This project involved visualizing a microscopic robot designed with both soft and rigid structural elements. The robot’s flexible segments enable bending and movement, allowing it to perform multiple functions in constrained environments. Using the concept provided by the research team, we developed detailed 3D models and renders illustrating the robot’s structural characteristics. The final visuals were delivered for use in research papers and scientific communication.

This project involved creating visualizations of a microscopic robotic device based on High-Intensity Focused Ultrasound (HIFU) technology. The research team provided a conceptual direction for the robot’s form and functional inspiration. Using this input, we developed detailed 3D renders of the device that visually represented the concept and its potential application. The final visuals were used by the research team across publications, presentations, and scientific communication.

A research team approached us with an technology for a bioprinter device intended for medical industry. Starting from a rough conceptual brief, we led the design process from initial ideation to a fully realized product concept. The project involved concept exploration, CAD development, and defining CMF (colour, material, and finish) options. High-quality renders of the finalized design were delivered to help communicate the product vision and support further development.

For a research publication at ETH Zurich, we created a high-impact visual representing a microscopic robotic system developed by the research team. The objective was to design a compelling cover image that communicated the essence of the technology while maintaining scientific credibility.

This project involved creating an accurate CAD reconstruction of a zebrafish specimen widely used in biomedical research. A 360-degree microscopic rotational video was used as the primary input, from which multiple frames were extracted and pre-processed to enhance clarity and remove noise. Using AI-assisted workflows and CAD modeling techniques, the visual data was translated into a precise digital model representing the organism’s geometry, enabling its use for research visualization and computational analysis.