Abstract:

The “Building Serverless Application for Event-Driven Data Processing” project addresses the need for scalable, cost-effective, and flexible solutions in data processing. Leveraging serverless architecture and Python-based web technologies, this project introduces an event-driven system designed to handle dynamic workloads efficiently while minimizing infrastructure management overhead.

Problem Statement:

Traditional data processing systems often face challenges related to scalability, infrastructure management, and cost-effectiveness. This project aims to overcome these challenges by implementing a serverless architecture, allowing for seamless scalability and efficient event-driven data processing.

Motivation:

The motivation behind this project is to provide a modern and efficient solution for handling event-driven data processing tasks. By embracing serverless architecture, the project aims to reduce operational complexity, enhance scalability, and optimize costs, thereby catering to the growing demand for agile and scalable data processing systems.

Existing System:

Existing data processing systems may rely on monolithic architectures or manually managed server instances, leading to challenges in scalability and operational efficiency. There is a need for a more dynamic and scalable system that can automatically scale based on demand and handle events efficiently.

Proposed System:

The proposed system introduces a serverless application for event-driven data processing. Leveraging cloud services and serverless functions, this system allows for automatic scaling, efficient utilization of resources, and seamless handling of event-triggered data processing tasks.

Building serverless application for event-driven data processing
Building serverless application for event-driven data processing

Modules Explanation:

  1. Event Triggering:
  • Define events that trigger data processing tasks, such as file uploads, database changes, or external API calls.
  1. Serverless Functions:
  • Implement serverless functions using platforms like AWS Lambda or Azure Functions to handle specific data processing tasks.
  1. Data Processing Logic:
  • Develop the logic for processing events, which may include data transformation, validation, or storage operations.
  1. Integration with Web Interface:
  • Build a web-based interface to monitor and manage serverless functions, providing users with insights into data processing tasks and their status.

System Requirements:

  1. Cloud Services:
  • Utilize a cloud platform that supports serverless computing (e.g., AWS, Azure, Google Cloud).
  1. Serverless Function Development Environment:
  • Set up the development environment for serverless function deployment.
  1. Web Development Tools:
  • Python-based web frameworks (Django or Flask) for building the monitoring and management interface.

Architecture:

The architecture follows a serverless paradigm, with events triggering serverless functions responsible for specific data processing tasks. The system dynamically scales based on demand, ensuring efficient resource utilization.

Technologies Used:

  1. Serverless Platforms:
  • AWS Lambda, Azure Functions, or Google Cloud Functions for serverless function deployment.
  1. Cloud Storage Services:
  • Utilize cloud-based storage services for storing and retrieving data efficiently.
  1. Web Framework:
  • Django or Flask for building the web-based monitoring and management interface.

Web User Interface:

The web interface provides a user-friendly platform for monitoring and managing serverless functions. Users can view the status of data processing tasks, set configurations, and analyze system performance.

This project aims to provide an efficient and scalable solution for event-driven data processing, aligning with modern cloud-native architectures and serverless computing paradigms. By leveraging these technologies, the system optimally handles dynamic workloads and minimizes infrastructure management complexities.

UML DIAGRAMS

Collaboration Diagram

Collaboration Diagram

Architecture diagram

Architecture diagram

class diagram

class diagram

sequence diagram

sequence diagram

use case diagram

use case diagram

activity diagram

activity diagram

component diagram

component diagram

Deployment Diagram

Deployment Diagram

Flow chart Diagram

Flow chart Diagram
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