My research interests lie at the intersection of autonomous systems, robotics, computer vision, and edge AI, with a focus on bridging simulation-based development and real-world deployment.
My work emphasizes practical system-level analysis, resource-constrained inference, and deployable perception–control pipelines.


Depth-Aware Rover: Edge AI and Monocular Vision for Real-World Implementation

Springer | IEEE INGARSS 2025

This research presents a depth-aware autonomous rover system designed under real-world hardware and thermal constraints.

Summary:

  • Developed a low-cost rover platform using monocular vision and edge AI on Raspberry Pi
  • Compared stereo-based depth perception in simulation with monocular depth estimation in real-world deployment
  • Integrated object detection and depth estimation for navigation under constrained compute and power budgets

Key Contributions:

  • Demonstrated system-level trade-offs between depth accuracy, inference latency, and thermal stability
  • Highlighted challenges in simulation-to-real transfer for depth-based navigation
  • Provided insights into edge deployment feasibility for autonomous exploration platforms

Publications & Presentations:

  • Springer Book Chapter (July 2024)
  • IEEE INGARSS 2025 Symposium (Oral / Poster)

đź”— Springer: https://link.springer.com/chapter/10.1007/978-981-96-3420-0_17


Deep Learning Models for Tropical Cyclone Intensity Estimation

WGNE Blue Book | IITM Collaboration

This work focuses on applying deep learning techniques to multi-channel satellite imagery for estimating tropical cyclone intensity.

Summary:

  • Designed a 4-channel image-to-intensity regression pipeline using deep convolutional networks
  • Evaluated rotation-blended CNN architectures from existing literature
  • Benchmarked experimental results against published performance metrics

Key Contributions:

  • Systematic replication and validation of prior deep learning approaches
  • Analysis of model robustness on complex meteorological data
  • Emphasis on reproducibility and scientific benchmarking

Publication:

  • WGNE Blue Book (November 2024)

đź”— WGNE Paper:
https://wgne.net/bluebook/uploads/2024/docs/010_Relia,_Lomash_Evaluating_Deep_Learning_Models_for_Cyclone_Intensity_Estimation.pdf


Master’s Thesis Project (Ongoing)

ABV-IIITM Gwalior

As part of my M.Tech program, I am currently working on a thesis project focused on robotic manipulation and autonomous control.

Research Focus:

  • Mathematical control systems for robotic manipulators using MuJoCo-based simulation
  • Eye-in-hand visual servoing and perception-driven control strategies
  • Exploration of Vision-Language-Action (VLA) models for robotic manipulation in space and planetary environments

Objectives:

  • Develop robust control pipelines that integrate perception and action
  • Study the applicability of foundation models to embodied robotic systems
  • Improve reliability and generalization in simulated and real-world manipulation tasks

Research Interests

  • Autonomous and space robotics
  • Vision-based control and visual servoing
  • Edge AI and embedded perception systems
  • Simulation-to-real transfer
  • Embodied AI and physical AI systems

Academic & Conference Activity

  • IEEE INGARSS 2025 Symposium
  • PRL Venus Science Conference (2024)
  • ICHCSC Conference (2024)

Notes

  • Detailed experimental results, code repositories, and supplementary material are available upon request.
  • Ongoing research updates will be added as work progresses.