How to Host a Private LLM (Llama 4) on a Dedicated Server

In this guide, we will walk you through deploying a self-hosted LLM, specifically Meta’s Llama 4 (Scout/Maverick) or the latest Llama 3.1, on your own hardware. We will cover everything from installing the right drivers to securing your ChatGPT-style web interface.

Relying on public cloud AI models often brings up a massive red flag: data privacy. Add to that the unpredictable costs of token-based pricing, and it becomes clear why enterprise users are shifting gears. Hosting your own generative AI on a dedicated server is the smartest way to achieve true data sovereignty, ultra-low latency, and unlimited customization for fine-tuning.

Want the easier route?

👍
Setting up a Private LLM on your own server is straightforward when you follow the correct steps, but it still involves installing GPU drivers, configuring the NVIDIA Container Toolkit, managing Docker containers, and adjusting firewall rules.

If you would rather receive your GPU server ready to use, Servers99 can provision your server with Ubuntu 24.04, NVIDIA drivers, Ollama, and Open WebUI pre-installed before handover. You can simply open a support ticket or add the request in your order notes (conditions apply).

Recommended Specifications (Llama 4 Edition)

Llama 4 models require serious VRAM and processing power. To avoid bottlenecks, your hardware needs to match the model size. Here is what we recommend for a smooth, zero-latency experience:

Llama 4 models Server Requirements
Component Recommended for 17B Models Recommended for 400B Enterprise Models
Operating System Ubuntu 24.04 LTS (Noble Numbat) Ubuntu 24.04 LTS
GPU (VRAM) NVIDIA RTX 5090 (32GB VRAM) 4x NVIDIA H100 or B200 (80GB+)
RAM 64GB DDR5 256GB+ DDR5
Storage 200GB Gen5 NVMe SSD 2TB+ NVMe SSD

Step 1: Prepare Your Ubuntu 24.04 Server

First, let's get your server environment ready. Modern AI installers require tools like zstd for fast decompression of massive model weights.

1
SSH into your server and run:
Bash sudo apt update && sudo apt upgrade -y sudo apt install zstd curl git build-essential -y

Step 2: Install the Latest NVIDIA Drivers (v595+)

Generative AI hosting relies entirely on your GPU. If you use outdated drivers, you will miss out on the latest Tensor Core optimizations. For maximum performance, you need driver version 595 or higher.

2
Install the latest stable DKMS driver automatically:
Bash sudo apt install nvidia-driver-latest-dkms -y
3
Reboot your server to apply the kernel modules:
Bash sudo reboot
4
Once you are back in, verify the installation:
Bash nvidia-smi

♦️ If you see your GPU details and the CUDA version, you are good to go.

Step 3: Install the NVIDIA Container Toolkit

This is the most common step people miss. We are going to use Docker for our web interface later. By default, Docker containers cannot access your host's GPU. The NVIDIA Container Toolkit bridges this gap.

Open the Squid configuration file using your preferred text editor:

5
Run:
Bash curl -fsSL https://nvidia.github.io/libnvidia-container/gpgkey | sudo gpg --dearmor -o /usr/share/keyrings/nvidia-container-toolkit-keyring.gpg sudo apt-get install -y nvidia-container-toolkit sudo nvidia-ctk runtime configure --runtime=docker sudo systemctl restart docker

Step 4: Install the Ollama Engine

Ollama is the easiest backend engine to run and manage open-source LLMs locally. It handles model weights efficiently and provides a clean API.

6
Run:
Bash curl -fsSL https://ollama.com/install.sh | sh

Step 5: Deploy Llama 4

Now for the fun part. Let's pull the Llama 4 model. This command downloads the neural network weights (approx 10–12GB for the 17B quantized model) and drops you directly into a terminal-based chat.

7
Run:
Bash ollama run llama4

♦️You can now type questions directly into the terminal. To exit the chat, type /exit or /bye.

⚠️
If you prefer the older, lighter model, you can run ollama run llama3.1 instead

Step 6: Set Up Open WebUI via Docker

A terminal is great for testing, but your team needs a clean, ChatGPT-like interface. We will deploy Open WebUI using Docker, ensuring we pass the --gpus all flag so the interface benefits from hardware acceleration.

8
Run:
Bash docker run -d -p 3000:8080 --gpus all --add-host=host.docker.internal:host-gateway -v open-webui:/app/data --name open-webui ghcr.io/open-webui/open-webui:main
⚠️
The -p 3000:8080 command maps the container's standard internal port (8080) to your server's external port (3000). If you decide to change the external port, make sure your firewall and Nginx rules are updated to match.

Step 7: Access Your Private AI Dashboard

Your private LLM is now live! Open your web browser and navigate to your dedicated server's IP address on port 3000:

http://your-server-ip:3000

The first time you log in, you will be prompted to create an admin account. Because this is hosted entirely on your Servers99 dedicated infrastructure, every prompt, document, and chat log remains strictly on your hardware.

Step 8: Secure Your AI (Nginx & SSL) - Best Practice

While port 3000 works perfectly, do not just leave this port open to the public internet indefinitely.

As a best practice for sysadmins, set up an Nginx Reverse Proxy and use Certbot (Let's Encrypt) to secure the connection. This allows you to access your UI safely via a custom domain like https://ai.yourcompany.com, keeping your internal data encrypted in transit

Step 7: Access Your Private AI Dashboard

Your private LLM is now live! Open your web browser and navigate to your dedicated server's IP address on port 3000:

http://your-server-ip:3000

The first time you log in, you will be prompted to create an admin account. Because this is hosted entirely on your Servers99 dedicated infrastructure, every prompt, document, and chat log remains strictly on your hardware.

Conclusion

Congratulations! You have successfully built and deployed a fully private, high-performance generative AI environment. By hosting Llama 4 on a dedicated GPU server, you have completely eliminated unpredictable token costs and public cloud privacy concerns. Your enterprise data remains 100% yours, and your response latency is practically zero.


📚 Read Next: AI Related Guides & Tutorials

👉 How to Host a Private LLM (Llama 4) on a Dedicated Server
Recommended Choice

Optimize Your AI Performance with Servers99

Stop paying per token. Get the raw power of a Dedicated GPU Server built for the AI era.

  • Access high-VRAM options including RTX 5090 and H100 arrays for real-time inference.
  • Enterprise-grade unmetered bandwidth handles heavy API requests without breaking a sweat.
  • Start with a clean, secure installation of Ubuntu 24.04 LTS. No virtualization overhead, just 100% dedicated hardware power for your AI workloads.
  • You own the environment. Configure fine-tuning parameters and security firewalls exactly how you want.

If you are debating between a GPU Cloud and dedicated hardware, the math is simple. Self-hosting your LLM on a properly configured dedicated server cuts costs by up to 60% while guaranteeing absolute data privacy.

Common mistakes to avoid

Running older 535 drivers will throttle Llama 4's performance. Always stick to the nvidia-driver-latest-dkms package to utilize the newest GPU architectures.
AI inference generates massive heat. Standard servers will thermal-throttle under LLM workloads. Always opt for Liquid Cooled Dedicated Servers if you are running heavy inference.
If your web interface is lagging heavily, it's likely running on the CPU. Go back and ensure you completed Step 3 (NVIDIA Container Toolkit) and included the --gpus all flag in Step 6.
Never leave your AI interface open without authentication. Set up your admin account immediately upon first login and enforce strong passwords for your team.