Pille Pata

Researches

Publications

Journal / Periodical: Potato Research
Authors: van der Sman, Piret; Pata, Pille; Järvekülg, Lilian; Sõmera, Merike
Year: 2025
Journal / Periodical: Analytica Chimica Acta
Authors: Sanka, Immanuel; Bartkova, Simona; Pata, Pille; Ernits, Mart; Meinberg, Monika Merje; Agu, Natali; Aruoja, Villem; Smolander, Olli-Pekka; Scheler, Ott
Year: 2023
Journal / Periodical: Proceedings
Authors: Bartkova, Simona; Sulp, Fenella L.; Sanka, Immanuel; Pata, Pille; Scheler, Ott
Year: 2023

Projects

Year: 2026 - 2030
The rapid emergence of new illegal drugs (HHC, nitazenes, synthetic cathinones, etc.) creates a need for fast, on-site drug testing tools that can detect multiple substances in biofluids. These tools are crucial for clinicians, anti-doping experts, and law enforcement. Multiplexed portable analytical tools have a great potential to be implemented for this purposes. Moreover, such kind of instruments could be utilized in personal healthcare monitoring by enabling early-stage diagnostics of health problems. This project aims to develop electrophoresis-based analytical tools for reliable, fast and cost-effective metabolism studies in vitro, revealing the characteristics and metabolic pathways of new psychoactive substances. Additionally, new on-site biofluid testing tools (focused on oral fluid) will be developed for detecting new drugs. The results of this project will enhance drug monitoring, support public health, and improve safety.
Year: 2026 - 2030
Antimicrobial resistance (AMR) and plastic pollution are global emergencies. Small microplastics (sMPs) (> 100µm) cause havoc in nature and are alarmingly prevalent in humans (e.g., placenta, brain, blood, and bone). sMPs also increase the risk of AMR by absorbing other pollutants (e.g., antibiotics) and promoting microbial aggregation and biofilm formation. Making screening and evaluation methods for new antibiofilm compounds widely available is essential. This project aims to develop a sustainable and democratized microfluidics platform to fight sMPs-induced AMR. Droplet-based microfluidics shows great potential for advancing knowledge and tackling this problem, allowing separation and manipulation of samples into thousands of miniscule drops (environments) for parallel studies. By using sustainable droplet technology with novel 3D-printed component for automated screening and evaluation of antibiofilm compounds, the project develops innovative solutions for global challenges.