XCVH1522

AMDVersal HBMSoC

The XCVH1522 is a Versal HBM SoC FPGA from AMD, built on a 7 nm process. It provides 1,753,984 LUT6 look-up tables (3,837,000 system logic cells), 3,507,968 flip-flops, 89 Mb of block RAM plus 366 Mb of UltraRAM and 7,392 DSP Engines. Its processing system includes two Arm Cortex-A72 cores, a dual Arm Cortex-R5F real-time processor. The programmable logic offers up to 702 user I/O pins and 88 GTYP/GTM transceivers at up to 58 Gb/s, with hard PCI Express Gen5 x8 blocks. It comes in a single package, the VSVA3697 (57.5 × 57.5 mm). Designs are built with AMD Vivado.

1,753,984LUTs (LUT6)

7,392DSP Engines

89 MbBlock RAM

366 MbUltraRAM

702Max. user I/O

88Transceivers (58 Gb/s)

2× A72Hard processor

Specifications

Vendor	AMD
Family	Versal HBM
Series	Versal
Process	7 nm
Configuration memory	SRAM
Look-up tables (LUT6)	1,753,984
Logic block	6-input look-up table, fracturable into two LUT5 with shared inputs
LUT4 equivalent (approx.)	≈2,806,374
System logic cells	3,837,000
Flip-flops	3,507,968
Distributed RAM	55,296 Kb
Block RAM	89 Mb
UltraRAM	366 Mb
HBM	8 GB
DSP (DSP Engine)	7,392

Max. user I/O	702
GTYP transceivers	68 × 32.75 Gb/s
GTM transceivers	20 × 58 Gb/s
PCI Express (PL)	2× Gen5 x8, 8× Gen5 x4
Analog / monitor	System Monitor
Hard processor	2× Arm Cortex-A72
Real-time processor	Dual Arm Cortex-R5F
Design tool	AMD Vivado

Packages

Package	Size (mm)	Pitch (mm)	User I/O	PS I/O	Transceivers
VSVA3697	57.5 × 57.5	0.92	702	78	88

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

Alternatives to the XCVH1522

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
XCVP1552AMD Versal Premium	1,753,984 LUT6	3837K SLC	7,392	89 Mb	702	88 GTYP/GTM 58 Gb/s	Gen5	—
XCVP1502AMD Versal Premium	1,720,448 LUT6	3763K SLC	7,440	89 Mb	702	88 GTYP/GTM 58 Gb/s	Gen5	—
XCVP2502AMD Versal Premium	1,708,672 LUT6	3738K SLC	7,392	89 Mb	702	88 GTYP/GTM 58 Gb/s	Gen5	—
XC2VP3602AMD Versal Premium Gen 2	1,496,448 LUT6	3273K SLC	7,616	99 Mb	736	72 GTM2 112 Gb/s	Gen6	—
AGI 035Altera Agilex 7 I-Series	1,200,000 ALMs	3540K LE	9,594	292 Mb	576	96 XCVR 116 Gb/s	—	—
AGI 040Altera Agilex 7 I-Series	1,372,000 ALMs	4047K LE	12,792	389 Mb	576	96 XCVR 116 Gb/s	—	8,225 intel_dk-si-agi040fes

Compare side by side: XCVH1522 vs XCVP1552, XCVH1522 vs XCVP1502, XCVH1522 vs XCVP2502, XCVH1522 vs AGI 040.

Compare the XCVH1522 with up to three other FPGAs.

XCVH1522 quick facts

How many LUTs does the XCVH1522 have?

The XCVH1522 has 1,753,984 LUT6 look-up tables (3,837,000 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 XCVH1522 have?

The XCVH1522 has 7,392 DSP Engines and 89 Mb of block RAM plus 366 Mb of UltraRAM.

Does the XCVH1522 have transceivers?

Yes, 88 GTYP/GTM transceivers at up to 58 Gb/s.

Does the XCVH1522 have a processor?

Yes. It includes a hard 2× Arm Cortex-A72 processor.

What are the alternatives to the XCVH1522?

Devices of similar size in other families include XCVP1552 (AMD Versal Premium), XCVP1502 (AMD Versal Premium), XCVP2502 (AMD Versal Premium).

Which software is used to design with the XCVH1522?

Designs for the XCVH1522 are built with AMD Vivado.

Other Versal HBM devices

Device	LUTs	Vendor logic	DSP	Block RAM	Max I/O	Transceivers	PCIe	CoreScore
XCVH1522	1,753,984 LUT6	3837K SLC	7,392	89 Mb	702	88 GTYP/GTM 58 Gb/s	Gen5	—
XCVH1542	1,753,984 LUT6	3837K SLC	7,392	89 Mb	702	88 GTYP/GTM 58 Gb/s	Gen5	—
XCVH1582	1,753,984 LUT6	3837K SLC	7,392	89 Mb	702	88 GTYP/GTM 58 Gb/s	Gen5	—
XCVH1742	2,574,208 LUT6	5631K SLC	10,848	132 Mb	702	128 GTYP/GTM 58 Gb/s	Gen5	—
XCVH1782	2,574,208 LUT6	5631K SLC	10,848	132 Mb	702	128 GTYP/GTM 58 Gb/s	Gen5	—

Source: AMD Versal HBM Series Product Selection Guide, XMP465 (v1.10). Data is extracted automatically from the vendor's selection guide; verify critical values in the device data sheet.