Are you holding Master’s degree and looking for fully funded PhD positions? University of Bayreuth, Germany invites online application for multiple funded PhD Programs / fully funded PhD positions in various research areas.
Candidates interested in fully funded PhD positions can check the details and may apply as soon as possible. Interested and eligible applicants may submit their online application for PhD programs via the University’s Online Application Portal.
1. Fully Funded PhD Position in in-situ X-ray scattering of confined hybrid perovskites
Summary of PhD Program:
In project B03 we investigate ion transport in hybrid lead halide perovskites which are confined in mesoporous matrices. We aim to analyse the interplay between confinement and associated interfaces in the composite system to separate ion and electron transport and reach stable hybrid perovskites. We use external electric fields to trigger and direct ion and electron transport in the materials and apply in-situ NMR and diffraction methods to yield structural and dynamical insights on the transport pathways and kinetics.
Application Deadline: 7 September 2023
2. Fully Funded PhD Position in nanostructured materials
Summary of PhD Program:
In project C02 we aim to develop a fundamental understanding of anisotropic heat- and electron transport in nanostructured materials based on 2D transition metal dichalcogenides (TMDs) by combining experiment and theory. We aim to study the interactions of TMD nanosheets confined in organic matrices such as polymers or larger molecules to gain control over the direction of the heat flow and achieve efficient heat dissipation or insulation. A feedback loop between experiment and theory and close cooperation with our partners performing thermal transport measurements will guide our project to achieve this goal.
Application Deadline: 7 September 2023
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3. Fully Funded PhD Position in in-situ X-ray scattering of confined hybrid perovskites
Summary of PhD Program:
In project B03 we investigate ion transport in hybrid lead halide perovskites which are confined in mesoporous matrices. We aim to analyse the interplay between confinement and associated interfaces in the composite system to separate ion and electron transport and reach stable hybrid perovskites. We use external electric fields to trigger and direct ion and electron transport in the materials and apply in-situ NMR and diffraction methods to yield structural and dynamical insights on the transport pathways and kinetics.
Application Deadline: 7 September 2023
4. Fully Funded PhD Position in optical spectroscopy of halide perovskites
Summary of PhD Program:
Halide perovskites have emerged in the last decade as a new class of semiconductor materials that enable the fabrication of high-efficiency solar cells. Their performance depends strongly on controlling electronic and ionic currents. In project B04, we prepare nanostructured perovskite films for solar applications by the powder aerosol deposition method in collaboration with the engineering department. This spray coating technique enabled us recently to demonstrate a pioneering solar cell preparation approach. We now study the flow of electrons and ions using optical spectroscopy and electrical measurement. Our aim is to understand and control these currents to realize more efficient solar cells.
Application Deadline: 7 September 2023
5. Fully Funded PhD Position in Ultrafast Spectroscopy of electronic transport in 2D materials
Summary of PhD Program:
In project B05 we investigate electronic transport and carrier dynamics in 2D-confined materials, i.e. hybrid 2D perovskites, using ultrafast optical and Terahertz spectroscopy. We will study carrier dynamics and implement new experimental access to microscopic properties, particular employing advanced near-field techniques. We aim to elucidate the interplay between the constituents and their nanostructure to gain fundamental insights and to optimize transport properties for optoelectronic applications.
Application Deadline: 7 September 2023
6. Fully Funded PhD Position in thermal transport characterization
Summary of PhD Program:
In project C01 we investigate thermal transport in highly defined hybrid nanostructures based on clay and polymers. We aim to elucidate the interplay between the constituents and their nanostructure to reach efficient heat dissipation, insulation, and control over the direction of the heat flow. We will address this challenge across multiple length scales. Besides synthetic advancements we will also push the boundaries of heat transport characterization on small length scales.
Application Deadline: 7 September 2023
7. Fully Funded PhD Position in catalyst synthesis and characterization
Summary of PhD Program:
In project A02 we design next generation high temperature fuel cells by linking catalyst design with fuel cell processing. The key is understanding multiple transport such as protons, electrons, water, and phosphoric acid transport to have a rational tool of linking catalyst synthesis and fuel cell performance in hand. The project is highly interdisciplinary and we work together with physicists and engineers.
Application Deadline: 7 September 2023
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8. Fully Funded PhD Position in NMR spectroscopy
Summary of PhD Program:
In project B03 we investigate ion transport in hybrid lead halide perovskites which are confined in mesoporous matrices. We aim to analyse the interplay between confinement and associated interfaces in the composite system to separate ion and electron transport and reach stable hybrid perovskites. We use external electric fields to trigger and direct ion and electron transport in the materials and apply in-situ NMR and diffraction methods to yield structural and dynamical insights on the transport pathways and kinetics.
Application Deadline: 7 September 2023
9. Fully Funded PhD Position in optical spectroscopy
Summary of PhD Program:
Halide perovskites have emerged in the last decade as a new class of semiconductor materials that enable the fabrication of high-efficiency solar cells. Their performance depends strongly on controlling electronic and ionic currents. In project B04, we prepare nanostructured perovskite films for solar applications by the powder aerosol deposition method in collaboration with the engineering department. This spray coating technique enabled us recently to demonstrate a pioneering solar cell preparation approach. We now study the flow of electrons and ions using optical spectroscopy and electrical measurement. Our aim is to understand and control these currents to realize more efficient solar cells.
Application Deadline: 7 September 2023
10. Fully Funded PhD Position in electron and thermal transport characterization
Summary of PhD Program:
In project C04, we investigate electron and thermal transport through thermoplastic polymers. To induce said conductivity in this otherwise insulating material class, we deliberately locate conductivity promoting nano particles at the phase boundaries of a phase-separated thermoplastic blend. The main task within subproject C04 is to alter the spatial orientation and distance of said filler elements by applying external loads, both mechanical and thermal. Working on the very edge of percolating threshold, we aim to exploit differences in material characteristics such as thermal expansion and Young’s modulus to both break and amplify conductive pathways, respectively. This opens the door to novel approaches to sensor applications and trigger-mechanisms for smart materials.
Application Deadline: 7 September 2023
11. Fully Funded PhD Position in battery electrode materials
Summary of PhD Program:
In project B01 we investigate the correlations between the movement of electrons and ions in cathode active materials for Li-ion batteries. The aim is to set up a combined experimental and computational approach, in collaboration with the chair of Physics VII (Prof. Harald Oberhofer). The open position however deals with the experimental aspects of the project. In particular, after the synthesis of positive electrode materials, we will clarify the influence of defects (point defects, interfaces and grain boundaries) on carrier movements, and we will explicitly verify the influence of different levels of confinement (through channels’ dimensionality and finite sized grains) on the linked electron and ion movements. Finally, we will design materials with composition and morphology aiming at optimized transport properties.
Application Deadline: 7 September 2023
12. Fully Funded PhD Position in Porous Electrodes Structures in HT-PEMFCs
Summary of PhD Program:
In project A02 the Chair of Electrochemical Process Engineering is developing porous electrodes for application in high-temperature polymer electrolyte membrane fuel cells together with partners from inorganic chemistry. The wetting of the electrode by the phosphoric acid results in the formation of the so-called three-phase boundary, which effectively links several transport phenomena that however still need to be better understood. Within the framework of the project, the local dynamics of the charge carriers in different electrode structures are to be characterised and correlated with the electrocatalytic performance.
Application Deadline: 7 September 2023
13. Fully Funded PhD Position in nanoscale characterization
Summary of PhD Program:
In project C03 we develop new methods to characterize electronic and thermal conduction mechanisms on the nanoscale. Our approach is based on scanning probe techniques. Aim of this project is to correlate local sample structure, such as percolating pathways, with transport properties. The here-developed techniques will be applied in close collaboration with other sub-projects to various different types of samples. Validation of the new method will be performed in combination with macroscopic techniques and other imaging techniques such as scanning electron microscopy (SEM).
Application Deadline: 7 September 2023
14. Fully Funded PhD Position in NMR spectroscopy
Summary of PhD Program:
In project B03 we investigate ion transport in hybrid lead halide perovskites which are confined in mesoporous matrices. We aim to analyse the interplay between confinement and associated interfaces in the composite system to separate ion and electron transport and reach stable hybrid perovskites. We use external electric fields to trigger and direct ion and electron transport in the materials and apply in-situ NMR and diffraction methods to yield structural and dynamical insights on the transport pathways and kinetics.
Application Deadline: 7 September 2023
15. Fully Funded PhD Position in Porous Electrodes
Summary of PhD Program:
In project A02 the Chair of Electrochemical Process Engineering is developing porous electrodes for application in high-temperature polymer electrolyte membrane fuel cells together with partners from inorganic chemistry. The wetting of the electrode by the phosphoric acid results in the formation of the so-called three-phase boundary, which effectively links several transport phenomena that however still need to be better understood. Within the framework of the project, the local dynamics of the charge carriers in different electrode structures are to be characterised and correlated with the electrocatalytic performance.
Application Deadline: 7 September 2023
16. Fully Funded PhD Position in synthesis of mesoporous thin films and hybrid membranes
Summary of PhD Program:
In project A03, 2D hexagonally ordered, vertically aligned pore systems based on SiO2 are used to systematically study the transport characteristics of ionic carriers in such highly anisotropic channels. Measurements of the proton therein will be fed back to the synthesis of the pore structures with the aim of investigating their influence on the transport of the respective ions.
Application Deadline: 7 September 2023
17. Fully Funded PhD Position in Functional Materials
Summary of PhD Program:
Halide perovskites have emerged in the last decade as a new class of semiconductor materials that enable to manufacture high-efficiency solar cells. Recently, we even presented a first-of-their-kind solar cell based on the powder aerosol deposition method, which is a novel dry spray coating technique to obtain dense films at room temperature. In project B04, we prepare nanostructured perovskite films for solar applications in collaboration with the physics department. We study the flow of electrons and ions using optical spectroscopy and electrical measurements and impedance spectroscopy. Our aim is to understand and control these currents to realize more efficient solar cells.
Application Deadline: 7 September 2023
18. Fully Funded PhD Position in nanoscale characterization
Summary of PhD Program:
In project C03 we develop new methods to characterize electronic and thermal conduction mechanisms on the nanoscale. Our approach is based on scanning probe techniques. Aim of this project is to correlate local sample structure, such as percolating pathways, with transport properties. The here-developed techniques will be applied in close collaboration with other sub-projects to various different types of samples. Validation of the new method will be performed in combination with macroscopic techniques and other imaging techniques such as scanning electron microscopy (SEM).
Application Deadline: 7 September 2023
19. Fully Funded PhD Position in Porous Electrodes Structures
Summary of PhD Program:
In project A02 the Chair of Electrochemical Process Engineering is developing porous electrodes for application in high-temperature polymer electrolyte membrane fuel cells together with partners from inorganic chemistry. The wetting of the electrode by the phosphoric acid results in the formation of the so-called three-phase boundary, which effectively links several transport phenomena that however still need to be better understood. Within the framework of the project, the local dynamics of the charge carriers in different electrode structures are to be characterised and correlated with the electrocatalytic performance.
Application Deadline: 7 September 2023
20. Fully Funded PhD Position in crystallization and electrocatalysis
Summary of PhD Program:
In project A03 we use2D hexagonally ordered, vertically oriented silica mesopore systems to investigate the transport characteristics of different carrier types (ions, ion clusters, and mineral precursors) in 1D confinement under systematic pore channel variations. For this purpose, bioinspired crystallisation of electroactive Co(OH)2 precursor compounds and the electrodeposition of Co3O4 are used as model systems to study the influence of the pronounced anisotropy of the porous silica channels on transport phenomena. In particular, we will address the electrical conductivity and electrocatalytic activity of confinement-derived 1D catalyst particles and arrays.
Application Deadline: 7 September 2023
21. Fully Funded PhD Position in bioprinting of diaphragm muscle tissue
Summary of PhD Program:
The projects aim to develop an in vitro model for a diaphragm using 3D bioprinting, and composite fibrous materials. The project is highly interdisciplinary and requires collaboration with researchers from engineering, medicine, and chemistry. The application-oriented research will be performed in laboratories located at the Department of Biomaterials at the University of Bayreuth. Furthermore, this interdisciplinary project will be performed in close collaboration with muscle and tendon biologists in Austria and Italy as well as biomechanics experts towards characterizing and tuning the mechanical properties of tissue-engineered constructs.
Application Deadline: Open until filled
22. Fully Funded PhD Position in Mass Spectrometry Imaging
Summary of PhD Program:
The aim of project A03 is the “Characterization of molecular and histological effects of microplastics in tissues (sections) of aquatic and terrestrial model organisms”. A combination of imaging analysis methods (FTIR, Raman, mass spectrometry) and classical histology will be used for this purpose. Your main task will be to further develop mass spectrometry imaging methods for model organisms and microplastics. This includes sample preparation, data acquisition parameters and data analysis approaches. By combining your results with complementary imaging techniques within project A03 and the CRC, molecular and histological effects in tissue can be directly linked to a single (identified) MP particle. This will provide new insights into the mechanisms of action of microplastics.
Application Deadline: Open until filled
23. Fully Funded PhD Position in Machine Learning
Summary of PhD Program:
Machine learning (ML) has enabled major breakthroughs in the development of artificial intelligence in recent years. Two technological trends are fueling these advances: first, the availability of large amounts of data to train ML models, and second, the availability of highly scalable computer clusters (cloud computing) and specialized hardware (e.g., GPUs). Bringing both together in a resource-efficient manner is the goal of our research.
Application Deadline: Open until filled
24. Fully Funded PhD Position in turbulence research
Summary of PhD Program:
Turbulence is ubiquitous in nature and technology. Yet, developing theories of turbulence, which ultimately all modeling applications rely on, remains an outstanding scientific challenge. The goal of the EU-funded project UniTED is to combine theory and new computational approaches to tackle this long-standing problem and enhance our fundamental understanding of highly turbulent flows.
Application Deadline: Open until filled
25. Fully Funded PhD Position in Materials Informatics
Summary of PhD Program:
The Kuenneth Group at the University of Bayreuth is dedicated to democratizing machine learning in materials science. Such materials informatics efforts are underway more vigorously than ever before to streamline materials design, discovery, development, and deployment efficiently and effectively. To contribute to this exciting field, the Kuenneth group primarily concentrates on two research directions: (i) innovative machine learning techniques in materials science, and (ii) utilizing these techniques to study a diverse range of materials. The special focus of the Kuenneth group is sustainable and polymeric materials.
Application Deadline: Open until filled
26. Fully Funded PhD Position in NMR spectroscopy in Battery Science
Summary of PhD Program:
BayBatt combines the interdisciplinary battery-specific expertise of the University of Bayreuth all the way from physics and chemistry to materials science, engineering, computer science, and finally to economics. The research focuses on safe high-performance materials, interface phenomena and transport processes, smart batteries as well as interconnected storage systems, and covers all size scales of battery research from the atomistic structure to particles, cell components and cells, battery modules and battery systems, right through to the higher-level energy system.
