Aakash Kumar

Aakash Kumar

Graduate Research Assistant

Center for Research in Computer Vision, University of Central Florida

Email: aakash.kumar@ucf.edu | aakashjuseja@gmail.com

Profile Summary

Aspiring Computer Science PhD candidate with specialized expertise in 3D Multiple Object Tracking, Computer Vision, and Machine Learning. Aiming to propel the applied science and robotics industry forward with a strong portfolio of research in advanced sensory data interpretation and algorithm development.

Recent Publications
Sparse Points to Dense Clouds

Sparse Points to Dense Clouds: Enhancing 3D Detection with Limited LiDAR Data
IROS 2024
Aakash Kumar, Chen Chen, Ajmal Mian, Neils Lobo, Mubarak Shah
[Project] [Paper]

Self Supervised Learning for Multiple Object Tracking in 3D Point Clouds

Self Supervised Learning for Multiple Object Tracking in 3D Point Clouds
IROS 2022
Aakash Kumar, Jyoti Kini, Ajmal Mian, Mubarak Shah
[Project] [Paper]

PC-DAN: Point Cloud based Deep Affinity Network for 3D Multi-Object Tracking

PC-DAN: Point Cloud based Deep Affinity Network for 3D Multi-Object Tracking
CVPR-W 2021
Aakash Kumar, Jyoti Kini, Ajmal Mian, Mubarak Shah
[Project] [Paper]

Education
Experience
Projects

HAYSTAC - Hidden Activity Signal and Trajectory Anomaly Characterization: Developed ML based models to characterize and detect anomalous human movements in trajectory data ensuring privacy within IoT and Smart City infrastructures. (Funded by IARPA)

Sparse Points to Dense Clouds: Pioneered a 3D detection method leveraging sparse LiDAR data to reconstruct dense point clouds significantly improving detection accuracy on the KITTI and JackRabbot datasets.

Self-Supervised 3D Multiple Object Tracking: Developed the first self-supervised method for 3D object tracking using LiDAR enhancing feature learning and object association without the need for annotated training data. (Funded by Lockheed Martin)

PC-DAN for 3D Multiple Object Tracking: Introduced a novel deep learning model for 3D Multi-Object Tracking that processes sparse LiDAR data with a unique feature permutation approach achieving top leaderboard performance at a Stanford University CVPR workshop. (Funded by Lockheed Martin)

Satellite Image Segmentation: Improved remote sensing image segmentation by modifying U-Net and PSPNet models effectively classifying roads, buildings, grass, and water with enhanced accuracy.

Real-Time Visual Saliency Detection: Proposed a CNN based model for saliency detection in SAR images reducing computational complexity and enabling real-time remote sensing applications. (Funded by Shanghai Jiaotong University, China)

Technical Skills
Achievements