Biomimetic Research

Biomimetic Research is an integrative approach combining biology and engineering sciences to address complex technical challenges. By examining evolved biological structures, biomimetics seeks to extract working principles of biological role models that inspire innovative technical solutions. This process relies on computational analysis and mathematical descriptions of the role models to manage and interpret intricate biological data, transforming raw observations into actionable insights. Through rigorous data analysis, biomimetics turns the complexity of natural systems into a framework for advancing technology.

Introduction

With a foundation in biomimetics and technical biology, I analyzed biological structures to uncover working principles for engineering and architectural applications. Using 3D imaging, statistical analysis, and materials testing, I translated complex biological data into information that was used to develop functional models by our team. My experience in biomimetics and technical biology sharpened my skills in data extraction, analysis, and interpretation—key abilities to utilize data-driven methods that generate actionable insights and solve complex problems.

I have worked on various biomimetics projects, like studying insect movement behavior, designing pneumatic underwater webs inspired by water spiders, and developing segmented shell structures based on sea urchins. In collaboration with engineers and architects from the University of Stuttgart, insights from these biological models were implemented in demonstrators.

Research

Biomimetic research represents a truly interdisciplinary approach, benefiting from the seamless integration of expertise across multiple fields. The success of such projects hinges on close collaboration between team members, each bringing a unique set of T-shaped skills—deep knowledge in a specific area combined with the ability to collaborate across disciplines. This collaboration fosters innovation and leads to the development of successful and competitive outcomes.

One exemplary project I have been involved in showcases the power of this cross-functional approach. The project required input from biologists, engineers, and architects, all working together to translate biological principles of the web of the water spider Argyroneta aquatica into engineering and architectural solutions. As a result, we were able to create a demonstrator that provides an application of our research. This demonstrator was subsequently built and exhibited, demonstrating the practical potential of biomimetic innovations in solving complex challenges.

Data Acquisition

The data used for the analyses comes from various sources. For my biomimetic projects, I primarily utilized the following methods:

Data Analyses

The majority of the data I worked with was used for hypothesis testing, where I applied suitable statistical tests to identify differences between groups. Additionally, I used statistical tests within complex models to detect trends and patterns in large datasets, including 3D data. My analyses also included the parametric description of biological structures, where I used statistical methods to understand the relationships between parameters. In a subsequent step, I modeled these parameters to find optimal solutions. Statistical methods for data analyses include:

Descriptive Statistics

Inferential Statistics

Demonstrators

Publications

Journals and Books

Conference Contributions