I am a Robotics and AI Software Engineer specializing in
AI research projects and web development. I am working
at
ITechia Solutions
in Pakistan, where I lead a small team that mostly works
on Research Ideas.
I hold a Master’s degree in Computer Science with a
focus on AI from
PUCIT, where I developed an optimized ensemble model for the
classification and detection of retinal diseases using
OCT images. During my studies, I worked with medical
image datasets, focusing on image preprocessing
techniques to improve the quality and accuracy of image
analysis. I also worked with sensory datasets for human
activity recognition (HAR).
In addition to my AI expertise, I have hands-on
experience in Robotics Simulation. I have worked on
several ROS projects using CoppeliaSim and Gazebo
Simulator, and have applied my knowledge to work with
Drone and UAV robots in a variety of applications.
I'm interested in computer vision, machine learning, deep
learning, generative AI, large language models (LLM),
image processing and Robotics. Most of my research is
about on Robotics, Medical Images and Sensory Data.
This paper introduces an ensemble-based approach for classifying OCT images, combining
the strengths of CNN, DenseNet121, and InceptionV3 models to improve classification
accuracy. The methodology aims to address early detection and treatment challenges in
retinal conditions like CNV, DME, and DRUSEN. The proposed ensemble model achieves a
remarkable 97.5% accuracy, demonstrating superior performance compared to individual
models and existing state-of-the-art techniques, while also requiring less
computational time and performing effectively with a limited dataset.
This approach represents a significant advancement in OCT image classification for
retinal disease diagnosis.
This paper repesnts a machine learning framework for diagnosing and managing retinal
diseases using OCT images, with a focus on employing a random forest classifier.
It introduces a novel approach using raw image data embedding (RIDE) as input, in
contrast to traditional metadata-driven preprocessing methods. The study compares the
performance of RIDE against established techniques like HOG, LBP, and FOSF,
demonstrating that the proposed model achieves an accuracy of 80% while optimizing both
classification performance and time complexity. This research aims to enhance early
detection and treatment of retinal diseases, ultimately improving diagnostic accuracy
and patient outcomes.
This paper investigates the use of machine learning classifiers for detecting retinal diseases in
OCT images, focusing on techniques like HOG, LBP, and FOSF for feature extraction. It demonstrates
the effectiveness of HOG combined with an SVM classifier, achieving an accuracy of 78.8%, and
compares the performance of various pre-processing techniques, such as resizing, Gaussian Blur,
and normalization, to optimize detection and classification outcomes for conditions
like DME, CNV, DRUSEN, and NORMAL.
This paper shows the potential of company-issued crypto assets as a strategic growth
avenue for private companies, particularly focusing on the use of the Ethereum-based
ERC20 protocol. It discusses the benefits of carefully timing the introduction of
crypto tokens to the market and emphasizes how decentralized blockchain platforms,
like Ethereum, offer a robust solution for raising capital and implementing complex
business logic through smart contracts.
A single model built around diffusion and NeRF that does
text-to-3D, image-to-3D, and few-view reconstruction,
trains in 1 minute, and renders at 60FPS in a browser.
This project shows a collaborative approach for map
creation of an unknown environment in Gazebo using SWARM
robots. Swarm technique is inspired by ant-colines. By
using this technique, I use multiple robots and leave them
in an unknown environment and they start generating map.
When more than one robots overlap they start merging the
map.
This project focuses on simulating realistic bipedal
locomotion for humanoid robots using CoppeliaSim.
Achieving smooth and stable movement involves handling
complex physics, including maintaining balance, managing
ground contact forces, and ensuring dynamic stability
through proper center-of-mass adjustments. The locomotion
algorithm relies on inverse kinematics for precise joint
control and employs feedback from physics engines to
adaptively correct the robot’s posture. Techniques like
Zero Moment Point (ZMP) and torque-controlled joints are
integrated to improve gait efficiency and prevent falls.
This project compares three SLAM algorithms—G-Mapping,
Hector Mapping, and Cartographer Mapping—using ROS and
Gazebo. G-Mapping is reliable for indoor mapping with
odometry but struggles in dynamic settings. Hector Mapping
offers fast, odometry-free mapping using laser scans,
ideal for rapid motion but less accurate in large areas.
Cartographer excels in precise 2D/3D mapping with robust
loop closure, making it suitable for large-scale, complex
environments. The comparison highlights their strengths
and trade-offs for different applications.
Website built using source code provided by Jon Barron