I develop quantitative models that support complex decision-making in innovation, ethics, and policy. My work integrates theoretical rigor with real-world applicability — from utility functions to stakeholder dynamics.
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I support your projects with robust data analysis, statistical modeling, and insightful visualizations – from raw data to ready-to-publish results. For research, business, and data-driven decision-making.
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Services available in English & German.
Whether you’re preparing journal articles, research proposals, or theses – I help structure, refine, and elevate your writing with a sharp eye for clarity, coherence, and academic tone.
Learn more →In today’s world, complexity is increasing at a rapid pace – whether it is about global systems, business environments, technological advancements, or societal dynamics. Understanding and navigating this complexity requires robust methodologies that can capture, simulate, and predict the behavior of intricate systems. This is where advanced modeling and research methodologies play a crucial role in providing clarity and driving informed decisions.
Thermal Control Systems
In a project we focused on thermal process optimization within the electronics sector, I developed a mathematical model for temperature control based on empirical data. The aim was to enable adaptive regulation within the context of industrial curing processes. The resulting solution later served as the foundation for an advanced control system. MATLAB Simulink was used to simulate and validate system dynamics, which essentially served as a powerful basis for an advanced online control architecture.
Power Supply Modeling
Effective power supply management represents a key factor in the development of reliable, energy-efficient, and resilient systems. Particularly in the integration of renewable energy sources, the inherently variable and nonlinear characteristics of such systems introduce significant modeling and control challenges. Addressing these requires the application of advanced methodological frameworks. Multiphysical simulations conducted within environments such as MATLAB or COMSOL enable a rigorous analysis of coupled electrical, thermal, and fluidic domains, thereby supporting the optimization of system architectures and the identification of performance enhancement opportunities.
Advanced Topology Optimization
Modern numerical methods offer powerful opportunities to elevate system component topologies to a new level of performance. By combining deterministic optimization techniques with evolutionary algorithms, it becomes possible to exploit the strengths of both approaches – achieving previously unattainable efficiency while maintaining high computational speed. I can support your theoretical and simulation-based design processes through customized algorithm development, parametric modeling, and result interpretation – bridging the gap between numerical exploration and practical applicability.
Understanding data is key to identify complex patterns, which serves as an indispensable foundation for decision-making. With expertise in statistical methods, exploratory data analysis, and scientific visualization, I support clients in transforming data into knowledge.
High-quality publications bridge the gap between academic rigor and practical relevance. In my writing, I bring a professional commitment to evidence-based thinking, grounded in interdisciplinary expertise spanning physics, mathematics, engineering, and empirical research. My goal is to produce work of the highest scholarly quality – clear, rigorous, and impactful.
Due to the confidential nature of many client engagements the majority of my work cannot be publicly disclosed. The following examples represent a small selection of publicly available or publishable projects that illustrate the scope and quality of my work across various domains. In total, I have successfully completed over 100 projects for clients in academia, industry, and the private sector.
Sven Kersch, M.Sc.
Scientific Writer | Physicist | Research Consultant
With a strong academic foundation in theoretical physics and hands-on experience in both fundamental research and applied engineering, I specialize in scientific analysis, technical communication, and advanced modeling. I hold a Master’s degree in Physics from the University of Rostock, where my thesis explored the optical properties of interlayer excitons in twisted transition metal dichalcogenides, combining quantum theory with state-of-the-art material science. Over the years, I’ve contributed to diverse fields—from quantum optics and laser systems to energy infrastructure and photoacoustics. My work spans both industry and academia, including roles as a scientific researcher, laser engineer, and freelance author. I offer interdisciplinary expertise at the intersection of physics, mathematics, and engineering, with a talent for abstract reasoning and clear scientific writing. Whether I’m modeling complex physical systems or producing publication-ready manuscripts, my goal is always clarity, precision, and relevance.
Areas of Expertise
∙ Scientific publishing & academic writing
∙ Optical physics, laser systems, quantum theory
∙ Modeling & simulation (Python, Mathematica, Matlab)
∙ Research methodology & technical documentation
∙ LaTeX typesetting and scientific formatting