Graduation Project
Start Date : 10 Feb 2025-20 Jan 2026
This project, developed by a multidisciplinary team from the Mechanical Engineering and Electronics and Communication Engineering departments, addresses the critical challenge of high HVAC energy consumption in hot climates. The team executed a comprehensive engineering workflow, beginning with precise thermal load analysis in accordance with ASHRAE standards. The proposed system transitions from static air distribution to a dynamic, demand-driven model. It integrates a distributed IoT framework utilizing multiple microcontrollers to monitor real-time environmental parameters, including temperature, humidity, and occupancy. This data-driven approach allows for autonomous, room-level airflow regulation via motorized dampers, ensuring thermal comfort while maximizing energy efficiency. To validate the design, the team constructed a precise, 3D-printed scale model that replicates the complete mechanical layout, including air-handling units and ductwork. The system also features a centralized cloud dashboard for remote monitoring and supervisory control, providing a scalable and sophisticated solution for modern building management.

Graduation Project
Start Date : 01 Oct 2024-09 Jul 2025
This project details the design and implementation of a solar-powered weather station. It uses a photovoltaic (PV) panel to power sensors that measure solar radiation, temperature, humidity, soil moisture, wind speed, and rainfall. A Raspberry Pi 5 processes this data in real time, transmitting it wirelessly to a cloud-based webpage. This enables users to monitor both current and historical environmental data remotely. The goal is to create an economically sustainable, low-cost weather station ideal for agricultural and environmental monitoring, particularly in developing countries. The methodology includes designing the structure with SolidWorks, selecting components via PVsyst simulations, and integrating the sensors. System simulations confirm efficient energy use and accurate weather observation, making the project a scalable solution.

Graduation Project
Start Date : 01 Oct 2025-09 Jul 2025
This study investigates the performance of a J-blade vertical axis wind turbine (VAWT) through a combined computational and experimental approach. The computational analysis employed an integrative methodology, utilizing a 3D geometric modeling platform for design and a CFD software package for aerodynamic analysis. This process simulated the turbine's dynamic behavior, providing data on torque production and power coefficients. The experimental setup incorporated an Internet of Things (IoT) system with a custom-designed PCB, a microcontroller, and a rotary encoder to measure real-time rotational speed. These experimental measurements were used to validate the CFD simulation results. The findings offer a comprehensive understanding of the J-blade VAWT's performance, highlighting the effectiveness of integrating computational analysis with an IoT-based monitoring system.

Graduation Project
Start Date : 15 Feb 2024-27 Jan 2025
This project addresses climate change by targeting carbon emissions in Egypt's building sector. Utilizing a building energy simulation tool, a base model was created and various insulations and glazings were tested to enhance energy efficiency. Pareto optimization was employed to identify optimal solutions to minimize energy consumption and related CO2 emissions. This project provides practical, scalable solutions to improve energy efficiency across Egypt’s buildings, fostering sustainable urban development and contributing to a greener, more environmentally responsible future.

Graduation Project
Start Date : 01 Oct 2023-08 Jul 2024
This project presents an investigation into the design, construction, and performance evaluation of a dual-axis hybrid solar tracking mechanism. By combining theoretical knowledge with hands-on experimentation and data analysis, the study has successfully demonstrated the feasibility and efficiency gains of the proposed system. The study demonstrates the effectiveness of the proposed hybrid system in optimizing solar energy capture. By combining the strengths of light-dependent resistor (LDR) sensors and predictive solar map algorithms, the hybrid approach outperforms both standalone methods, yielding notably improved system performance. This work offers valuable insights into the engineering and deployment of advanced solar tracking systems, contributing to the advancement of sustainable and renewable energy solutions.

Graduation Project
Start Date : 30 Sep 2023-30 Jan 2024
This project focused on energy-efficient solutions for office buildings, examining design principles like building envelopes, HVAC systems, and renewable energy integration. Through case studies, it demonstrated their feasibility and highlighted economic and policy considerations, while addressing adoption barriers and emphasizing stakeholder engagement. The project emphasized the benefits of energy-efficient buildings and recommended additional research and policy support for broader adoption.

Graduation Project
Start Date : 01 Oct 2022-12 Jul 2023
This project conducts a comprehensive techno-economic assessment to evaluate various mechanical applications in laboratory buildings in hot-arid climates. The goal is to achieve energy efficiency by testing and analyzing different technologies. The study encompasses advanced HVAC systems, glazing, and insulation techniques. Through simulations, data analysis, and cost-benefit evaluations, the project assesses the performance, cost-effectiveness, and overall viability of these applications. The findings provide valuable insights to support adopting energy-efficient solutions in laboratory buildings, fostering sustainability and reducing environmental impact.

Graduation Project
Start Date : 01 Oct 2022-12 Jul 2023
This project focuses on integrating state-of-the-art HVAC solutions to reduce energy consumption significantly, minimize environmental impact, and enhance indoor air quality in research centre laboratories. Combining advanced technologies and a holistic approach develops a unique HVAC system design that sets new standards for sustainability and occupant comfort.