Please Read: Important Legal Notices................................................................................. 100
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VCU128 Board User Guide 3
Revision History
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The following table shows the revision history for this document.
Revision History
Section
12/21/2018 Version 1.0
Initial Xilinx release.N/A
Revision Summary
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VCU128 Board User Guide 4
Introduction
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Overview
The VCU128 board incorporates the VU37P high bandwidth memory (HBM) FPGA, which
ulizes stacked silicon interconnect (SSI) technology to add HBM die next to the FPGA die on the
package substrate. The VCU128 evaluaon board for the Xilinx® Virtex® UltraScale+™ FPGA
provides a hardware environment for developing and evaluang designs targeng the UltraScale
+ XCVU37P-2FSVH2892E device. The VCU128 evaluaon board is equipped with many of the
common board-level features needed for design development as listed here.
• DDR4, RLD-3, and QDR-IV component memory
• Ganged small form-factor pluggable (QSFP28) connectors
Chapter 1
• Sixteen-lane PCI Express® interface
• Ethernet PHY
• General purpose I/O
• UART interface
Addional features can be supported using modules compable with the VITA-57.4 (FMCP
HSPC) connector on the VCU128 board.
Additional Resources
See Appendix D: Addional Resources and Legal Noces for references to documents, les, and
resources relevant to the VCU128 evaluaon board.
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VCU128 Board User Guide 5
Chapter 1: Introduction
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Block Diagram
A block diagram of the VCU128 evaluaon board is shown in the following gure.
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VCU128 Board User Guide 7
○Gen3 (x1, x2, x4, x8, x16)
○Dual Gen4 (x1, x2, x4, x8)
• Ethernet PHY SGMII interface with RJ-45 connector
• Dual USB-to-UART bridge with micro-B USB connector (shared FTDI FT4232HL)
Chapter 1: Introduction
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• I2C bus
• Status LEDs
• User I/O (1 x push-buon switch, 8 x LED)
• VITA 57.4 FMC+ HSPC connector (DP[0:23], LA[0:33])
• Power management with I2C voltage monitoring through Intersil power controllers and GUI
• Conguraonopons:
○Quad SPI ash memory
○USB JTAG I/F (FTDI FT4232HL)
○Plaorm cable USB II interface 2x7 2 mm keyed connector
Board Specifications
Dimensions
Height: 7.53 inch (19.14 cm)
Length: 9.50 inch (24.13 cm)
Thickness (±5%): 0.061 inch (0.1549 cm)
Note: A 3D model of this board is not available.
IMPORTANT
PCI Express® card.
! The VCU128 board height exceeds the standard 4.376-inch (11.15 cm) height of a
Environmental
Temperature
Operang: 0°C to +45°C, Storage: -25°C to +60°C
Humidity
10% to 90% non-condensing
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VCU128 Board User Guide 8
Operating Voltage
+12 VDC
Chapter 2
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Board Setup and Configuration
Electrostatic Discharge Caution
CAUTION! ESD can damage electronic components when they are improperly handled, and can result
in total or intermient failures. Always follow ESD-prevenon procedures when removing and replacing
components.
To prevent ESD damage:
• Use an ESD wrist or ankle strap and ensure that it makes skin contact. Connect the equipment
end of the strap to an unpainted metal surface on the chassis.
• Avoid touching the adapter against your clothing. The wrist strap protects components from
ESD on the body only.
• Handle the adapter by its bracket or edges only. Avoid touching the printed circuit board or
the connectors.
• Put the adapter down only on an anstac surface such as the bag supplied in your kit.
• If you are returning the adapter to Xilinx® Product Support, place it back in its anstac bag
immediately.
Board Component Location
The following gure shows the VCU128 board component locaons. Each numbered component
shown in the gure is keyed to the table in Board Component Descripons.
IMPORTANT! The board component locaons gure is for visual reference only and might not reect
the current revision of the board.
IMPORTANT! There could be mulple revisions of this board. The specic details concerning the
dierences between revisions are not captured in this document. This document is not intended to be areference design guide and the informaon herein should not be used as such. Always refer to the
schemac, layout, and XDC les of the specic VCU128 version of interest for such details.
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VCU128 Board User Guide 9
Chapter 2: Board Setup and Configuration
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Figure 2: Evaluation Board Component Locations
15
16
24
Round callout references a component
00
on the front side of the board
24
18
19
5
31
Square callout references a component
00
on the back side of the board
27
35
4
4
34
25
26
2
1
3
36
10
34
22
38
23
22
28
30
29
32
39
33
17
14
13
37
11
20
20
21
6
7
12
9
40
8
X22144-121718
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VCU128 Board User Guide 10
Chapter 2: Board Setup and Configuration
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Board Component Descriptions
The following table idenes the components, references the respecve schemac page
numbers, and links to a detailed funconaldescripon of the components and board features in
SW4CPU_RESET P.B.NAU1 XCVU37P USER P.B. (active high)2947
Notes:
1.DIP switch sections are active-High (connected net is pulled High when DIP switch is closed = 1).
1
SW1[1:4] =
0001
Position 1 = System Controller Enable
SW1[2:4] = FPGA U1 mode M[2:0] = 001
Figure 2
Callout
363
29
Schematic
Page
50
Jumpers
Default jumper sengs are listed in the following table. Jumper header locaons are shown in
Figure 2. The following table also references the respecve schemac page numbers.
Table 3: Default Jumper Settings
JumperFunctionDefaultComments
J14Power on reset (POR)
override
J25VCCINT select1-21-2: 0.85V; 2-3: 0.72V
J46PCIe lane size select7-816-lane configuration3741
J43SYSCTLR RE-PROGOffU42 XCZU7010 MIO5 pin
Notes:
1.VCCINT select header J25 should always have a jumper block installed.
2-3U1 POR_OVERRIDE pin
BG15 to GND
1
A9
Figure 2
Callout
383
3954
4050
Schematic
Page
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VCU128 Board User Guide 13
Chapter 2: Board Setup and Configuration
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Installing the Board in a PC Chassis
The VCU128 board 12V power input circuitry allows 12V to be applied through one of two
connectors, J16 (typically used with the stand-alone VCU128 power adapter) or JP1, as shown in
the following gure.
Figure 3: 12V Power Entry
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VCU128 Board User Guide 14
Installaon of the VCU128 board inside a computer chassis is required when developing or
tesng PCI Express® funconality. When the VCU128 board is used inside a computer chassis
(i.e., plugged in to a PCIe® slot), power is provided by choosing one of two mutually exclusive
ATX power supply cables as described in this secon (use one cable or the other).
• The ATX power supply 4-pin (1x4) peripheral connector, which requires using the ATX
adapter cable (see the following gure) to connect to J16 on the VCU128 board. The Xilinx
part number for this cable is 2600304. See ATX Power Supply Adapter Cable.
X22058-121318
®
Chapter 2: Board Setup and Configuration
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Figure 4: ATX Power Supply Adapter Cable
To ATX 4-Pin Peripheral
Power Connector
To J16 on VCU128 Board
X21955-121918
• The ATX supply 8-pin (2x4) PCIe power connector, which plugs into JP1 on the VCU128
board.
Steps to Install Board
To install the board in a PC chassis:
1. On the VCU128 board, remove the ve screws retaining the ve rubber feet and standos,
and the PCIe bracket. Reinstall the PCIe® bracket using two of the previously removed
screws.
2. Power down the host computer and remove the power cord from the PC.
3. Open the PC chassis following the instrucons provided with the PC.
4. The VCU128 board has a large cooling fan that requires two adjacent PCIe slots. Ensure the
slot adjacent to the front of the board is free of obstrucons.
5. Remove the PCIe expansion slot cover (at the back of the chassis) which aligns with the
VCU128 PCIe bracket, by removing the screws on the top and boom of the cover.
6. Plug the VCU128 board into the appropriate open slot.
7. Install the top mounng bracket screw into the PC expansion cover retainer bracket to secure
the VCU128 board in its slot.
8. If using the ATX supply 4-pin (1x4) peripheral connector, connect power to the VCU128
board using the ATX power supply adapter cable as shown in Figure 4.
a.Plug the 6-pin 2 x 3 Molex connector end of the adapter cable into J16 on the VCU128
board.
b. Plug the 4-pin 1 x 4 peripheral power connector from the ATX power supply into the 4-
pin adapter connector end of the cable.
CAUTION
! Do NOT plug a PC ATX power supply 6-pin connector into J16 on the VCU128 evaluaon
board. The ATX 6-pin connector has a dierent pinout than J16. Connecng an ATX 6-pin connector
into J16 damages the VCU128 evaluaon board and voids the board warranty.
c.Slide the VCU128 board power switch SW5 to the ON posion. The PC can now be
powered on.
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VCU128 Board User Guide 15
Chapter 2: Board Setup and Configuration
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9. If using the ATX supply 8-pin (2x4) PCIe power connector, plug the connector into VCU128
board JP1. The PC can now be powered on.
FPGA Configuration
The VCU128 board supports two of the ve UltraScale+™ FPGA conguraon modes:
• Quad SPI ash memory (2 Gb)
•
JTAG using:
○USB JTAG conguraon port (U8 FT4232HL + USB J2 micro-AB)
○Xilinx
®
Plaorm Cable USB II, 2 mm, keyed at cable header (J4)
Each conguraon interface corresponds to one or more conguraon modes and bus widths, as
listed in the following table. The mode switches M2, M1, and M0 are on SW1 posions 2, 3, and
4, respecvely. The FPGA default mode seng M[2:0] = 001 selects the master SPIconguraon mode.
Table 4: Configuration Modes
Configuration Mode
Master SPI
JTAG
SW1 DIP Switch
Settings M[2:0]
1
101
Bus WidthCCLK Direction
x1, x2, x4Output
x1NA
For complete details on conguring the FPGA, see UltraScale Architecture Conguraon User Guide
(UG570). The following gure shows the conguraon mode DIP switch SW1 JTAG switch
posions.
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VCU128 Board User Guide 16
Chapter 2: Board Setup and Configuration
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Figure 5: SW1 JTAG Mode Settings
ON Position = 1
OFF Position = 0
SCEM2M1
1234
M0
SW1
X21648-121918
JTAG
The Vivado®, Xilinx® SDK, or third-party tools can establish a JTAG connecon to the XCVU37P
FPGA through the FTDI FT4232 USB-to-JTAG/USB UART device (U8) connected to the microUSB connector (J2). Alternavely, a JTAG cable can be connected to the keyed at cable header
(J4). JTAG iniatedconguraon takes priority over the conguraon method selected through
the FPGA mode pins M[2:0], wired to SW1 posions [2:4].
Quad SPI
To boot from the dual Quad SPI non-volaleconguraon memory, follow these steps.
1. Store a valid XCVU37P FPGA boot image in the 2 Gbit Quad SPI ash device (U46)
connected to the FPGA bank 0 Quad SPI interface. See the VCU128 Restoring Flash Tutorial
(XTP533) for informaon on programming the QSPI.
2. Set the boot mode pins SW1 M[2:0] as indicated in the conguraon modes table in FPGA
Conguraon for master SPI.
3. Power-cycle the VCU128 board. Mode SW1 is callout 36 in Figure 2.
See the VCU128 Soware Install and Board Setup Tutorial (XTP535) for more informaon.
See System Controller for an overview of query and control of select programmable board
features such as clocks, FMCP funconality, and power systems. See the VCU128 SystemController Tutorial (XTP534) for more informaon.
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VCU128 Board User Guide 17
Chapter 3: Board Component Descriptions
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Chapter 3
Board Component Descriptions
Overview
This chapter provides a detailed funconaldescripon of the board’s components and features.
Table 1idenes the components, references the respecve schemac page numbers, and links
to the corresponding detailed funconaldescripon in this chapter. Component locaons are
shown in Figure 2.
Component Descriptions
Virtex UltraScale+ XCVU37P-2FSVH2892E Device
[Figure 2, callout 1]
The VCU128 board incorporates the VU37P high bandwidth memory (HBM) FPGA, which
ulizes stacked silicon interconnect (SSI) technology to add HBM die next to the FPGA die on the
package substrate. The VCU128 board is populated with the Virtex® UltraScale+™
XCVU37P-2FSVH2892E device. For more informaon on Virtex UltraScale+ FPGAs, see VirtexUltraScale+ FPGA Data Sheet: DC and AC Switching Characteriscs (DS923).
Encryption Key Battery Backup Circuit
The XCVU37P device U1 implements bitstream encrypon key technology. The VCU128 board
provides the encrypon key backup baery circuit shown in the following gure.
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VCU128 Board User Guide 18
Chapter 3: Board Component Descriptions
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Figure 6: Encryption Key Backup Circuit
X21956-112918
The Seiko TS621E rechargeable 1.5V lithium buon-typebaery B1 is soldered to the board
with the posive output connected to the XCVU37P device U1 VBATT pin BD13. The baery
supply current IBATT specicaon is 150 nA maximum when the board power is o. B1 is
charged from the VCC1V8_BUS 1.8V rail through a series diode with a typical forward voltage
drop of 0.38V and 4.7 KΩ current limit resistor. The nominal charging voltage is 1.42V.
I/O Voltage Rails
There are 12 I/O banks and 2 high-bandwidth memory (HBM) banks available on the XCVU37P
device. The VCU128 board does not use the HBM banks. The voltages applied to the FPGA I/O
banks on the VCU128 board are listed in the following table.
Table 5: I/O Bank Voltage Rails
FPGA (U1) BankPower Supply Rail Net NameVoltage
Bank 0VCC1V81.8V
HP bank 64DDR4_VDDQ_1V21.2V
HP bank 65DDR4_VDDQ_1V21.2V
HP bank 66DDR4_VDDQ_1V21.2V
HP bank 67VCC1V81.8V
HP bank 68QDR4_VDDQ_1V21.2V
HP bank 69QDR4_VDDQ_1V21.2V
HP bank 70QDR4_VDDQ_1V21.2V
HP bank 71VADJ1.8V
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VCU128 Board User Guide 19
Chapter 3: Board Component Descriptions
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Table 5: I/O Bank Voltage Rails (cont'd)
FPGA (U1) BankPower Supply Rail Net NameVoltage
HP bank 72VADJ1.8V
HP bank 73RLD3_VDDQ_1V21.2V
HP bank 74RLD3_VDDQ_1V21.2V
HP bank 75RLD3_VDDQ_1V21.2V
HBM_43 (not used)VCCHBM/VCCAUX_HBM1.2V/1.8V
HBM_83 (not used)VCCHBM/VCCAUX_HBM1.2V/1.8V
DDR4 Component Memory
[Figure 2, callout 4]
The 4.5 GB DDR4 component memory system is comprised of ve 512 Mb x 16 DDR4 SDRAM
devices implemented in clam-shell fashion located at U17-U19 (top) and U73-U74 (boom). Half
of the U19 16-bits are used (4.5 x 16-bits = 72-bit wide interface).
• Manufacturer: Micron
• Part Number: MT40A512M16LY-075E
• Descripon:
○8 Gb (512 Mb x 16)
○1.2V 96-ball TFBGA
○DDR4-2666
The VCU128 XCVU37P FPGA DDR4 interface performance is documented in the VirtexUltraScale+ FPGA Data Sheet: DC and AC Switching Characteriscs (DS923).
The 72-bit wide DDR4 memory system is connected to XCVU37P U1 HP banks 64, 65 and 66.
The DDR4 0.6V VTT terminaon voltage (net DDR4_VTERM_0V6) is sourced from the TI
TPS51200DR linear regulator U71. The DDR4 memory interface bank VREF pins are not
connected, which, coupled with an XDC set_property INTERNAL VREF constraint, invoke the
INTERNAL VREF mode. The connecons between the 72-bit interface DDR4 component
memories and XCVU37P banks 64, 65, and 66 are listed in the following table.
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VCU128 Board User Guide 20
Chapter 3: Board Component Descriptions
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Table 6: DDR4 Memory 72-bit I/F to FPGA U1 Banks 64, 65, and 66
FPGA (U1) Pin
BM45PL_DDR4_DQ0POD12_DCIA3DQ8U74
BP44PL_DDR4_DQ1POD12_DCIB8DQ9U74
BP47PL_DDR4_DQ2POD12_DCIC3DQ10U74
BN45PL_DDR4_DQ3POD12_DCIC7DQ11U74
BM44PL_DDR4_DQ4POD12_DCIC2DQ12U74
BN44PL_DDR4_DQ5POD12_DCIC8DQ13U74
BN47PL_DDR4_DQ6POD12_DCID3DQ14U74
BP43PL_DDR4_DQ7POD12_DCID7DQ15U74
BN46PL_DDR4_DQS0_TDIFF_POD12_DCIB7UDQS_TU74
BP46PL_DDR4_DQS0_CDIFF_POD12_DCIA7UDQS_CU74
BN42PL_DDR4_DM0_BPOD12_DCIE2NF/UDM_B/UDBI_BU74
BL45PL_DDR4_DQ8POD12_DCIG2DQ0U17
BK44PL_DDR4_DQ9POD12_DCIF7DQ1U17
BL46PL_DDR4_DQ10POD12_DCIH3DQ2U17
BK43PL_DDR4_DQ11POD12_DCIH7DQ3U17
BL43PL_DDR4_DQ12POD12_DCIH2DQ4U17
BJ44PL_DDR4_DQ13POD12_DCIH8DQ5U17
BL42PL_DDR4_DQ14POD12_DCIJ3DQ6U17
BJ43PL_DDR4_DQ15POD12_DCIJ7DQ7U17
BK45PL_DDR4_DQS1_TDIFF_POD12_DCIG3LDQS_TU17
BK46PL_DDR4_DQS1_CDIFF_POD12_DCIF3LDQS_CU17
BL47PL_DDR4_DM1_BPOD12_DCIE7NF/LDM_B/LDBI_BU17
BK41PL_DDR4_DQ16POD12_DCIG2DQ0U74
BG44PL_DDR4_DQ17POD12_DCIF7DQ1U74
BG42PL_DDR4_DQ18POD12_DCIH3DQ2U74
BH44PL_DDR4_DQ19POD12_DCIH7DQ3U74
BH45PL_DDR4_DQ20POD12_DCIH2DQ4U74
BG45PL_DDR4_DQ21POD12_DCIH8DQ5U74
BG43PL_DDR4_DQ22POD12_DCIJ3DQ6U74
BJ41PL_DDR4_DQ23POD12_DCIJ7DQ7U74
BH46PL_DDR4_DQS2_TDIFF_POD12_DCIG3LDQS_TU74
BJ46PL_DDR4_DQS2_CDIFF_POD12_DCIF3LDQS_CU74
BH42PL_DDR4_DM2_BPOD12_DCIE7NF/LDM_B/LDBI_BU74
BE43PL_DDR4_DQ24POD12_DCIG2DQ0U18
BF42PL_DDR4_DQ25POD12_DCIF7DQ1U18
BC42PL_DDR4_DQ26POD12_DCIH3DQ2U18
BF43PL_DDR4_DQ27POD12_DCIH7DQ3U18
BD42PL_DDR4_DQ28POD12_DCIH2DQ4U18
Schematic Net
Name
I/O Standard
Pin #Pin NameRef. Des.
Component Memory
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VCU128 Board User Guide 21
Chapter 3: Board Component Descriptions
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Table 6: DDR4 Memory 72-bit I/F to FPGA U1 Banks 64, 65, and 66 (cont'd)
The VCU128 DDR4 memory component interfaces adhere to the constraints guidelines
documented in the “DDR3/DDR4 Design Guidelines” secon of the UltraScale Architecture-BasedFPGAs Memory IP LogiCORE IP Product Guide (PG150). The VCU128 board DDR4 memory
component interface is a 40Ω impedance implementaon.
For more informaon on the internal VREF, see the “Supply Voltages for the SelectIO Pins VREF”
and the “Internal VREF” secons in the UltraScale Architecture SelectIO Resources User Guide
(UG571). For more details about the Micron DDR4 component memory, see the Micron
MT40A512M16LY data sheet at the Micron Technology website.
RLD3 Component Memory
[Figure 2, callout 5]
The 288 MB RLD3 72-bit wide component memory system is comprised of two 36-bit 1.125 Gb
RLDRAM3 devices located at U39 and U37.
• Manufacturer: Micron
• Part Number: MT44K32M36RB-107E
• Descripon:
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VCU128 Board User Guide 24
○1.125 Gb (32 Mb x 36)
Chapter 3: Board Component Descriptions
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○1.2V 168-ball BGA
○Up to RL3-1866
The VCU128 XCVU37P FPGA RLDRAM3 interface performance is documented in the VirtexUltraScale+ FPGA Data Sheet: DC and AC Switching Characteriscs (DS923).
This memory system is connected to the XCVU37P HP banks 73, 74, and 75. The RLD3 0.6V
VTT terminaon voltage (net RLD3_VTERM_0V6) is sourced from TI TPS51200DR linear
regulator U92. The RLD3 memory interface bank VREF pins are not connected, which, coupled
with an XDC set_property INTERNAL_VREF constraint, invoke the INTERNAL VREF mode. The
connecons between the RLD3 component memories and XCVU37P banks 73, 74, and 75 are
listed in the following table.
Table 7: RLD3 Memory 72-bit I/F to FPGA U1 Banks 73, 74, and 75
FPGA (U1)
Pin
K29RLD3_72B_DQ0SSTL12D11DQ0U39
J30RLD3_72B_DQ1SSTL12E10DQ1U39
K32RLD3_72B_DQ2SSTL12C8DQ2U39
J31RLD3_72B_DQ3SSTL12C10DQ3U39
L29RLD3_72B_DQ4SSTL12C12DQ4U39
L31RLD3_72B_DQ5SSTL12B9DQ5U39
L30RLD3_72B_DQ6SSTL12B11DQ6U39
J32RLD3_72B_DQ7SSTL12A8DQ7U39
K31RLD3_72B_DQ8SSTL12A10DQ8U39
G30RLD3_72B_DQ9SSTL12J10DQ9U39
H30RLD3_72B_DQ10SSTL12K11DQ10U39
F31RLD3_72B_DQ11SSTL12K13DQ11U39
G28RLD3_72B_DQ12SSTL12L8DQ12U39
H29RLD3_72B_DQ13SSTL12L10DQ13U39
G31RLD3_72B_DQ14SSTL12L12DQ14U39
G32RLD3_72B_DQ15SSTL12M9DQ15U39
H32RLD3_72B_DQ16SSTL12M11DQ16U39
F28RLD3_72B_DQ17SSTL12N8DQ17U39
E33RLD3_72B_DQ18SSTL12D3DQ18U39
F29RLD3_72B_DQ19SSTL12E4DQ19U39
E29RLD3_72B_DQ20SSTL12C6DQ20U39
C32RLD3_72B_DQ21SSTL12C4DQ21U39
F33RLD3_72B_DQ22SSTL12C2DQ22U39
D30RLD3_72B_DQ23SSTL12B5DQ23U39
D32RLD3_72B_DQ24SSTL12B3DQ24U39
D29RLD3_72B_DQ25SSTL12A6DQ25U39
Schematic Net
Name
I/O Standard
Pin #Pin NameRef. Des.
Component Memory
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VCU128 Board User Guide 25
Chapter 3: Board Component Descriptions
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Table 7: RLD3 Memory 72-bit I/F to FPGA U1 Banks 73, 74, and 75 (cont'd)
FPGA (U1)
Pin
D31RLD3_72B_DQ26SSTL12A4DQ26U39
A31RLD3_72B_DQ27SSTL12J4DQ27U39
B32RLD3_72B_DQ28SSTL12K3DQ28U39
A33RLD3_72B_DQ29SSTL12K1DQ29U39
B30RLD3_72B_DQ30SSTL12L6DQ30U39
A30RLD3_72B_DQ31SSTL12L4DQ31U39
C28RLD3_72B_DQ32SSTL12L2DQ32U39
C29RLD3_72B_DQ33SSTL12M5DQ33U39
A29RLD3_72B_DQ34SSTL12M3DQ34U39
B28RLD3_72B_DQ35SSTL12N6DQ35U39
G42RLD3_72B_DQ36SSTL12D11DQ0U37
G41RLD3_72B_DQ37SSTL12E10DQ1U37
H42RLD3_72B_DQ38SSTL12C8DQ2U37
G40RLD3_72B_DQ39SSTL12C10DQ3U37
H43RLD3_72B_DQ40SSTL12C12DQ4U37
J42RLD3_72B_DQ41SSTL12B9DQ5U37
H40RLD3_72B_DQ42SSTL12B11DQ6U37
J40RLD3_72B_DQ43SSTL12A8DQ7U37
J41RLD3_72B_DQ44SSTL12A10DQ8U37
D44RLD3_72B_DQ45SSTL12J10DQ9U37
F45RLD3_72B_DQ46SSTL12K11DQ10U37
F44RLD3_72B_DQ47SSTL12K13DQ11U37
D46RLD3_72B_DQ48SSTL12L8DQ12U37
F46RLD3_72B_DQ49SSTL12L10DQ13U37
E44RLD3_72B_DQ50SSTL12L12DQ14U37
E46RLD3_72B_DQ51SSTL12M9DQ15U37
G45RLD3_72B_DQ52SSTL12M11DQ16U37
H45RLD3_72B_DQ53SSTL12N8DQ17U37
B46RLD3_72B_DQ54SSTL12D3DQ18U37
A46RLD3_72B_DQ55SSTL12E4DQ19U37
C43RLD3_72B_DQ56SSTL12C6DQ20U37
B45RLD3_72B_DQ57SSTL12C4DQ21U37
A45RLD3_72B_DQ58SSTL12C2DQ22U37
C45RLD3_72B_DQ59SSTL12B5DQ23U37
C44RLD3_72B_DQ60SSTL12B3DQ24U37
D42RLD3_72B_DQ61SSTL12A6DQ25U37
A43RLD3_72B_DQ62SSTL12A4DQ26U37
D40RLD3_72B_DQ63SSTL12J4DQ27U37
Schematic Net
Name
I/O Standard
Pin #Pin NameRef. Des.
Component Memory
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VCU128 Board User Guide 26
Chapter 3: Board Component Descriptions
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Table 7: RLD3 Memory 72-bit I/F to FPGA U1 Banks 73, 74, and 75 (cont'd)
FPGA (U1)
Pin
C40RLD3_72B_DQ64SSTL12K3DQ28U37
A39RLD3_72B_DQ65SSTL12K1DQ29U37
A41RLD3_72B_DQ66SSTL12L6DQ30U37
B41RLD3_72B_DQ67SSTL12L4DQ31U37
B40RLD3_72B_DQ68SSTL12L2DQ32U37
D41RLD3_72B_DQ69SSTL12M5DQ33U37
B42RLD3_72B_DQ70SSTL12M3DQ34U37
E41RLD3_72B_DQ71SSTL12N6DQ35U37
J29RLD3_72B_DM0SSTL12B7DM0U39
A28RLD3_72B_DM1SSTL12M7DM1U39
G43RLD3_72B_DM2SSTL12B7DM0U37
A40RLD3_72B_DM3SSTL12M7DM1U37
D39RLD3_72B_A0SSTL12E2A0U37, U39
A38RLD3_72B_A1SSTL12F5A1U37, U39
B38RLD3_72B_A2SSTL12F4A2U37, U39
J34RLD3_72B_A3SSTL12F9A3U37, U39
K34RLD3_72B_A4SSTL12F10A4U37, U39
K37RLD3_72B_A5SSTL12F12A5U37, U39
C38RLD3_72B_A6SSTL12G3A6U37, U39
E36RLD3_72B_A7SSTL12F1A7U37, U39
B35RLD3_72B_A8SSTL12G11A8U37, U39
L35RLD3_72B_A9SSTL12F13A9U37, U39
D34RLD3_72B_A10SSTL12H13A10U37, U39
E39RLD3_72B_A11SSTL12D1A11U37, U39
A35RLD3_72B_A12SSTL12H11A12U37, U39
C35RLD3_72B_A13SSTL12D13A13U37, U39
E37RLD3_72B_A14SSTL12H3A14U37, U39
E38RLD3_72B_A15SSTL12G2A15U37, U39
C37RLD3_72B_A16SSTL12H4A16U37, U39
B36RLD3_72B_A17SSTL12H10A17U37, U39
F34RLD3_72B_A18SSTL12G12A18U37, U39
J37RLD3_72B_A19SSTL12H1A19U37, U39
C39RLD3_72B_A20SSTL12F2NF_A20U37, U39
C34RLD3_72B_BA0SSTL12G9BA0U37, U39
B37RLD3_72B_BA1SSTL12G5BA1U37, U39
A36RLD3_72B_BA2SSTL12H8BA2U37, U39
D36RLD3_72B_BA3SSTL12H6BA3U37, U39
D37RLD3_72B_WE_BSSTL12F6WE_BU37, U39
Schematic Net
Name
I/O Standard
Pin #Pin NameRef. Des.
Component Memory
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VCU128 Board User Guide 27
Chapter 3: Board Component Descriptions
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Table 7: RLD3 Memory 72-bit I/F to FPGA U1 Banks 73, 74, and 75 (cont'd)
FPGA (U1)
Pin
E34RLD3_72B_REF_BSSTL12F8REF_BU37, U39
G37RLD3_72B_CK_PSSTL12H7CKU37, U39
F38RLD3_72B_CK_NSSTL12G7CK_BU37, U39
D35RLD3_72B_RESET_BSSTL12A13RESET_BU37, U39
A34RLD3_72B_CS_BSSTL12E12CS_BU37, U39
H37RLD3_72B_DK0_PDIFF_SSTL12D7DK0U39
H38RLD3_72B_DK0_NDIFF_SSTL12C7DK0_BU39
H34RLD3_72B_DK1_PDIFF_SSTL12K7DK1U39
H35RLD3_72B_DK1_NDIFF_SSTL12L7DK1_BU39
G38RLD3_72B_DK2_PDIFF_SSTL12D7DK0U37
F39RLD3_72B_DK2_NDIFF_SSTL12C7DK0_BU37
G35RLD3_72B_DK3_PDIFF_SSTL12K7DK1U37
G36RLD3_72B_DK3_NDIFF_SSTL12L7DK1_BU37
L33RLD3_72B_QK0_PDIFF_SSTL12D9QK0U39
K33RLD3_72B_QK0_NDIFF_SSTL12E8QK0_BU39
H33RLD3_72B_QK1_PDIFF_SSTL12K9QK1U39
G33RLD3_72B_QK1_NDIFF_SSTL12J8QK1_BU39
E31RLD3_72B_QK2_PDIFF_SSTL12D5QK2U39
E32RLD3_72B_QK2_NDIFF_SSTL12E6QK2_BU39
C30RLD3_72B_QK3_PDIFF_SSTL12K5QK3U39
B31RLD3_72B_QK3_NDIFF_SSTL12J6QK3_BU39
K41RLD3_72B_QK4_PDIFF_SSTL12D9QK0U37
K42RLD3_72B_QK4_NDIFF_SSTL12E8QK0_BU37
J44RLD3_72B_QK5_PDIFF_SSTL12K9QK1U37
H44RLD3_72B_QK5_NDIFF_SSTL12J8QK1_BU37
E42RLD3_72B_QK6_PDIFF_SSTL12D5QK2U37
E43RLD3_72B_QK6_NDIFF_SSTL12E6QK2_BU37
F40RLD3_72B_QK7_PDIFF_SSTL12K5QK3U37
F41RLD3_72B_QK7_NDIFF_SSTL12J6QK3_BU37
F30RLD3_72B_QVLD0SSTL12J12QVLD0U39
E28RLD3_72B_QVLD1SSTL12J2QVLD1U39
D45RLD3_72B_QVLD2SSTL12J12QVLD0U37
A44RLD3_72B_QVLD3SSTL12J2QVLD1U37
Schematic Net
Name
I/O Standard
Pin #Pin NameRef. Des.
Component Memory
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VCU128 Board User Guide 28
The VCU128 RLD3 72-bit memory component interface adheres to the constraints guidelines
documented in the "RLD3 Design Guidelines" secon of the UltraScale Architecture-Based FPGAsMemory IP LogiCORE IP Product Guide (PG150). The VCU128 RLD3 memory component interface
is a 40Ω impedance implementaon.
Chapter 3: Board Component Descriptions
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For more informaon on the internal VREF, see the "Supply Voltages for the SelectIO Pins",
“VREF”, and “Internal VREF” secons in the UltraScale Architecture SelectIO Resources User Guide
(UG571). For more details about the Micron RLD3 component memory, see the Micron
MT44K32M36RB Data Sheet at the Micron Technology website.
QDR4 Component Memory
[Figure 2, callout 6]
The 4.5 GB QDR4 component memory system is comprised of one 144-Mbit density (4M × 36)
QDR4 SRAM device located at U40.
•
Manufacturer: Cypress
•
Part Number: CY7C4142KV13_106FCXC
•
Descripon:
○144-Mbit density (4M × 36)
○Dual independent 36-bit bidireconal double data rate (DDR) data ports
○Supports concurrent read/write transacons on both ports
○Single address port used to control both data ports
○1.2V 361-ball FCBGA
○Maximum operang frequency of 1066 MHz
The VCU128 XCVU37P FPGA QDR IV interface performance is documented in the VirtexUltraScale+ FPGA Data Sheet: DC and AC Switching Characteriscs (DS923).
The 72-bit wide QDR4 memory is connected to XCVU37P U1 HP banks 68, 69, and 70. The
QDR4 memory interface bank VREF pins are not connected, which, coupled with an XDC
set_property INTERNAL VREF constraint, invoke the INTERNAL VREF mode. The connecons
between the 72-bit interface QDR4 component memories and XCVU37P banks 68, 69, and 70
are listed in the following table.
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VCU128 Board User Guide 29
Chapter 3: Board Component Descriptions
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Table 8: QDR4 Memory 72-bit I/F to FPGA U1 Banks 68, 69, and 70
FPGA (U1) Pin
BM14QDR4_DQA0C8DQA0
BM13QDR4_DQA1B7DQA1
BN15QDR4_DQA2C6DQA2
BN12QDR4_DQA3D5DQA3
BM15QDR4_DQA4D7DQA4
BP13QDR4_DQA5A4DQA5
BP14QDR4_DQA6F5DQA6
BM12QDR4_DQA7A6DQA7
BL15QDR4_DQA8A8DQA8
BM9QDR4_DQA9H3DQA9
BK9QDR4_DQA10H5DQA10
BL10QDR4_DQA11J2DQA11
BK10QDR4_DQA12J4DQA12
BL8QDR4_DQA13B2DQA13
BN10QDR4_DQA14E2DQA14
BM10QDR4_DQA15G2DQA15
BN9QDR4_DQA16G4DQA16
BJ9QDR4_DQA17B5DQA17
BL12QDR4_DQA18C12DQA18
BK14QDR4_DQA19B13DQA19
BJ12QDR4_DQA20C14DQA20
BK15QDR4_DQA21D15DQA21
BL13QDR4_DQA22D13DQA22
BH14QDR4_DQA23A16DQA23
BH15QDR4_DQA24F15DQA24
BJ14QDR4_DQA25A14DQA25
BJ13QDR4_DQA26A12DQA26
BE9QDR4_DQA27H17DQA27
BE10QDR4_DQA28H15DQA28
BG13QDR4_DQA29J18DQA29
BE11QDR4_DQA30J16DQA30
BF10QDR4_DQA31B18DQA31
BG12QDR4_DQA32E18DQA32
BG9QDR4_DQA33G18DQA33
BG10QDR4_DQA34G16DQA34
BF12QDR4_DQA35B15DQA35
Schematic Net
Name
I/O Standard
QDR4 A-side Data
Component Memory
Pin #Pin Name
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VCU128 Board User Guide 30
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