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Ice maker machine
Presented by students: Abuthar Abdulghaffar, Salah Al-Anni and Supervised by Dr. Oula Fatla
The Educational Ice Maker project is an innovative initiative designed to bridge the existing gap between theoretical knowledge and practical application in the field of refrigeration and thermodynamics. Targeted primarily at engineering students, the project focuses on the design, development, and implementation of an interactive and user-friendly educational tool that enhances comprehension of core refrigeration principles. By integrating fundamental refrigeration components—such as compressors, condensers, capillary tubes, and evaporators, the system provides a comprehensive platform for studying the complete refrigeration cycle in a real-world context.
The setup is equipped with advanced features, including high-precision sensors, Type-K thermocouples, and data logging capabilities, which allow for the continuous monitoring of system performance parameters such as temperature, pressure, and energy transfer. This enables students to directly observe and analyze the thermodynamic behavior of refrigerants as they undergo phase changes and heat exchange within the cycle. The system utilizes R-134a, a refrigerant with a comparatively low global warming potential, thereby aligning the project with current environmental and sustainability standards.
This hands-on approach not only deepens theoretical understanding but also cultivates critical thinking, troubleshooting, and technical skills vital for careers in HVAC, refrigeration, and mechanical engineering. Furthermore, the project supports contemporary educational strategies by fostering experiential learning and student engagement. It serves as a valuable academic resource in laboratory courses, enabling the simulation of real-life scenarios and encouraging innovation in energy-efficient refrigeration technologies. In conclusion, the Educational Ice Maker project not only promotes academic excellence and technical proficiency but also contributes to the broader goals of sustainable engineering education and the development of industry-ready professionals.
Real-Time Hand Gesture Control System Using Deep Learning and Robotics
Student: Budoor Al Hammadi
Supervisors: Ms. Ambi Alex and Dr. Walid El Fezzani
A real-time hand gesture control system has been developed that integrates deep learning with robotics. The system employs a convolutional neural network, fine-tuned from AlexNet, to classify gestures such as open hand, fist, and no-hand with over 95% accuracy using live webcam input. These classification outputs are directly connected to an Arduino-controlled robotic hand, creating a seamless pipeline from visual recognition to physical actuation. By combining computer vision AI with robotic control, the implementation demonstrates how deep learning can enable intuitive human-machine interaction through natural gesture commands, highlighting the strong synergy between artificial intelligence and robotics. This project was carried out by the student Budoor Al Hammadi under the supervision of Ms. Ambi Alex and Dr. Walid El Fezzani.
Innovative Smart Fish Farm Boat for Sustainable Aquaculture
Student: Gayth Yunis
Supervisor: Dr. Walid El Fezzani
A remote-controlled fish feeder boat was designed and built to deliver food and medicine to ponds that are otherwise difficult to access, offering a practical solution for modern fish farming applications. The boat is constructed with 3D-printed parts and electronic components sourced online, with buoyancy supported by PVC pipes. The system operates through ESP-NOW communication, enabling a reliable 200-meter control range without manual pairing. The transmitter (TX) features a rechargeable Type-C battery, joystick control, battery level indicator, and a push button for dispensing food or medicine. The receiver (RX), powered by dual 18650 batteries, integrates an ESP32C3, motor driver, voltage boosters, and dual 300rpm motors for propulsion.
This project strengthened practical knowledge in power electronics, soldering, and coding, while contributing to sustainable aquaculture practices. By improving feeding efficiency and reducing waste, it aligns with several UN Sustainable Development Goals (SDGs), including Zero Hunger (SDG 2), Industry, Innovation & Infrastructure (SDG 9), and Life Below Water (SDG 14). This project was carried out by the student Gayth Yunis under the supervision of Dr. Walid El Fezzani at Gulf University.
AI-Powered Smart Plant Communication and Irrigation System
At Gulf University, an innovative AI-driven project was developed through collaboration between the Department of Electrical and Electronic Engineering and the Architecture and Interior Design Engineering Department. The system allows a plant to communicate via WhatsApp notifications, sending alerts when the soil is dry and even asking whether the user will water it or if the automated pump should be activated. This integration of AI, IoT, and automation demonstrates how smart systems can enhance sustainability and user interaction. The project highlights the value of teamwork, with contributions from students, faculty, and university leadership all working together toward a shared vision of success
AI-Driven Smart Plant Communication and Irrigation System
At Gulf University, an innovative AI-driven project was developed through collaboration between the Department of Electrical and Electronic Engineering and the Architecture and Interior Design Engineering Department. The system allows a plant to communicate via WhatsApp notifications, sending alerts when the soil is dry and even asking whether the user will water it or if the automated pump should be activated. This integration of AI, IoT, and automation demonstrates how smart systems can enhance sustainability and user interaction. The project highlights the value of teamwork, with contributions from students, faculty, and university leadership all working together toward a shared vision of success.
Door-Triggered Alarm System with Smart Monitoring Features
Student: Hasan Ahmad
Supervisor: Dr. Walid El Fezzani
Hasan Ahmad’s alarm system sounds innovative and practical! By adjusting the sound sensor to the specific frequency of the door opening, he ensures that the alarm is activated only when the door is opened, reducing false alarms. The combination of a buzzer and an LED light provides both auditory and visual alerts, making it effective in getting attention.
The addition of an LCD screen for monitoring is a great touch, as it allows users to see real-time information, such as system status, battery level, or even the time of the last activation. This could also be expanded to display notifications or alerts if integrated with smart technology. Overall, it seems like a well-thought-out system that enhances security while being user-friendly.
Smart Distance Measurement Tool for Interior Design Applications \
Student: Gayth Ed Yunis
Supervisor: Dr. Walid El Fezzani
Gayth Ed Yunis, a student from the Electrical and Electronic Engineering Department, developed an advanced distance measurement tool using precise 3D modeling, printing, electronic assembly, and programming. The project demonstrates high-level miniaturization and is designed to assist Interior Design students in accurately measuring room dimensions. This interdisciplinary initiative highlights innovation, sustainability, and the practical impact of engineering in supporting real-world applications.
Autonomous Waiter Robot for Contactless Drink Delivery
Student: Omar Arif
Supervisor: Dr. Walid El Fezzani
The Waiter Robot project, done by the student Omar Arif, focuses on designing a fully autonomous drink delivery system capable of navigating indoor spaces, avoiding obstacles, and stopping at set checkpoints to simulate serving drinks. Built with affordable components such as the ESP32-WROOM microcontroller, L298N motor driver, and RPLIDAR A1M8 sensor, the robot demonstrates real-time obstacle detection and autonomous movement. Testing showed reliable navigation, accurate stopping, and stable performance at moderate speeds, although challenges such as sensor limitations, power stability, and software delays were noted. This prototype highlights the potential of robotics in the hospitality industry to enhance efficiency, safety, and contactless service delivery.
Powered Smart Health Monitoring System using ESP32
Student: Saad Ebrahim Alhuwaihi
Supervisor: Dr. Osama Al Rawi
The project, completed by student Saad Ebrahim Alhuwaihi and supervised by Dr. Osama Al Rawi, introduces a cost-effective smart health monitoring system that measures heart rate, blood oxygen saturation (SpO₂), body temperature, and ECG in real-time. Built on the ESP32 microcontroller with sensors MAX30102, GY-906, and AD8232, the device displays data on an OLED screen and transmits it wirelessly for remote access. Testing confirmed reliable accuracy comparable to consumer wearables, with advantages in affordability and accessibility, particularly for elderly users and those in remote areas. This system demonstrates the potential of low-cost medical technology to support telemedicine, personal health management, and future AI-driven predictive healthcare.
LED Matrix Display for Gulf University Branding
Student: Ragheb Al Tamimi
A creative project has been designed using an 8×8 LED matrix display to showcase the initials “GU” for Gulf University. This innovative idea demonstrates how programming skills can be effectively combined with practical applications such as branding and advertising. By leveraging the LED matrix, the project delivers a visually appealing and attention-grabbing display, which can serve as a simple yet powerful tool for communication within academic or promotional contexts. Beyond its immediate function, the project highlights the potential of LED technology in interactive displays, digital signage, and educational demonstrations. It not only strengthens technical programming skills but also emphasizes creativity in applying engineering concepts to real-world use cases. This project was successfully carried out by the student Ragheb Al Tamimi, showcasing both technical competence and innovative thinking.
Arduino-Based Real-Time Clock and Calendar System
Student: Ragheb Al Tamimi
At Gulf University Bahrain, student Ragheb Al Tamimi, enrolled in the Electrical and Electronic Engineering program under the Northampton pathway, has designed an innovative timekeeping project. He highlighted that he no longer needs a traditional wristwatch, as his system, built with an RTC (Real-Time Clock) module, an LCD display, and an Arduino board, can provide highly precise time along with the current date.
The integration of the RTC ensures accuracy and reliability, while the LCD display offers a clear and user-friendly interface for viewing both time and calendar functions. This practical design not only demonstrates strong technical understanding of embedded systems but also showcases how modern microcontrollers can replace everyday devices with more versatile, customizable solutions.
Looking ahead, Ragheb plans to develop a smaller and more compact prototype, aiming to refine the portability and efficiency of his project. This progression reflects both his engineering skills and his commitment to continuous improvement, making the project a valuable step in blending academic learning with real-world application.
AI-Enhanced Smart Irrigation System for Sustainable Agriculture
This AI-enhanced smart irrigation system aligns with SDG 2 (Zero Hunger), SDG 6 (Clean Water and Sanitation), SDG 9 (Industry, Innovation, and Infrastructure), and SDG 12 (Responsible Consumption and Production). The system utilizes a moisture sensor to detect soil dryness, with an AI algorithm that analyzes soil moisture to optimize irrigation schedules. It features an Arduino microcontroller that controls a water pump, which activates when the soil is dry and stops when it reaches optimal moisture levels. An LCD displays soil status, and an ESP32 Wi-Fi module provides real-time notifications to users, while the AI continuously refines irrigation strategies for efficient water use and improved plant health.
GU CyberCar
Project by Dr. Mohammed Abdulrazaq Alshekhly (Associate Professor at Mechanical engineering department)
This research presents the conception, design, development and prototyping of the “GU CybcrCar,” a solar-powered electric vehicle prototype implemented at Gulf University (GU). Inspired by Tesla’s Cybertruck and driven by sustainability goals, the GU Cyber Car leverages advanced technologies such as the Internet of Things (IoT) and solar power to offer a novel approach to sustainable mobility. The vehicle’s design employs a unibody structure and exoskeleton made from stainless steel, reminiscent of the Cybertruck, ensuring robustness and safety. The body shape is optimized for aerodynamics while providing ample surfaces for solar panel integration. The car utilizes high-efficiency solar panels and a state-of-the-art energy storage system to efficiently harness and store solar energy. Moreover, the GU Cyber Car embodies the Internet of Things (IoT) technology principles for enhanced functionality and user convenience. It incorporates a network of sensors and communication modules, facilitating real-time monitoring and control of the vehicle’s system. These IoT features enhance the driving experience and contribute to energy management and overall vehicle safety.
Power Generation Using Speed Brakers For Enhanced Energy
Project by Dr. Mohammed Abdulrazaq Alshekhly (Associate Professor at Mechanical Engineering Department)
This research presents A large amount of energy is wasted by the vehicles on the speed breakers through friction, every time it passes over it. Energy can be produced by using the vehicle weight and speed. So here we propose a smart speed breaker that generates power. The reciprocating motion of the speed breaker is converted into rotary motion using the rack and pinion arrangement. We design a smart speed breaker that can pass vehicles coming from both sides and yet generate energy from it. The system makes use of mechanical assembly with metal sheets with linkages that press down with spring arrangement. The system makes use of the speed breaker press and then uses a rack and pinion arrangement to press down and run generator motor thus generating energy.
Toward Sustainable Smart Cities In Bahrain: A Groundbreaking Approach To Marine Renewable Energy Harnessing Sea Tides And Waves For A Greener Energy Future
Project by Dr. Mohammed Abdulrazaq Alshekhly (Associate Professor at Mechanical Engineering Department)
This research represents a strategic step towards enhancing environmental protection in Bahrain’s aquatic ecosystems. This project introduces a solar-powered boat equipped with a sophisticated oil skimming technology and an integrated pH sensor. The boat’s primary function is to navigate through water bodies, efficiently removing oil and pollutants while simultaneously monitoring the water’s acidity levels. This dual functionality allows for real-time environmental assessment and immediate remediation, which is crucial for maintaining water quality and supporting marine life. By utilizing solar power, the boat operates sustainably, reducing the carbon footprint associated with traditional fuel-powered vessels. This innovative approach not only addresses immediate environmental concerns but also aligns with Bahrain’s broader goals for sustainability and smart city development.
Last Updated on September 23, 2025 @ 04:00:22 pm
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