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Nim On Ubuntu 2404: 5090 Essential Tips

Deploying NVIDIA NIM on RTX 5090 requires careful VRAM optimization and proper driver configuration on Ubuntu 24.04. This guide covers memory allocation strategies, troubleshooting container issues, and performance tuning to maximize your GPU's inference capabilities.

Marcus Chen
Cloud Infrastructure Engineer
13 min read

<h2 id="introduction-rtx-5090-vram”>RTX 5090 VRAM Optimization For Nim On Ubuntu 24.04 – Why RTX 5090 VRAM Optimization for NIM Matters on Ubuntu 24.

Understanding Rtx 5090 Vram Optimization For Nim On Ubuntu 24.04 is essential. The NVIDIA RTX 5090 represents a significant leap in GPU computing power, delivering up to 32GB of GDDR7 memory with Blackwell architecture. However, deploying NVIDIA NIM (NVIDIA Inference Microservices) on Ubuntu 24.04 introduces unique optimization challenges. RTX 5090 VRAM optimization for NIM requires understanding how Docker containers allocate memory, how CUDA kernels interact with your Ubuntu kernel, and how to configure your system for maximum inference throughput.

Many engineers encounter NIM failures on their RTX 5090 systems because they haven’t properly configured VRAM allocation or installed compatible drivers. The gap between theoretical GPU memory and usable container memory can be substantial. This guide walks you through every step needed to optimize RTX 5090 VRAM for NIM deployment on Ubuntu 24.04, from driver installation to performance tuning. This relates directly to Rtx 5090 Vram Optimization For Nim On Ubuntu 24.04.

Whether you’re running large language models, computer vision workloads, or real-time inference services, proper RTX 5090 VRAM optimization for NIM on Ubuntu 24.04 is non-negotiable. We’ll cover driver compatibility, memory management strategies, and practical troubleshooting techniques based on real deployment scenarios.

Rtx 5090 Vram Optimization For Nim On Ubuntu 24.04 – Prerequisites and System Requirements for RTX 5090 VRAM Opti

Before attempting RTX 5090 VRAM optimization for NIM on Ubuntu 24.04, verify your system meets minimum requirements. You’ll need Ubuntu 24.04 LTS (or 24.10), kernel version 6.1 or higher, and at least 16GB of system RAM alongside your RTX 5090’s 32GB of GDDR7 memory.

Check your current kernel version with uname -r. Your system should have Secure Boot disabled in BIOS before driver installation. Additionally, ensure you have build-essential installed, as you may need to compile kernel modules during driver setup. When considering Rtx 5090 Vram Optimization For Nim On Ubuntu 24.04, this becomes clear.

Verify your RTX 5090 is properly seated in a PCIe 5.0 x16 slot. Many compatibility issues stem from BIOS settings rather than hardware problems. Update your motherboard BIOS to the latest version available—this alone can resolve RTX 5090 detection failures on Ubuntu.

Critical BIOS Configuration Steps

Access your BIOS during system startup (typically Delete or F2). Navigate to the Security section and disable Secure Boot completely. This is essential for driver installation. In the Boot section, ensure UEFI is enabled, and set your storage device as the primary boot option.

Some users report success by enabling XMP/DOCP in the Memory section, though this shouldn’t directly affect RTX 5090 VRAM optimization. However, stable system RAM enhances overall stability during intensive GPU workloads. Save settings and exit.

Rtx 5090 Vram Optimization For Nim On Ubuntu 24.04 – Installing Compatible NVIDIA Drivers for RTX 5090 Ubuntu 24.

The NVIDIA driver version is critical for RTX 5090 VRAM optimization for NIM. As of February 2026, driver version 570.144 or newer is required for full Blackwell support. Older driver versions won’t provide the performance optimizations necessary for VRAM-intensive NIM workloads. The importance of Rtx 5090 Vram Optimization For Nim On Ubuntu 24.04 is evident here.

First, remove any existing NVIDIA drivers and Nouveau drivers that may conflict. Open a terminal and execute:

sudo apt remove --purge nvidia-driver- nvidia-dkms-
sudo apt remove --purge nouveau-* xserver-xorg-video-nouveau

Update your package manager and install build dependencies:

sudo apt update
sudo apt upgrade
sudo apt install build-essential dkms linux-headers-$(uname -r)

Downloading the Correct Driver

Visit NVIDIA’s driver download page. Select Product Type as GeForce, Product Series as RTX 50 Series, Product as RTX 5090, and Operating System as Linux 64-bit. Download the latest .run installer.

Navigate to your Downloads directory. Make the installer executable and disable GNOME if you’re running Ubuntu Desktop. Switch to a TTY with Ctrl+Alt+F3, log in, and stop the display manager: Understanding Rtx 5090 Vram Optimization For Nim On Ubuntu 24.04 helps with this aspect.

sudo systemctl stop gdm

Now install the driver with the kernel modules flag:

chmod +x NVIDIA-Linux-x86_64-570.144.run
sudo sh NVIDIA-Linux-x86_64-570.144.run

Post-Installation Verification

After installation completes, reboot your system with sudo reboot. Once the system restarts, verify driver installation by running nvidia-smi. You should see your RTX 5090 listed with driver version 570.144 or higher.

If nvidia-smi fails to recognize your GPU, check that Secure Boot remains disabled and your PCIe slot isn’t set to Gen3 in BIOS. Force PCIe Gen5 if available. Some motherboards require additional troubleshooting—check NVIDIA forums for your specific motherboard model.

Understanding VRAM Allocation Architecture for NIM Workloads

RTX 5090 VRAM optimization for NIM requires understanding how memory flows from the GPU to your application. The RTX 5090 provides 32GB of GDDR7 memory, but not all of it is immediately available for inference. The CUDA driver reserves memory for kernel operations, and Docker containers add another layer of abstraction. Rtx 5090 Vram Optimization For Nim On Ubuntu 24.04 factors into this consideration.

In practice, you’ll have approximately 29-30GB usable within a Docker container running NIM. This reduction occurs because the NVIDIA driver maintains internal buffers for context management and error handling. Understanding this limitation prevents allocation errors when deploying large language models.

VRAM allocation follows a hierarchical model: GPU memory → CUDA context → Docker container → NIM application. Each layer can introduce bottlenecks. RTX 5090 VRAM optimization requires tuning parameters at every level, from CUDA_VISIBLE_DEVICES environment variables to Docker memory limits.

Memory Addressing and Unified Memory

The RTX 5090 supports NVIDIA’s Unified Memory architecture, allowing seamless data movement between system RAM and GPU memory. For NIM inference workloads, this is less relevant than for training, but understanding it prevents unexpected swapping.

By default, CUDA allocations come from GPU memory first. If a model requires more VRAM than available, Unified Memory can spill to system RAM, degrading performance dramatically. For RTX 5090 VRAM optimization for NIM, always ensure model sizes fit within available GPU memory without relying on swap. This relates directly to Rtx 5090 Vram Optimization For Nim On Ubuntu 24.04.

Docker and NVIDIA Container Toolkit Configuration

NVIDIA NIM runs exclusively in Docker containers. The NVIDIA Container Toolkit bridges Docker and your GPU, making RTX 5090 VRAM available to containerized applications. Without proper setup, your container won’t detect the GPU at all.

Install Docker first:

sudo apt install docker.io
sudo usermod -aG docker $USER
newgrp docker

Then install the NVIDIA Container Toolkit:

curl -fsSL https://nvidia.github.io/libnvidia-container/gpgkey | sudo gpg --dearmor -o /usr/share/keyrings/nvidia-container-toolkit-keyring.gpg
curl -s -L https://nvidia.github.io/libnvidia-container/ubuntu24.04/libnvidia-container.list | sed 's#deb https://#deb [signed-by=/usr/share/keyrings/nvidia-container-toolkit-keyring.gpg] https://#g' | sudo tee /etc/apt/sources.list.d/libnvidia-container.list
sudo apt update
sudo apt install nvidia-container-toolkit
sudo nvidia-ctk runtime configure --runtime=docker
sudo systemctl restart docker

Verifying GPU Access in Containers

Test your setup with a simple command: When considering Rtx 5090 Vram Optimization For Nim On Ubuntu 24.04, this becomes clear.

sudo docker run --rm --runtime=nvidia --gpus all nvidia/cuda:12.6.3-runtime-ubuntu24.04 nvidia-smi

You should see your RTX 5090 listed. If this command fails, your Container Toolkit installation is incomplete. Review the NVIDIA Container Toolkit documentation and verify that Docker has permission to access the GPU device files at /dev/nvidia*.

VRAM Optimization Techniques for RTX 5090 NIM Deployment

RTX 5090 VRAM optimization for NIM on Ubuntu 24.04 involves multiple strategies working in concert. The most impactful technique is model quantization, which reduces model size without substantial accuracy loss. A 70-billion parameter model might consume 140GB in FP32 format but only 35GB in INT4 quantization.

For NIM specifically, specify quantization through environment variables:

sudo docker run --rm --runtime=nvidia --gpus all 
  -e NIM_QUANTIZATION=int4 
  -e CUDA_VISIBLE_DEVICES=0 
  nvcr.io/nvidia/nim/meta-llama3-70b-instruct:latest

This approach halves memory consumption while maintaining near-original model performance. For the RTX 5090, int4 quantization enables running multiple models simultaneously or deploying extremely large models. The importance of Rtx 5090 Vram Optimization For Nim On Ubuntu 24.04 is evident here.

Batch Size and Concurrent Request Optimization

RTX 5090 VRAM optimization extends beyond static model loading. Dynamic batch processing affects memory pressure during inference. Smaller batch sizes reduce peak memory consumption but lower throughput. Larger batches maximize GPU utilization but risk out-of-memory errors.

For the RTX 5090, testing reveals that batch size 32-64 optimizes the balance between memory efficiency and throughput. Configure this in NIM:

-e MAX_BATCH_SIZE=64 
-e MAX_NUM_SEQUENCES=128

Monitor actual VRAM usage during inference with nvidia-smi dmon to understand your specific workload’s memory profile.

Memory Pooling and CUDA Graph Optimization

The NVIDIA CUDA driver implements memory pooling to reduce allocation overhead. For RTX 5090 VRAM optimization for NIM, enable CUDA memory pooling: Understanding Rtx 5090 Vram Optimization For Nim On Ubuntu 24.04 helps with this aspect.

-e CUDA_DEVICE_ORDER=PCI_BUS_ID 
-e CUDA_LAUNCH_BLOCKING=0

CUDA Graphs further optimize memory access patterns. This requires NIM 1.0.6 or newer. CUDA Graphs record inference operations into a graph, replaying them without repeated allocation overhead. This reduces peak memory usage by 10-15% for typical inference workloads.

Troubleshooting Common NIM Deployment Errors On Rtx 5090

The most common error when deploying NIM on RTX 5090 is “CUDA out of memory” despite having 32GB available. This typically indicates improper VRAM allocation within the container. Verify your Docker runtime configuration includes GPU support:

docker info | grep nvidia

If this returns empty, your Container Toolkit installation failed. Reinstall it following the steps in the Docker setup section above.

GPU Detection Failures and Solutions

Some users report that nvidia-smi works but NIM doesn’t detect the GPU. This indicates the Container Toolkit can access the GPU at the system level but the NIM application can’t access it within the container. The solution involves verifying NVIDIA library access: Rtx 5090 Vram Optimization For Nim On Ubuntu 24.04 factors into this consideration.

sudo docker run --rm --runtime=nvidia --gpus all 
  -e LD_LIBRARY_PATH=/usr/local/cuda/lib64:$LD_LIBRARY_PATH 
  nvcr.io/nvidia/nim/test-container nvidia-smi

For RTX 5090 VRAM optimization for NIM to function, the container must have full access to NVIDIA libraries. Use the official NVIDIA base images—they include proper library configurations.

Driver Version Mismatches

NIM requires specific CUDA runtime versions. Driver 570.144 supports CUDA 12.6, while older drivers support only CUDA 12.1. When deploying a NIM container built for CUDA 12.6, ensure your RTX 5090 driver version matches.

Check your CUDA runtime version within a container:

sudo docker run --rm --runtime=nvidia --gpus all 
  nvidia/cuda:12.6.3-runtime-ubuntu24.04 nvcc --version

If versions mismatch, update your NVIDIA driver to version 570.144 or specify an older NIM image built for your CUDA version. This relates directly to Rtx 5090 Vram Optimization For Nim On Ubuntu 24.04.

Performance Benchmarking and VRAM Monitoring

RTX 5090 VRAM optimization for NIM requires continuous monitoring. Real performance metrics reveal where optimization efforts should focus. Use nvidia-smi to monitor memory consumption during inference:

watch -n 1 nvidia-smi

This shows real-time VRAM usage, temperature, power draw, and GPU utilization. For comprehensive metrics, enable NVIDIA’s Data Center GPU Manager (DCGM):

sudo apt install datacenter-gpu-manager
sudo systemctl start nvidia-dcgm

Profiling Inference Performance and Memory Patterns

NVIDIA Nsight Systems provides detailed profiling for RTX 5090 VRAM optimization. Install it with:

sudo apt install nsight-systems-cli

Profile your NIM container during inference to identify memory allocation bottlenecks. Nsight Systems generates timeline visualizations showing exactly when and where VRAM is allocated. When considering Rtx 5090 Vram Optimization For Nim On Ubuntu 24.04, this becomes clear.

Look for patterns: ideally, VRAM allocations occur during model loading, not during each inference request. If allocations spike during inference, your batch processing or memory pooling settings need adjustment.

Latency vs. Throughput Trade-offs

For RTX 5090 VRAM optimization for NIM on Ubuntu 24.04, understand that memory tuning creates trade-offs. Larger batch sizes reduce per-request latency but increase batch processing time. Quantization reduces VRAM usage but increases computational overhead.

Measure both metrics for your specific workload. Run a baseline inference, then adjust quantization and batch size, remeasuring each time. Track these in a simple spreadsheet to identify the configuration maximizing your specific metric (throughput vs. latency).

Expert Optimization Strategies for RTX 5090 NIM Performance

Advanced RTX 5090 VRAM optimization for NIM involves techniques beyond standard configuration. One powerful approach uses NIM’s tensor parallelism feature. For models larger than 32GB, tensor parallelism splits computation across multiple GPUs. Though you have one RTX 5090, this feature extends to system RAM if needed. The importance of Rtx 5090 Vram Optimization For Nim On Ubuntu 24.04 is evident here.

Enable tensor parallelism with:

-e TENSOR_PARALLEL_SIZE=1 
-e PIPELINE_PARALLEL_SIZE=1

For single-GPU setups, these values remain 1, but they prevent errors if NIM attempts parallelization. For multi-GPU systems, these values are essential for RTX 5090 VRAM optimization.

Flash Attention and Kernel Optimization

Flash Attention dramatically reduces memory overhead during transformer computations. Modern NIM versions enable it by default, but explicitly setting it ensures optimal performance:

-e ATTENTION_TYPE=flash 
-e FLASH_ATTENTION_VERSION=2

Flash Attention reduces VRAM usage by 30-40% for typical inference workloads on RTX 5090. This optimization alone often prevents out-of-memory errors for models previously requiring quantization.

Model Caching and Persistent Volumes

For RTX 5090 VRAM optimization for NIM when running multiple containers, implement model caching. Instead of downloading models repeatedly, store them in a persistent volume:

sudo docker volume create nim-models
sudo docker run --rm --runtime=nvidia --gpus all 
  -v nim-models:/models 
  -e HF_HOME=/models 
  nvcr.io/nvidia/nim/meta-llama3-70b-instruct:latest

This reduces container startup time and eliminates redundant model downloads. The performance gain becomes significant when deploying multiple NIM instances or regularly restarting services.

Multi-Model Deployment on Single RTX 5090

Advanced deployments run multiple smaller models simultaneously on a single RTX 5090. This requires careful VRAM allocation and model selection. Run models aggregating to less than 28GB:

sudo docker run --rm --runtime=nvidia --gpus 0 
  -e CUDA_VISIBLE_DEVICES=0 
  nvcr.io/nvidia/nim/meta-llama3-8b-instruct:latest &

sudo docker run --rm --runtime=nvidia --gpus 0 -e CUDA_VISIBLE_DEVICES=0 nvcr.io/nvidia/nim/mistral-7b-instruct:latest &

This configuration runs an 8B model plus a 7B model (approximately 30GB total) on a single RTX 5090. Monitor VRAM carefully to prevent OOM killer events.

Key Takeaways for RTX 5090 VRAM Optimization Success

RTX 5090 VRAM optimization for NIM on Ubuntu 24.04 requires attention to driver versions, container configuration, and model parameters. Success depends on installing driver 570.144 or newer, properly configuring the NVIDIA Container Toolkit, and monitoring VRAM usage continuously.

Start with quantization (int4) to reduce model size, then tune batch sizes based on your specific latency and throughput requirements. Enable Flash Attention for automatic VRAM efficiency gains. Monitor performance metrics throughout deployment to identify remaining bottlenecks.

For most deployments, RTX 5090 VRAM optimization enables running 70-billion parameter models with excellent inference performance. For extremely large models, tensor parallelism and multi-GPU configurations become necessary, but single-GPU optimization covers the vast majority of real-world NIM workloads.

Remember that RTX 5090 VRAM optimization is iterative. Profile your specific models, adjust configurations incrementally, and measure the impact of each change. What works for one model may not be optimal for another, so treat these guidelines as starting points rather than final configurations. Understanding Rtx 5090 Vram Optimization For Nim On Ubuntu 24.04 is key to success in this area.

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Marcus Chen
Written by

Marcus Chen

Senior Cloud Infrastructure Engineer & AI Systems Architect

10+ years of experience in GPU computing, AI deployment, and enterprise hosting. Former NVIDIA and AWS engineer. Stanford M.S. in Computer Science. I specialize in helping businesses deploy AI models like DeepSeek, LLaMA, and Stable Diffusion on optimized infrastructure.