Developed an integrated code quality platform by combining SonarQube and SonarCloud for comprehensive code analysis across 29 programming languages, ensuring consistent quality checks across diverse coding environments.
Designed and deployed a Bug Frequency Server that utilized historical data to predict the impact of code changes, leading to a 40% reduction in critical production bugs. Integrated Large Language Model (LLM) for automated code reviews, improving review efficiency by 50%.
Optimized severity calculation by creating a multi-faceted severity calculator and streamlined SonarCloud setup with Git repositories, resulting in a 30% improvement in issue prioritization accuracy and a 60% reduction in manual review time.
Developed a weighted mean system for the Master Severity Index, leading to a 25% increase in code quality gate pass rates and contributed clear documentation for seamless integration with the Java Relay Server.
This project improved overall code quality, automated code review processes, and enhanced issue prioritization in production environments.
Designed and implemented a sophisticated React-based dynamic form
to efficiently gather comprehensive infrastructure requirements
from users. The form features intuitive questions tailored to
determine the optimal technologies for building and deploying
applications, enhancing user experience and accuracy in capturing
project needs.
Integrated a robust backend API using Python and Django for
seamless form submission and real-time updates. Leveraged Google
Gemini LLM with advanced prompt engineering to deliver actionable
content, improving the precision of infrastructure
recommendations.
Enabled interactive modifications to the generated infrastructure
design through a chat interface. Users can easily adjust the
content without repetitive information entry, leading to a 40%
reduction in manual input and increasing user satisfaction by
30%.
Implemented real-time context saving to ensure smooth transitions
and modifications without losing previous inputs, thus enhancing
the application's responsiveness and user engagement.
Introduced High-Level Design (HLD) generation feature, providing
users with a visual overview of their service architecture. This
feature has resulted in a 25% improvement in project planning
accuracy and has been well-received for its clarity in presenting
infrastructure layouts.
The Automated Waste Segregation System is a machine learning-based solution that uses Convolutional Neural Networks (CNN) to classify waste into two categories: Organic and Recyclable. The system automates the waste sorting process, enhancing recycling efficiency and promoting proper disposal practices. It features a simple web interface where users can upload images of waste items, which are then classified in real-time by the backend powered by Flask. The system provides instant classification results along with recycling recommendations, helping reduce contamination in recycling streams and encouraging environmentally-friendly practices. This system is efficient, scalable, and user-friendly, making it an effective tool for improving waste management at various scales.
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🚀 Excited to share my latest project: a classic Snake game built
using the Turtle module in Python! 🐍💻 Diving into this project
was a fantastic way to enhance my programming skills and get
hands-on experience with game development. From handling user
input to creating game logic and designing a simple yet engaging
interface, this journey has been both challenging and
rewarding.
🔍 Key learnings:
Utilizing Python’s Turtle module for graphics
Implementing game loops and collision detection
Enhancing
problem-solving and debugging skills
Excited to share my latest Python project! 🎨✨ Using the Turtle module, I created a spirograph that beautifully demonstrates the intersection of coding and art. Check out the mesmerizing patterns and explore the endless possibilities of Python.
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