NVIDIA Quadro K610M vs NVIDIA T1200 Laptop GPU vs NVIDIA T1000

NVIDIA Quadro K610M

The NVIDIA Quadro K610M is a DirectX 11 and OpenGL 4.3 compatible graphics card for mobile workstations. It is a Kepler-based GPU built on the GK107 chip with 192 out of 384 shader cores activated and is manufactured in 28nm at TSMC. The Quadro K610M is built for the Intel Shark Bay generation (Haswell) and is a successor to the Quadro K500M (Chief River platform). As a new feature, PCIe 3.0 is supported for the first time. The K610M usually comes with 1 GB GDDR5 VRAM clocked at 650 MHz (2600 MHz effective, 20.8 GB/s). 

The Quadro series offers certified drivers that are optimized for stability and performance in professional applications like CAD or DCC. OpenGL performance, for example, should be significantly better than with GeForce graphics cards of similar specifications.

Architecture

The Kepler architecture is the successor to the Fermi architecture that first appeared in laptops with the GeForce 400M series. The GK107 Kepler core offers two shader blocks, called SMX, that are clocked at the same speed as the central core. In the K610M, only one block is active leading to the 192 CUDA cores. Although more shader cores are available in the Kepler architecture as compared to the Fermi design, the Kepler shaders are still expected to be up to twice as power efficient. However, due to the missing hot clock of the shader domain, two shaders of a Kepler chip offer similar performance to just one shader of a Fermi chip (as the latter is clocked twice as fast).

Performance

The performance is clearly above the old Quadro K500M (which has only DDR3 memory) and similar to the consumer GeForce GT 720M. However, most demanding games of 2013 will run fluently only in low detail settings.

Features

The improved feature set now includes support for up to 4 active displays. Furthermore, high resolution monitors of up to 3840 x 2160 pixels can now be connected using DisplayPort 1.2 or HDMI 1.4a if available. HD-Audio codecs, such as Dolby TrueHD and DTS-HD, can be transmitted via bitstream mode through the HDMI port. However, as most laptops will feature Optimus, the integrated GPU will likely have direct control over the display ports and may limit the feature set available by the Nvidia Kepler cards. Please note: The K610M does not supprt 3D Vision Pro.

Using CUDA or OpenCL 1.2, the cores of the Quadro K610M can be used for general calculations.

The 5th generation PureVideo HD video processor (VP5) is also integrated in the GK107 core and offers hardware decoding of HD videos. Common codecs such as MPEG-1/2, MPEG-4 ASP, H.264 and VC1/WMV9 are fully supported up to 4K resolutions while VC1 and MPEG-4 are supported up to 1080p. Two streams can be decoded in parallel for features such as Picture-in-Picture. Another novelty is the inclusion of a dedicated video encoding engine similar to Intel QuickSync that can be accessed by the NVENC API.

The power consumption of the Quadro K610M is rated at a TGP of 30 W including the board and memory components. Therefore, the card is suited for medium-sized notebooks with 15-inch displays or greater.

NVIDIA T1200 Laptop GPU

NVIDIA T1000

The Nvidia T1000 is a professional desktop graphics card for small entry-level workstations. It is based on the same TU117 Turing chip as the consumer GeForce GTX1650. The number of shader units is also identical at 896. With 8 GB VRAM, the Nvidia T1000 however offers more VRAM, which is still connected via a 128 bit memory bus. The power consumption of the Nvidia T1000 is only rated at 50 watts and therefore does not require an additional power connection.

The professional graphics cards offer certified drivers which are optimized for stability and performance in professional applications (CAD, DCC, medical, prospecting, visualization applications). As a result, the performance in these areas is significantly better compared to consumer graphics cards with the same chip.

In contrast to the more powerful RTX cards (e.g. Quadro RTX 3000), they do not offer ray tracing and tensor cores. The Turing architecture has also seen significant improvements at the CUDA core level. Float and INT operations can now be executed simultaneously, the cache has been standardized and improved and adaptive shading has been introduced. As a result, Nvidia claims up to 50% higher performance per core compared to Pascal.