Summary
Join us in a cutting-edge project exploring magnetism and spin currents in ultrathin materials approaching the two-dimensional (2D) limit. This exciting opportunity will allow you to investigate the physics of low-dimensional magnetic systems and their transformative potential in spintronics, a field driving the future of energy-efficient data storage and processing.
We are seeking an enthusiastic and talented PhD candidate to join our research team in a cutting-edge project exploring magnetism and spin currents in ultrathin materials approaching the two-dimensional (2D) limit. This project is an exciting opportunity to investigate the physics of low-dimensional magnetic systems and their potential applications in spintronics, a key technology driving the future of energy-efficient data processing and storage.
About the Project
As magnetic materials are reduced to atomic-scale thicknesses, their properties change dramatically. This project focuses on understanding these transformations and the interplay between magnetism and spin currents in systems nearing the 2D limit. You will combine theoretical modelling, atomistic simulations, and possibly collaborate with experimentalists to uncover new phenomena and investigate novel materials with tuneable magnetic and transport properties.
The work will involve:
• Investigating magnetic textures and their stability in 2D systems.
• Modelling spin currents and their interactions using advanced computational techniques.
• Exploring material systems such as van der Waals magnets and heterostructures.
Who Should Apply
We invite applications from highly motivated candidates with a strong background in physics or materials science. Some experience with computational methods and an understanding of solid-state physics is required. Additional training will be provided to build these skills further. Candidates should have a passion for tackling fundamental questions in condensed matter physics and applying their findings to real-world challenges.
Take this opportunity to contribute to cutting-edge research in 2D magnetism and spintronics, pushing the boundaries of energy-efficient technology.
