XCVU37P
AMDVirtex UltraScale+ HBMThe XCVU37P is a Virtex UltraScale+ HBM FPGA from AMD, built on a 16 nm process. It provides 1,304,000 LUT6 look-up tables (2,852,000 system logic cells), about 2,086,400 LUT4 equivalents, 2,607,000 flip-flops, 70.9 Mb of block RAM plus 270 Mb of UltraRAM and 9,024 DSP slices. It offers up to 624 user I/O pins and 96 GTY transceivers at up to 32.75 Gb/s, with hard PCI Express Gen3 x16 blocks. Temperature grades: extended. Designs are built with AMD Vivado.
Specifications
| Vendor | AMD |
|---|---|
| Family | Virtex UltraScale+ HBM |
| Series | UltraScale+ |
| Process | 16 nm |
| Configuration memory | SRAM |
| LUT4-equivalent capacity | 2,086,400 |
| Look-up tables (LUT6) | 1,304,000 |
| System logic cells | 2,852,000 |
| Flip-flops | 2,607,000 |
| Distributed RAM | 37,581 Kb |
| Block RAM | 70.9 Mb |
| UltraRAM | 270 Mb |
| HBM | 8 GB |
| DSP (DSP slice) | 9,024 |
| Clock management tiles | 12 |
| Max. user I/O | 624 |
|---|---|
| HP I/O | 624 |
| GTY transceivers | 96 × 32.75 Gb/s |
| PCI Express | 2× Gen3 x16, 4× Gen3 x16 |
| 150G Interlaken | 4 |
| 100G Ethernet MAC | 8 |
| Analog / monitor | System Monitor |
| Design tool | AMD Vivado |
Speed and temperature grades
| Temperature grade | Junction range | Speed grades |
|---|---|---|
| Extended (E) | 0 to 100 °C | -1, -2, -2L, -3 |
Alternatives to the XCVU37P
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 |
|---|---|---|---|---|---|---|---|
| XCVU11PAMD Virtex UltraScale+ | 2074K 1296K LUT6 | 2835K SLC | 9,216 | 70.9 Mb | 624 | 96 GTY 32.75 Gb/s | Gen3 |
| XCVU27PAMD Virtex UltraScale+ | 2074K 1296K LUT6 | 2835K SLC | 9,216 | 70.9 Mb | 676 | 80 GTY/GTM 58 Gb/s | Gen3 |
| XCVU9PAMD Virtex UltraScale+ | 1891K 1182K LUT6 | 2586K SLC | 6,840 | 75.9 Mb | 832 | 120 GTY 32.75 Gb/s | Gen3 |
| XCVU29PAMD Virtex UltraScale+ | 2765K 1728K LUT6 | 3780K SLC | 12,288 | 94.5 Mb | 676 | 80 GTY/GTM 58 Gb/s | Gen3 |
| XCVU13PAMD Virtex UltraScale+ | 2765K 1728K LUT6 | 3780K SLC | 12,288 | 94.5 Mb | 832 | 128 GTY 32.75 Gb/s | Gen3 |
| GX 2800Altera Stratix 10 GX/SX | 1866K 933K ALMs | 2753K LE | 5,760 | 229 Mb | 1,160 | 96 XCVR/XCVR 28.3 Gb/s | Gen3 |
Compare side by side: XCVU37P vs XCVU11P, XCVU37P vs XCVU27P, XCVU37P vs XCVU9P, XCVU37P vs XCVU29P, XCVU37P vs XCVU13P.
XCVU37P quick facts
How many LUTs does the XCVU37P have?
The XCVU37P has 1,304,000 LUT6 look-up tables, about 2,086,400 LUT4 equivalents (2,852,000 system logic cells as published by AMD).
How many DSP blocks does the XCVU37P have?
The XCVU37P has 9,024 DSP slices and 70.9 Mb of block RAM plus 270 Mb of UltraRAM.
Does the XCVU37P have transceivers?
Yes, 96 GTY transceivers at up to 32.75 Gb/s.
What are the alternatives to the XCVU37P?
Devices of similar size in other families include XCVU11P (AMD Virtex UltraScale+), XCVU27P (AMD Virtex UltraScale+), XCVU9P (AMD Virtex UltraScale+).
Which software is used to design with the XCVU37P?
Designs for the XCVU37P are built with AMD Vivado.
Other Virtex UltraScale+ HBM devices
| Device | LUT4-eq. | Vendor logic | DSP | Block RAM | Max I/O | Transceivers | PCIe |
|---|---|---|---|---|---|---|---|
| XCVU31P | 704K 440K LUT6 | 962K SLC | 2,880 | 23.6 Mb | 208 | 32 GTY 32.75 Gb/s | Gen3 |
| XCVU33P | 704K 440K LUT6 | 962K SLC | 2,880 | 23.6 Mb | 208 | 32 GTY 32.75 Gb/s | Gen3 |
| XCVU35P | 1395K 872K LUT6 | 1907K SLC | 5,952 | 47.3 Mb | 416 | 64 GTY 32.75 Gb/s | Gen3 |
| XCVU45P | 1395K 872K LUT6 | 1907K SLC | 5,952 | 47.3 Mb | 416 | 64 GTY 32.75 Gb/s | Gen3 |
| XCVU37P | 2086K 1304K LUT6 | 2852K SLC | 9,024 | 70.9 Mb | 624 | 96 GTY 32.75 Gb/s | Gen3 |
| XCVU47P | 2086K 1304K LUT6 | 2852K SLC | 9,024 | 70.9 Mb | 624 | 96 GTY 32.75 Gb/s | Gen3 |
| XCVU57P | 2086K 1304K LUT6 | 2852K SLC | 9,024 | 70.9 Mb | 624 | 64 GTY/GTM 58 Gb/s | Gen3 |
Source: AMD UltraScale+ FPGAs Product Selection Guide, XMP103 (v2.8). Data is extracted automatically from the vendor's selection guide; verify critical values in the device data sheet.