Research & Development

Under Development: Particles as internal Standard for QC

Our specially developed particles with unique sulfur-containing functionality offer a clear distinction from conventional microplastic polymer types. These internal standards enable precise tracking and correction of particle losses during sample preparation, ensuring maximum accuracy and reliability in quality assurance.

These innovative particles are currently in development. If you are interested or require further information, we look forward to hearing from you!

Kontakt

Development of plastic-free filtration units for analytical use

Our advanced research focuses on the development of a plastic-free filter for contamination-free filtration and analysis of microplastics. Combined with automated sample injection, this apparatus allows us to effectively filter even challenging samples under high pressure. This filter not only demonstrates tremendous potential for precise analyses but also offers possibilities for broader industrial use by providing environmentally friendly and contamination-free filtration solutions.

MikAlp Project- Interreg
Bavaria - Austria

Micro- and nanoplastic analytics in the Alpine region: Knowledge transfer for the successful implementation of scientific methods in the industrial sector. This is the goal of this Interreg project co-financed by the European Union. In collaboration with the Technical University of Munich and industry partners Postnova GmbH and LIA OG, this study aims to transfer microplastic analysis into the business world. This pioneering project seeks to convert innovative analytical techniques into practical solutions to address microplastic challenges in various industrial sectors.

Medical Nano- and Microplastics: The Unseen Threat from Infusion to Infiltration

In this submitted interdisciplinary research project with partners from the Medical University of Innsbruck (MUI) and the Private University for Health Sciences and Technology (UMIT), we aim to investigate the potential burden of micro- and nanoplastics in the clinical environment. Through systematic analysis of medical fluids and blood samples, we seek answers to these questions. Additionally, the study will explore the impact of microplastics on specific physiological processes. This future study aims to provide new insights that will not only influence medical practice but also contribute to a better understanding of the effects of microplastics on human health.

Modified inorganic beads for the removal of microplastics from aqueous solutions

Microplastics exhibit a negative charge in aqueous solutions. This can be exploited to ensure interaction with oppositely charged materials. As a result, alternatives to conventional filtration methods, which are often associated with high backpressure and clogging, can be developed. Currently, various modifications are being tested for their efficiency in removing microplastics.