XC7VX330T

AMDVirtex-7

The XC7VX330T is a Virtex-7 FPGA from AMD, built on a 28 nm process. It provides 204,000 LUT6 look-up tables (326,400 logic cells), 408,000 flip-flops, 26.4 Mb of block RAM and 1,120 DSP slices. It offers up to 700 user I/O pins and 28 GTH transceivers at up to 13.1 Gb/s, with hard PCI Express Gen3 blocks. It is available in 2 packages, from the FFG1157 (35 × 35 mm) to the FFG1761 (42.5 × 42.5 mm). Temperature grades: commercial, extended, industrial. Designs are built with AMD Vivado.

326KLUT4-equivalent

204KLUTs (LUT6)

1,120DSP slices

26.4 MbBlock RAM

700Max. user I/O

28Transceivers (13.1 Gb/s)

Specifications

Vendor	AMD
Family	Virtex-7
Series	7 Series
Process	28 nm
Configuration memory	SRAM
LUT4-equivalent capacity	326,400
Look-up tables (LUT6)	204,000
Logic cells	326,400
Flip-flops	408,000
Distributed RAM	4,388 Kb
Block RAM	26.4 Mb (750 × 36 Kb)
DSP (DSP slice)	1,120
Clock management tiles	14

Max. user I/O	700
Differential pairs	336
GTH transceivers	28 × 13.1 Gb/s
PCI Express	2× Gen3
Analog / monitor	XADC
Design tool	AMD Vivado

Packages

Package	Size (mm)	Pitch (mm)	User I/O	Transceivers
FFG1157	35 × 35	1.0	600	20
FFG1761	42.5 × 42.5	1.0	700	28

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, -2
Extended (E)	0 to 100 °C	-2L, -3
Industrial (I)	−40 to 100 °C	-1, -2

Alternatives to the XC7VX330T

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

Device	LUT4-eq.	Vendor logic	DSP	Block RAM	Max I/O	Transceivers	PCIe
10AX048Altera Arria 10	364K 182K ALMs	629K LE	1,368	28.1 Mb	492	36 XCVR 17.4 Gb/s	Gen3
MPF500TMicrochip PolarFire	481K 481K LUT4	481K LE	1,480	29.7 Mb	584	24 SERDES 12.7 Gb/s	Gen2
MPF300TMicrochip PolarFire	300K 300K LUT4	300K LE	924	18.6 Mb	512	16 SERDES 12.7 Gb/s	Gen2
XC7K410TAMD Kintex-7	407K 254K LUT6	407K LC	1,540	27.9 Mb	500	16 GTX 12.5 Gb/s	Gen2
XC7K355TAMD Kintex-7	356K 223K LUT6	356K LC	1,440	25.1 Mb	300	24 GTX 12.5 Gb/s	Gen2
10AX057Altera Arria 10	434K 217K ALMs	747K LE	1,523	35.2 Mb	696	48 XCVR 17.4 Gb/s	Gen3

Compare side by side: XC7VX330T vs 10AX048, XC7VX330T vs MPF500T, XC7VX330T vs MPF300T.

XC7VX330T quick facts

How many LUTs does the XC7VX330T have?

The XC7VX330T has 204,000 LUT6 look-up tables, about 326,400 LUT4 equivalents (326,400 logic cells as published by AMD).

How many DSP blocks does the XC7VX330T have?

The XC7VX330T has 1,120 DSP slices and 26.4 Mb of block RAM.

Does the XC7VX330T have transceivers?

Yes, 28 GTH transceivers at up to 13.1 Gb/s.

What are the alternatives to the XC7VX330T?

Devices of similar size in other families include 10AX048 (Altera Arria 10), MPF500T (Microchip PolarFire), MPF300T (Microchip PolarFire).

Which software is used to design with the XC7VX330T?

Designs for the XC7VX330T are built with AMD Vivado.

Other Virtex-7 devices

Device	LUT4-eq.	Vendor logic	DSP	Block RAM	Max I/O	Transceivers	PCIe
XC7VX330T	326K 204K LUT6	326K LC	1,120	26.4 Mb	700	28 GTH 13.1 Gb/s	Gen3
XC7VX415T	412K 258K LUT6	412K LC	2,160	30.9 Mb	600	48 GTH 13.1 Gb/s	Gen3
XC7VX485T	486K 304K LUT6	486K LC	2,800	36.2 Mb	700	56 GTX 12.5 Gb/s	Gen2
XC7VX550T	554K 346K LUT6	554K LC	2,880	41.5 Mb	600	80 GTH 13.1 Gb/s	Gen3
XC7VH580T	580K 363K LUT6	580K LC	1,680	33 Mb	600	56 GTH/GTZ 28.05 Gb/s	Gen3
XC7V585T	583K 364K LUT6	583K LC	1,260	27.9 Mb	850	36 GTX 12.5 Gb/s	Gen2
XC7VX690T	693K 433K LUT6	693K LC	3,600	51.7 Mb	1,000	80 GTH 13.1 Gb/s	Gen3
XC7VH870T	876K 548K LUT6	876K LC	2,520	49.6 Mb	300	88 GTH/GTZ 28.05 Gb/s	Gen3
XC7VX980T	979K 612K LUT6	979K LC	3,600	52.7 Mb	900	72 GTH 13.1 Gb/s	Gen3
XC7VX1140T	1139K 712K LUT6	1139K LC	3,360	66.1 Mb	1,100	96 GTH 13.1 Gb/s	Gen3
XC7V2000T	1955K 1222K LUT6	1955K LC	2,160	45.4 Mb	1,200	36 GTX 12.5 Gb/s	Gen2

Source: AMD 7 Series FPGAs Product Selection Guide, XMP101 (v1.8). Data is extracted automatically from the vendor's selection guide; verify critical values in the device data sheet.