block.
• Navigate back to the Control tab and click the Cal Triggered/Running button once, then click it again. This
restarts the Calibration engine.
4. To disable background calibration, use the following steps:
• Navigate to the JESD204C tab and click on JESD Block Enable to stop the JESD204C block.
• Navigate back to the Control tab and click on Enable Calibration Block to disable calibration and allow
setting changes.
• If background offset calibration was enabled, click on Enable Background Offset Cal to disable the
feature.
• Click on Enable Background Cal to disable the feature.
• Click on Enable Calibration Block to re-enable the calibration subsystem.
• Navigate to the JESD204C tab and click on JESD Block Enable to re-start the JESD204C block.
• Navigate back to the Control tab and click the Cal Triggered/Running button once, then click it again. This
restarts the Calibration engine.
3.11 Open the HSDC Software and Load the FPGA Image to the TSW14J57EVM
1. Open the HSDC Pro software.
2. Click OK to confirm the serial number of the TSW14J57EVM device. If multiple TSWxxxxx boards are
connected, select the model and serial number for the one connected to the ADC12DJ5200RFEVM/SEEVM.
3. Select the ADC12DJxx00RF_JMODE1 device from the ADC select drop-down in the top left corner.
4. When prompted, click Yes to update the firmware.
Note
If the user configures the EVM with options other than the default register values, different
instructions may be required for selecting the device in HSDC Pro. See Section 7 for more details.
5. Enter the ADC Output Data Rate (ƒ(SAMPLE)) as "10400M" or the desired output sample rate. This number
must be equal to the actual sampling rate of the device and must be updated if the sampling rate changes.
3.12 Capture Data Using the HSDC Pro Software
The following steps show how to capture data using the HSDC Pro software (see Figure 3-4):
1. Select the test to perform.
2. Select the data view.
3. Select the channel to view.
4. Click the capture button to capture new data.
Additional tips:
• Use the Notch Frequency Bins from the Test Options file menu to remove bins around DC (eliminate DC
noise and offset) or the fundamental (eliminate phase noise from signal generators).
• Open the Capture Option dialog from the Data Capture Options file menu to change the capture depth or to
enable Continuous Capture or FFT averaging.
• For analyzing only a portion of the spectrum, use the Single Tone test with the Bandwidth Integration Markers
from the Test Options file menu. The Channel Power test is also useful.
• For analyzing only a subset of the captured data, set the Analysis Window (samples) setting to a value less
than the number of total samples captured and move the green or red markers in the small transient data
window at the top of the screen to select the data subset of interest.
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Figure 3-4. High Speed Data Converter Pro (HSDC) GUI
When using decimation and NCO features, click the gear symbol to access the Additional Device Parameters
dialog box to enter the following details:
1. ADC Sampling Rate
2. ADC Input Signal Frequency
3. NCO Frequency
4. Decimation Factor
The HSDC Pro GUI will calculate the ADC Output Data Rate based on these inputs. The Fundamental and
Harmonic frequency locations will also be calculated and identified in the FFT display.
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Figure 3-5. Additional Device Parameters Dialog Box
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4 Device Configuration
The ADC device is programmable through the serial programming interface (SPI) bus accessible through the
FTDI USB-to-SPI converter located on the EVM. A GUI is provided to write instructions on the bus and program
the registers of the ADC device.
For more information about the registers in the ADC device, see the ADC12DJ5200RF/SE device data sheet.
4.1 Supported JESD204C Device Features
The ADC device supports some configuration of the JESD204C interface. Due to limitations in the
TSW14J57EVM firmware, all JESD204C link features of the ADC device are not supported. Table 4-1 lists
the supported and non-supported features.
Table 4-1. Supported and Non-Supported Features of the JESD204C Device
JESD204C Feature Supported by ADC Device Supported by TSW14J57EVM Supported by TSW14J58EVM
Number of lanes per link (L) L = 1, 2, 3, 4, 6, 8(1) L = 1, 2, 3, 4, 6, 8 supported L = 1, 2, 3, 4, 6, 8 supported
Total number of lanes active 2, 4, 6, 8, 12, 16 2, 4, 6, 8, 12, 16 2, 4, 6, 8, 12, 16
Number of frames per
multiframe (K)
Kmin = 3–256,(1)
Kmax = 256, Kstep = 1 or 2
Most values of K supported, constrained
by requirement that
K × F = 4n
Most values of K supported, constrained
by requirement that
K × F = 4n
Scrambling Supported Supported Supported
Test patterns
PRBS7, PRBS9, PRBS15, PBRS23,
PRBS31, Ramp, Transport Layer test,
D21.5, K28.5, Repeat ILA, Modified
RPAT, Serial Out 0, Serial Out 1, Clock
test, ADC Test Pattern(1)
ILA, Ramp, Long/Short Transport ILA, Ramp, Long/Short Transport
Speed Lane rates from 0.8 to 17.12 Gbps(1)
Lane rates from 2 to 15 Gbps
ƒ(SAMPLE) parameter must be properly set
in HSDC Pro GUI.
Lane rates from 0.6 to 17.16Gbps
ƒ(SAMPLE) parameter must be properly set
in HSDC Pro GUI.
(1) Dependent on bypass or decimation mode and output rate selection. Always disable the JESD204 block before changing any of the
JESD204C settings. Once the settings are changed, re-enable the JESD204 block.
4.2 Tab Organization
Control of the ADC device features are available in the EVM, Control, JESD204C, NCO Configuration tabs.
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4.3 Low-Level Control
The Low Level View tab, illustrated in Figure 4-1, allows configuration of the devices at the bit-field level. At any
time, the controls in Table 4-2 can be used to configure or read from the device.
Table 4-2. Low-Level Controls
Control Description
Register map summary Displays the devices on the EVM, registers for those devices, and the states of the registers
• Clicking on a register field allows individual bit manipulation in the register data cluster
• The value column shows the value of the register at the time the GUI was last updated
• The LR column shows the value of the register at the time the register was last read
Write register button Write to the register highlighted in the register map summary with the value in the Write Data field
Write all button Update all registers shown in the register map summary with the values shown in the Register Map
summary
Read register button Read from the register highlighted in the Register Map summary and display the results in the Read Data
field
Can be used to re-synchronize the GUI with the state of the hardware
Read-all button Read from all registers in the Register Map summary and display the current state of the hardware
Load Configuration button Load a configuration file from disk and register address/data values in the file
Save Configuration button Save a configuration file to disk that contains the current state of the configuration registers
Register Data cluster Manipulate individual accessible bits of the register highlighted in the register map summary
Individual register cluster with
read or write register buttons
Perform a generic read or write command to the device shown in the Block drop-down box using the
address and write data information
Figure 4-1. Low-Level Register Control Tab
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5 Troubleshooting the ADC12DJ5200RFEVM/SEEVM
Table 5-1 lists some troubleshooting procedures.
Table 5-1. Troubleshooting
Issue Troubleshoot
General problems
• Verify the test setup shown in Figure 3-1, and repeat the setup procedure as described in this
document.
• Check power supply to EVM and TSW14J57EVM. Verify that the power switch is in the on position.
• Check signal and clock connections to EVM.
• Visually check the top and bottom sides of the board to verify that nothing looks discolored or damaged.
• Ensure the board-to-board FMC+ connection is secure.
• Try pressing the CPU_RESET button on the TSW14J57EVM. Also try clicking Instrument Options →
Reset Board after changing the ADC configuration.
• Try power-cycling the external power supply to the EVM, and reprogram the LMK and ADC devices.
TSW14J57 LEDs are not
correct
• Verify the settings of the configuration switches on the TSW14J57EVM.
• Verify that the clock going to the CLK input is connected and the appropriate LEDs are blinking.
• Verify that the ADC device internal registers are configured properly.
• If LEDs are not blinking, reprogram the ADC EVM devices.
• Try pressing the CPU_RESET button on the TSW14J57EVM.
• Try capturing data in HSDC Pro to force an LED status update
Configuration GUI is not
working properly
• Verify that the USB cable is plugged into the EVM and the PC.
• Check the computer device manager and verify that a USB serial device is recognized when the EVM is
connected to the PC.
• Verify that the green USB Status LED light in the top right corner of the GUI is lit. If it is not lit, click the
Reconnect FTDI button.
• Try restarting the configuration GUI.
Configuration GUI is not able
to connect to the EVM
• Use the free FT_PROG software from FTDI chip and verify that the onboard FTDI chip is programmed
with the product description ADC12DJ5200RF .
HSDC Pro software is not
capturing good data or
analysis results are incorrect.
• Verify that the TSW14J57EVM is properly connected to the PC with a mini-USB cable and that the
board serial number is properly identified by the HSDC software.
• Check that the proper ADC device mode is selected. The mode should match in HSDC Pro and the
ADC GUI.
• Check that the analysis parameters are properly configured.
HSDC Pro software gives a
time-out error when capturing
data
• Try to reprogram the LMK device and reset the JESD204 link.
• Verify that the ADC sampling rate is correctly set in the HSDC software.
• Try pressing the CPU_RESET button on the TSW14J57EVM. Also try clicking Instrument Options →
Reset Board after changing the ADC configuration. Try to recapture again.
• Select Instrument Options → Download Firmware and download
'TSW14J57RevE_16L_XCVR_ADCDDRDACBRAM.rbf'. Try to capture again.
Sub-optimal measured
performance
• Try clicking Cal Triggered/Running button 2× to re-calibrate the ADC in the current operating conditions.
It is located on the Control tab of the configuration GUI.
• Check that the spectral analysis parameters are properly configured.
• Verify that bandpass filters are used in the clock and input signal paths and that low-noise signal
sources are used.
Troubleshooting the ADC12DJ5200RFEVM/SEEVM www.ti.com
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6 References
This section provides references to technical documents and user's guides.
6.1 Technical Reference Documents
•ADC12DJ5200RF device data sheet
•ADC12DJ5200SE device data sheet
•TSW14J57EVM user’s guide
•TSW14J56EVM user’s guide
•High-Speed Data Converter Pro GUI User's Guide, also available in the help menu of the software
•LMK04828 data sheet
•LMX2594 data sheet
• FTDI USB to Serial Driver Installation Manual (www.ftdichip.com/Support/Documents/InstallGuides.htm)
6.2 TSW14J57EVM Operation
Refer to the TSW14J57EVM user guide for configuration and status information.
www.ti.com References
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7 HSDC Pro Settings for Optional ADC Device Configuration
This appendix provides settings for optional ADC device configuration in HSDC Pro.
7.1 Changing the Number of Frames per Multi-Frame (K)
Changing the number of frames per multi-frame output by the JESD204 transmitter (ADC device) is configured
using the K parameter on the JESD204C tab in the Configuration GUI. This parameter must be matched by the
receiving device, and the SYSREF frequency must also be programmed to a compatible frequency. Ensure that
the K value complies with the K Min and Step values for the selected JMODE. Refer to the ADC12DJ5200RF/SE
operating modes table in the data sheet.
7.2 Customizing the EVM for Optional Clocking Support
The ADC12DJ5200RFEVM/SEEVM can be clocked using 3 different methods: external clock option, onboard
clock option and external reference clock option.
HSDC Pro Settings for Optional ADC Device Configuration www.ti.com
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7.2.1 External Clocking Option (Default)
By default, the EVM is configured to use the external clock option. The user provide and external clock signal for
both the ADC sampling clock(DEVCLK at J10) and also the Reference clock(REF CLK at J17) which feed into
the LMK04828 and is used in clock distribution mode and provides the FPGA reference clock, FPGA SYSREF
signal and ADC SYSREF signal. If coherent sampling is desired the external clocking has to be used. Figure 7-1
shows the block diagram of external clocking option:
The EVM can be configured to use external clocks with the following steps (see Figure 7-4):
1. Modify the hardware:
a. Remove R171 and R174, populate C2 and C3.
b. Remove C52 and C306, populate C60 and C61
c. Install Jumper J13
SYNC
SYSREFREQ
OSCIN RFOUTA
RFOUTB
SDCLKx
SDCLKx
DCLKx
SDCLKx
DA[15:0]
SYNC
FPGA_CLK[3:0]
FPGA_SYSREF
CLKIN0
CLKIN1
LMK61E2
LMK00304
SDCLKx
LMK04828
LMX2594
ADC12DJ5200RF
CLK
SYSREF
DA[15:0]
FMC
SYNC
REFCLK
(J17)
260 MHz
SYSREF
32.5 MHz
Board SYNC
External Clock /N
SYSREF
32.5 MHz
REFCLK
(J10)
5200 MHz
Figure 7-1. ADC12DJ5200RFEVM/SEEVM Clocking System Block Diagram
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7.2.2 Onboard Clocking Option
All the required clocking is generated on the EVM and no external clock signal is required. The LMK61E2
generates the reference frequency LMK00304 make two copies of the reference signal and sends the one
copy to LMX2594 to generate the sampling clock for the ADC and LMK04828 uses the second copy in clock
distribution mode to provides the FPGA reference clock, FPGA SYSREF signal and ADC SYSREF signal. Figure
7-2 shows the block diagram of onboard clocking option:
The EVM can be configured to use onboard clocking option with the following steps (see Figure 7-5):
• Remove C2 and C3, populate R171 and R174
• Remove C60 and C61, populate C52 and C306
• Uninstall Jumper J13
SYNC
SYSREFREQ
OSCIN RFOUTA
RFOUTB
SDCLKx
SDCLKx
DCLKx
SDCLKx
DA[15:0]
SYNC
FPGA_CLK[3:0]
FPGA_SYSREF
CLKIN0
CLKIN1
LMK61E2
LMK00304
SDCLKx
LMK04828
LMX2594
ADC12DJ5200RF
CLK
SYSREF
DA[15:0]
FMC
SYNC
Board SYNC
Onboard
Clock
/N
SYSREF
32.5 MHz
REFCLK
260 MHz
Figure 7-2. Onboard Clocking System Block Diagram
HSDC Pro Settings for Optional ADC Device Configuration www.ti.com
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