Modeling with COMSOL for Plasma Research

Motivation

We are seeking a highly motivated and passionate master student with a strong interest in advanced modeling and numerical analysis using COMSOL Multiphysics. The focus of the master thesis will be to analyze the plasma phenomena occurring within an atmospheric plasma torch, with particular emphasis on the changes in the electric field influenced by the internal configuration of the reactor in the plasma-water interaction zone. This work is part of a larger vision to drive the electrification of the chemical industry, contributing to a sustainable future through innovative, energy-efficient technologies. The modeling efforts will be closely correlated with experimental data and interpreted to gain insights into hydrogen peroxide production resulting from plasma-water interactions.

 


Objectives

•    Develop a comprehensive model in COMSOL to simulate the electric field behavior under various internal reactor configurations.
•    Include a detailed temperature model to capture changes in the reactor wall, as well as the electron and gas temperatures during plasma interactions.
•    Provide insights into optimizing the plasma torch setup for improved efficiency and performance in hydrogen peroxide generation.

 

Qualificaions

•    Enrolled in a master’s program in physics, engineering, or a related field.
•    Demonstrated interest in numerical modeling and simulation.
•    Experience or familiarity with COMSOL Multiphysics is a plus, but training can be provided for candidates with strong computational skills.
•    Strong problem-solving abilities, self-motivation, and a keen interest in learning and applying new concepts.


What we offer

•    Hands-on experience with cutting-edge plasma research and simulation tools.
•    Support and mentorship from experienced researchers in plasma physics and numerical modeling.
•    The opportunity to contribute to impactful research in a growing field with potential applications in chemical production and environmental technology.
•    Flexible working hours and access to research facilities to support your project.


Join us to explore the world of plasma modeling and contribute to innovative research with real-world applications!