Showing posts with label Master Scholarships. Show all posts
Showing posts with label Master Scholarships. Show all posts

Thursday, July 15, 2021

MSc thesis work: Exploring nanostructured hydrophobic antireflection coatings with a commercial twist


The Department of Electronics and Nanoengineering conducts research and arranges related courses in the field of electromagnetics, micro and nanotechnology, radio engineering, and space technology featuring an international team of over 150 Researchers and Research Assistants. The Department is part of the Aalto University School of Electrical Engineering (Aalto ELEC) with world-class research facilities and instruments.

MSc thesis work: Exploring nanostructured hydrophobic antireflection coatings with a commercial twist

We are looking for a Msc student to help in manufacturing different prototype coatings and support in research and characterization of coatings for future commercialization in mind. Coating applications vary from optical components and systems to biomedical applications utilizing the superhydrophobicity of the surface. For a MSc thesis work there are many possible topics here.

Team and technology
We are a 3 person team pursuing the commercialization of superhydrophobic antireflection coatings based on nanostructured aluminium oxide. Current applications of the film range from broadband and omnidirectional optical antireflection coatings to biomedical coatings.The coating technology has been developed by the team, see link for details Supervising professor for the MSc thesis will be professor Harri Lipsanen from the Nanoscience and Advanced Materials Group.  

Your background
Knowledge of optics/optical coatings or biomedical coatings, and experience in working in a clean room environment are the core of the job so experience/knowledge in these is very helpfull. Fluent English is a mandatory skill.

The following skills or knowledges are also beneficial:

  • Experience in microfabrication techniques
  • Cell biology and cell growth
  • Knowledge of atomic layer deposition
  • High-school inorganic chemistry or better is an asset
  • Electromagnetics and solid state physics are both beneficial
  • Entreprenurial attitude as the project revolves around commercialization
  • Interest in science

Salary and contract
This position will be filled up to six (6) months. The salary follows the standard salary level of MSc thesis worker at the School of Electrical Engineering. We prefer that the work starts 1.7.2021 but this is flexible, however the project will end by January 1, 2022.

Students studying for a master’s degree can apply for the position of a MSc thesis worker. A graduated applicant could be hired as a fixed-term project worker for this specific commerzialization project.

How to apply
Please submit your application through our recruiting system and include the following documents as a single pdf package in English:
•    Course transcripts of master’s study
•    Curriculum Vitae
Deadline for applications is August 2, 2021 but we will start reviewing candidates immediately upon receiving new application documents.

More Information
For additional information, please contact D.Sc. Christoffer Kauppinen, christoffer.kauppinen(at)


Tuesday, June 22, 2021

Master thesis on the molecular dynamics simulations of intrinsically disordered proteins


Advertising division: IAS-5 - Computational Biomedicine
Reference number: 2021M-011

Master thesis on the molecular dynamics simulations of intrinsically disordered proteins

A significant fraction of proteins do not possess a defined 3D structure and they can be rather described as ensembles of rather diverse conformations. Molecular simulations and, particularly, enhanced-sampling techniques can be of great help to understand the intricate relationship between their structural dynamics and their biological function. The Master’s project will be performed at the Institute of Neuroscience and Medicine at the Forschungszentrum Jülich, Germany. The Institute offers a highly cross-disciplinary environment due to its strong connection with the RWTH Aachen University, Germany. We have access to state-of-the art computing platforms, and collaborations with many experimental labs that provide the data needed to the constant validation of our software and research applications.

Your Task:
You will develop and use simulations tools to predict their conformational properties and their interactions with cellular or viral partners. Comparison will be made with mass spectrometry and spectroscopy measurements.

Your Profile:

  • Bachelor degree in Physics, Chemistry or related fields.
  • Knowledge of Density Functional Theory and/or Molecular Mechanics is a plus
  • Basic knowledge of Unix operating system is highly appreciated
  • Good spoken and written English

We offer:

  • Working in a motivated and highly interdisciplinary environment
  • Opportunities of being part of the national and international scientific community
  • Friendly working environment

Due to the ongoing pandemic all the work is currently performed remotely. Safety is of paramount importance for us. All necessary equipment (computers etc.) is provided. We are committed to equality and diversity and welcome applications from everyone! If you are interested, you are more than welcome to contact us by email including a motivation letter, a CV, and the exams transcripts.


Prof. Paolo Carloni,
Forschungszentrum Jülich GmbH,
Institute of Advanced Simulations & Institute of Neuroscience and Medicine (IAS-5/INM-9)
52425 Jülich

Master thesis project: Protein processing in mammalian mitochondria


Advertising division: ZEA-3 - Analytics
Reference number: 2021M-047, Biochemistry, Analytical Chemistry, Biology

Master thesis project: Protein processing in mammalian mitochondria

The team Molecular and Biological Systems Analytics at the Central Institute for Engineering, Electronics and Analytics, ZEA-3, at Forschungszentrum Jülich, develops and applies mass spectrometry-based methods with a focus on proteolytic processes and protease function. We are looking for a motivated Master´s degree student (f/m/d) to join our team at the earliest opportunity.

Mitochondria are endosymbiont-derived cellular compartments that serve as key metabolic hubs in eukaryotic cells. Most of the more than 1000 mitochondrial proteins are encoded in the nucleus, synthesized in the cytosol and targeted to mitochondria by an N-terminal targeting sequence that is removed after import. Interestingly, many proteins are further processed in subsequent steps involving several distinct proteases (see PMID: 33453058). Currently the full extent and purpose of this additional processing is unknown.

Aim of the project
This project will dissect proteolytic protein maturation pathways in human and murine mitochondria using mass spectrometry-based proteomics approaches. A key element will involve unbiased analysis of protein termini in mitochondria with genetically modified protease activity using dedicated methods developed in our laboratory (see PMID: 31471496). We will further aim to determine the consequence of these processing steps on substrate protein stability and function.

Your tasks

  • Characterize protein N- and C- termini in human and murine mitochondria
  • Identify mitochondrial protease substrates
  • Improve a method for C-termini analysis
  • Learn to operate nano-LC-MS/MS instruments
  • Learn to analyze proteomics data using bioinformatics tools

Your profile

  • Master´s student in Biochemistry, Analytical Chemistry, Biology or closely related discipline
  • Knowledge and laboratory experience in biochemistry and/or proteomics
  • High level of motivation and reliability
  • Collaborative work attitude paired with ability to work independently (after training)
  • Very good oral and verbal communication skills in English, fluency in German is beneficial

Our offer

  • A highly motivated, supportive group in a diverse, stimulating and interdisciplinary working environment at Forschungszentrum Jülich, one of Europe’s largest research centres
  • Continuous professional and scientific support by your supervisors
  • A part-time contract as student assistant
  • Potential for extended employment (fixed term) depending on interest and performance

Interested? Please send a cover letter detailing your motivation, your CV and academic transcripts as a single pdf file (max. 10 Mb) to

Prof. Dr. Pitter Huesgen (
Central Institute for Electronics and Analytics
ZEA-3 Analytics
52425 Jülich

Master Thesis: Synthesis, characterization and electrochemical analysis of Sulphide electrolyte materials for solid-state battery applications


Advertising division: IEK-9 - Fundamental Electrochemistry
Reference number: 2021M-060, Materials Science, Chemistry, Physics or Electrical Engineering

Master Thesis: Synthesis, characterization and electrochemical analysis of Sulphide electrolyte materials for solid-state battery applications

The Institute for Energy and Climate Research, Fundamentals of Electrochemistry (IEK-9), at Forschungszentrum Jülich is seeking qualified applicants for master thesis, in electrochemical research with a focus on the development of solid-state batteries.

The need for electrical storage is prevalent in the modern world, the widespread adoption Li-ion batteries can be found in devices ranging from small personal electronics to larger battery banks used in electric vehicles and stationary energy storage for renewable energy. These batteries although having large capacities have the inherent disadvantage of being a fire hazard leading to a high risk of catastrophic failure. Novel solid-state batteries represents a possible route for the next generation of electrochemical energy storage devices due to their higher stability, longer lifetime and high energy density. Out of the possible candidates for solid state electrolytes sulphides proves to be a promising candidate due to their high energy storage and low cost. However due to the sensitivity of traditional sulphide materials to atmospheric conditions, processing and assembling of the solid-state battery is an issue. Therefore, this project will research and develop new sulphide materials that are more stable in atmosphere for solid-state battery applications.

The successful candidate will synthesize sulphide electrolytes for solid-state batteries and characterize them electrochemically and by material science. New materials will be synthesised to achieve sulphide electrolytes that are more stable in atmospheric conditions either through dopants or modified morphologies. Furthermore, the physical and electrochemical properties of the generated electrolyte materials will be characterized experimentally. Further development of the generated materials as materials in solid-state batteries, to evaluate and optimize the electrochemical properties, is also expected to demonstrate the research results and show potential industrial usability.

Your responsibilities:

  • Literature review of state-of-the-art battery research
  • Synthesis of sulphide electrolytes for battery applications (liquid state synthesis and solid state synthesis).
  • Characterization of material properties and electrochemical properties using SEM-EDAX, XRD, XPS, TGA, EIS, CV, GCPL, etc.
  • Advance the sulphide electrolyte performance and optimize the stability.

Your profile:

  • Ongoing master education in Materials Science, Chemistry, Physics or Electrical Engineering.
  • Experience on material synthesis as well as in the laboratory.
  • Self-motivated and able to work independently.
  • Good command of written and spoken English is mandatory.

We offer:

  • A highly motivated, supportive group in a diverse, stimulating and interdisciplinary working environment at Forschungszentrum Jülich, one of Europe’s largest research centres.
  • Continuous professional and scientific support by your supervisors.
  • A part-time contract as student assistant.
  • Potential for extended employment (fixed term) depending on interest and performance.

For further information, please contact:
Dr. Hermann Tempel,
Fundamentals of Electrochemistry (IEK-9)
Forschungszentrum Jülich

Master thesis/Intership: Tuning aggregation of red blood cells and the shear induced break up


Advertising division: IBI-4 - Biomacromolecular Systems and Processes
Reference number: 2021M-061, (bio)physics, (bio)chemistry, biology and biotechnology

Master thesis/Intership: Tuning aggregation of red blood cells and the shear induced break up

Red Blood Cells (RBCs) are the most abundant type of cells found in the blood. The major role of the cells involve transporting oxygen and carbon dioxide to and from tissues to lungs, respectively. In addition, they perform several important secondary functions. One of them includes aggregation in the presence of glycoprotein like fibrinogen resulting in blood clot and wound healing. The aggregation phenomenon of RBCs can significantly affect the blood flow and circulation. The normal blood flow is sufficient to prevent formation of aggregates. However, in low shear rates the aggregation of RBCs may occur into cylindrical shaped assembly called rouleaux. There are two proposed explanations for the mechanism of the RBC aggregation: bridging and depletion. In bridging, RBCs aggregate when the bridging forces, due to the adsorption of macromolecules onto adjacent cell surfaces. In depletion, the force between cells is due to osmotic pressure gradient between the lower polymer concentration area in depletion layer and a higher polymer concentration in bulk drives the cells together.

Some pathological factors may enhance aggregation One such factor is viral pathogenesis, which can affect RBCs function in several ways. Studies reported that the SARS-CoV-2 virus altered the membrane structure of RBCs, perhaps by altering its deformability resulting in cells poorly responding to environmental changes in hemoglobin oxygen saturation/oxidant stress. In other set of studies, thrombosis due to viral infections have been reported.

In this project, we are interested in investigating the aggregation phenomenon of RBCs in presence of different type of viruses. We have already shown how filamentous bacteriophage fd-virus, that infects bacteria E. coli, can induce aggregation of RBCs via depletion. We are keen to comprehend how viruses that naturally circulate in human blood flow, such as Adenovirus (Type 5), Rhinovirus (Type 3) and Human Coronavirus OC43, affect RBCs aggregation. To study the RBC aggregates, shape and deformation of cells, we combine ultra-fast confocal microscopy with a home-built shear cell that is used to break up the aggregates. Image analysis is performed to extract relevant information on interaction and deformation energies using Python scripts.

The goal of this project is to translate information from image analysis into extractable physical parameters while tuning the interaction to comprehend the aggregation of RBCs in presence of viruses. We are looking for a master student who is interested in the field of bio/soft matter and doing their master studies in (bio)physics, (bio)chemistry, biology and biotechnology. You will be engaged in data acquisition, image processing and/or interpretation of the results, depending on your background. The research activities will primarily be performed at the Forschungszentrum Jülich in collaboration between the Institute of Biomacromolecular Systems and Processes (IBI-4) and Institute of Structural Biochemistry (IBI-7). The experiments will be done in IBI-7 institute in bio-labs with biosafety level 2.

If you are interested please send your documents (CV, certificates or current grades) by
e-mail to
Mehrnaz Babaki (

Forschungszentrum Jülich
Institute of Biological Information Processing
Biomacromolecular Systems and Processes (IBI-4)

Friday, June 18, 2021



The Brain & Sound Lab is seeking ambitious, smart and self-driven scientists for open research positions at the postdoc, PhD, and master student levels.
Level of employment: 100%
Start date: Fall 2021.
Location: Basel University, Switzerland.

Your position

The projects have the broad goal of better understanding the neuronal circuits for auditory processing and perception, and include both experiments and data analysis. The successful candidates will have the opportunity to learn and apply several state-of-the-art systems neuroscience techniques such as in vivo extracellular recordings, functional imaging (2P calcium or voltage imaging), behavioral assays, optogenetics, in vivo patch-clamp recordings, viral neural tracing, or immunohistochemistry. The research questions will be chosen from a range of topics in auditory systems neuroscience. For more information about the specific projects at the different levels, please contact Tania Barkat (

Your profile

You are our new lab member if you:

have a background in neuroscience, physics, computer science, mathematics, biology, or engineering
have a spirit of intellectual adventure as well as drive and eagerness
can be creative and focused on a project at the same time
have experience or interest in programming data analysis code
run experiments methodically and are adept at troubleshooting and problem solving
ambition to pursue a career in science
enjoy working in a team and like to share ideas with colleagues.
We offer you

We offer attractive employment conditions in an intellectually stimulating environment and a scientifically and culturally rich city. The contract length is adapted to the position.
Our lab aims to understand the role of neural circuits in making sense of sounds. We use a systems neuroscience approach and combine in vivo electrophysiology, functional imaging, behavioral assays, and optogenetics to explore the functions of neuronal circuits in the mouse central auditory system. For more information about our lab, please check

Application / Contact

To apply, please send a letter of motivation, a statement of research interest, and your CV to Tania Barkat,

Wednesday, June 16, 2021

Master theses: Fluxes and Fate of Microplastics in Northern European Waters


In the framework of the European joint project „Fluxes and Fate of Microplastics in Northern European Waters“ (JPI-O FACTS) we will create new knowledge and improve our mechanistic understanding on the sources, transport, occurrence, and fate of small microplastics in northern marine waters. FACTS will combine state-of-the-art analytical, monitoring and modelling approaches in feedback cycles to describe transport and geographical sources of microplastics contamination as well as sinks from the temperate waters of the southern North Sea to the Arctic waters of the Barents Sea. FACTS is structured around a set of sampling campaigns reaching from the German Bight to Svalbard. Plastic particle concentrations, obtained from the proposed sampling campaigns are implemented into oceanographic models.

Where: Alfred Wegener Institute Helmholtz Centre for Polar and Marine Research, Division "Biosciences", Section Shelf Seas Systems Ecology on Helgoland

In the herein poposed Master theses, samples from the water surface, the water column and from sediments will be analyzed, taken in the framework of the FACTS expedition in June 2021 from the North Sea to the Arctic. Samples will be extracted & purified and finally analyzed by FTIR- or Raman-microscopy.

We are looking for Master students in chemisty or environmental sciences.

Further Information
The place of employment will be Helgoland.

Start: Early spring 2022

You are interested?
Then please send us your application with Cover letter and CV (with all documents merged into one PDF file) by e-mail to: Dr. Gunnar Gerdts ( or Dr. Sebastian Primpke (

For further information please contact Dr. Gunnar Gerdts (, +49(4725)819-3245).

Monday, June 7, 2021

6 Master Fellowships in The Cologne Graduate School of Ageing Research (CGA) in Germany


The Cologne Graduate School of Ageing Research (CGA) in Germany is a joint venture of the University of Cologne Excellence Cluster on Stress Responses in Aging-Associated Diseases (CECAD), the University Hospital Cologne, the Max Planck Institute for Biology of Ageing and the Max Planck Institute for Metabolism Research. Cologne has emerged as a leading global research cluster with a stellar constellation of institutes and scientists dedicated to ageing research in Life Sciences. We offer up to 6 Master Fellowships to highly motivated and talented students holding a B.Sc. degree in Biology or a related subject. The Master fellowship programme is embedded in a cutting-edge research environment and will start on October 1, 2021. Admission to the structured and well established Biological Sciences Master programme of the University of Cologne is a premise of receiving a Master fellowship. Master fellowships are 800 €/ month and will be awarded for a maximum duration of 1.5 years and until the start of the Master thesis project.

We offer

  • An outstanding international research environment at one of the most prestigious ageing research cluster in Europe
  • Close contact to our principle investigators and research groups of the above mentioned institutes
  • Possibility to apply to the Cologne Graduate School of Ageing Research for structured PhD studies
  • Excellent infrastructure for training and research by internationally recognized scientists in facilities with state-of-the-art technologies
  • Support and guidance for international students in all administrative matter

We are looking for

  • Highly qualified students holding a B.Sc. degree in Biology or a related subject that are motivated to explore the field of ageing research at an early career stage
  • Outstanding 1st year students of the Biological Sciences Master Programme of the University of Cologne that are eager to work in the field of ageing research

Further information

The associated institutes are committed to diversity, diversity of perspectives and equal opportunity. Applications from people with a disability and their peers are especially welcome. People with a disability are preferred if equally qualified. Applications from women are encouraged.

Sunday, June 6, 2021

Master's thesis or bachelor's thesis in the field of HC real-time living cell microscopy of genome-edited cells


Forschungszentrum Jülich is a member of the Helmholtz Association and, with around 6000 employees, is one of the largest research centres in Europe.
The Institute of Structural Biochemistry (IBI-7) focuses on the dynamic interactions between biological macromolecules and their correct three-dimensional structure, which are fundamental to the proper functioning of every cell and organism. Erroneous interactions and misfolded structures ultimately lead to disease and ageing.

Autophagy is the highly conserved process of degradation of cellular components in eukaryotes. Autophagy plays an important role in the basic turnover of intracellular proteins and organelles as well as in the production of amino acids under starvation conditions. The contribution to protein degradation by autophagy is similar to that of the ubiquitin-proteasome system. Disturbances in the regulation of autophagy can lead to various diseases, e.g. neurodegenerative diseases. Furthermore, autophagy plays an important role in antigen presentation or the degradation of invasive pathogens. Autophagy requires a whole series of so-called autophagy-related (Atg) proteins, whereby in higher organisms entire protein families have evolved from an original Atg protein. One such example is the ATG8 protein family, an extremely interesting family of small ubiquitin-like modifiers that has only one member in yeast. In humans, there are two subfamilies, the LC3s and the GABARAPs, with a total of seven paralogues. Among the diverse functions already described for human ATG8 proteins, their involvement in autophagic processes is currently best characterised.

However, GABARAP and its paralogues originally became known through their involvement in intracellular vesicular transport processes and surface expression of individual receptors. Due to their high structural similarity, the exact functions of the GABARAP subfamily and especially their individual contributions during such non-autophagic processes as well as their impact on higher-level processes (cell health, migratory capacity, etc.) are still almost unknown.

We are looking for people to join our research group as soon as possible. You will support us by systematically analysing existing, genome-edited human cell lines lacking the entire GABARAP subfamily or individual representatives for their viability (cell proliferation, apoptosis, cell cycle assays), but also for their migration ability, spheroid formation or surface expression of certain marker proteins. A modern live cell analysis system is available for this purpose, with which images (phase contrast, bright field, fluorescence) can be recorded in real time on a single cell basis directly in the incubator without interference and then analysed in a software-based manner.

Your task:

  • Cultivation of mammalian cell lines
  • Automated real-time live cell microscopy (Incucyte SX5)
  • Perform cell proliferation, apoptosis and optionally cell cycle assays
  • Establishment of a multi-spheroid assay (optional)
  • Establishment of a live cell immunocytochemistry assay (optional)
  • Data analysis using existing software modules, Prism (GraphPad) and ImageJ/Fiji
  • Planning, implementation and evaluation of experiments; presentation of results
  • Documentation of your results in our electronic laboratory book system

This project can be adapted in terms of scope and allows for the preparation of both Bachelor's and Master's theses.

Your profile:
We look forward to receiving applications from students (f/m/d) of biology, biochemistry, biotechnology or related fields. You should have initial experience in the cultivation of mammalian cell lines. Experience with software for graphical processing of experimental data is an advantage. In any case, you should be motivated to familiarise yourself with various software packages. After a detailed instruction, we expect that you will be able to work independently on the project according to your level of education. Social competence, efficiency, accurate work, enjoyment of teamwork and a high level of self-motivation in establishing new experimental procedures and solving scientific problems are also expected.

Our offer:
Your workplace is assigned to the working group Hoffmann in the IBI-7 (Structural Biochemistry) department of the Institute for Biological Information Processes (IBI) at Forschungszentrum Jülich. We place great emphasis on teamwork and excellent supervision. In the interdisciplinary IBI-7 you will meet scientists from a wide range of nations from the fields of biochemistry, biology, chemistry, medicine, pharmacy and physics. For further information on IBI-7, please click on the following link: You can also find news about our research here: You can start work immediately or by arrangement.

Interested persons are invited to apply with a project-relevant presentation of their education. Forschungszentrum Jülich promotes equal opportunities and diversity. We welcome applications from people with disabilities. Please send your documents (motivation letter, CV, certificates or current grades) by e-mail to

Dr. Silke Hoffmann (

Forschungszentrum Jülich
Institute of Biological Information Processing
Structural Biochemistry (IBI-7)

Master thesis: Innovative tungsten coatings for an application in modern and future fusion devices


Controlled fusion ‐ a process seen in stars like our Sun, provides an inexhaustible energy source. At the same time, harnessing fusion energy in a power plant is an ultimate physics and engineering challenge. For instance, materials facing hot plasma in a power plant must withstand extreme power loads often reaching 20 MW/m2. Tungsten is presently used in most modern fusion facilities and is foreseen for a power plant. However, the harsh environment of a power plant can limit the lifetime of tungsten components. Therefore, options must be explored to coat the existing plasma‐facing materials with tungsten or to “repair” the damaged tungsten elements in a fusion device directly, without removal of a damaged component.

The present work is aimed at investigating tungsten coatings produced using the plasma spray technology at Forschungszentrum Jülich. The work will comprise investigations of coating integrity, microstructure, porosity, and adhesion to the substrate. Optical and electron scanning microscopy, combined with a focused ion beam for 3D analysis, metallography and other techniques will be used in the study.

Further, the exposure of most stable and reliable coatings in realistic plasma environment should be conducted in the frame of the master thesis activity. Samples will be exposed to the stationary plasma in the unique linear plasma device PSI‐2 at Forschungszentrum Jülich. The work will be performed in the close collaboration with the specialists of world‐leading Jülich Thermal Spray Center.

This master thesis work is a part of a larger project on the development of a robotic system for tungsten coatings inside fusion devices. When successful, the system developed can be applied in the current most modern fusion devices worldwide, including the stellarator Wendelstein 7‐X, the world’s largest stellarator situated in Greifswald, about 200 km north from Berlin.

Prof. Dr. Andrey Litnovsky
Tel.: +49 (0)2461 61 5142

Forschungszentrum Jülich
Institute of Energy and Climate Research
Plasma Physics IEK-4

Master Thesis: Optimization of Ag-based Volatile Diffusive Memristors for Neuromorphic Computing Applications


Brain inspired neural networks are emerging as potential alternatives of the traditional Von-Neumann Architecture, mainly due to their unique structure of combining the memory and processor together. One example are Spiking Neural Networks (SNNs), where information is processed through the spiking of neurons. CMOS-based integrate-and-fire neuron is typically used for processing the incoming signal. However, such neuron, composed of several transistors and a capacitor, is area- and energy-inefficient. Recently, a compact two-terminal threshold switch (TS)-based neuron has been exploited as replacement of the complex circuitry. Neurons play the active element role in the circuit to execute current summation, integration and firing. As frequent integrating and firing events are involved, the power consumption of neurons needs to be low enough to ensure an energy efficient computing element. Therefore it is important to enhance the volatility behavior and improve stability, variability and cycling endurance of the TS-based neurons.


  • Fabrication of micro-structured ECM cells using technologically promising materials such as HfO2, TiO2, SiO2, or mixed as electrolyte and Ag/AgTe metal as top electrode. The different oxides are to be grown using atomic layer deposition (ALD) technique.
  • Electrical characterization of the fabricated devices. The current-voltage measurements should be carried out in continuous and pulse mode as a function of temperature and atmosphere.
  • The target is to maximize the volatility behavior by applying techniques such as doping and/or annealing as well as performance enhancement in general. These includes switching stability, variability and cycling endurance.

Applicants profile:
You are studying electrical engineering, physics or materials science in the master’s program with knowledge in the field of semiconductors or information technology and are interested in experimental and interdisciplinary work. You have basic knowledge of fabrication and measurement technology, data analysis and programming skills and are ready to familiarize yourself with new methods.

M. Sc. Solomon Amsalu Chekol Tel: +49 2461 616288 ; E-mail:
Dr. Susanne Hoffmann-Eifert Tel: +49 2461 616505; E-mail:

Forschungszentrum Jülich GmbH
Peter Grünberg Institut
Electronic Materials (PGI-7)
JARA-FIT Institut Green IT

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