23 coding-"https:" "https:" "https:" "https:" "https:" "https:" "https:" "Dr" "Dr" scholarships at University of Warwick
Sort by
Refine Your Search
-
About the project: SEGregation of residual eleMENTs at austenite grain boundaries in recycled steels (SEGMENT) Supervisor: Dr Michael Auinger, University of Warwick Steel recycling is a key strategy
-
About the project: The thinnest sensors: 2D materials in liquid solution Supervisor: Dr Peter Brommer, University of Warwick Two-dimensional materials, such as graphene, could be used in molecular
-
About the project: Turning Up the Heat: Modelling and Scale-Up of Thermochemical Energy Storage Supervisor: Dr Ferran Brosa Planella, University of Warwick Heating accounts for nearly half of global
-
About the project: Seeing Magnetism in 3D: Ptychographic Electron Tomography of Nanostructured Spin Textures Supervisor: Dr Peng Wang, University of Warwick Magnetic skyrmions are tiny whirlpools
-
About the project: Extreme Space Weather: Modeling Rare Solar Storms and Their Impacts on Earth Supervisor: Dr Ravindra Desai, University of Warwick Space weather is driven by eruptions of plasma
-
About the project: Developing a Theory of the Magnetic Fingerprint of Stress in Materials Supervisor: Dr Chris Patrick, University of Warwick In the development of sustainable materials and
-
About the project: Advanced Monte Carlo methods for glassy dynamics and complex materials Supervisor: Dr Michael Faulkner, University of Warwick Glasses are materials that combine macroscopic solid
-
About the project: Multi-scale modelling of Thin Film Deposition with Flowable CVD for Next-gen Semiconductors Supervisor: Dr Bora Karasulu, University of Warwick This project, co-funded by Merck
-
About the project: Machine learning accelerated Inverse Design of Graphene Nanoribbons for Green Energy Supervisor: Dr Sara Sangtarash, University of Warwick Thermoelectric materials convert heat
-
Supervisor: Dr Ravindra Desai, University of Warwick Space weather is driven by eruptions of plasma from the Sun’s surface called coronal mass ejections. Upon arrival at Earth, these not only extend