MENA Quantum

Title: Recent Advances in Quantum Computing and Quantum Entanglement

Abstract: Recent advancements in quantum computing and quantum entanglement have opened new avenues for research and application in various fields, including cryptography, materials science, and artificial intelligence. We explore the latest developments in quantum algorithms, error correction techniques, and the practical implementation of quantum entanglement in quantum networks. We discuss the implications of these advancements on computational power and security, highlighting notable experiments and theoretical breakthroughs. By examining the intersection of quantum mechanics and information technology, we aim to provide a comprehensive overview of the current state of quantum research and its potential future impact on both science and industry.

Title: Center of Excellence in Quantum and Intelligent Computing (QIC), Prince Sultan University

Abstract: Center of Excellence in Quantum and Intelligent Computing (QIC) at Prince Sultan University is a pioneering center dedicated to advancing the frontiers of quantum and intelligent computing. Our research focuses on developing innovative solutions in areas such as cybersecurity, education, healthcare, and 6G communications. By fostering collaboration with renowned international experts, we aim to:
• Drive Innovation: Establish a cutting-edge research environment to generate groundbreaking ideas, algorithms, and systems.
• Bridge the Gap: Integrate innovation into the research process and facilitate the commercialization of our research findings.
• Nurture Talent: Attract and develop a new generation of skilled professionals in quantum computing and AI.
• Elevate Cybersecurity: Enhance cybersecurity measures for both public and private sectors.
• Advance 6G Technologies: Explore the potential of quantum technologies to revolutionize future communication networks.

Through our research and development efforts, we strive to contribute to a safer, more efficient, and prosperous future.

Title: Optically Dense Atomic Systems for Enhanced Quantum Operations in Qubits and Qutrits

Abstract: Optically dense atomic systems offer unique advantages for applied photonic technologies and integrated quantum circuits due to their strong light-matter interactions. We highlight  the potential of such systems in enhancing the performance of photonic devices through advanced control techniques, including pulse shaping , magneto-optical rotation, atom trapping in optical lattices, Casimir forces in MEMS/NEMS, and quantum filtering. In this context, the quantum coherence arising from interference pathways in these systems is used to dynamically control polarization states, while standing waves enable atom trapping, forming a honeycomb-like quantum filter. Finally, we work on the feasibility of using optically dense atomic systems to develop more efficient and versatile components for next-generation photonic and quantum technologies.

Title: Superconducting QPUs in UAE

Abstract: After three years of establishing a lab and a small foundry for the fabrication of superconducting devices, the first multi-qubit measurements were obtained at the quantum computing lab in TII (Technology Innovation Institute). In this talk, I will report those results, highlight the encountered problems during this process, and share the perspectives of having a small-size quantum computer fabricated in the UAE. 

Title: Quantum Information Theory in Morocco

Abstract: Quantum information is one of the most exciting areas of quantum physics today. It is at the origin of considerable progress, from both theoretical and experimental points of view, to understand the quantum world. Inspired by different experiences across the world, the Moroccan Network of Quantum Information (MN-QI) was established to respond to the need to coordinate the efforts and the activities of the growing number of researchers working in the field of quantum information science in the Moroccan universities. This MN-IQ constitutes a bridge for the diffusion and exchange of ideas through the organization of schools and conferences. In this presentation, i will give an overview of the different teams and the universities involved in this network as well as the topics investiagted by its members.

Title: A new concept of a quantum computer based on quansistors

Abstract: We will present a blueprint concept of a quantum computer based on qudits.

Title: 2D materials and their van der Waals heterostructures: a wonderland for quantum physics

Abstract: A milestone in the history of Condensed Matter Physics was the discovery of graphene in 2004 by Geim and Novoselov, for which they were awarded the Nobel prize of Physics in 2010. Graphene is the first two dimensional (2D) material, consisting of a single layer of carbon atoms. This discovery has opened the gate to the emergence of the physics of 2D materials and their heterostructures.
Due to their unique physical and chemical properties, these materials offer new prospects for optoelectronics, biosensing, quantum technologies, etc. Their electronic properties can be tuned by a mechanical strain as an Origami paper, which paved the way for developing flexible straintronics applications. 2D materials offer also new degrees of freedom such as layer stacking or twisting, which provide a versatile playground for creating new "materials à la carte" with unique quantum properties.
In our group, we focus on the electronic and topological properties of graphene-like materials. Using analytical and numerical methods we show how such properties can be tuned by mechanical strains, stacking and twisting of layered materials. We also investigate the role of spin-spin interactions in 2D materials. We work on models where the recently proposed third class of magnetic order, known as altermagnetism, can be stabilized.

Title: Quantum Physics and Spintronics: Exploring Collaborative Opportunities with CQTS

Abstract: In this presentation, we explore the convergence of quantum physics and spintronics, emphasizing collaborative opportunities with the Center for Quantum and Topological System (CQTS) to advance quantum simulation, quantum machine learning, and quantum computing. Spintronics offers promising pathways for innovations in quantum technologies, particularly in simulating complex quantum systems and enhancing computational frameworks. This talk will delve into our latest research team subjects in spintronic materials and devices, examining their potential applications in quantum simulations and spin-based quantum computing architectures. We will also discuss how quantum machine learning, empowered by spintronic advancements, can accelerate material discovery and optimize quantum algorithms. By leveraging the unique capabilities and infrastructure of CQTS, this collaboration aims to address key challenges and unlock new research synergies in quantum technology, paving the way for breakthroughs in quantum information science. 

Title: Quantum logic gating with composite solitons

Abstract: We show that the functions of fundamental logic gates, including CNOT, Hadamard, and Pauli gates, are possible to simulate or achieve using composite solitons. In two-components Bose-Einstein condensates or birefringent optical fibers, which are described by two coupled nonlinear Schrödinger equations, a pair of localized excitations, referred to as composite soliton, provides a candidate for a robust qubit in the form of a coherent state that is a superposition between two eigenstates of the system. We show that such a superposition principle is valid even though the governing equations are nonlinear. Employing the unique features of composite solitons and their mutual interactions, we develop a protocol that performs the function of logic gates using a pre-designed scheme of soliton collisions and interaction with external potentials.

Title: Advancing Cold Atom Technology: From 3D Printed Innovations to a New Era of Research at NYUAD

Abstract: This presentation explores the forefront of cold atom technology through the integration of 3D-printed components in the development of portable cold atom sources. Our research focuses on optimizing the performance of these systems, which are critical for advancements in quantum technologies and precision metrology. By leveraging additive manufacturing techniques, we aim to enhance the accessibility and functionality of cold atom devices, presenting significant improvements in their design and application.

In conjunction with this research, I will introduce the progress in establishing a cold atom laboratory at NYU Abu Dhabi (NYUAD). This facility is envisioned as an important addition to the Center for Quantum and Topological Systems (CQTS), pioneering quantum research that uses atoms cooled to near absolute zero as the basis of the research. This talk will provide an overview of our current research achievements and outline the strategic objectives of the new laboratory, emphasizing its role in shaping the future landscape of cold atom research.

Title: Introducing our QuEST at Koc University

Abstract: This talk will introduce the Quantum Enabling Systems Technologies (QuEST) group at Koç University. In addition to presenting the group’s areas of interest, structure, and objectives, the talk will cover recent and ongoing projects, research highlights, and sample studies. Beyond research, the group is actively engaged in raising public awareness of quantum technologies and fostering workforce development in the field. Examples of these initiatives including conferences, schools, internship programs, as well as public and industry talks and networking events will be summarized in the talk.

Title: Quantum Microwave Connectivity without Refrigeration

Abstract: This presentation briefly introduces pioneering advancements in quantum connectivity through the integration of quantum microwave and optical systems, developed by our group at Abu Dhabi University, UAE. The innovative approaches presented target the critical challenge of enabling high-fidelity quantum signal transmission without the need for refrigeration. Our focus is on a novel graphene-based electro-optic (EO) modulator that supports microwave-to-optical conversion, demonstrating vast tunability at microvolt signals—an improvement over traditional EO materials. The proposed method outlines a graphene multilayered converter, which suppresses noise photons and enhances transmission fidelity. These techniques emphasize the development of essential hardware tools to meet the requirements of scaling and connectivity in quantum networks. These advancements have the potential to significantly advance quantum network scalability, interoperability, and efficient quantum device integration, highlighting a future with decentralized quantum computing and robust quantum sensing capabilities.

Title: Quantum Algorithms for Practical Problem Solving on Current Hardware: Research Highlights from CQTech

Abstract: CQTech is a collaborative research group dedicated to developing quantum algorithms for diverse applications, including chemistry, logistics, oil and gas, and mineral exploration, with a strong focus on real quantum hardware implementations. Our efforts encompass variational algorithms, quantum annealing, and quantum machine learning (QML). We have effectively utilized IBM and D-Wave quantum computers for research projects and gained hands-on experience with many other quantum hardware during workshops.

In this talk, we will provide an overview of CQTech's research activities, including theoretical advancements in topological quantum computing (TQC), variational quantum algorithms for molecular static simulations and lattice problems, quantum annealing for optimization tasks, and QML-based clustering algorithms applied to mineral exploration. Additionally, we will highlight our quantum programming collaboration with qBraid and share insights from our successful participation in international quantum hackathons.

* Note: This talk will be presented virtually.

Title: Exciton Dissociation by Topological Edge States

Abstract: Exciton dissociation by edge states can enhance the power conversion efficiency of solar cells. To evaluate the potential of this mechanism for carbon nanotubes as absorber material, we show that the topology of carbon nanotubes can be characterized by winding numbers related to the orbital angular momentum. The tight-binding Hamiltonian of any carbon nanotube with CN symmetry can be represented by N tight-binding Hamiltonians of decoupled molecular chains, for which a pseudospin formulation, characterized by specific paths in a two-dimensional auxiliary space, is developed. The quantum phases are given by the N winding numbers of these paths. The paths rotate in the auxiliary space when a magnetic field of varying strength is applied along the carbon nanotube, which gives rise to quantum phase transitions.

Title: Alexandria Quantum Computing Group’s Contributions to Research, Education, and Community Outreach

Abstract: Alexandria Quantum Computing Group (AleQCG) has been at the forefront of quantum computing research in Egypt since 2016. Situated in the Department of Mathematics and Computer Science at the Faculty of Science, Alexandria University, Egypt, AleQCG focuses on various aspects of quantum computing such as Quantum Algorithms, Quantum Circuit Synthesis and Optimization, Quantum Machine Learning, and Quantum Cryptography.
AleQCG has made significant contributions to integrating quantum computing into the curricula of various institutions in Egypt at the BSc, MSc, and PhD levels. Many Master’s and PhD students from Egypt and the Middle East have graduated under their guidance. Additionally, AleQCG has successfully completed many projects funded by various funding agencies.
The group has established the Center of Excellence for Quantum Computers at Alexandria University, serving both the community and researchers. AleQCG played a key role in establishing and coordinating the Professional Master’s program in Quantum Computing and Quantum Informatics offered by Alexandria University to prepare skilled graduates for the quantum computing industry sector.
Furthermore, AleQCG collaborates extensively with institutions and research groups across Egypt, the Middle East, Africa, and worldwide on many projects and initiatives. They organize workshops and participate in global events to raise public awareness about the importance of quantum computing. Notably, the group represents Egypt in initiatives such as QWorld and World Quantum Day.
AleQCG is currently coordinating the governing Steering Committee for the Arab states of the 2025 International Year of Quantum Science and Technology (IYQ2025). IYQ2025 was proclaimed in a plenary session of the 78th UN General Assembly (UNGA) on 7 June 2024, and UNESCO has been invited by the UNGA to be the lead agency for its implementation.

Title: Topological Quantum Heat Engines

Abstract: In this talk I will discuss a couple of examples of quantum heat engines that use a topological material to produce work and also their implications. The first example is related to a 2D topological insulator in perpendicular electric field. Here I would like to discuss how such an engine can be set up. In the next example, I will discuss bulk and boundary effects in the 1D Kitaev Chain in context of a quantum heat engine. Topological quantum heat engines is one aspect of the research we focus in QuantumNESS at Turkish-German University, Energy Science and Technology Department. I will also briefly introduce my research group and discuss its research directions.

Title: Quantum Artificial Intelligence and Primary Memory Innovations for Quantum Computers

Abstract: This talk delves into our current work on quantum algorithms for machine learning and quantum AI, unveiling our cutting-edge techniques developed based on quantum entanglement principles to address previously insurmountable challenges in quantum computing, quantum machine learning, and quantum AI. Additionally, this talk elucidates our breakthroughs in quantum computing, particularly in inventing primary memory solutions for quantum computers, facilitating scalable quantum machine learning and quantum AI algorithms. It explains the storage capacity and speed of our memory in storing and accessing data. Furthermore, this discussion will shed light on our research endeavors in quantum cryptocurrency systems and quantum autonomous vehicles.