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June 6, 2025

MLOps Workflow for Docker-Based AI Model Deployment

Emmett Fear
Solutions Engineer

AI models are powerful, but only when they’re in production delivering real-world value. That’s where MLOps comes in—the bridge between model development and deployment. And when it comes to packaging and deploying these models efficiently, few tools are as effective as Docker.

With a container-based approach and the GPU power of platforms like RunPod, deploying AI models becomes faster, more scalable, and more reliable. In this guide, we’ll walk you through the complete MLOps workflow for Docker-based AI model deployment, covering everything from containerization to GPU-powered hosting with RunPod.

What is MLOps?

MLOps, short for Machine Learning Operations, refers to the set of practices that bring together machine learning (ML), DevOps, and data engineering. It emphasizes automation, scalability, reproducibility, and monitoring in the life cycle of machine learning models.

Key components of MLOps include:

  • Version control of data and models
  • Reproducible environments for training and inference
  • Continuous integration and delivery (CI/CD) pipelines
  • Automated testing, validation, and deployment
  • Monitoring model performance and managing model drift

By integrating Docker into this workflow, organizations can ship AI solutions faster and more consistently across development, staging, and production.

Why Docker for AI Deployment?

Docker allows developers to package an application and its dependencies into a lightweight, portable container. This approach eliminates the classic “it works on my machine” problem.

Here are a few reasons Docker is ideal for AI deployment:

  • Consistency: Deploy the same environment across different machines and platforms.
  • Isolation: Run multiple containers independently without dependency clashes.
  • Scalability: Easily replicate containers for scaling services.
  • Portability: Run the same image locally, in the cloud, or on a GPU server like RunPod.

For data scientists and ML engineers, Docker makes it easy to share working environments and reduce onboarding time for collaborators.

MLOps Workflow: Step-by-Step Guide

Here’s a comprehensive walkthrough of a Docker-based MLOps workflow using RunPod to deploy and scale AI models with GPU support.

1. Train and Export Your Model

Start by training your model using your preferred ML framework (PyTorch, TensorFlow, Scikit-learn, etc.). Once you’re satisfied with the results, export the model using a compatible format:

  • .pt or .pth for PyTorch

  • .pb for TensorFlow

  • .onnx for interoperability

  • .joblib or .pkl for classical ML models

Store the trained model in your project directory or upload it to a cloud bucket if using remote volumes.

2. Write Your Inference Script

Create a Python script (e.g., serve_model.py) that loads your model and exposes a simple API for inference. FastAPI or Flask are commonly used frameworks.

Example with FastAPI:

python

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from fastapi import FastAPI

import torch

from model import load_model, predict

app = FastAPI()

model = load_model()

@app.post("/predict")

def inference(input_data: dict):

output \= predict(model, input\_data)

return {"result": output}
3. Create a Dockerfile

Next, define your Docker environment. Here’s a basic example:

Dockerfile

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FROM python:3.10-slim

WORKDIR /app

COPY requirements.txt .

RUN pip install --no-cache-dir -r requirements.txt

COPY . .

CMD ["uvicorn", "serve_model:app", "--host", "0.0.0.0", "--port", "5000"]

For GPU acceleration, use NVIDIA base images from NVIDIA's official container documentation.

Tip: Don’t forget to include .dockerignore to prevent copying unnecessary files like datasets or logs.

4. Build and Test Your Container Locally

Use Docker commands to build and test the container:

bash

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docker build -t ai-model-container .

docker run -p 5000:5000 ai-model-container

Send a test POST request to http://localhost:5000/predict using Postman or curl to ensure the container works as expected.

5. Push Your Image to a Container Registry

Before deploying to RunPod, push your Docker image to a public or private registry:

bash

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docker tag ai-model-container yourdockerhub/ai-model:latest

docker push yourdockerhub/ai-model:latest

You can use Docker Hub, GitHub Container Registry, or Google Artifact Registry.

6. Launch Your Container on RunPod

With RunPod, you can deploy containers on-demand using GPUs. Here’s how:

  • Head to the RunPod Container Launch Guide
  • Select a template from RunPod GPU Templates
  • Enter your container image name and startup command
  • Configure environment variables, volumes, and ports
  • Launch the container and monitor logs via the dashboard

Need help selecting the right hardware? Visit the RunPod Pricing Page to compare GPU options like A10, A100, RTX 6000, and more.

7. Monitor, Maintain, and Optimize

After launching, use the RunPod dashboard to track uptime, logs, and GPU utilization. You can also use their API to automate scaling or integrate deployment steps into your CI/CD pipelines.

Add health endpoints in your app to let RunPod restart instances if they fail. Periodically update your container image to deploy bug fixes or model upgrades.

Advanced Tips for Efficient Deployment

To make your MLOps workflow smoother, keep these advanced tips in mind:

  • Use Multi-Stage Docker Builds: Separate build-time and run-time dependencies.
  • Optimize Model Load Times: Pre-load models during container startup.
  • Pin Python Package Versions: Prevent bugs from package updates.
  • Set Timeouts and Limits: Avoid runaway processes in production.
  • Secure APIs: Add authentication layers to inference endpoints.
  • Leverage Volumes for Model Data: Use persistent storage for shared access between containers.

Real-World Use Cases with RunPod

Whether you're running a large language model, stable diffusion, or YOLOv8 for object detection, RunPod simplifies deployment. Check out their model deployment examples for real-world use cases.

Popular models deployed with Docker on RunPod include:

  • Chatbots using LLaMA or GPT-J
  • Text-to-image models like Stable Diffusion
  • CV models like YOLOv5 and YOLOv8
  • NLP models with Hugging Face Transformers

With GPU acceleration and minimal setup, you can go from prototype to production in hours—not weeks.

Launch Your AI Container Today

If you're ready to scale your AI model beyond your local machine, there's no better time to get started.

Sign up for RunPod to launch your AI container, inference pipeline, or notebook with GPU support.

Whether you're a solo developer, data scientist, or a startup team, RunPod makes it easy to deploy and manage powerful AI services without managing infrastructure.

FAQ: Docker-Based Model Deployment on RunPod

What pricing tiers does RunPod offer?

RunPod offers flexible pricing tiers, including on-demand and spot instances, which lets you pick the right balance of cost and availability. You can explore GPU types and rates on the pricing page.

Are there container image or runtime limitations?

Yes. Containers must start within 5 minutes, and the total image size should ideally be under 30 GB. Optimize your image by removing unnecessary libraries and using lighter base images.

How do I check for GPU availability?

RunPod displays GPU availability in real-time on the container launch dashboard. For programmatic access, use the RunPod API to check node availability and automate deployment workflows.

What kind of AI models can I deploy?

You can deploy virtually any model using Docker—including those built with TensorFlow, PyTorch, ONNX, or even classical models—as long as you include all required dependencies and runtime configurations in your image.

Can I get a walkthrough for launching containers?

Yes. Visit the RunPod Container Launch Guide for a detailed, beginner-friendly tutorial.

What are Dockerfile best practices for AI deployment?
  • Use minimal base images (e.g., python:3.10-slim)

  • Pin all dependencies

  • Use .dockerignore to exclude large files

  • Add a proper CMD or ENTRYPOINT

  • Include health checks or logging for monitoring

Can I persist data in my RunPod container?

Yes. RunPod supports persistent volumes that you can attach to containers. This is useful for model weights, configuration files, or caching intermediate data between sessions.

Conclusion

Building and deploying AI models shouldn’t be a bottleneck. With Docker, you can package models in a consistent and scalable way. And with RunPod, you gain access to on-demand GPU infrastructure, streamlined container management, and powerful APIs that accelerate your MLOps lifecycle.

If you're building AI-powered products, experiments, or services, Docker + RunPod is a combination that brings speed, power, and flexibility.

Don’t wait. Sign up for RunPod today and launch your AI container, inference pipeline, or notebook with GPU support.

Get started with Runpod 
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