Your Job:
In this Master’s thesis, you will model bridge-type PCM devices in the sub-nanosecond regime.
The aim is to explain experimentally observed dynamical behavior based on continuum simulation models.
The work will be carried out in close collaboration with experienced researchers at PGI-7.
Your tasks include:
Applying a continuum simulation framework to model PCM devices
Investigating the effect of different material properties on the switching dynamics
Analyzing and interpreting the simulation results to explain the switching dynamics
Identifying potential optimization strategies for different application use casesYour Profile:
Enrolled in a Master’s program in physics, materials science, electrical engineering or a related discipline
Solid background in solid-state physics and/or semiconductor devices is helpful
Basic programming skills ( Python or MATLAB); prior simulation experience is an advantage
Interest in nanoscale transport phenomena and physical modeling
Independent, structured, and motivated working style
Good command of English (written and spoken)Our Offer:
We work on the very latest issues that impact our society and are offering you the chance to actively help in shaping the change! We support you in your work with:
A research topic with strong relevance for future memory technologies
Work with a well-established FEM simulation tool
Close supervision and integration into a highly motivated, interdisciplinary team
Opportunity to contribute to ongoing industry-related research
Flexible working conditions (start date, working hours, home office options)
In addition to exciting tasks and a collaborative working atmosphere in Jülich, we have a lot more to offer:
The position is initially for a fixed term of up to 12 months.
We welcome applications from people with diverse backgrounds, in terms of age, gender, disability, sexual orientation / identity, and social, ethnic and religious origin.
A diverse and inclusive working environment with equal opportunities in which everyone can realize their potential is important to us.