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Writer's pictureMitra Nikpay

Enhancing Membrane Efficiency with SATOORNIK Gen I Technology



Membranes have long been announced for their capability to separate a variety of contaminants from water, making them a critical component in modern wastewater treatment and desalination processes. Recently, there has been growing interest and claims regarding their potential to filter out micro and nano-plastics from water sources. These tiny plastic particles, originating from industrial processes, consumer products, and the degradation of larger plastics, pose significant environmental and health risks. While membranes can indeed capture these pollutants to some extent, the practicality and sustainability of this method are doubtful.


Using membranes for the separation of microplastics in wastewater treatment is loaded with several challenges that make it an impractical solution. One major issue is the high energy consumption required to maintain the pressure needed for effective filtration, which significantly increases operational costs. Additionally, membranes are prone to fouling, where particles and microorganisms accumulate on the membrane surface, reducing its efficiency and lifespan. This necessitates frequent cleaning and replacement, often using strong chemicals (acidic or alkaline), which pose additional environmental risks while further adding to maintenance costs and operational complexity. Technical problems such as membrane clogging and reduced permeability over time also compromise the system’s reliability and efficiency in consistently removing microplastics.


Moreover, even if membranes successfully capture microplastics, a critical question remains: what happens to these pollutants post-separation? The microplastics and other nano-pollutants do not disappear but are instead transferred to the sludge generated during the wastewater treatment process. This sludge is often used as fertilizer in agricultural practices or disposed of in landfills, potentially reintroducing microplastics into the environment. Thus, while membranes can provide a temporary solution for microplastic separation, they ultimately fail to eliminate these contaminants, leading to their re-entry into natural water bodies or the soil, continuing the pollution cycle.


The strategic implementation of the SATOORNIK Gen I technology for microplastic separation offers a promising solution to these challenges. This technology reduces the burden on traditional membrane systems by effectively removing microplastics at an earlier stage in the wastewater treatment process, thereby enhancing their efficiency and long life. Moreover, the SATOORNIK Gen I technology ensures that microplastics are eliminated from the environment, preventing them from re-entering water resources or being returned to agricultural sludge. This protects our water sources and promotes a cleaner, healthier ecosystem, addressing the microplastic pollution problem at its source.

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