by
W1zzard,
on ,
in Graphics Cards.
Manufacturer: NVIDIA
Introduction
The NVIDIA RTX A2000 "Ampere" in today's review is a professional-visualization graphics card designed by NVIDIA for commercial desktops and workstations. It features a low-profile design making it fit for compact towers or rackmount workstations where space comes at a premium. The card comes in a half-height, dual-slot design and uses a self-contained air cooler (doesn't rely on rack airflow). NVIDIA hasn't stuck either the GeForce or Quadro label onto this card. The "A" in A2000 denotes the "Ampere" graphics architecture it is based on. Another important capability is that the card runs on PCI-Express slot power only—no external power connectors needed.
The RTX A2000 fits the need for a compact graphics card built with certain enterprise-grade features: the pro-vis support channel, plenty of display connectivity for a multi-monitor setup with up to four 4K displays, and contemporary software capabilities, including the full DirectX 12 Ultimate feature set. Within its segment, the A2000 can help with various 3D creativity applications, as well as help with AI-augmented applications. The reviewed RTX A2000 comes in two variants based on memory—6 GB and 12 GB. Both models feature ECC for the memory. We have with us the 6 GB variant, which we bought for €720 (including 20% VAT).
By now you must be wondering what a pro-vis graphics card is doing on TechPowerUp, and you'd be right in thinking so—this is technically the first time we're testing a professional graphics card, but this is not a professional graphics card review. I mentioned the price early on because it's the reason I bought this thing to test in the first place. The A2000 isn't a GeForce RTX 3050/3060 in a suit even though it's based on the same GA106 silicon as those two. It has its own unique hardware configuration we'll get to in a minute. At the price we bought this card for, you'll be getting an RTX 3050 in the wild (i.e. scalpers selling on eBay), whereas the card has a much stronger hardware configuration. What makes it so interesting is that for its tiny form factor, it offers a lot of performance.
The A2000 is carved out of the GA106 silicon by enabling 26 out of 30 streaming multiprocessors (SM) present on the silicon. This works out to 3,328 CUDA cores, 104 TMUs, 48 ROPs, 104 Tensor Cores, and 26 RT cores. In comparison, the RTX 3050 only gets 20 SM, 2,560 CUDA cores, 80 Tensor Cores, and 20 RT cores. The real ace up the A2000's sleeve has to be its full 192-bit GDDR6 memory bus in line with that of the RTX 3060. The RTX 3050 uses a 50% narrower 128-bit bus. Unlike the RTX 3050, the RTX A2000 uses the full PCI-Express x16 bus width.
Another major set of hardware features with the A2000 are with its power configuration. Despite having more muscle than the RTX 3050, the A2000 is optimized to meet a typical board power of just 70 W. You can be absolutely sure it's not sneakily pulling more power in short bursts because the card lacks any additional power connectors and relies entirely on the PCI-Express slot, which can deliver no more than 75 W. This is a professional-segment card, so it will strictly maintain its power limits so as to never overload the PCIe slot and damage an expensive workstation motherboard. The A2000 achieves 70 W using tighter clock speeds than its GeForce cousins, the most aggressive power-management (NVIDIA probably roped in some GeForce Max-Q engineering talent to work on this) and perhaps even highest bins of the GA106 silicon for the best electrical characteristics.
We plan to put the RTX A2000 6 GB through our usual review selection of gaming benchmarks for two reasons. First, it's the most powerful low-profile graphics card ever built and doesn't even need additional power connectors. Second, as we mentioned, under some circumstances, you may actually find the A2000 a bargain compared to scalper-priced RTX 3050 or RTX 3060 cards. Out of the box, the card comes with its low-profile expansion bracket installed, but you'll get a full-height bracket, and dongles that let you use the four mini-DisplayPort 1.4 as standard-size DisplayPorts.
Price | Cores | ROPs | Core Clock | Boost Clock | Memory Clock | GPU | Transistors | Memory | |
---|---|---|---|---|---|---|---|---|---|
GTX 1650 Super | $400 | 1280 | 32 | 1530 MHz | 1725 MHz | 1500 MHz | TU116 | 6600M | 4 GB, GDDR6, 128-bit |
GTX 1660 | $480 | 1408 | 48 | 1530 MHz | 1785 MHz | 2000 MHz | TU116 | 6600M | 6 GB, GDDR5, 192-bit |
RX Vega 56 | $800 | 3584 | 64 | 1156 MHz | 1471 MHz | 800 MHz | Vega 10 | 12500M | 8 GB, HBM2, 2048-bit |
GTX 1660 Super | $550 | 1408 | 48 | 1530 MHz | 1785 MHz | 1750 MHz | TU116 | 6600M | 6 GB, GDDR6, 192-bit |
GTX 1660 Ti | $500 | 1536 | 48 | 1500 MHz | 1770 MHz | 1500 MHz | TU116 | 6600M | 6 GB, GDDR6, 192-bit |
RX 5600 XT | $700 | 2304 | 64 | 1375 MHz | 1560 MHz | 1500 MHz | Navi 10 | 10300M | 6 GB, GDDR6, 192-bit |
RX 6500 XT | $300 | 1024 | 32 | 2685 MHz | 2825 MHz | 2248 MHz | Navi 24 | 5400M | 4 GB, GDDR6, 64-bit |
RTX 2060 | $570 | 1920 | 48 | 1365 MHz | 1680 MHz | 1750 MHz | TU106 | 10800M | 6 GB, GDDR6, 192-bit |
RX 5700 | $950 | 2304 | 64 | 1465 MHz | 1625 MHz | 1750 MHz | Navi 10 | 10300M | 8 GB, GDDR6, 256-bit |
RTX 2060 Super | $800 | 2176 | 64 | 1470 MHz | 1650 MHz | 1750 MHz | TU106 | 10800M | 8 GB, GDDR6, 256-bit |
RX Vega 64 | $850 | 4096 | 64 | 1247 MHz | 1546 MHz | 953 MHz | Vega 10 | 12500M | 8 GB, HBM2, 2048-bit |
RX 5700 XT | $1000 | 2560 | 64 | 1605 MHz | 1755 MHz | 1750 MHz | Navi 10 | 10300M | 8 GB, GDDR6, 256-bit |
RTX 3050 | $500 MSRP: $250 | 2560 | 32 | 1552 MHz | 1777 MHz | 1750 MHz | GA106 | 12000M | 8 GB, GDDR6, 128-bit |
RTX A2000 | $700 MSRP: $450 | 3328 | 48 | 562 MHz | 1200 MHz | 1500 MHz | GA106 | 12000M | 6 GB, GDDR6, 192-bit |
RTX 2070 | $750 | 2304 | 64 | 1410 MHz | 1620 MHz | 1750 MHz | TU106 | 10800M | 8 GB, GDDR6, 256-bit |
RX 6600 | $500 | 1792 | 64 | 2044 MHz | 2491 MHz | 1750 MHz | Navi 23 | 11060M | 8 GB, GDDR6, 128-bit |
RTX 3060 | $650 | 3584 | 48 | 1320 MHz | 1777 MHz | 1875 MHz | GA106 | 12000M | 12 GB, GDDR6, 192-bit |
RTX 2070 Super | $800 | 2560 | 64 | 1605 MHz | 1770 MHz | 1750 MHz | TU104 | 13600M | 8 GB, GDDR6, 256-bit |
Radeon VII | $800 | 3840 | 64 | 1400 MHz | 1800 MHz | 1000 MHz | Vega 20 | 13230M | 16 GB, HBM2, 4096-bit |
RX 6600 XT | $600 | 2048 | 64 | 2359 MHz | 2589 MHz | 2000 MHz | Navi 23 | 11060M | 8 GB, GDDR6, 128-bit |
RTX 2080 | $700 | 2944 | 64 | 1515 MHz | 1710 MHz | 1750 MHz | TU104 | 13600M | 8 GB, GDDR6, 256-bit |
RTX 2080 Super | $750 | 3072 | 64 | 1650 MHz | 1815 MHz | 1940 MHz | TU104 | 13600M | 8 GB, GDDR6, 256-bit |
RTX 3060 Ti | $800 | 4864 | 80 | 1410 MHz | 1665 MHz | 1750 MHz | GA104 | 17400M | 8 GB, GDDR6, 256-bit |
RX 6700 XT | $800 | 2560 | 64 | 2424 MHz | 2581 MHz | 2000 MHz | Navi 22 | 17200M | 12 GB, GDDR6, 192-bit |
RTX 2080 Ti | $1050 | 4352 | 88 | 1350 MHz | 1545 MHz | 1750 MHz | TU102 | 18600M | 11 GB, GDDR6, 352-bit |
RTX 3070 | $900 | 5888 | 96 | 1500 MHz | 1725 MHz | 1750 MHz | GA104 | 17400M | 8 GB, GDDR6, 256-bit |
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