Which Graphic Card is Best for AI?
Besides the technological development of A.I., the computer system also needs to handle it. Since GPU technology is advancing at a remarkable rate, GPUs have become very common for machine learning purposes. Especially when you enhance or upscale the old video using Video Enhancer AI, a strong GPU will accelerate the speed. So which graphic card is best for AI?
Why do we need a strong graphic card for AI?
CPUs are everywhere and can serve as more cost-effective options for running AI-based solutions compared to GPUs. However, finding models that are both accurate and can run efficiently on CPUs can be a challenge.
Generally speaking, GPUs are 3X faster than CPUs. Here’s an example to serve as a reference for the rest of this post. The next graph shows the latency of an EfficientNet-B2 model on two different hardware: T4 GPU and Intel Cascade Lake CPU. As you can see, a forward pass on a CPU is 3X slower than a forward pass on a GPU.
Why graphic card is important for AI?
The longest and most resource-intensive phase of most deep learning implementations is the training phase. This phase can be accomplished in a reasonable amount of time for models with smaller numbers of parameters but as your number increases, your training time does as well. This has a dual cost; your resources are occupied for longer and your team is left waiting, wasting valuable time.
Graphical processing units (GPUs) can reduce these costs, enabling you to run models with massive numbers of parameters quickly and efficiently. This is because GPUs enable you to parallelize your training tasks, distributing tasks over clusters of processors, and performing compute operations simultaneously.
GPUs are also optimized to perform target tasks, finishing computations faster than non-specialized hardware. These processors enable you to process the same tasks faster and free your CPUs for other tasks. This eliminates bottlenecks created by computing limitations.
How to choose a suitable graphic card?
We need to consider the following factors when choosing a suitable graphic card:
Ability to interconnect GPUs
When choosing a GPU, you need to consider which units can be interconnected. Interconnecting GPUs is directly tied to the scalability of your implementation and the ability to use multi-GPU and distributed training strategies. Typically, consumer GPUs do not support interconnection (NVlink for GPU interconnects within a server and Infiniband/RoCE for linking GPUs across servers) and NVIDIA has removed interconnections on GPUs below RTX 2080.
NVIDIA GPUs are the best supported in terms of machine learning libraries and integration with common frameworks, such as PyTorch or TensorFlow. The NVIDIA CUDA toolkit includes GPU-accelerated libraries, a C and C++ compiler and runtime, and optimization and debugging tools. It lets you start immediately without worrying about building custom integrations.
Recommendations for Graphic Card
The following are GPUs recommended for use in large-scale AI projects.
* NVIDIA Tesla A100
The A100 is a GPU with Tensor Cores that incorporates multi-instance GPU (MIG) technology. It was designed for machine learning, data analytics, and HPC.
The Tesla A100 is meant to be scaled to up to thousands of units and can be partitioned into seven GPU instances for any size workload. Each Tesla A100 provides up to 624 teraflops performance, 40GB memory, 1,555 GB memory bandwidth, and 600GB/s interconnects.
* NVIDIA Tesla V100
The NVIDIA Tesla V100 is a Tensor Core enabled GPU that was designed for machine learning, deep learning, and high performance computing (HPC). It is powered by NVIDIA Volta technology, which supports tensor core technology, specialized for accelerating common tensor operations in deep learning. Each Tesla V100 provides 149 teraflops of performance, up to 32GB memory, and a 4,096-bit memory bus.
* NVIDIA Tesla P100
The Tesla P100 is a GPU based on an NVIDIA Pascal architecture that is designed for machine learning and HPC. Each P100 provides up to 21 teraflops of performance, 16GB of memory, and a 4,096-bit memory bus.
* NVIDIA Tesla K80
The Tesla K80 is a GPU based on the NVIDIA Kepler architecture that is designed to accelerate scientific computing and data analytics. It includes 4,992 NVIDIA CUDA cores and GPU Boost™ technology. Each K80 provides up to 8.73 teraflops of performance, 24GB of GDDR5 memory, and 480GB of memory bandwidth.
* Google TPU
Slightly different are Google’s tensor processing units (TPUs). TPUs are chip or cloud-based, application-specific integrated circuits (ASIC) for deep learning. These units are specifically designed for use with TensorFlow and are available only on Google Cloud Platform.
Each TPU can provide up to 420 teraflops of performance and 128 GB high bandwidth memory (HBM). There are also pod versions available that can provide over 100 petaflops of performance, 32TB HBM, and a 2D toroidal mesh network.
Which graphic card is best for AI? There isn't really any definitive answer to this question as it depends on a number of factors, including what type of AI you are using and what your budget is. And if you are a user who wants to enhance or upscale video, during our testing of using AVCLabs Video Enhancer AI, the Nvidia's GeForce GTX 1080 Ti is excellent in the processing. You can also download AVCLabs Video Enhancer AI for a try!
AVCLabs Video Enhancer AI
Use Multi-frame enhancement to improve the visual quality
Upscale video from SD to HD, HD to 4K, or 8K
Sharpen blurry faces and enhance facial details
Remove noise and grain from the your noisy footage
Support lossless MP4, MOV, MKV, AVI as the output format