Researcher, Developer, and AI Enthusiast
Curious explorer with a persistent drive for innovation in Science and Technology. I bring a solid academic foundation in Computer Science Engineering and a Master's in Data Science and Artificial Intelligence. As a researcher, my journey has led me to dive into projects that span crafting intelligent 6G Communication solutions to leveraging Machine Learning models for real-world applications such as speaker identification and adaptive algorithms for innovative ambulance systems. With a toolkit that includes TensorFlow, PyTorch, and more, I thrive in collaborative environments, fostering interdisciplinary teamwork to create impactful solutions.
Master of Technology, CSE, Specialization: DS&AI | International Institute of Information Technology, Naya Raipur | August 2019 - July 2021 |
Bachelor of Engineering, CSE | Chhattisgarh Swami Vivekanand Technical University, Bhilai | August 2015 - July 2019 |
R&D Ekspert | Orange Polska S.A, Warsaw
Date:March 2025 - Present
Project Research Engineer | Indian Institute of Technology, Bombay
Date: April 2024 - March 2025
Project Title: Development of Smart Drone Ecosystem and Demonstration of Social Applications Towards Larger Drone Deployment Strategy of Maharashtra.
Junior Research Fellow | Indian Institute of Technology, Bhilai
Date: November 2022 - December 2023
Project Title: Smart Radio Environments: Implementation And Deployment For Targeted Use-Cases.
Junior Research Fellow | Indian Institute of Technology, Bhilai
Date: March 2022 - October 2022
Project Title: Massive Multi-Access to Provide UHD Quality Video And Real-time Data Delivery From
a Connected Mobile Ambulance And Its Extension To Other Disaster Recovery Scenarios.
Master’s Thesis | Collaborated Govivace-Inc & IIIT NR
Date: September 2020 - May 2021
Project Title: Speaker Accent Identification Using The Time Delay Neural Network Architecture For The
Indian Language.
Title: Drone Swarm Communication and Co-ordination Using 5G technology and RFD radio modem.
This project focuses on the distributed communications system amongst drone swarms for research and rescue purposes. In this work, the telemetry data (e.g. text, video, etc.) is shared amongst the drone for real-time shape formation and with the ground control station's mission planner for tracking. It uses an RFD900x2 long-range radio modem and 5G dongles to transmit and receive the data.
Title: Codebook Design and Autoencoder-based Codeword Selection for RIS-assisted Communications
This project focuses on optimizing beamforming for Reconfigurable Intelligent Surfaces (RIS) in indoor settings. The codebook comprises phase patterns at RIS elements, directing signals to desired angles, and is designed to maximize the signal-to-noise ratio (SNR) at the receiver (RX). To reduce redundancy and enhance efficiency, We've developed an algorithm that streamlines the codebook by eliminating repetitive codewords. Furthermore, We employ an Autoencoder (AE) for codeword selection, minimizing the Bit Error Rate (BER) at the receiver. Our approach demonstrates promising results in terms of BER reduction while maintaining a compact codebook size, surpassing existing techniques.
Title: Implementation of Smart Radio Environment
This project showcases the implementation of an intelligent radio environment (SRE) communication system using reconfigurable intelligent surfaces (RIS). Positioned between the transmitter and receiver, the RIS reflects incident waves in specific directions, enhancing signal quality. The experimental setup comprises a channel estimator (CE), a generic RIS controller (GRC), and a RIS-specific controller (RSC), with USRP devices acting as the transmitter and receiver. The CE adjusts RIS settings based on throughput requirements, following TSDSI standards for interface and message exchange between the wireless system and RIS. This standardized approach achieves a remarkable 20 dBm improvement in received power when deploying RIS. Additionally, the GRC employs an algorithm to optimize beamforming angles for maximum received power.
Title: Smart-ambulance: Services using Multiple Network Paths and Open APIs
This project focuses on improving patient care by integrating smart ambulance services with healthcare systems. We introduce a solution for streaming high-definition video using multiple network paths and interfaces. Our approach optimizes video distribution and reliability, reducing delay and jitter in multi-access scenarios. Additionally, we provide standardized APIs to access live data from smart ambulances, enhancing hospital system responsiveness during critical situations. The portfolio includes product-level implementation details and real-world results, validating our algorithms.