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Research Team Explores Sailing Towards Sustainability by Decarbonizing International Shipping

By investing in low-carbon fuels and technological innovation, the maritime industry can steer towards a greener horizon

 

Uncover the future of sustainable shipping—listen now!

 

International shipping is a significant yet often overlooked contributor to global carbon dioxide (CO2) emissions. Responsible for about 1.0 gigatonnes of CO2 annually — roughly 2.8 percent of global emissions — the shipping industry faces mounting pressure to decarbonize.

 

Khalifa University’s Dr. Pedro Rochedo was part of an international team exploring how this sector can slash emissions by 2050, revealing both promising pathways and formidable challenges. The research team showed that climate mitigation strategies have the potential to reduce emissions by up to 86 percent, primarily achieved through the deployment of low-carbon fuels.

Their results were published in Nature Climate Change, a top 1% journal.

 

International shipping plays a crucial role in global trade, but its reliance on fossil fuels has significant environmental repercussions. The International Maritime Organization (IMO) set ambitious targets in 2018 to reduce greenhouse gas emissions from shipping by at least 50 percent by 2050, compared to 2008. The research team’s results align with this goal, but the IMO’s revised target of net-zero life-cycle greenhouse gas emissions by 2050 remains more ambitious still.

 

The research team used integrated assessment models, which simulate different scenarios to assess the impact of various decarbonization strategies on international shipping. Of the three scenarios developed, one projected emissions to stabilize or even rise due to increased shipping activity and limited efficiency gains, but two showed significant emission reductions, facilitated by adopting low-carbon fuels and technological advancements.

 

The study highlights several low-carbon fuels that could replace conventional fossil-based maritime fuels, including biofuels, renewable alcohols and green ammonia. These alternatives are essential for achieving deep decarbonization, but their widespread adoption requires significant investment in new ship engines and global bunkering infrastructure.

 

“Transitioning to low-carbon fuels is not without challenges,” Dr. Rochedo explains. “The long lifespan of ships and the low average age of existing vessels imply substantial technological inertia. The current fleet’s reliance on compression ignition engines makes it difficult to adopt new fuel types without extensive retrofitting, and developing a global network for low-carbon fuel distribution is complex and costly.”

 

The study’s findings offer optimism for a future with dramatically reduced greenhouse gas emissions from the international shipping sector, but to achieve the revised goals of net-zero emissions will require advancements in fuel technologies and integrating carbon capture and removal strategies. Early investment in low-carbon fuels, new motor technologies, and infrastructure will be crucial.

 

Decarbonizing international shipping is an integral part of the broader effort to combat climate change. Continuous improvement in integrated assessment models and a deeper understanding of the shipping sector’s dynamics will support effective policymaking and help navigate the maritime industry towards a more sustainable future. 

 

Jade Sterling
Science Writer

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Khalifa University Secures Patent for Innovative Hybrid Aerial and Submersible Drone

Professor Yahya Zweiri’s Patent Additionally Covers Methods for Operating Vehicle in Multiple Environments

 

A hybrid vehicle technology developed by Khalifa University professor Dr. Yahya Zweiri, Director, Advanced Research and Innovation Center (ARIC), has secured a patent for the Hybrid Unmanned Aerial and Submersible Vehicle (UASV) representing a significant advancement in multifunctional autonomous vehicles.

 

Capable of operating as an aerial drone, water surface vehicle, and an underwater submersible, this platform addresses a wide range of applications, including environmental monitoring and search and rescue operations.

 

The UASV, described in the patent ‘US 12,037,095 B2’ is capable of seamlessly transitioning between air, water, and underwater operations. A fuselage, wing structures, a propulsion system, and a tail assembly allow the vehicle to adapt to different environments.

Professor Yahya Zweiri said: “The development of this hybrid vehicle showcases Khalifa University’s commitment to pushing the boundaries of aerospace engineering and innovation. Receiving the US patent highlights the potential impact on various industries and applications and demonstrates the university’s enterprising approach to research and development.”

 

The patented UASV technology developed by Professor Zweiri at Khalifa University has far-reaching implications for fields such as environmental monitoring, search and rescue, and security applications, to monitor missions from a safe location, eliminating risks to personnel, and reducing cost.

 

A unique wing tilting mechanism, which allows the wings to rotate 360 degrees enables the vehicle to adjust its configuration for optimal performance and a smooth transition between aerial, surface, and underwater modes. The tilting wings also allow the UASV to take off and land on water or any surface without the need for a runway, providing a fast and seamless air-to-water transition.

 

The UASV also features a propeller protection system, a landing system, control surfaces, and an array of sensors to enhance its versatility and safety.

 

Alisha Roy
Science Writer
4 Sep 2024

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15 Khalifa University Faculty among Top 0.05% Worldwide in ‘Highly Ranked Scholars’ Category by ScholarGPS

29 Faculty Members Also Ranked among ‘Top 0.5% Scholars’ Worldwide in Prestigious ScholarGPS Listing 

 

Khalifa University of Science and Technology today announced 15 faculty members are included in the Highly Ranked Scholars who are ‘Top 0.05% Worldwide’, according to ScholarGPS, which recognizes top international scholars for their outstanding performance in various research areas. There are also 29 faculty members ranked among the Top 0.5% Scholars worldwide in the prestigious ScholarGPS listing. 

 

Highly Ranked Scholars™ are those authors ranked in the top 0.05% with ScholarGPS within their specialty, discipline, field or across all fields, and they have the most number of publications whose works are of profound impact (citations) and of high quality (h-index). The scholarly contributions of Highly Ranked Scholars position these eminent individuals within the top 0.05% of all scholars worldwide. 

 

This is enabled by the generation of over 30 million detailed scholar profiles based on unique ScholarGPS® classification of over 200 million scholarly publications of record. The data used to identify the ScholarGPS®. Highly Ranked Scholars™ are based on lifetime or prior five-year activity, weighting each publication and citation by the number of authors, and excluding self-citations.

 

Prof. Ahmed Al Durra, Associate Provost for Research, Khalifa University, said: “With 15 faculty in the Highly Ranked Scholars among ‘Top 0.05%’, and 29 among the Top 0.5% Scholars worldwide, Khalifa University remains top in the UAE in world-class faculty experts who lead research and innovation. This ScholarGPS ranking for Khalifa University is also in line with the UAE’s emphasis on attracting worldwide talent in STEM fields, and follows the country’s efforts to create the right environment for scientific exploration which researchers can utilize to obtain solutions to real-world challenges. We believe such faculty accomplishments bring honor not only to Khalifa University but to the UAE and the region in general, while making the UAE’s status as a country with progressive policies that facilitate research and innovation.” 

 

In the ‘Global Discipline Lifetime’ category, Khalifa University’s Industrial Engineering and Operations Research discipline is ranked #53 worldwide and Aerospace and Aeronautical Engineering is ranked #54, thus remaining among the top 100. With Chemical Engineering at #137 and Electrical and Computer Engineering at #160, Khalifa University remained among the top 200 in these disciplines. In addition, the number of total publications in five years reached 7,340 with Total Citations touching 91,528. 

 

In the Specialties category, Khalifa University remained among top 10 with #2 in Six Sigma, #3 in Distributed Generation and Deep eutectic solvent, #5 in Distillation, Glass fiber and Pulse-width modulation, #6 in Desalination and Performance management, #7 in Heat transfer enhancement, #8 in Inelastic electron tunneling spectroscopy, Palpation, and Drilling fluid, and #9 in Fractal dimension. 

 

Khalifa University also had 90 faculty members who have earned a place on the prestigious 2023 Stanford University World Ranking, which identifies the Top 2% most influential researchers worldwide, according to a study conducted by global information analytics company Elsevier and Stanford University. The Khalifa University faculty represents more than 22% of all UAE faculty totaling 407 for 2023. Earlier, in 2019, a total of 45 Khalifa University faculty were included in the prestigious listing of the world’s top 2% of scientists.

 

Clarence Michael
English Editor – Specialist
3 Sep 2024

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Eight-Member Beihang University Delegation Visits APEC Labs

An eight-member delegation from China’s Beihang University recently visited the Advanced Power and Energy Center (APEC) at Khalifa University to discuss potential research collaboration opportunities focusing on renewable energy integration, transportation electrification and advanced power electronics for various applications.

During the meeting, Dr. Mohamed El Moursi, Director, APEC, along with Associate Professors from Electrical Engineering Dr. Khalifa Al Hosani, Dr. Balanthi Beig, and Dr. Omar Al Zaabi, explored areas of mutual interest. The delegation members later toured the APEC labs.

The Beihang delegation included Dr. Zongxia Jiao, a member of the Chinese Academy of Engineering whose research focuses on electromechanical and hydraulic control. Others included Dr. Mei Yuan, Head of Department Council, Dr. Zheng Zheng, Deputy Dean for Research Affairs, Changjiang Scholar Distinguished Professors Dr. Liang Yan and Dr. Haibin Duan, as well as Associate Professors Dr. Jian Shi, Dr. Xiaoshan Gao, and Dr. Yushan Liu, whose research interests span topics like intelligent control, health management, and power electronics.

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Research Team Led by Khalifa University Faculty Identifies Essential Role of Sperm Protein in Early Embryo Development and Pregnancy for the First Time

Dr. Junaid Kashir’s Research Project Supported by Khalifa University’s Faculty Start-up Grant, Offers Scope for Infertility Challenges

 

A team of researchers led by a Khalifa University faculty has identified for the first time the essential role of a sperm protein in ensuring high embryo quality and successful pregnancy rates in humans. The study on the protein called phospholipase C zeta (PLCζ), responsible for ensuring successful fertilization in mammals, during the early stages of embryogenesis, has important implications for addressing infertility challenges. 

 

The research was published in the paper titled ‘The mammalian sperm factor phospholipase C zeta is critical for early embryo division and pregnancy in humans and mice’ in the Oxford Academic journal Human Reproduction. The research team, led by Dr. Junaid Kashir, Associate Professor, Biological Sciences, Khalifa University College of Medicine and Health Sciences, (CMHS). The project was also supported by Khalifa University’s faculty start-up grant. 

 

The researchers discovered that levels of this specific sperm protein are closely linked to the success of early embryonic development and successful pregnancy outcomes, where an optimal range of this protein was required to cause successful embryogenesis and pregnancy. Couples where the male partner’s sperm had PLCζ levels above a certain threshold were significantly more likely to achieve a successful pregnancy through fertility treatment, compared to those with lower PLCζ levels. 

 

Key institutions that were part of the research project included King Faisal Specialist Hospital and Research Centre (KFSH&RC), Saudi Arabia, and the College of Medicine, QU Health, Qatar University, 

 

Dr. Kashir said: “Our data suggests this important sperm protein could be a valuable biomarker to help guide fertility treatments and for the first time the clinical utilization of PLCζ may stand to benefit not just a specific population of male infertility but a larger population of couples seeking fertility treatment. Male patients whose sperm had levels of this protein below a threshold while leading to successful fertilization, led to poorer embryogenesis and resulted in lower pregnancy success rates. However, patients whose sperm had levels of this protein higher than this threshold led to good quality of embryogenesis and almost double the pregnancy success. This represents the first time that PLCf levels in sperm have been correlated to predictive measures of embryogenic efficacy and pregnancy rates in humans. ” 

 

A total of 54 couples were analyzed at the KFSH&RC for this study. Patient samples and data for this study were obtained from consecutive treatment cycles of couples undergoing fertility treatment in the ART laboratory at the King Faisal Hospital and Research Centre (KFSH&RC), Riyadh, Saudi Arabia. 

To further support this data, the research team generated the first genetically engineered mice via CRISPR-Cas9 gene-editing technology in Saudi Arabia at the KFSH&RC, in order to gain a broader understanding of the function of the gene responsible for producing the PLCζ protein in the body. This precise gene modification allowed the team to observe that mice lacking the PLCζ protein exhibited an increase in the rate of polyspermy, leading to early embryo development failure and consequently fewer births compared to mice with normal protein levels. 

 

Researchers emphasize that the test should be expanded to examine a multicenter group since the variables for infertility rates differ from one human group to another and that the results from the mutant mouse suggest the significant role of PLCζ in early embryo development. 

 

All procedures and experiments involving laboratory animals were approved by the Institutional Animal Care and Use Committees (IACUC) and Research Advisory Council (RAC) at the KFSH&RC. The mice were raised and maintained in the Association for Assessment and Accreditation of Laboratory Animal Care International accredited laboratory animal facility. The experimental procedures involving mice were carried out according to the Animal Research: Reporting of In Vivo Experiments (ARRIVE) and IACUC guidelines. Human patient recruitment was approved by the local research ethics committee and the office of research affairs at the KFSH&RC.

 

Clarence Michael
English Editor – Specialist
22 Aug 2024

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Khalifa University Welcomes 22 New Faculty Members for Fall 2024

A total of 22 new faculty members representing various disciplines were welcomed by Khalifa University leadership including His Excellency Professor Ebrahim Al Hajri, President, and Dr. Bayan Sharif, Provost during the Fall 2024 orientation program at the Main Campus.

 

 

Dr. Sharif introduced the deans and chairs of various academic departments and offered an overview of the undergraduate, graduate and Ph.D. programs. The faculty were also presented details on Khalifa University’s research verticals and horizontals, 12 research centers and their directors as well as other state-of-the-art facilities across the two campuses. He also offered information on the research innovation and entrepreneurship ecosystem including resources as well as the publication policy, and the R&D functions.

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16 Khalifa University Students Successfully Conclude two-month CATIC-led Industry Internship in China

Internship Program Covered Aviation History, Aircraft Design, Manufacturing and Materials, Software Operation, Case Analysis, Experiment Enterprise Visits, and Cultural Experience

 

A total of 16 Khalifa University students from five academic programs successfully concluded a two-month undergraduate industry internship at the Chinese Aeronautical Establishment with the support from the China National Aero-Technology Import and Export Corporation (CATIC). The student group included seven Aerospace, four Mechanical, three Electrical, as well as one each from Computer and Industrial and Systems Engineering programs.

 

The eight-week program held at Yangzhou city in eastern China’s Jiangsu Province, included a course on aviation history and the industry’s current developments, professional courses on aircraft design, manufacturing, control, and materials, practical teaching of software operation, case analysis, experiment enterprise visits, as well as cultural experience and sports.

 

Under the practical internship section, students focused on the basic flow of static, dynamic, fatigue testing of aircraft structure, gaining experimental skills and ability in data analysis. Moreover, they learnt about the innovative design of three-dimensional (3D) models, structure optimization, model and printing process, and quality inspection methods of aviation additive manufacturing parts. They were also able to master the basic physical models and basic operations of Fluent, and conduct numerical simulations of fluid-related problems.

 

Participants gained practical skills of using Matlab and Python programming languages to analyze data relevant to the aviation field. On their ‘Enterprise Visit’ under the internship program, students focused on new aviation materials, aviation cables, and commercial aircraft research and production. They also practiced on product innovation design, product optimization, installation verification, 3D testing, functional testing and rapid prototyping at the Yangzhou 3D Printing Innovation Application public service platform. The internship also included visits to top universities in China.

 

Dr. Toufic Mezher, Associate Dean, Undergraduate Studies, and Professor, Management Science and Engineering, Khalifa University said: “The two-month CATIC undergraduate industry internship provided Khalifa University students with an excellent avenue to gain knowledge and hands-on experience about aviation and the related sectors in general. The program also effectively helped students to enrich their cross-cultural communication capabilities while enabling them to familiarize themselves with the Chinese work and social customs. We believe such industry internships not only bring better understanding of different cultures, but facilitate sharing of knowledge and experience that helps in personal and professional development.”

 

Clarence Michael
English Editor – Specialist
21 Aug 2024

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Less Data, More Knowledge: The Power of Semantic Networks

Moving beyond the limitations of traditional models and embracing semantic communication promises to be profoundly transformative for wireless communication networks

 

The landscape of wireless communication is set to shift as future wireless systems must cater to the complex and stringent requirements of emerging applications, such as the metaverse, holographic teleportation, digital twins, and Industry 5.0. Traditional data-heavy models are giving way to intelligent, knowledge-driven systems and at the forefront of this transformation is the concept of semantic communication networks.

 

Semantic communication is a system where the focus shifts from merely transmitting data to conveying meaning. Traditional communication systems treat all data equally, transmitting it bit by bit without understanding its content. Semantic communication, however, involves networks that can understand and process the meaning of the data they handle, making them vastly more efficient and intelligent.

 

Khalifa University’s Prof. Merouane Debbah developed a groundbreaking approach to semantic communication networks with researchers from Virginia Tech, Princeton University and Kyung Hee University, South Korea. They published their work in IEEE Communications Surveys and Tutorials, a top 1% journal.  

 

Traditionally, wireless networks have been data-driven, heavily relying on discrete data elements like spectrum data and quality-of-service values to optimize performance. This method ties the network’s capabilities closely to the availability and quality of data. In contrast, the proposed knowledge-driven networks leverage machine learning to create a reasoning system that can draw logical conclusions based on accumulated knowledge. This shift allows networks to achieve high rates, low latency, and high reliability with less data, marking a significant step forward in meeting the complex demands of future applications such as the metaverse.

 

A key aspect of this approach is the creation of semantic representations: minimal yet efficient data structures that faithfully capture the essence of the information being communicated. These representations form the basis of a “semantic language,” distinct from natural language, designed to be both generalizable and efficient. In this model, transmitters (referred to as teachers) and receivers (referred to as apprentices) interact more intelligently. The teacher identifies and transmits semantic content, which the apprentice can understand and logically process, mimicking human learning and reasoning.

 

Reasoning-driven semantic networks can understand causal relationships within data streams. This allows the network to make more informed decisions and enhances its adaptability to new situations. Plus, by integrating semantic communication principles into large-scale environments, such as 6G cellular networks, it can be scaled up to meet the increasing demands of emerging technologies more effectively, ensuring robust and reliable performance.

 

This research lays the groundwork for the next generation of wireless communication systems. By transitioning from data-driven to knowledge-driven models, integrating advanced machine learning techniques, and focusing on the meaningful transmission of information, semantic communication networks promise to revolutionize how we think about and implement wireless communication.

Jade Sterling
Science Writer
20 Aug 2024

 

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Khalifa University Student Joins UK Tokamak Energy’s Team of Engineers Designing First Fusion Energy Pilot Plant

Student Will Gain Practical Skills in Managing Fusion Fuels through Two-Month Internship at Oxfordshire, and Participate in Cutting-Edge Research in Clean Energy

 

Khalifa University of Science and Technology and leading UK-based global commercial fusion energy company Tokamak Energy, today announced the first UAE National student has joined a team of engineers designing the first fusion energy pilot plant at Oxfordshire, under an internship program. 

 

Jassem Alhammadi, a Khalifa University senior student in the bachelor’s program in Chemical Engineering with a minor in Nuclear Engineering, has become the first Emirati intern to join the Tokamak Energy team and will spend two months in Oxfordshire, UK, learning about the company’s mission to deliver clean, secure and affordable energy. The internship program follows a successful three-day ‘Focus on Fusion’ event and exhibition that was organized in September 2023 at Khalifa University’s Main Campus for stakeholders in the world of fusion and the energy sector. A Tokamak Energy team of leading scientists and engineers offered a series of lectures covering different approaches to delivering commercial fusion, the physics of fusion and how new generation high temperature superconducting magnet technology has accelerated progress. 

 

Alhammadi was selected for this internship as part of an ongoing partnership between Tokamak Energy and Khalifa University, designed to educate the next generation of engineers in fusion energy. He will gain practical skills in managing fusion fuels, and play an important role in the cutting-edge research in clean energy. 

 

Jacqui Dalziel, Tokamak Energy’s Head of Talent, said, “Our ‘Focus on Fusion’ event and exhibition at Khalifa University helped raise awareness of fusion within the UAE and the region, and highlighted the many benefits of this ultimate source of clean, secure and affordable power, which is set to transform the global energy landscape. As part of our continuing collaboration, we are now delighted to welcome Jassem Alhammadi to the UK for this exciting opportunity to work with our team, supporting a key part of our first fusion pilot plant.” 

 

Dr. Saeed Al Ameri, Director, Emirates Nuclear Technology Center (ENTC), Khalifa University, and Assistant Professor, Mechanical and Nuclear Engineering, said: “This internship is a testament to the growing collaboration between Khalifa University and Tokamak Energy, reflecting our shared commitment to advancing fusion technology. We are incredibly proud of Jassem’s achievement and confident that his experience in the UK will not only deepen his understanding of fusion processes but also inspire other Emirati students to pursue careers in this transformative field. This partnership highlights our dedication to fostering innovation and sustainability, crucial for the UAE energy sector’s future.”

 

Jassem said: “I am so excited to be at Tokamak Energy, and I am keen to gain work experience and deepen my understanding of fusion processes, while contributing to sustainable energy solutions. This internship allows me to apply my academic knowledge, gain practical skills.”

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Frost on Mars Discovered Offering Insights to Martian Water Cycle

New research offers glimpse into the dynamic environmental processes and water cycle on Mars as morning frost is discovered on Martian volcanoes

 

Recent research from an international team of researchers, including Khalifa University’s Dr. Mohamed Ramy El-Maarry, provides new insights into the Martian water cycle. High-resolution images from the European Space Agency’s Trace Gas Orbiter have revealed morning frost deposits on the calderas of the Tharsis volcanic region, offering significant implications for our understanding of Mars’ water cycle and the planet’s potential for supporting future human exploration.

 

The team’s findings were published in Nature Geoscience, a top 1% journal.

 

The Tharsis region is home to some of the largest volcanoes in the solar system. Observations from the Colour and Stereo Surface Imaging System (CaSSIS) on the orbiter revealed bluish frost deposits on the caldera floors and rims that form during the cold Martian mornings but disappear by afternoon. The frost primarily occurs during the colder Martian seasons.

 

Spectral data and images from the Mars Express orbiter confirmed these observations and climate model simulations indicate that the surface temperatures are low enough to support the formation of water frost, rather than carbon dioxide frost. This suggests that the frost is atmospheric in origin, rather than volcanic, an important distinction given the location of the frost deposits.

 

The team’s research points to the role of microclimates in local frost formation and their contribution to Mars’ broader water cycle. The presence of transient morning frost in this region implies an active exchange of water between the Martian surface and atmosphere. The discovery enhances our understanding of Mars’ current hydrological processes and the potential for future human missions to use local water sources.

 

Water is a crucial resource for any potential human presence on Mars, and the discovery of these transient frost deposits provides a hint that water, even in small quantities, is still actively cycling on the planet.

 

Further studies are now required to understand the detailed mechanisms of frost formation and its seasonal variability. As we continue to explore Mars with more sophisticated instruments and missions, each discovery brings us closer to unraveling the mysteries of the Red Planet and preparing for the possibility of human exploration.  

 

Jade Sterling
Science Writer
16 Aug 2024

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Khalifa University Launches Innovative Bachelor of Science Program in Robotics and Artificial Intelligence

Program Equips Students with Technological Innovation to Participate in Projects and Create Prototypes for Various Applications

 

Khalifa University of Science and Technology today announced a new full-time Bachelor’s academic program in Robotics and Artificial Intelligence (AI) to equip students with the knowledge and skills for technological advancement and innovation in those fields. 

 

The interdisciplinary program features a comprehensive curriculum that blends theoretical knowledge with practical experience in robotics, artificial intelligence, computer, electronic and mechanical engineering, and mathematics, preparing graduates of the program for a wide range of careers in a rapidly growing field. 

 

Students are exposed to the latest advancements in robotics and AI technology, enabling them to explore emerging professional trends such as autonomous vehicles and drones, and develop systems that improve human-robots interaction. Healthcare robotics for surgical assistance, rehabilitation, and elderly care are exciting fields that are continuing to expand. Students will also be involved in projects that create robotic and AI prototypes for various applications including manufacturing and exploration of hazardous environments. Aspects of sustainability, innovation, and entrepreneurship are embedded throughout the program.

 

Dr. Bayan Sharif, Provost, Khalifa University, said: “We are delighted to launch the new academic program, which will empower students with the knowledge and necessary skills to tackle global challenges and develop innovative solutions in robotics and intelligent systems. Our state-of-the-art Robotics and Artificial Intelligence teaching and research laboratories provide students with experiential learning. Guided by a world-class faculty, graduates of the program will be instrumental in contributing to the UAE’s knowledge-based economy and leading the way in technological advancements.”

 

In addition to the design and development of robotic systems for various applications, the Bachelor of Science program includes AI algorithms and machine learning for cognition, data analysis, and automation. It also covers foundational courses in mathematics and computer science, computer, electronic and mechanical engineering, and AI ethics. 

 

The programs leverage Khalifa University’s state-of-the-art facilities, including dedicated robotics laboratories equipped with the latest hardware and software. Students will gain hands-on experience in the Robot Navigation and Control Lab, Robot Sensing and Perception Lab, and Robot Systems Lab, each spanning approximately 100 square meters and featuring motion tracking systems, and various robot platforms.

 

These labs are further complemented by the Computing Labs and the Khalifa University Center for Autonomous Robotic Systems (KUCARS) research labs, including the Aerial Robotics Lab, Marine Robotics Pool, Grasping and Manipulation Lab, Autonomous Car Lab, UGV Robotics Lab, Industrial Robotics Labs, and Computer Vision Lab.

 

Learn more about the program here.

 

Alisha Roy
Science Writer
13 Aug 2024