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- Introduction
- Author Kit
- Submissions
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- Welcome
- Why GC-ElecEng 2026?
- Dates
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Welcome to GC-ElecEng 2026 |
Welcome to the
2026 Global Congress on Electrical Engineering (GC-ElecEng 2026). This event is intended to represent a major forum for researchers, professionals and students from all over the world to meet in the beautiful and culturally rich city of Irbid in Jordan to present their latest research results and to exchange new ideas and practical experiences.
ScopeGC-ElecEng 2026 main scope includes, but is not limited to the following areas: Sensors, Sensor Networks, and Applications; Mechatronics Engineering and Applications; Biomedical Engineering and Applications; Robotics Engineering and Applications; Smart Electrical Systems and Technologies; Nano Engineering and Applications; Artificial Intelligence in Electrical Engineering; Electrical Power Systems; Electrical Machines and Drives; Applied Power Electronics; Planning, Operation and Control of Power Systems; Power Systems Computing and Informatics; Power Generation, Transmission and Distribution; Power Systems Management and Economics; Energy and Environmental Protection; Energy Economics, Policies and Markets; Smart Energy Systems; Energy System Security; Renewable Energy Systems; Energy and Climate Change; Software Engineering and Applications; Mobile Computing and Applications; Automatic Control Systems; Automation Science and Engineering; Control System Technologies and Applications; Adaptive Control Systems; Communication Network Theory; Communication System Theory; Electromagnetics, Microwaves, Antennas and Propagation; Spread Spectrum Communications; Information Theory and Coding; Optical Communication Systems and Networks; Wireless Communication Systems and Networks; Communication Circuits and Sub-Systems; Consumer Communications and Electronics; Communications Software and Services; Satellite Communication Systems; Vehicular Communication Systems; Communication System Security and Privacy; Underwater Communication Systems; Signal Processing for Communications; Simulation of Communication Systems; UAV Communication Systems; Quantum Communication Systems; Power Line Communications; Signal Processing Theory; Statistical Signal Processing; Digital Speech and Audio Processing; Digital Image Processing; Digital Video Processing; Multimedia Signal Processing; Neural Networks and Applications; Machine Learning for Signal Processing; Information Forensics and Security; Multi-channel Signal Processing; Nano-Photonic Systems and Technologies; Photonics Applications and Technologies; Photonics, Electronics and Communications; Bio-Photonic Systems and Technologies; Instrumentation, Sensing and Measurements; Remote and Virtual Instrumentation; Solid State Electronics; Electronic Circuits and Devices; Industrial Electronics and Applications; Analog Circuit Design; Very Large Scale Integrated Circuits; GC-ElecEng 2026 is planned to feature special sessions, keynote talks and tutorial sessions by leading experts, paper presentations, poster shows, demo shows, discussion panels, as well as other interesting technical activities.
JordanComing to Jordan represents a unique opportunity to witness the embrace of history and future. As small in area as it is, Jordan has a rich history spanning thousands of years, a history that a tourist can only admire. Places like Petra and the Dead Sea are only examples of the many one-of-a-kind places to visit in Jordan. On top of all that, Jordan, as a peaceful country in a turbulent area, enjoys extreme levels of safety and security. Jordanian people are internationally known for generosity, hospitality and cultural awareness and tolerance. |
GC-ElecEng 2026 Conferences |
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Why Take Part in GC-ElecEng 2026? |
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GC-ElecEng 2026 is Technically Co-Sponsored by CRC Press/Balkema - Taylor & Francis Group.
Proceedings will be published by CRC Press/Balkema and will be submitted for Scopus indexing. |
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Enjoy attending GC-ElecEng 2026 at Seven Days Hotel, in Irbid, Jordan. |
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Enjoy moderate registration fees, and register up to two papers for the same registration fee. Students receive substantial registration discounts. |
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Have the possiblity to extend and publish your conference papers with some of the top journal publishers. |
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Only full paper submissions are allowed at all our conferences. No summary or abstract submissions are allowed. Conference topic coverage includes the most current and exciting fields of knowledge and research. |
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Papers can be accepted to our conferences only after rigorous peer reviewing. |
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Our outstanding reviewing process is facilitated by careful selection of technical program committee members from among the best international experts. Each submitted paper is subject to no less than two peer reviews before it can be considered for acceptance. |
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Published papers of GC-ElecEng 2026 are indexed by Google Scholar. More indexing is on the way. |
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At each conference, and based on paper review scores, the paper with the highest scores receives the Best Paper Award. This is an award to which only presented papers are eligible. The best paper award is usually delivered to the presenter of the winning paper at the main conference dinner. |
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GC-ElecEng 2026 Dates |
| GC-ElecEng 2026 Days |
Friday - Sunday: 14-16 August 2026 (Hybrid Mode) |
| Full Paper Submission Deadline |
Saturday, 6 June 2026 |
| Author Notifications |
Saturday, 20 June 2026 |
| Final Paper Submissions Deadline |
Tuesday, 30 June 2026 |
| Registration Deadline |
Tuesday, 30 June 2026 |
| Registration Cancellation Deadline |
Monday, 6 July 2026 |
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GC-ElecEng 2026 Author Kit |
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GC-ElecEng 2026 Submissions |
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- Keynote Talks
- Tutorial Sessions
- 39.Key-67
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GC-ElecEng 2026 Keynote Talks |
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GC-ElecEng 2026 Tutorial Sessions |
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Future of Wind Energy: Airborne Wind Turbines |
Summary | | Typically, wind speed increases with altitude, which presents a trade-off between the higher energy production and the costs of constructing taller towers. The diurnal pattern of low winds at night shifts at heights of 40–50 meters, leading to more consistent winds and greater energy capture, often known as a low-level jet. In regions like the Great Plains of the USA, the high wind speeds of the jet stream are accessible without reaching altitudes of 10 kilometers. Low-level jets are also found in tropical regions and over bodies of water.
Most large commercial wind turbines currently have towers ranging from 60 to over 100 meters. For example, in 2017, Max Bögl Wind AG installed 3.4 MW wind turbines on 178-meter towers in Germany, innovatively using the tower's base as a storage tank within a pumped hydro system.
Around fifty companies and research institutes are investigating airborne wind energy systems (AWES), which capitalize on the stronger, more consistent winds at higher altitudes, with reduced structural requirements and no need for a tower. These systems, operating at heights of 50 to 1,000 meters, may include kites, balloons, or drone-like systems with turbines and generators positioned aloft, transmitting power through tethers, or with ground-based generators. Kites or wings typically navigate crosswind in loops or figure-eight patterns and can be either soft or rigid. Some AWES incorporate drone technology, employing small propellers for flight control and vertical takeoff and landing, in addition to wing technology. Autonomous control systems, which require robust software, are essential for these technologies. This field has experienced significant growth since 2005, with many companies now displaying informative videos online.
In ground-based generator models, the ascending segment of the flight loop generates power due to the absence of rotors. Small rotors might be utilized for takeoff and landing, even with a ground-based generator. Alternatively, a concept involves a ground rail track where a kite draws a wagon, also termed a cart or bogie, with a generator linked to its wheels, serving as a lift translator. Professor Wubbo Ockels of Delft University of Technology envisioned the LadderMill, resembling wings on a ladder akin to a vast clothesline, which is essentially a lift translator with its top end upheld by a sail or balloon. In this design, wings are aligned for optimal lift on one side, while on the opposite side; they are positioned to bear their own weight. This idea developed into the LadderMill project at Delft University of Technology. Interestingly, a sailboat operates as a lift translator too, moving swifter than the wind when sailing across it and slower when sailing downwind, functioning as a drag apparatus.
Here is a summary of the different types of airborne wind turbines:
1. Ground-Gen Systems: In Ground-Gen systems, the conversion of mechanical energy into electrical energy takes place on the ground. These systems typically involve a ground station connected to the airborne component via tethers. Examples of Ground-Gen systems include setups where the ground stations are fixed on the periphery of a rotor of a vertical axis generator, or on trolleys that move along closed or open loop rails.
2. Fly-Gen Systems: Fly-Gen systems involve the conversion of mechanical energy into electrical energy on the airborne component itself. These systems typically feature a flying device (such as a kite or aircraft) that generates electricity while in motion. Fly-Gen systems are characterized by the energy generation phase during crosswind flight and the recovery phase to minimize energy consumption during retrieval.
3. Semi-Rigid Wings: Some AWES prototypes utilize semi-rigid wings that are aerodynamically designed to capture wind energy at high altitudes. These wings are tethered to the ground and can generate electricity through their motion in the wind.
4. Special Design Kites: Another type of AWES involves special design kites that are flown at high altitudes to capture wind energy. These kites are connected to a ground station via tethers and can generate electricity as they move through the air.
5. Aircraft-Based Systems: Certain AWES concepts involve the use of aircraft as the airborne component to capture wind energy. These systems may employ drones or other types of aircraft equipped with energy generation mechanisms to convert wind power into electrical energy.
6. These various types of airborne wind turbines demonstrate the diversity and innovation in AWES technology, each offering unique advantages and challenges in harnessing high-altitude winds for renewable energy generation.
The determination of the best type of airborne wind generator depends on various factors such as efficiency, reliability, scalability, cost-effectiveness, and environmental impact. Each type of airborne wind generator has its own set of advantages and challenges. Here are some considerations for selecting the best type of airborne wind generator:
1. Efficiency: The best airborne wind generator should be able to efficiently convert wind energy into electrical power. Systems that can capture and utilize wind energy effectively, with minimal energy losses, are considered more efficient.
2. Reliability: Reliability is crucial for continuous power generation. The best airborne wind generator should be reliable in various weather conditions and operational scenarios to ensure consistent energy production.
3. Scalability: Scalability is important for adapting the airborne wind generator to different power requirements and locations. Systems that can be easily scaled up or down based on energy needs are advantageous.
4. Cost-effectiveness: The cost of installation, operation, and maintenance is a significant factor in determining the best airborne wind generator. Systems that offer a good balance between cost and performance are preferred.
5. Environmental Impact: Minimizing environmental impact is essential for sustainable energy generation. The best airborne wind generator should have low environmental footprint and be eco-friendly in its operation.
6. Technological Innovation: Innovative features and advancements in airborne wind generator technology can enhance performance and efficiency. Systems that incorporate cutting-edge technologies may offer superior benefits.
7. Operational Flexibility: The ability to adapt to changing wind conditions and operational requirements is important. Airborne wind generators that can adjust their operation to optimize energy production are desirable.
8. Ultimately, the best type of airborne wind generator will depend on the specific needs and priorities of the project or application. It is essential to evaluate each type of generator based on these factors to determine the most suitable option for a particular use case.
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Speaker |
Prof. Salih Akour, University of Jordan, Amman, Jordan | Prof. Salih N Akour is a Professor of Mechanical Engineering Systems, at the Mechanical Engineering Department in The University of Jordan since November 2018, Associate Professor at the University of Jordan for September 2015-to November 2018. Associate Professor at Sustainable and Renewable Energy Engineering Department at University of Sharjah from September 2011 to 2015, at Sultan Qaboos University (SQU) in Oman from 2008 to 2011 and as an Assistant and Associate professor at the University of Jordan in Jordan from 2000 to 2006 and 2006-2008 respectively. Prof. Akour is a member of Phi Kappa Phi Honor Society, Golden Key Honor Society, honorary member of International Distinguished Scholar, International Association of Engineers (IAENG) and Jordan Engineering Association. Also, he is a former member of ASME (American Society of Mechanical Engineers) and SME (Society of Manufacturing Engineers). Prof. Akour granted in 2014 the “Asian Education Leadership Award” as Best Professor in Sustainable & Renewable Energy Engineering. Recently Prof. Akour is recognized by the Strategic Foresight Group as one the World Renowned Scholars and Thought Leaders in Renewable Energy. He is editorial boards member of International Journal of Aeronautics and Aerospace, and Acta Science Agriculture. He is member of organizing Committees of international conferences: World Congress on Automobile, Mechanical and Industrial Engineering 2019 @ Germany, 2nd World Congress on Global Warming & Climate Change @ Kuala Lumpur, Malaysia, World Conference on Applied Science, Engineering and Technology 2019 @ Canada, and World Conference on Applied Science, Engineering and Technology 2019 @ Jakarta, Indonesia. Also participating in the organizing committees of many local conferences.
He received his Ph.D. with honor in Mechanical Systems from University of Central Florida (UCF), USA in 2000. Prof. Akour's current fields of research include Design optimization, Computer Aided Design/Computer Aided Manufacturing/Finite Element Analysis, Rapid Prototyping, Rapid Manufacturing and Reverse Engineering, 3-D Biomedical Modeling, Structural Dynamics, and Composite Materials and Structures Technology. He has published many publications in International Journal conference papers as well as patents. He graduated 3 Ph.D. Students and Many MSc students. During his career life as faculty he has established and participated in establishing new B.Sc. Engineering programs as well as engineering laboratories. Prof. Akour serves on a number of national professional committees. Prof. Akour is a reviewer of a number of international technical journals. He served as Consultant to many national industries: in Oman e.g. The Research Council (TRC)/ Industrial Innovation Center, in Jordan e.g., Seabird Aviation Jordan, Jordan Aerospace Industries, PREFAB (Prefabricated Buildings, Jordan), Also to some international industries in US through UCF; e.g., Lockheed Martin Missiles and Fire Control, US Filters, Siemens Westinghouse Power Corporation /Florida.
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