Curriculum Vitae
Malte trained as an engineer before moving into biology. He studied Energy & Process Engineering and then Engineering Science at TU Berlin, working on fluid dynamics and mechatronics projects — from a test stand for a rotating blood pump to a bioreactor for studying antibiotic resistance evolution. That bioreactor project pulled him toward biology, and since 2020 he has been a PhD researcher in the Theoretical Biology group at ETH Zürich, studying how bacterial populations respond to multidrug treatment by combining high-throughput experiments with statistical and mathematical modeling. His PhD concludes in mid-2026, and he's now looking for the next role where that mix of quantitative modeling and applied science can do the most good.
Education
PhD
ETH Zürich
Thesis: "Experimental and Theoretical Investigations of Bacterial Population Dynamics Under Multidrug Treatment"
MSc Engineering Science
TU Berlin
Focus on fluid dynamics and mechatronics. Thesis: bioreactor design for resistance evolution (SolidWorks, STAR-CCM+).
BSc Energy & Process Engineering
TU Berlin
Thesis: test stand for a rotating blood pump, using particle image velocimetry (PIV) flow visualization.
Experience
PhD Researcher
ETH Zürich, Theoretical Biology group
Stochastic and deterministic models of bacterial population dynamics under multidrug treatment; time-series and imaging data analysis; teaching assistant for "Infectious Disease Dynamics" and "Evolutionary Ecology of Infectious Diseases"; published in PNAS and eLife.
Research Assistant
FU Berlin / Charité
Designed a bioreactor for antibiotic resistance evolution; secured start-up funding; co-supervised a bachelor's thesis; microcontroller-based control systems (Arduino, C++).
Undergraduate Research Assistant
TU Berlin
Experimental gas dynamics; Schlieren imaging; quantitative image analysis in MATLAB.
Research Internship
Charité – Universitätsmedizin Berlin
Control software for a blood-pressure measurement device (C++).
Skills
- Modeling & Theory deterministic (ODE) and stochastic models of population dynamics; pharmacodynamic modeling (Hill functions, EC50, dose-response curves); drug interaction frameworks (Bliss independence, Loewe additivity); epidemiological modeling; model calibration and sensitivity analysis.
- Statistics & Data Analysis time-series analysis of high-throughput trajectories (8640+ curves); functional data analysis; bootstrap inference; spline regression; uncertainty quantification; hypothesis testing.
- Bayesian Modeling & Inference hierarchical Bayesian models; Hamiltonian Monte Carlo (NUTS) in PyMC; Gaussian Markov random fields; Bayesian random-effects meta-analysis; prior sensitivity analysis.
- Experimental & High-Throughput large-scale 384-well plate experiments with liquid-handling robotics; multi-modal population measurement (luminescence, CFU, OD); bacterial culture and plasmid conjugation; experimental design.
- Programming & Tools Python (NumPy, SciPy, pandas, statsmodels, matplotlib, PyMC), C++, MATLAB, Git, Linux, Docker.
- Languages German (native), English (C2), Korean (A2–B1).