Best Deep Learning Workstation Build of 2023

Embarking on the journey of building a custom deep learning workstation can be an exhilarating venture, but it can also be filled with challenges. While cloud-based solutions like Kaggle Kernels and Google Colab offer a convenient starting point, they often fall short when dealing with large datasets and complex models. Therefore, investing in the best hardware for deep learning becomes crucial for optimal performance.

This guide will not only cover the hardware requirements for deep learning but will also provide insights on how to build your own machine learning computer, complete with component recommendations, installation tips, and troubleshooting advice.

Table of Contents

The Need for a Custom Workstation

The first question any prospective builder might ask is, why build a custom machine learning computer? Why not rely on readily available cloud solutions or pre-built machines? This comparison between on-premises and cloud for deep learning provides detailed insights into the differences and benefits of both options. When dealing with heavy-duty machine learning and deep learning applications, there are several reasons why a custom build might be the most practical option:

  • Unlimited access: With a custom deep learning workstation, there’s no need to worry about running times, limitations on network connections, or setting up a server on AWS for every project. You have 24/7 access to your deep learning hardware.
  • Cost-effectiveness: Building your own machine learning PC can save thousands of dollars compared to purchasing a pre-built machine or constantly renting cloud-based solutions.
  • Performance: Custom-built workstations can offer superior performance, particularly for specific applications like deep learning

Building your own deep learning machine not only ensures you have the best hardware for deep learning, but it is also a cost-effective and high-performance solution for your deep learning applications.

Building Vs. Buying

Constructing your own deep learning workstation can be a gratifying journey. It provides the flexibility to select the AI hardware and other components that best align with your requirements and financial plan. However, if the thought of putting together a machine learning computer from scratch appears overwhelming, it might be worth considering purchasing a pre-assembled deep learning computer. It’s important to note that pre-assembled deep learning PC often carry a heftier price due to the additional expenses associated with assembly and support.

Key Components of a Deep Learning Workstation

When constructing a deep learning workstation, there are eight principal components to think about. Here is a concise rundown of what each component does and why it’s essential to your build:

  1. Graphics Processing Unit (GPU): This is the most crucial element of a deep learning workstation. Nvidia GPUs are the most commonly utilized due to their extensive support in popular machine learning frameworks like TensorFlow and PyTorch. It is considered the best hardware for deep learning computations.
  2. Central Processing Unit (CPU): The CPU aids the GPU by preprocessing data, loading batches into RAM, and transmitting batches to the GPU. It is an essential part of the AI hardware setup.
  3. Motherboard: The motherboard acts as the central hub of the machine learning computer, connecting all components and providing input/output ports.
  4. Random Access Memory (RAM): RAM temporarily holds data that the CPU can access quickly. Having a large amount of RAM allows for larger batch sizes and faster data loading, which are crucial hardware requirements for deep learning.
  5. Storage: This is used for storing datasets and installed programs. Solid State Drives (SSDs) are recommended due to their speed, particularly M.2 PCIe SSDs. This is a vital aspect of the deep learning hardware setup.
  6. Power Supply Unit (PSU): The PSU supplies power to all components. It’s crucial to choose a PSU that can handle the total power draw of your deep learning PC to avoid any hardware bottlenecks.
  7. Cooling System: Adequate cooling is essential to maintain optimal performance and prevent overheating of the deep learning hardware.
  8. Computer Case: The case houses all components of your deep learning computer. It needs to be large enough to fit all components and provide good airflow.

Understanding the hardware bottlenecks in deep learning is essential to optimize your workstation’s performance and get the most out of your investment. When you build your own machine learning PC, careful consideration of these components will ensure your system meets the minimum hardware requirements for deep learning and operates efficiently.

Key Considerations

Choosing the right AI hardware is crucial for the success of any deep learning or machine learning project. One key factor that is often overlooked is latency. Latency refers to the time it takes for data to travel from one point to another in a system. In AI applications, low latency is essential to process large amounts of data quickly and make real-time decisions. High latency can lead to slower processing times, which can be detrimental in applications where real-time response is critical, such as autonomous vehicles or financial trading. To understand more about the importance of latency and how to optimize it, read this detailed guide on deep learning hardware latency.

Apart from latency, there are a few other things to look out for when choosing hardware for deep learning or machine learning:

  1. Compute Power: The compute power of the hardware is directly related to its processing capability. Choose hardware with high compute power to ensure that your AI models can be trained and processed quickly.
  2. Memory: Adequate memory is essential to handle large datasets and perform complex calculations. Make sure the hardware has sufficient RAM and storage capacity.
  3. Compatibility: Ensure that the deep learning PC is compatible with the software and frameworks you plan to use. Some hardware may offer better performance or support with specific software or frameworks.
  4. Power Efficiency: Power efficiency is crucial, especially for large-scale deployments. Choose the best hardware for deep learning that offers high performance while consuming less power.
  5. Scalability: Scalability is essential for handling increased workloads in the future. Choose hardware that can be easily upgraded or scaled to meet growing demands.

By considering these factors and understanding the importance of latency, you can choose the right hardware for your AI applications and ensure optimal performance.

Choosing the Right Components

While each piece is important, there are four main considerations when building your own deep learning system:

  1. Central Processing Unit (CPU)
  2. Graphics Processing Unit (GPU)
  3. Random Access Memory (RAM)
  4. Storage

These components are the backbone of your deep learning machine, and their selection should be done carefully, keeping in mind the specific hardware requirements for deep learning tasks.

When selecting components for your build, it’s crucial to balance performance, cost, and future-proofing. Here are some guidelines for each component:

GPU Selection

The GPU is the workhorse of your deep learning PC. It is responsible for the heavy lifting involved in running deep learning algorithms. Therefore, choosing the right GPU is crucial to the performance of your system.

Memory and Speed

The GPU’s memory and speed determine how fast it can process data. GPUs with more memory can handle larger models and datasets. While 8GB of GPU memory is usually sufficient for most tasks, if you plan to work with larger models, consider investing in a GPU with 11GB or more memory.

The speed of a GPU is measured in terms of its CUDA cores. More CUDA cores mean faster data processing. Hence, opt for a GPU with a higher number of CUDA cores within your budget.

GPU Brands: Nvidia vs AMD

In the context of deep learning hardware, Nvidia GPUs are the preferred choice due to their extensive support for deep learning libraries like TensorFlow and PyTorch. The ‘blower-style’ fans in Nvidia GPUs are also more suitable for multi-GPU setups as they vent heat out of the case, preventing overheating.

Nvidia GPUs are the go-to choice for a deep learning workstation due to their CUDA compatibility. However, choosing the right model can be a challenge. Here’s some advice:

  • Memory: Select a GPU with enough memory to fit your models and data batch.
  • Architecture: Newer architectures tend to offer better performance and features.
  • Cooling: Make sure the GPU has an effective cooling system, especially if you’re planning on running multiple GPUs.
  • Performance per Cost: Consider the performance you’re getting for the price. Look for GPUs that offer the best value-for-money.
  • Expandability: If you’re planning on adding more GPUs in the future, make sure your selected GPU and other components can support this.

For a more in-depth look at GPUs for your deep learning workstation, see our review of the best graphics cards for this year.

CPU Selection

When selecting a CPU for your deep learning system, you should consider the number of cores, clock speed, and the number of PCIe lanes it supports.

Cores and Clock Speed

The CPU acts as the orchestrator of your system, facilitating the smooth functioning of all other components. Therefore, a good CPU with multiple cores is essential. For data pre-processing, a CPU with at least 8 cores is recommended. However, if your budget allows, opt for a CPU with 12 or more cores for better performance.

The clock speed of the CPU, measured in GHz, determines how fast it can execute instructions. A higher clock speed translates into faster execution of tasks. CPUs with a clock speed above 2GHz are usually sufficient for deep learning tasks.

PCIe Lanes

PCIe lanes are the pathways through which data travels between the CPU and other components like the GPU and storage devices. Each GPU requires at least 8 PCIe lanes for optimal performance. Therefore, if you plan to use multiple GPUs, ensure that your CPU supports the required number of PCIe lanes. For instance, a system with 4 GPUs would require a CPU that supports at least 32 PCIe lanes.

CPU Brands: AMD vs Intel

In the current market, AMD and Intel are the leading CPU manufacturers. With AMD offering more cores and PCIe lanes at a lower price, it appears to be a more cost-effective choice. However, Intel has a longer track record of stability and reliability in the server environment, making it a worthy contender.

While the CPU plays a secondary role to the GPU in a deep learning computer, it’s still an essential component. Here’s what to look for:

  • Cores and Threads: Look for a CPU with a high number of cores and threads to efficiently execute tasks in parallel.
  • Compatibility: Make sure the CPU is compatible with your chosen motherboard and cooling system.
  • Price: High-end CPUs can be extremely expensive. However, for a deep learning computer, a mid-range CPU can often provide all the necessary performance.

Our review of the best CPUs can help you select the best CPU for your needs.

Motherboard Selection

The motherboard is the main hub of your machine learning computer. When choosing a motherboard, consider the following:

  • CPU Compatibility: Ensure the motherboard is compatible with your chosen CPU.
  • Expansion Slots: If you’re planning on adding more GPUs in the future, make sure the motherboard has enough PCI slots.
  • WiFi and Bluetooth: Built-in WiFi and Bluetooth can be convenient, but if these aren’t included, you can always add them later with PCIe cards.

Finding the right motherboard for your deep learning machine is especially tricky. Check out our review and buying advice for the best motherboards.

RAM Selection

When it comes to RAM, the main consideration is capacity. More RAM allows for larger batch sizes and faster data loading. Look for DDR4 RAM, as it’s currently the fastest available.

RAM is the working memory of your system. It temporarily stores data that is currently being processed. Therefore, having enough RAM is crucial for the smooth operation of your deep learning tasks.

The general rule of thumb is to have twice as much RAM as the memory of your largest GPU. For instance, if you’re using a GPU with 11GB memory, aim for at least 22GB of RAM.

Also, ensure that your RAM is DDR4, the latest and fastest standard for RAM. It offers higher transfer rates and is more power-efficient than its predecessor, DDR3.

Selecting the right RAM is a crucial choice in the deep learning rig, so make sure to review our post on buying advice for RAM from this year.

Storage Selection

The storage space in your deep learning system determines how much data you can store locally. For deep learning tasks, it’s advisable to use an M.2 SSD. These drives connect directly to the motherboard, offering faster data transfer speeds compared to traditional SATA drives.

Aim for a storage capacity that can comfortably accommodate your datasets. A 1TB M.2 SSD is a good starting point. However, if your datasets are exceptionally large, consider adding more SSDs or opting for larger capacity drives.

For storage, an M.2 PCIe SSD is recommended due to its speed. However, these can be expensive, so a combination of SSD for your operating system and frequently used programs, and a larger HDD for storage can be a cost-effective solution. The best SSDs from this year are covered in our comprehensive review as well.

Other Components

Apart from the core components discussed above, you’ll also need a power supply unit (PSU), a motherboard, a CPU cooler, and a case. The PSU should be powerful enough to support all your components, while the motherboard should have enough PCIe slots for your GPUs. The CPU cooler and the case play crucial roles in maintaining optimal temperature levels in your deep learning hardware, preventing overheating and ensuring stable performance.


What is a Deep Learning Workstation ?

A deep learning workstation is a specialized machine learning computer designed and optimized for deep learning computations. It includes specific deep learning hardware and AI hardware that are essential for processing large amounts of data and running complex algorithms in deep learning applications. This type of computer typically includes powerful GPUs, high-speed memory, and fast storage, which are crucial hardware requirements for deep learning tasks. Building your own deep learning machine or machine learning PC involves selecting and assembling the best hardware for deep learning to ensure optimal performance and efficiency.

What Hardware is Needed for AI?

AI hardware constitutes the physical components required for running AI and deep learning applications. Essential hardware for deep learning includes a powerful GPU, high-speed RAM, and fast storage. A GPU is crucial for processing large amounts of data and performing complex calculations quickly. RAM is necessary for temporarily storing data during computations, and fast storage is required for reading and writing large datasets. Together, these components form the hardware requirements for deep learning and are integral parts of a deep learning workstation or machine learning computer. To build your own machine learning computer or deep learning PC, it is crucial to select the best hardware for deep learning to ensure optimal performance and efficiency.

How Much RAM for a Deep Learning Workstation?

The amount of RAM required for a deep learning workstation depends on the size and complexity of the datasets you are working with and the deep learning models you are training. However, as a general guideline, a minimum of 16GB RAM is recommended for a basic deep learning PC. For more complex tasks and larger datasets, 32GB to 64GB of RAM is advisable. If you are working on extremely large datasets or very complex models, 128GB of RAM or more may be necessary. It is essential to consider the hardware requirements for deep learning and select the best hardware for deep learning to ensure optimal performance and efficiency when building your own machine learning computer or deep learning workstation.

Read More From AI Buzz