adnan belam

Results-oriented Manufacturing Supervisor at D.G. Industries with a strong background in wind engineering and structural dynamics, known for improving production efficiency and product quality. Proficient in AutoCAD and Excel (VBA) to drive process optimization, while cultivating team collaboration and resolving complex issues to meet project goals and uphold safety standards.

Design of Offshore Horizontal Axis Wind Turbine (HAWT)                                                                     
Academic Project - ENGG 6290 Wind Energy(Aug.-Sept. 2024)

• Designed a complete offshore wind turbine with a power output of 5 MW, tailored for North Sea conditions, meeting IEC 61400 regulatory standards.
• Developed a 3-blade rotor system with optimized aerodynamic profile, including hub height (100m) and rotor diameter (130m), to maximize energy capture in offshore wind conditions.
• Estimated aerodynamic and structural loads using Blade Element Momentum (BEM) Theory and Finite Element Method (FEM), ensuring the turbine’s structural integrity under operational stresses.
• Specified components, including a 3-stage gearbox, permanent magnet synchronous generator, hydraulic disc brake, and monopile foundation, to enhance durability and efficiency.
• Conducted cost analysis, including Levelized Cost of Energy (LCOE), considering capital, operational, and maintenance expenses to ensure economic feasibility.
• Conducted a cost analysis, including the Levelized Cost of Energy (LCOE), considering capital, operational, and maintenance expenses to ensure economic feasibility.
• Assessed soil bearing capacity and stability for offshore foundations, incorporating geotechnical considerations to support turbine weight and minimize settlement.

Life Cycle Assessment of Wind Turbines
Academic Project - ENGG 6290 Wind Energy( July - Septemer 2024)

• Conducted a comprehensive Life Cycle Assessment (LCA) of wind turbines to evaluate the environmental impact across various life stages, from production to decommissioning.
• Analyzed the environmental effects of ultra-tall wind turbine towers, focusing on material use, transportation, installation, and end-of-life scenarios.
• Compared conventional steel and innovative 3D-printed concrete tower designs, assessing their trade-offs in terms of carbon footprint, energy use, and durability.
• Performed sensitivity analysis to identify key factors influencing the sustainability and economic viability of turbine designs, such as material selection and energy costs.
• Developed recommendations for sustainable design improvements, including the use of recyclable materials, bio-based composites, and energy-efficient manufacturing processes
• Suggested future research areas, including advanced materials, energy storage integration, and lifecycle optimization, to enhance wind turbine sustainability and efficiency.