Ongoing Theses
Review and Comparison of Oscillation and Timing Mechanisms in Chemical Reaction Networks for Molecular Communication
Description
Primary Goals:
- Literature Review of timing/oscillation/synchronization methods that use (stochastic) chemical reaction networks in simulation and experiments.
- Implement and compare different proposals (focusing on oscillators) from literature using Python?
How do we measure how well they work (metrics)?
How are all the options different from one another?
Do they work using deterministic and stochastic simulation? - Think about potential changes to the existing oscillator methods based on the use cases in MC networks
- Implement at least one option of the oscillators for a simple toy example CRN algorithm to showcase how it could work
Contact
alexander.wietfeld@tum.de
Supervisor:
Optimization of Chemical Reaction Networks for Molecular Communication Systems and Algorithms
Description
Primary Goals:
- Review and understand current CRN implementations in Python
- Review and summarize candidate optimization methods (Bayesian optimization, random forests, neural networks, ...)
- Implement and evaluate different proposals from literature using Python
- Optimize parameters and structure of a CRN for successive interference cancellation
- Evaluate hyper-parameters, utilize stochastic simulation methods, improving the efficiency of the algorithms
Contact
alexander.wietfeld@tum.de
Supervisor:
Support and Maintenance of a Molecular Communication Networks testbed for 6G and beyond
Internet of Bio-Nano-Things, Molecular Communication Networks, 6G, Testbed
Description
Molecular communication (MC) is an alternative to classical electromagnetic wave-based communication, where molecules are used for information exchange. MC is expected to enable in-body networks for future medical applications in the Internet of Bio-Nano Things, a vision for 6G and beyond.
We seek a working student to help us operate and maintain a molecular communication networks testbed at the chair. The testbed is based on ink molecules transmitted through a water-filled tube system with a background flow. Spectral absorption measurements are used to detect the information molecules.
What you will do:
- Set up the tubes, pumps, sensors, and other components
- Program microcontrollers to control microfluidic pumps and spectral sensors
- Debugging and fault detection in both software and hardware
- Implement data collection and visualization methods
- Support with experiments conducted on the testbed
Prerequisites
What you need:
- Interest in future and unconventional communication methods
- Willingness to learn new things and a hands-on mentality
- Experience in (low-level) programming (e.g., C/C++) and Python
Nice to have:
- Experience with microcontrollers/Arduinos for controlling sensors
- Already worked with spectral sensors
- Experience with CAD, 3D printing, and soldering
Contact
alexander.wietfeld@tum.de
Supervisor:
Student Assistent for Wireless Sensor Networks Lab Summer Semester 2025
Description
The Wireless Sensor Networks lab offers the opportunity to develop software solutions for the wireless sensor networking system, targeting innovative applications. For the next semester, a position is available to assist the participants in learning the programming environment and during the project development phase. The lab is planned to be held on-site every Tuesday 15:00 to 17:00.
Prerequisites
- Solid knowledge in Wireless Communication: PHY, MAC, and network layers.
- Solid programming skills: C/C++.
- Linux knowledge.
- Experience with embedded systems and microcontroller programming knowledge is preferable.
Contact
yash.deshpande@tum.de
alexander.wietfeld@tum.de