Vertical Axis Wind Turbine using Biodegradable Materials for low wind speed
Currently leading a capstone project under the supervision of Prof. Nikolaos Karathanasopoulos and Prof. Khaled Shahen, designing and optimizing a three-bladed H-type Vertical Axis Wind Turbine (VAWT) tailored for low-wind campus environments using sustainable biocomposite materials. The rotor integrates a hybrid NACA 0018 and J-blade configuration to maximize power coefficient, tip-speed ratio, and self-start capability at wind speeds as low as 4 m/s. High-fidelity CFD simulations in ANSYS Fluent and Workbench — spanning 2D steady-state, transient, and 3D analyses — were conducted across multiple blade geometries and Reynolds regimes before committing to a physical prototype standing 1 m tall with a 0.5 m rotor radius, capable of generating 125 W of clean electricity.


Lunar Regolith Analysis
Developed fully convolutional networks achieving 93% accuracy in segmenting lunar simulant images for enhanced surface analysis.

Rover Challenge
Led a 10-member team in the European Rover Challenge, designing and building a rover through Falcon Aerospace Engineering Club.
Research Publication
Published peer-reviewed research on powder technology, contributing to advancements in aerospace material processing.
Gallery Highlights
Snapshots from robotics projects, aerospace designs, and research moments.
Feedback
”Atiquzzaman’s robotics insights transformed our project approach completely.”
”His deep learning models boosted our lunar simulant analysis accuracy impressively.”
”Leading the Falcon Aerospace team, Atiquzzaman showed exceptional leadership and technical skill, inspiring everyone to push boundaries.”