PhD Position: Order-from-Disorder in Frustrated Quantum Magnets / PhD Position: Order-from-Disorder in Frustrated Quantum Magnetess

PhD Position: Order-from-Disorder in Frustrated Quantum Magnets

100%, Zurich, fixed-term

The Neutron Scattering and Magnetism Group of the Physics Department at ETH Zurich is currently seeking a PhD candidate to engage in experimental studies of frustrated quantum magnets using neutron scattering, -SR, and other advanced techniques.

The phenomenon of geometric frustration in quantum systems leads to intense competition among unique collective spin states, including topological structures, quantum spin liquids, multipolar ordered phases, and spin-supersolids. Each of these states features its own distinct elementary excitations, often without any equivalents in semi-classical physics.

Typically, the outcome of this competition is dictated by mechanisms referred to as thermal and quantum order-from-disorder. Mastering these mechanisms can unlock pathways for manipulating and investigating these exotic systems. The successful candidate will have the opportunity to implement this control experimentally in specifically selected prototypical magnetic materials.

Job Description

• The role involves the synthesis and growth of single crystal samples, along with their characterization using X-ray diffraction.
• The samples will undergo further characterization through optical spectroscopy experiments, as well as magnetothermodynamic, magnetomechanical, and magnetoacoustic measurements at milli-Kelvin temperatures and high magnetic fields, utilizing equipment available in our laboratory.
• The research will culminate in neutron scattering, ultra-high-field, and muon spin rotation studies at cutting-edge large-scale user facilities located in Switzerland, France, Germany, the UK, Japan, and the USA.
• Data analysis and modeling will be conducted in collaboration with research groups specializing in theoretical and numerical calculations.

Profile

• The ideal candidate is expected to take an active role in every phase of the project, demonstrating leadership whenever possible.
• No prior experience in neutron scattering is required; however, a solid background in laboratory work and data analysis is essential.
• Given the project's foundation in complex concepts of modern physics, a robust theoretical grounding in quantum mechanics, statistical physics, and quantum solid-state physics is crucial.
• Proficiency in computer skills is advantageous.

Workplace

The successful candidate will work within a vibrant academic community at ETH Zurich, a leading institution dedicated to scientific excellence and innovation.

We Offer

• An impactful position: Join ETH Zurich, which not only fosters your professional growth but also actively contributes to positive societal changes.
• Expect numerous benefits, such as public transport season tickets, car-sharing options, a variety of sports programs through ASVZ, childcare support, and attractive pension schemes.

We Value Diversity and Sustainability

ETH Zurich promotes an inclusive culture that values diversity and equality of opportunity. We are committed to nurturing a working and learning environment where the rights and dignity of all staff and students are respected. For more details on our commitment to diversity, visit our Equal Opportunities and Diversity website. Sustainability is also a core value for us, and we continuously strive towards achieving a climate-neutral future.

Curious? So Are We.

Apply online using the form below. Only applications matching the job profile will be considered.

About ETH Zurich

ETH Zurich is one of the world's leading universities specializing in science and technology. Renowned for its excellent education, pioneering research, and seamless transfer of new knowledge into society, our university hosts over 30,000 individuals from more than 120 countries, fostering an environment that encourages independent thinking and inspires excellence. Situated in the heart of Europe, yet forging connections worldwide, we collaborate to address the global challenges of today and tomorrow.