1. Abstract
The Automated ML Model Deployment Platform is a web-based system designed to simplify the process of deploying machine learning models into production. It enables users to upload trained models, configure deployment settings, generate prediction APIs, and monitor model performance. The platform integrates machine learning workflows with automation tools to reduce manual deployment efforts and improve scalability. It supports model versioning, testing, API management, and deployment status monitoring through an interactive dashboard.
2. Objectives
- To automate machine learning model deployment.
- To simplify model upload and configuration.
- To generate prediction APIs automatically.
- To manage model versions and deployment status.
- To monitor API performance and model health.
- To reduce manual configuration and deployment errors.
3. Existing System
Traditional ML deployment requires developers to manually package models, configure environments, build APIs, and deploy applications to servers or cloud platforms.
Disadvantages:
- Time-consuming deployment procedures.
- Requires specialized technical knowledge.
- Manual configuration can introduce errors.
- Difficult to manage multiple model versions.
- Limited centralized monitoring.
4. Proposed System
The proposed platform automates the deployment workflow from model upload to prediction API creation. Users upload trained models, configure dependencies and deployment settings, and initiate deployment through a dashboard. The backend packages the model, creates an API service, and deploys it to a local or cloud environment. The platform tracks model versions, deployment status, API requests, and error logs.
Key Features:
- User and admin dashboards.
- ML model upload and registration.
- Automated deployment workflow.
- Prediction API generation.
- Model version management.
- Deployment status tracking.
- API performance monitoring.
- Deployment logs and error reports.
5. Implementation Procedure
- Requirement Analysis: Identify supported models, deployment environments, and monitoring needs.
- Model Preparation: Train sample models using Scikit-learn or TensorFlow.
- Model Upload: Allow users to upload serialized models and configuration files.
- Backend Development: Build APIs using Python Flask or FastAPI.
- Model Validation: Validate file formats, dependencies, and model input requirements.
- Containerization: Package models and dependencies using Docker.
- Deployment Automation: Use CI/CD tools such as GitHub Actions or Jenkins to automate testing and deployment.
- API Generation: Create prediction endpoints for deployed models.
- Monitoring Integration: Track request counts, response times, errors, and resource usage.
- Testing and Deployment: Test model predictions, version updates, deployment failures, and API availability.
6. Software Requirements
- Operating System: Windows 10/11 or Linux
- Programming Language: Python
- Frontend: HTML, CSS, JavaScript or React.js
- Backend: Flask or FastAPI
- ML Libraries: Scikit-learn, Pandas, NumPy, TensorFlow
- Containerization: Docker
- CI/CD: GitHub Actions or Jenkins
- Model Tracking: MLflow
- Database: PostgreSQL or MongoDB
- Cloud Platform: AWS, Azure, or Google Cloud (optional)
- Development Tool: Visual Studio Code
7. Hardware Requirements
- Processor: Intel Core i3 or equivalent and above
- RAM: Minimum 8 GB recommended
- Storage: Minimum 20 GB available space
- GPU: Optional, depending on model requirements
- Network: Internet connection for cloud deployment and CI/CD
- Display: Standard monitor
- Input Devices: Keyboard and mouse
8. Advantages of the Project
- Reduces manual deployment effort.
- Accelerates model release cycles.
- Standardizes deployment workflows.
- Supports model version tracking.
- Simplifies prediction API creation.
- Improves deployment monitoring.
- Supports scalable cloud integration.
- Helps identify deployment failures quickly.