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Projects
Crafting a Scientific Framework to Mitigate Microplastic Impact on Ecosystems
(July 2023 – March 2024) focused on developing a seven-step strategy to reduce the harmful effects of microplastics on global ecosystems. Funded by SATOORNIK and led by Mitra Nikpay and Sayna Toorchi Roodsari, the project provided a global perspective for mitigating microplastic pollution and culminated in a breakthrough publication released in March 2024 in Germany. Read the full publication here
Evaluation of SATOORNIK Gen I as an Advanced Post-Treatment for Greywater Microplastic Removal
(Dec. 2023 – Sep. 2024) assessed the efficiency of the SATOORNIK Gen I device, which achieved over 96% removal rate of microplastics from recycled greywater in tests. With its single-step application and high-volume handling capacity, the device presents a promising solution for residential and industrial greywater post-treatment. Led by Dr.-Ing. M. Nikpay and funded by SATOORNIK, the project’s findings were published in an online report in September 2024. Read the full report here .
Patent Testing: Understanding the Basic Principles Behind the Magnetic Separation Technology
(October 2023 – Ongoing) explores the core mechanisms of magnetic separation technology for microplastics, achieving a breakthrough in separating microplastics from water and wastewater without the use of chemicals or interference from metals. This technology holds significant potential for various industries. The project has been tested and a manuscript was prepared.
Separation/Recycling of PTFE Using SATOORNIK Gen I
(October 2024 – Finished) focuses on the separation and recycling of PTFE, a fully fluorinated polymer from the PFAS family. Known for its exceptional chemical resistance, broad temperature range, excellent electrical properties, and high purity, PTFE is an indispensable material in modern industries. This project aims to develop innovative techniques for separating and recycling PTFE using the SATOORNIK Gen- I . The results demonstrated an impressive 99.997% removal efficiency for PTFE microplastics using the SATOORNIK Gen I filtration technology. Read the full report here.
Separation of Tire Wear Particles Using SATOORNIK Gen I
(October 2024 – Finished) focuses on the innovative separation of tire wear particles, a significant source of microplastic pollution. With over 3 billion tires produced annually and around 800 million becoming waste each year, tire wear contributes to environmental contamination through harmful chemicals and micro-sized particles. This project aims to develop effective techniques for isolating tire wear particles using SATOORNIK Gen I technology. The results demonstrated an impressive 99.99% removal efficiency for Tire Wear particles using the SATOORNIK Gen I filtration technology. Read the full report here.
Separation of Polystyrene Microplastics Using SATOORNIK Gen I
(November 2024 – Ongoing) focuses on the targeted separation of polystyrene (PS) microplastics, a common and persistent pollutant in aquatic environments. Widely used in packaging and consumer products, polystyrene microplastics accumulate in ecosystems, posing risks to both wildlife and public health due to their ability to absorb toxic substances. This project aims to develop efficient techniques for isolating PS particles using SATOORNIK Gen I technology, contributing to cleaner water systems and reduced microplastic pollution. Read the report online.
Separation of Polyester Microplastics Using SATOORNIK Gen I
(Jan. 2025 – Ongoing) focuses on the targeted separation of polyester microplastics, a significant and persistent contaminant in various environments. Commonly found in textiles and industrial applications, polyester fibers shed into water, air, and soil, contributing to widespread pollution. These particles can absorb harmful chemicals and pose risks to ecosystems and human health. This project aims to develop advanced separation techniques using SATOORNIK Gen I technology, enhancing detection and removal efficiency. By refining our methods, we contribute to improved environmental monitoring and mitigation of polyester microplastic pollution. The report will be find here.
Separation of Polyethylene Microplastics Using SATOORNIK Gen I
(Jan. 2025 – Ongoing) focuses on the targeted separation of polyethylene (PE) microplastics, one of the most widely produced and persistent plastic pollutants. Found in disposable packaging, bags, and containers, PE microplastics accumulate in water, soil, and air, disrupting ecosystems and posing potential health risks. These particles can absorb toxic pollutants and interfere with microbial communities. This project utilizes SATOORNIK Gen I technology to enhance detection and removal efficiency, advancing microplastic separation techniques. By refining our approach, we contribute to improved environmental monitoring and the mitigation of PE microplastic pollution. The is available here.
Separation of PET Microplastics Using SATOORNIK Gen I
(Jan. 2025 – Ongoing) focuses on the targeted separation of polyethylene terephthalate (PET) microplastics, a major pollutant derived from textiles, beverage bottles, and food packaging. PET microplastics are widespread in aquatic and terrestrial environments, where they can adsorb harmful chemicals and pose risks to ecosystems and human health. This project leverages SATOORNIK Gen I technology to improve detection and removal efficiency, advancing separation methods for PET microplastics. The report is available here.
Separation of PLA Microplastics Using SATOORNIK Gen I
(Jan. 2025 – Ongoing) focuses on the targeted separation of polylactic acid (PLA) microplastics, a bioplastic commonly used in packaging, textiles, and disposable products. Despite being marketed as biodegradable, PLA can persist in the environment under certain conditions, contributing to microplastic pollution in water, soil, and air. These particles may affect ecosystems and interfere with natural degradation processes. This project utilizes SATOORNIK Gen I technology to enhance the detection and separation of PLA microplastics, improving environmental monitoring and mitigation strategies. The report available here.
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Under Construction.