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PhD Degree (09)-Fully Funded at Paul Scherrer Institute (PSI), Switzerland

Paul Scherrer Institute (PSI), Switzerland invites online Application for number of  Fully Funded PhD Degree at various Departments. We are providing a list of Fully Funded PhD Programs available at Paul Scherrer Institute (PSI), Switzerland.

Eligible candidate may Apply as soon as possible.

 

(01) PhD Degree – Fully Funded

PhD position summary/title: PhD Student in the Development of Models for Droplet Behaviour in PWRs

  • PhD research on the development of advanced closure models for droplet breakup on wet and dry spacer grids of pressurised water reactors 
  • Development, implementation, testing and validation of a mechanistic droplet breakup model for wet spacer grids 
  • Development of physics-based correlations for droplet size distributions in PWR fuel assemblies during reflood 
  • Implementation and testing of droplet behaviour models in the US-NRC’s system thermal-hydraulics code TRACE 
  • Sensitivity and uncertainty analysis of the newly implemented models 
  • Preparation of technical reports and publication of scientific results at international conferences and in peer-reviewed journals 
  • Participation in teaching activities in coordination with thesis advisor

Deadline : 30 June 2026

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(02) PhD Degree – Fully Funded

PhD position summary/title: PhD Student in Polymer Electrolytes for Solid State Batteries

You will work on a Swiss National Science Foundation project dedicated to understanding and improving ion transport in multilayer polymer electrolytes MLPEs. As a PhD student, you will be responsible for experimental development within the materials and electrochemistry work packages. 

  • Designing and synthesizing single layer and multilayer polymer electrolytes, including systems with varying polymer chemistry, salt content, and inorganic filler loading 
  • Performing electrochemical characterization to assess ionic conductivity, electrochemical stability, and interfacial impedance 
  • Preparing samples for advanced operando methods (neutron imaging, microscopy workflows) in collaboration with project partners 
  • Supporting the development of polymer electrolyte integration into porous battery electrodes for long term cycling and aging studies 
  • Analyzing experimental data, writing scientific publications, and presenting results at international conferences 
  • Collaborating within a multidisciplinary environment across PSI and international institutions

Deadline :  20 May 2026

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View All Fully Funded PhD Positions Click Here

 

(03) PhD Degree – Fully Funded

PhD position summary/title: PhD Student in fundamental muon physics

Muoniverse positions often serve as bridges between individual research groups and institutions, supported through dedicated measures. We are seeking candidates who thrive in such collaborative environments, enjoy connecting people and ideas across disciplines, and are comfortable working within networked structures. Your ability to contribute to a culture of openness and shared progress is as important as your technical expertise. 

Muoniverse is committed to promoting equal opportunities and diversity in science. It actively works towards a diverse scientific community and an inclusive work environment. 

Deadline : Open until filled

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(04) PhD Degree – Fully Funded

PhD position summary/title: PhD Student in Thin Film Condensed Matter Physics

  • Develop of a thin-film preparation chamber 
  • Study thin-film, hybrid interfaces of quantum materials 
  • Perform low-energy muon-spin spectroscopy (LE-μSR) and beta-detected NMR (β-NMR) on thin films 
  • Contribute to ongoing activities of the LEM group at PSI and the β-NMR group at CERN 
  • Participate in teaching and graduate school activities at the University of Zurich

Deadline : Open until filled

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(05) PhD Degree – Fully Funded

PhD position summary/title: PhD Student in experimental physics

In close collaboration with experts at PSI and the University of Zürich, the PhD candidate will contribute to significantly expanding the high-pressure capabilities of μSR at PSI. This effort will involve enabling measurements on substantially smaller quantum materials at much higher pressures through the use of diamond anvil cells and advanced uniaxial stress techniques. The doctoral researcher will participate in the development of new hydrostatic and uniaxial pressure cells, as well as associated experimental methodologies, with the aim of extending the accessible pressure range by at least a factor of three beyond the current records achieved at the Paul Scherrer Institute PSI. These advances will open access to previously unexplored regimes of quantum matter and allow the study of emergent phenomena under extreme conditions. 


Together with principal investigators and postdoctoral researchers, the PhD student will investigate how pressure and strain tune unconventional quantum phenomena such as superconductivity, charge order, and magnetism in a broad range of quantum materials. A key objective will be to identify common features across their phase diagrams and to clarify the mechanisms that govern their behavior. The project will be carried out in a highly international and interdisciplinary research environment at PSI, providing training in advanced experimental techniques, high-pressure instrumentation, and fundamental aspects of condensed-matter physics.

Deadline : Open until filled

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(06) PhD Degree – Fully Funded

PhD position summary/title: PhD Student for the “Hunting for rare muon observables” project

  • contribute to the implementation and validation of the frozen-spin technique for the muon EDM measurement and 
  • study the adaptation of the muEDM apparatus for EDM searches of light radioactive ions 
  • contribute to searches for new particles in muon decays within the Mu3e experiment, including axion-like particles, dark photons, and heavy neutral leptons

Deadline : Open until filled

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(07) PhD Degree – Fully Funded

PhD position summary/title: PhD Student for MiningBrines DC13: Modelling the evolution of geothermal waters during multi-resource extraction

The project “Modeling workflow development and application for fluid chemistry evolution from extraction to re-injection.” aims to advance the understanding and prediction of fluid behavior in complex geo energy systems from extraction to re-injection. A central objective is to quantify how geological, geochemical, and engineering factors jointly influence fluid composition and, ultimately, the efficiency of geothermal energy production together with extraction of critical minerals. 


To achieve this, a batch type geochemical modelling workflow will be developed using open source tools (e.g. marimo, jupyter) that allows to calculate chemical processes (e.g. precipitation/dissolution of minerals) during transport and processing of geothermal fluids with the PSI GEMS thermodynamic solver. More complex coupled reactive transport processes, for example scaling of pipes, shall be imported from separate sub-models or as surrogate models. The workflow will enable robust modeling of reactive fluids, phase behavior, and coupled process interactions upon heat extraction in combination with microbial, physical, or chemical extraction of critical materials like lithium. Once established, the workflow will be tested and refined through case studies provided by industrial partners, ensuring direct relevance to real world challenges and facilitating technology transfer. 

Machine learning–based sensitivity analysis will be incorporated to identify the parameters that most strongly influence model outcomes. This component will help quantify uncertainty, highlight key leverage points for operational decision making, and evaluate the robustness of predictions under varying operational conditions.

Deadline : Open until filled

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(08) PhD Degree – Fully Funded

PhD position summary/title: PhD Student for MiningBrines DC16: Pore-scale reactive transport modelling for utilization of geothermal reservoirs

The project “Reactive transport modeling (Hydraulic Chemical) at the pore scale and upscaling to reservoir scale” develops advanced pore scale reactive transport modeling capabilities by extending an in house lattice Boltzmann based transport solver to explicitly resolve microstructural evolution in reservoir rocks driven by mineral dissolution and precipitation. These simulations quantify how coupled flow, transport and chemistry processes cause dynamic changes in pore geometry, in transport properties, and reactive surface area under geothermal conditions. 


Building on these high resolution models, the project establishes robust upscaling strategies to transfer pore scale process understanding to geothermal reservoir scale reactive transport formulations, while preserving key mechanistic controls. 

To improve computational performance and multiphysics couplings, the work integrates AI/ML methods (e.g. neural networks, neural operators) to accelerate both pore scale simulations and the associated upscaling workflows, enabling realistic simulations, efficient parameter exploration and reduced order model generation. 

Deadline : Open until filled

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(09) PhD Degree – Fully Funded

PhD position summary/title: PhD Student on Life Cycle Assessment of Space Launches and Re-Entries

Current LCA methods are not tailored to space activities and exhibit major methodological gaps in modelling the environmental impacts of rocket and satellite launch or re-entry emissions. Time- and location-dependent Life Cycle Impact Assessment (LCIA) methods are either missing or incomplete, and a holistic framework for transparent and reproducible LCA studies in the space sector is lacking. 
You will develop a novel scientific LCA framework to quantify environmental impacts and trade-offs of rocket launches, artificial re-entries, and the broader space sector. Your main focus will be on contributions to LCIA method development in close collaboration with aerospace engineers, atmospheric and climate scientists working on atmospheric emissions related to launch and re-entry activities, as well as dynamic/prospective LCA. Additional aspects include uncertainty assessment, robustness evaluation or system design optimization. 
You will be enrolled in the ETHZ (Swiss Federal Institute of Technology) doctoral school, and receive your PhD title from ETHZ. This position is part of the Marie Sklodowska Curie Action (MSCA) Doctoral Network (DN) “SLICE” (Space Launch Impact on Climate and Environment). You will have the status as a “SERI-funded MSCA DN Grantee”. As part of the MSCA DN, you will visit the Physikalisch-Meteorologisches Observatorium in Davos (PMOD, Davos, Switzerland) and Deimos Engineering and Systems SLU (DES, Puerollano, Spain) for ca. 3 months each. You will collaborate closely with the other SLICE research projects and participate in network training and workshops.

Deadline : Open until filled

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About The Paul Scherrer Institute (PSI), Switzerland- Official Website

The Paul Scherrer Institute (PSI) is a multi-disciplinary research institute for natural and engineering sciences in Switzerland. It is located in the Canton of Aargau in the municipalities Villigen and Würenlingen on either side of the River Aare, and covers an area over 35 hectares in size. Like ETH Zurich and EPFL, PSI belongs to the ETH Domain of the Swiss Confederation. The PSI employs around 3000 people. It conducts basic and applied research in the fields of matter and materials, human health, and energy and the environment. About 37% of PSI’s research activities focus on material sciences, 24% on life sciences, 19% on general energy, 11% on nuclear energy and safety, and 9% on particle physics.

PSI develops, builds and operates large and complex research facilities and makes them available to the national and international scientific communities. In 2017, for example, more than 2,500 researchers from 60 different countries came to PSI to take advantage of the concentration of large-scale research facilities in the same location, which is unique worldwide. About 1,900 experiments are conducted each year at the approximately 40 measuring stations in these facilities.

 

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