XCVU440

AMDVirtex UltraScale

The XCVU440 is a Virtex UltraScale FPGA from AMD, built on a 20 nm process. It provides 2,532,960 LUT6 look-up tables (5,541,000 system logic cells), 5,065,920 flip-flops, 88.6 Mb of block RAM and 2,880 DSP slices. It offers up to 1,456 user I/O pins and 48 GTH transceivers at up to 16.3 Gb/s, with hard PCI Express Gen3 blocks. It is available in 2 packages, from the B2377 (50 × 50 mm) to the A2892 (55 × 55 mm). Temperature grades: commercial, extended, industrial. Designs are built with AMD Vivado.

2,532,960LUTs (LUT6)

2,880DSP slices

88.6 MbBlock RAM

1,456Max. user I/O

48Transceivers (16.3 Gb/s)

Specifications

Vendor	AMD
Family	Virtex UltraScale
Series	UltraScale
Process	20 nm
Configuration memory	SRAM
Look-up tables (LUT6)	2,532,960
Logic block	6-input look-up table, fracturable into two LUT5 with shared inputs
LUT4 equivalent (approx.)	≈4,052,736
System logic cells	5,541,000
Flip-flops	5,065,920
Distributed RAM	28,710 Kb
Block RAM	88.6 Mb (2520 × 36 Kb)
DSP (DSP slice)	2,880
Clock management tiles	30

Max. user I/O	1,456
HP I/O	1,404
Differential pairs	672
GTH transceivers	48 × 16.3 Gb/s
PCI Express	6× Gen3
100G Ethernet MAC	3
Analog / monitor	System Monitor
Design tool	AMD Vivado

Packages

Package	Size (mm)	Pitch (mm)	User I/O	Transceivers
B2377	50 × 50	1.0	1,300	36
A2892	55 × 55	1.0	1,456	48

Package names are shown as in the selection guide; the full ordering code adds speed grade and temperature (see the data sheet).

Speed and temperature grades

Temperature grade	Junction range	Speed grades
Commercial (C)	0 to 85 °C	-1
Extended (E)	0 to 100 °C	-2, -3
Industrial (I)	−40 to 100 °C	-1, -2

Alternatives to the XCVU440

Closest matches in other families and vendors by logic, DSP, memory, I/O and transceivers. Check pin compatibility and tools before migrating.

Device	LUTs	Vendor logic	DSP	Block RAM	Max I/O	Transceivers	PCIe	CoreScore
XCVU19PAMD Virtex UltraScale+	4,086,000 LUT6	8938K SLC	3,840	75.9 Mb	2,072	80 GTY 32.75 Gb/s	Gen3	10,000 vu19p
XC7V2000TAMD Virtex-7	1,221,600 LUT6	1955K LC	2,160	45.4 Mb	1,200	36 GTX 12.5 Gb/s	Gen2	—
GX 2100Altera Stratix 10 GX/SX	679,680 ALMs	2005K LE	3,744	127 Mb	704	96 XCVR/XCVR 28.3 Gb/s	Gen3	—
XC7VX1140TAMD Virtex-7	712,000 LUT6	1139K LC	3,360	66.1 Mb	1,100	96 GTH 13.1 Gb/s	Gen3	—
GX 2500Altera Stratix 10 GX/SX	821,150 ALMs	2422K LE	5,011	195 Mb	1,160	96 XCVR/XCVR 28.3 Gb/s	Gen3	—
XCVU23PAMD Virtex UltraScale+	1,030,000 LUT6	2252K SLC	1,320	74.3 Mb	644	38 GTY/GTM 58 Gb/s	Gen3	—

Compare side by side: XCVU440 vs XCVU19P, XCVU440 vs XC7V2000T, XCVU440 vs GX 2100.

Compare the XCVU440 with up to three other FPGAs.

XCVU440 quick facts

How many LUTs does the XCVU440 have?

The XCVU440 has 2,532,960 LUT6 look-up tables (5,541,000 system logic cells as published by AMD). Logic block: 6-input look-up table, fracturable into two LUT5 with shared inputs.

How many DSP blocks does the XCVU440 have?

The XCVU440 has 2,880 DSP slices and 88.6 Mb of block RAM.

Does the XCVU440 have transceivers?

Yes, 48 GTH transceivers at up to 16.3 Gb/s.

What are the alternatives to the XCVU440?

Devices of similar size in other families include XCVU19P (AMD Virtex UltraScale+), XC7V2000T (AMD Virtex-7), GX 2100 (Altera Stratix 10 GX/SX).

Which software is used to design with the XCVU440?

Designs for the XCVU440 are built with AMD Vivado.

Other Virtex UltraScale devices

Device	LUTs	Vendor logic	DSP	Block RAM	Max I/O	Transceivers	PCIe	CoreScore
XCVU065	358,080 LUT6	783K SLC	600	44.3 Mb	520	40 GTH/GTY 30.5 Gb/s	Gen3	—
XCVU080	445,712 LUT6	975K SLC	672	50 Mb	832	64 GTH/GTY 30.5 Gb/s	Gen3	—
XCVU095	537,600 LUT6	1176K SLC	768	60.8 Mb	832	64 GTH/GTY 30.5 Gb/s	Gen3	—
XCVU125	716,160 LUT6	1567K SLC	1,200	88.6 Mb	832	80 GTH/GTY 30.5 Gb/s	Gen3	—
XCVU160	926,400 LUT6	2027K SLC	1,560	115.2 Mb	702	104 GTH/GTY 30.5 Gb/s	Gen3	—
XCVU190	1,074,240 LUT6	2350K SLC	1,800	132.9 Mb	702	120 GTH/GTY 30.5 Gb/s	Gen3	—
XCVU440	2,532,960 LUT6	5541K SLC	2,880	88.6 Mb	1,456	48 GTH 16.3 Gb/s	Gen3	—

Source: AMD UltraScale FPGAs Product Selection Guide, XMP102 (v1.7). Data is extracted automatically from the vendor's selection guide; verify critical values in the device data sheet.