Preface
This section explores the Electrical Engineering (EE) Department’s proactive approach to addressing the United Nations Sustainable Development Goals (UN SDGs). Recognizing EE’s vital role in developing sustainable solutions, the EE department has carefully incorporated these global goals into its academic and research agendas. From the academic environment to research programs, the EE department has made excellent progress. It highlights these accomplishments, illustrating the department’s dedication to effective, long-term sustainable engineering education and research.
1 | Alignment of EE Programs with SDGs
2 | Transforming EE Labs for Energy Efficiency and Sustainability
The Electrical Engineering department is making significant improvements to energy efficiency and sustainable development following the UN SDGs. Several labs received significant upgrades to improve both their environmental effect and educational value. Notably, the EE361 lab has been completely renewed, incorporating energy-efficient systems and modern digitalized equipment, setting a new standard for sustainability in student learning environments.
In addition, new labs dedicated to Smart Grids, Renewable Energy, and Energy Protection are currently under construction. These facilities are expected to be operational by next term, offering important resources for students investigating sustainable energy solutions and smart technology applications. Through such efforts, the EE department is dedicated to achieving sustainable energy goals, boosting education quality, and promoting a forward-thinking learning environment that prepares students for growing energy and sustainability challenges.
3 | EE Senior Projects Supporting Sustainable Development Goals
Senior students in the Electrical Engineering department have taken meaningful steps toward addressing global challenges, with projects aligning strongly with multiple Sustainable Development Goals (SDGs). Reflecting the department’s commitment to impactful and innovative engineering. Here, we will briefly cover some notable examples demonstrating these efforts’ breadth across key SDGs.
3.1 | Carbon Capture Purification (CCP) and Exporting from Olefins Flue Gas
Mr. Zeyad Almubarak recently presented an impactful senior design project, ”Carbon Capture Purification (CCP) and Exporting from Olefins Flue Gas,” at the KFUPM Design Expo 2024. Collaborating across chemical, mechanical, and electrical engineering, his team developed a solution to capture and purify CO2 emissions from industrial flue gases, achieving near-zero emissions with 99.99% CO2 purity.
The project highlights include advanced electrical engineering features:
This innovative approach aims to turn industrial emissions into valuable resources, benefiting food and petrochemical sectors and paving the way for a sustainable future. For More Information, Visit Mr. Zeyad Almubarak LinkedIn Page.
3.2 | Innovative Monitoring and Rescue System for Swimming Pools
Mr. Abdullah Alyousef and his team recently showcased their project, ”Monitoring & Rescue System for Swimming Pools,” at the 10th KFUPM Design Expo. Motivated by drowning statistics in Saudi Arabia, their prototype uses computer vision to detect drowning incidents and initiates a rapid rescue with real-time notifications through a mobile app.
Key Specifications:
Their system combines above- and underwater cameras that feed data to an AI model trained to recognize potential drowning. When detected, alarms trigger on mobile devices, and an inflatable rescue mechanism is activated, surfacing the individual within seconds. For More Information, Visit Mr. Abdullah Alyousef LinkedIn Page.
3.3 | Mobile Water Desalination System Using Reverse Osmosis Powered by Solar Energy
Motivated by the fact that Saudi Arabia has a severe lack of natural water supplies, Mr. Bandar Alshammari and his team (From EE and CHEM) developed a system to desalinate brackish underground water, demonstrating their commitment to addressing the urgent issue of shortages of water through sustainability and innovation. For More Information, Visit Mr. Bandar Alshammari LinkedIn Page.
4 | Promoting Sustainable Research in EE
The EE department actively engages students in the critical fields of sustainable research through a series of informative seminars. These events are designed to raise awareness about the importance of sustainability in engineering and to showcase the various research opportunities available in this rapidly evolving area.
4.1 | Co-optimizing Distributed Energy Resources in Linear Complexity By Dr. Ahmed Alahmed
On October 16, 2024, Dr. Ahmed Alahmed delivered a seminar titled ”Co-optimizing Distributed Energy Resources in Linear Complexity.” The presentation focused on the co-optimization of distributed energy resources (DER), such as renewable generation, flexible demand, and battery energy storage systems. Dr. Alahmed introduced an energy management system that co-optimizes consumption and battery storage based on locally available stochastic renewables by solving a stochastic dynamic program aimed at maximizing the expected operational surplus.
To overcome the exponential complexity often associated with dynamic program solutions, Dr. Alahmed proposed a novel co-optimization algorithm with closed-form and linear computational complexity. This approach leverages a relaxation-projection method to simplify the constrained stochastic dynamic program. Sufficient conditions for the optimality of the proposed solution were also provided. Numerical studies showcased a significant reduction in computational costs while maintaining a minimal optimality gap, demonstrating the algorithm’s efficiency. [Click Here]
4.2 | Bio-inspired Electronics Research Area (241)
On September 24, 2024, the Bio-inspired Electronics Research Area hosted a seminar titled ”Recent Advances in Brain-Machine Interfaces,” led by Dr. Abdullah Al-Othman and Dr. Hussam Alshammari. The session provided an introduction to the field of Brain-Machine Interfaces (BMIs), with a focus on recent innovations at the intersection of technology and neuroscience. The seminar explored the latest advancements, potential applications, and challenges in BMIs, while also addressing ethical considerations and future possibilities for direct brain-device communication. The event encouraged interactive discussions with students, highlighting emerging trends and developments in this rapidly evolving field. [Click Here]
4.3 | Renewable Energy Research Area Seminar (241)
On September 3, 2024, the Renewable Energy Research Area hosted a seminar featuring an in-depth discussion on AI-based battery degradation modeling in renewable energy systems. Led by Dr. Muhammad Khalid (Research Area Coordinator) and joined by Dr. Mahmoud Kassas and Dr. Ali Al-Awami (Research Area affiliates), the seminar introduced the research area and explored how AI can enhance the management of battery degradation. The event fostered interactive discussions with students, offering a platform to examine recent advancements and emerging trends in this critical field. [Click Here]
4.4 | Bio-inspired Electronics Research Area (232)
On March 19, 2024, the Bio-inspired Electronics Research Area conducted a comprehensive seminar led by Dr. Yaqub Mahnashi, the Research Area Coordinator, along with Dr. Hussam Alshammari and Dr. Abdullah Al-Othman, both affiliates of the Research Area. The seminar aimed to introduce the research area and examine the specific research focuses and ongoing projects of the participants. It also involved interactive discussions with students, providing an opportunity to delve into relevant topics and engage in discussions regarding recent advancements within this specialized field of research. [Click Here]
4.5 | Renewable Energy Research Area Seminar (232)
On April 30, 2024, the Renewable Energy Research Area conducted a thorough discussion seminar featuring Dr. Muhammad Khalid (The Research Area Coordinator), Dr. Mahmoud Kassas, Mr. Firoz Ahmad, and Mr. Mohamed Abdulgalil (Research Area affiliates). The event not only introduced the research area but also delved into the participants’ specific research interests and ongoing projects. The session included interactive discussions with students, providing a platform to explore pertinent topics and discuss recent developments in this specialized research field. [Click Here]
5 | Advancing Sustainable and Renewable Energy: M.Eng. Program
The Master of Engineering Program in Sustainable and Renewable Energy builds on the success of KFUPM’s undergraduate education with its emphasis on research and study of advanced and specialized subjects. The general objective of the program is to prepare professionals and leaders with the skills required to address the challenges of transforming the Kingdom’s electric energy sector into a highly efficient, reliable entity. The program graduates will have acquired state-of-the-art knowledge, critical thinking, and problem-solving skills to address the technical, economic and environmental issues in the design of renewable and sustainable energy systems. Moreover, the graduates will have attained the methodical attributes to operate, control, evaluate, and manage the renewable and sustainable energy systems of the future. Hence, they will advance and lead the Kingdom’s renewable and sustainable electric energy sector into a highly efficient, reliable entity. [Program Link]
Highlight of Projects Completed (SEN 600):
Students in the M.Eng. program have successfully completed key projects aimed at advancing sustainable energy solutions. Highlights include:
5.1 | Deployment Strategies of Various PV Technologies in Different Saudi Regions to Support Carbon Neutrality Mission
Students Names: Mr. Saud Aldawish and Mr. Bandar Alsharif.
Project Description: This case study examines the energy consumption and emissions of an industrial load, with the goal of achieving carbon neutrality and reducing costs through the implementation of a solar PV plant. Rabigh has been chosen as the most optimal location among all national renewable energy programs, exhibiting significant potential for energy generation. Monocrystalline silicon (mono-Si) is preferred as a PV technology due to its cost-effectiveness for utility-scale applications. The study concluded that attaining carbon neutrality requires an ideal PV capacity of 170 MW. An investment assessment reveals a potential 3.6% average reduction in power expenses, considering the existing pricing of 48 $/MWh.
5.2 | Mathematical Software to Estimate Solar PV/CSP and Wind Potentials at Saudi Arabia
Students Names: Mr. Mansour A. Al-Hajri and Mr. Abdulhakeem A. Al-Mufadhi.
Project Description: The ”INSIGHT” software algorithm was developed to estimate renewable energy potentials, including Solar PV, CSP, and Wind, in Saudi Arabia. It uses mathematical equations based on geographical location and weather conditions. The program is divided into three parts for wind energy, solar PV energy, and CSP. A comparison with Global Solar Atlas maps showed logical and satisfactory results. The software provides additional insights into LCOE, economic payback, and CO2 emission reductions, enhancing the feasibility of renewable energy projects.
5.3 | To Design and Develop a Solar Power System for a Mining Plant in Congo
Students Names: Mr. Faisal Alshehri and Mr. Sultan Alenazi
Project Description: The project aimed to create a solar PV energy solution for a mining plant to mitigate power outages and reduce dependence on the power company. Hand calculations were conducted for area selection and load analysis, followed by PVsyst simulations for design and economic evaluation. A 51 MW PV system with a 25 MWh storage capacity was found to significantly enhance reliability, with a projected 40M USD profit over 25 years and a payback period of under 5 years. The LOLP was reduced by 97% to 0.00087.
5.4 | Black Start Capability for Cogeneration Plant
Students Names: Mr. Shabir Afzal Khan and Mr. Mohammed Al-Madan.
Project Description: This paper outlines the feasibility of using Solar PV and BESS as black start resources for a 498 MW cogeneration facility. The project explores the potential of renewable and storage solutions to restore power following a blackout, overcoming traditional technical, organizational, and commercial challenges associated with conventional black start resources like hydropower.
Highlight of Projects In Progress (SEN 600):
5.5 | Optimization of Renewable Energy for Frequency Control: Key to Achieving Saudi Arabia 2030 Vision’s Energy Mix Goal
Students Names: Mr. Faisal Almutairi and Mr. Wail Aljaaidi.
Project Description: This project aims to evaluate the impact of having 50% renewable energy penetration on the frequency stability in Saudi Arabia’s electricity grid, explores the role of renewables in frequency control, offers strategic recommendations for operational preparedness, and highlights potential frequency stability challenges for 2030.
5.6 | Hydrogen Recovery by CO2 Injection n Hydrogen-Bearing Reservoir
Students Names: Ms. Laila Mira and Rakan Abuazh.
Project Description: This study aims to inject excess CO2 into depleted reservoirs to increase pressure and produce stranded hydrogen.
5.7 | Generating Electricity Via Pressure Retarded Osmosis Using Different Saline Water
Students Names: Mr. Hussain Alshammasi and Mr. Abdullah Alabdullatif.
Project Description: This project aims to design a Pressure Retarded Osmosis (PRO) unit, assess its economic feasibility by analyzing capital and operational expenditures against energy generated, and evaluate its environmental impact by comparing emissions reductions with traditional methods.
5.8 | Deisel PV Hybrid System for Oil and Gas Rigs
Students Names: Mr. Nazir Muhammad, Mr. Salem Feras Alyami, and Akram Ragaban.
Project Description: This project aims to harness Saudi Arabia’s abundant sunlight to minimize diesel consumption, cut operational costs, and reduce the rig’s carbon footprint. With the backing of a smart EMS, this project is expected to optimize energy usage and exemplify a practical approach to balancing energy security with sustainability.
5.9 | Modelling of PV Systems for Peak Shaving at Saudi Arabia
Students Names: Mr. Ahmed Alhamam and Mr. Ibrahim Alsultan.
Project Description: This project studies the power profile at Saudi Arabia and develops a module of renewable peak power sources to enhance the power production sustainability in different aspects. In other words, this project capitalizes on the alignment between the renewable energy availability and the power peak trends in the kingdom.
5.10 | Optimized Solar Photovoltaic Systems and Battery Energy Storage for Oil Extraction Beam Pump Units
Students Names: Mr. Satishchandra Kurapati and Mr. Husain Bucheeri.
Project Description: This project aims to replace the diesel generator with alternate renewable energy of PV solar power along with energy storage. The alternate power system will be designed with optimal capacity that covers the BPUs operating cycles round clock and considering worst case of cloudy days.
6 | Empowering Innovation in Sustainable and Renewable Energy: MX Program
This multidisciplinary program equips professionals with the knowledge required to address the challenges of transforming the energy sector into a highly efficient and reliable one, focusing on two complimentary sectors that are highly prized in the job market, which are the sustainable use of conventional energy and the rapid rise of renewables.
This program covers various renewable energy technologies, including solar (photovoltaic and concentrated solar power), wind, hydrogen, geothermal, and waste-to-energy systems, as well as energy storage options such as electrical (e.g., batteries and super capacitors), fuel cells, and thermal storage. Students understand the components of renewable energy systems at and their performance and study the integration of renewable systems with storage and conventional systems. The program also covers sustainable energy systems (including energy outlook and the environment, global warming, and technoeconomic analysis). [Program Link]
Highlight of Projects Completed Last Year:
MX Projects (EE619) showed the program’s focus on real-world applications and innovative thinking, with highlights including:
6.1 | Harnessing Solar Power for Green Hydrogen Production: Establishing Kind Abdullah Seaport as Renewable Energy Production Hub
This 25-year’s life project aims to produce green hydrogen using solar photovoltaic energy at King Abdullah Seaport, targeting Saudi Arabia’s 2030 goal of 1.2 million tons per annum (MTPA). Utilizing an annual average Direct Normal Irradiation (DNI) of 2042.2 kWh/m², the project involves a 49.8 MWp PV system, three 46.3 kW desalination units, and three 10 MW Proton Exchange Membrane (PEM) electrolysis units, resulting in a Levelized Cost of Hydrogen (LCOH) of $4.52/kg and an annual production of 1,572 tons.
6.2 | Performance Assessment of Ground-Based and Floating Solar Photovoltaic Systems Using Monofacial Modules: Numerical Modeling and Experimental Validation
This study concludes that the performance of ground-mounted photovoltaic (GPV) and floating photovoltaic (FPV) systems has been effectively assessed, with simulation results closely aligning with experimental data. This suggests that the modeling techniques employed can be adapted for use in various locations by adjusting operating temperature and irradiance levels.
6.3 | Design and Feasibility Study of Wind Powered Hydrogen Refueling Station
This study evaluates the feasibility of a wind-powered hydrogen refueling station in NEOM, Saudi Arabia, designed to support 20 hydrogen vehicles daily. With a hydrogen production cost of $3.75 per kilogram, the station could significantly reduce CO2 emissions by 5,904 tons and CO emissions by 19.66 tons over its lifetime, demonstrating the environmental benefits of transitioning to hydrogen as a clean energy source.
6.4 | An Economic Analysis Using Solar Photovoltaic With Batteries System in Air Conditioning Systems
This study explores the feasibility of using a solar cell and battery system to meet the electricity demand of air conditioning systems, particularly in hot cities prone to power outages. Conducted at King Fahd University of Petroleum and Minerals in Saudi Arabia, the analysis considers both economic and environmental aspects of implementing this renewable energy solution to ensure continuous operation of essential cooling systems.
6.5 | Revolutionizing Fueling Stations: A Solar-Powered EV Charging Solutions for Fuel Stations in Saudi Arabia
This project evaluates the installation of a solar photovoltaic (PV) system at a fuel station along the Dhahran-Jubail expressway in Saudi Arabia, estimating an annual energy production of approximately 1,579,192 kWh from a 6,496 m² installation area. With a capital cost of around 3.1 million Saudi Riyals and a payback period of approximately 6.1 years, the findings suggest that the solar PV system is a feasible and sustainable energy solution for the station, promoting cleaner energy practices in the region.
6.6 | Design and Impact Analysis of 25 MW PV Farm Integration to Abu Ali Overhead Transmission Line
This project presents the design of a 25 MW solar photovoltaic (PV) farm on Abu Ali Island, analyzing its integration into the grid via a 230 kV overhead transmission line. The project, supporting a 100 MW gas plant, aims to mitigate power losses by 42%, reduce congestion by 24%, and produce an annual green energy output of 43.8 GWh, leading to a significant reduction of 57.55 million tons of CO2 emissions, thus enhancing grid reliability and sustainability.
6.7 | Unlocking Hydroelectric Potential: Assessing the Viability of Retrofitting Existing Dams in Saudi Arabia for Hydro Storage Plant
This project investigates the feasibility of converting existing dams in Saudi Arabia into pumped hydro storage (PHS) systems to enhance renewable energy integration and grid stability. It identifies the Baish Dam as the most viable candidate due to its structural advantages and water supply, highlighting the potential for retrofitting to support the country’s renewable energy goals and manage the challenges of intermittent energy sources.
6.8 | Development of Sustainable Agriculture through Greenhouse Energy System in Saudi Arabia
This project investigates the use of photovoltaic greenhouses in Saudi Arabia to address the growing food and energy demands projected by 2050. It finds that a 60% photovoltaic cover ratio optimizes energy production and cost efficiency, with a levelized cost of electricity (LCOE) of $0.69/kWh, while identifying the northwest region as the best location for implementation. This strategy supports Saudi Arabia’s Vision 2030 by promoting food security and renewable energy advancement.
6.9 | Investigation of an Integrated Blue Ammonia Production and Oxy-combustion Power Generation Plant
This study examines an integrated system for producing hydrogen and ammonia using renewable energy sources, combined with an oxy-combustion power generation cycle. By utilizing carbon capture technologies and optimizing nitrogen use from the air separation unit, the system achieves high efficiencies—49% for the oxy-combustion cycle and 24% overall—while demonstrating economic viability with a levelized cost of electricity at 11 ¢/kWh and ammonia at $0.46/kg, highlighting ammonia’s potential as a more practical and sustainable energy carrier compared to hydrogen.
6.10 | Hydropower used for Nuclear Power
This project explores the feasibility of combining hydropower and nuclear energy to provide a reliable, sustainable, and affordable power solution. It evaluates technical, environmental, and regulatory factors affecting the implementation of this hybrid energy system, highlighting the importance of site selection, turbine design, and financial viability, while demonstrating the potential for enhancing grid stability and ecological benefits.
6.11 | Techno-Economic Evaluation of 4 GW Renewable Energy Generation for Hydrogen Plant at NEOM
This report evaluates the integration of solar photovoltaic (PV) and wind energy into the 4 GW NEOM project in Saudi Arabia, using HOMER Pro software to simulate various configurations. The optimal energy distribution was found to be 65.5% solar and 34.5% wind, with significant battery storage, which aligns with Saudi Arabia’s Vision 2030 goals by reducing carbon emissions and improving economic viability. The study emphasizes the need for flexible energy management strategies to enhance cost-effectiveness and sustainability in large-scale renewable projects.
7 | Powering a Sustainable Future - Energy Efficiency Day
Overview:
On November 28, 2023, the Electrical Engineering (EE) Department, in collaboration with ABB, hosted the Energy Efficiency Day to promote sustainable practices and advanced energy solutions. This event highlighted innovative approaches to improving energy efficiency in industrial settings and underscored KFUPM’s commitment to sustainable development.
Event Details:
Description:
The Energy Efficiency Day featured a series of presentations that introduced attendees to the EE Department’s efficiency programs, aimed at reducing energy consumption across various applications. In addition to showcasing the department’s ongoing efforts, ABB representatives presented breakthrough technologies designed to optimize energy use in industrial processes. The event provided a platform for sharing insights on energy-saving strategies, current trends in efficiency solutions, and the latest advancements in technology tailored to meet sustainability goals.
The collaboration between KFUPM’s EE Department and ABB provided students, faculty, and industry professionals with valuable knowledge on improving energy efficiency, as well as practical examples of how these innovations can be implemented on a larger scale.
Outcomes:
■ Increased Awareness of Energy Efficiency: Attendees gained a deeper understanding of the importance of energy efficiency and the role it plays in sustainable industrial practices.
■ Exposure to Cutting-Edge Technologies: The event showcased advanced technologies and programs, offering practical solutions that attendees could apply in various professional contexts.
■ Strengthened Industry-Academic Collaboration: This event exemplified the partnership between academia and industry, fostering a collaborative environment for knowledge-sharing and future innovation.
The Powering a Sustainable Future - Energy Efficiency Day was a valuable opportunity for attendees to explore the intersection of engineering and sustainability, promoting the department’s mission to drive positive change in energy practices. [Click Here For More Information]
8 | EE - Community Partnership: Establishing Connections
The Electrical Engineering Department has shown a strong commitment to community engagement through a series of impactful partnership activities. Each event provided unique learning opportunities, bridging academic knowledge with real-world applications and fostering collaboration with industry and academic partners.
8.1 | Inspiring Future Engineers - School Visits to The EE Department
Overview:
In an initiative to inspire high school students and introduce them to the engineering world, The Electrical Engineering (EE) department hosted a series of visits from local high schools to the department. These visits provided students with hands-on experiences and insights into the field, sparking their interest in STEM disciplines and showcasing KFUPM’s state-of-the-art facilities. Visit Details:
1. King Fahd High School Visit
■ Date: November 1, 2023
■ Participants: 30 students
■ Description: Students from King Fahd High School were warmly welcomed by KFUPM’s EE department, where they explored advanced labs, cutting-edge projects, and had an interactive session with faculty members. The visit included a detailed presentation on the department’s academic programs and research opportunities.
2. Alawael High School Visit
■ Date: December 5, 2023
■ Participants: 30 students
■ Description: The Alawael High School students experienced a guided tour of the EE department, led by Mr. Ammar Muqbel, who introduced them to KFUPM’s research capabilities and academic offerings. A comprehensive presentation provided students with information on career paths in engineering and highlighted the innovative work being conducted within the department.
3. Al-Mithnab High School Visit
■ Date: January 23, 2024
■ Participants: 30 students
■ Description: Al-Mithnab High School students were hosted by Mr. Ammar Muqbel, who conducted an engaging tour of the EE department. Students explored various research labs and facilities and attended a presentation that offered insights into electrical engineering, the department’s programs, and research initiatives.
Outcomes:
■ Increased Interest in Engineering: The visits successfully raised awareness about engineering as a career, with many students expressing interest in pursuing further studies in engineering.
■ Enhanced Engagement with STEM: Through interactive tours, hands-on demonstrations, and detailed presentations, students were able to connect theoretical knowledge with practical applications in electrical engineering.
■ Positive Community Feedback: Teachers and students from each school provided positive feedback, appreciating the informative and welcoming experience offered by KFUPM.
These visits underscored the department’s commitment to community engagement and its role in inspiring the next generation of engineers and innovators.
8.2 | Explore Your Future - EE Concentrations Booth
Overview:
As part of an initiative to guide students in selecting their academic paths, the Electrical Engineering (EE) department organized the EE Concentrations Booth on February 12-13, 2024. This engaging booth was set up near the iconic KFUPM tower and served as an information hub for students interested in exploring specialized fields within Electrical Engineering.
Event Details:
■ Date: February 12-13, 2024
■ Location: Near the KFUPM Tower
■ Participants: 20 attendees
Description:
Mr. Safdar Raza Khan, a Lab Engineer from the EE department, hosted the booth and welcomed students from the KFUPM community. The purpose of the booth was to introduce and encourage students to consider the various EE concentrations available within the department. Students were provided with in-depth information on each concentration, including course structures, program benefits, and potential career paths.
Detailed discussions also covered job opportunities, both within Saudi Arabia and internationally, helping students visualize the professional avenues open to them with a focus on electrical engineering. This information helped students make informed decisions about their future and clarified how each concentration aligns with industry needs and career aspirations.
Outcomes:
■ Enhanced Awareness: Students gained a clear understanding of the various EE concentrations, allowing them to make informed choices aligned with their career goals.
■ Career Guidance: By highlighting job opportunities locally and internationally, the booth inspired students to envision their future careers and understand the global demand for specialized engineers.
■ Positive Engagement: The booth fostered a welcoming environment for students to ask questions, learn about the EE department, and become more engaged with their academic journey at KFUPM.
The Explore Your Future - EE Concentrations Booth provided a valuable resource for students, bridging the gap between academic offerings and career possibilities and furthering KFUPM’s mission to support and guide its student community.
8.3 | Powering Connections - GCCIA Field Trip
Overview:
On October 26, 2023, the Electrical Engineering Department organized an insightful field trip to the Gulf Cooperation Council Interconnection Authority (GCCIA) substation in Jubail. Supervised by Dr. Mahmoud Kassas, the trip offered students a unique opportunity to observe real-world applications of electrical engineering principles in the field of power and grid interconnections.
Event Details:
■ Date: October 26, 2023
■ Location: GCCIA Substation, Jubail
■ Participants: 18 attendees
Description:
During the field trip, students were introduced to the operations and infrastructure of the GCCIA, which plays a pivotal role in connecting power grids across the Gulf Cooperation Council (GCC) countries. The GCCIA team provided an in-depth tour of the substation facilities, explaining the complexities of inter-regional power distribution, grid stability, and load management. Dr. Mahmoud Kassas facilitated discussions on the technical aspects and challenges of maintaining a secure and reliable power network across multiple countries, enriching the students’ learning experience with real-life examples.
This visit offered practical exposure to high-voltage transmission systems and the operational strategies used to manage power distribution on a large scale, bridging the gap between academic learning and industry practices. Outcomes:
■ Increased Knowledge of Power Systems: Students gained practical insights into high-voltage power transmission and the significance of regional grid interconnectivity.
■ Real-World Application: Observing the GCCIA substation’s operations helped students understand how theoretical concepts are applied to manage a complex, multinational power network.
■ Strengthened Academic-Industry Ties: The field trip fostered a collaborative relationship between KFUPM and GCCIA, paving the way for future educational and research opportunities.
The Powering Connections - GCCIA Field Trip was a valuable learning experience, enhancing students’ understanding of power systems and the department’s commitment to providing hands-on learning opportunities.