Bioremediation projects tailored for our customers
Bioremediation of Microplastics
​Microplastics pose a significant environmental challenge, contaminating ecosystems and threatening biodiversity. They are becoming increasingly prevalent in water bodies due to the growing production of plastics.
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ASPIDIA focuses on innovative research in the bioremediation of common microplastics, such as polyethylene and polypropylene, to provide new effective and sustainable solutions.
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Using microorganisms, enzymes, advanced genetic engineering, and computational methods, our team is developing sustainable ways to degrade microplastics in water. This approach will not only reduce microplastic pollution, but also improve water quality and public health.
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Future developments in this area could revolutionize environmental remediation by improving the efficiency and scalability of bioremediation techniques. With continued research, we may soon see bioremediation technologies implemented on a global scale, providing an environmentally friendly alternative to traditional waste management practices.
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PIONEERING PFAS BIOREMEDIATION RESEARCH
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Per- and polyfluoroalkyl substances (PFAS) are persistent environmental contaminants known for their resistance to degradation and widespread contamination of water, soil and living organisms. Even if we stopped producing them tomorrow, which is impossible because fluoropolymers are irreplaceable in many advanced industrial applications, including medical devices, aerospace, energy transition products, etc., those that are in the environment today would still be there.
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ASPIDIA's cutting-edge research in PFAS bioremediation offers a novel approach to solving this global problem. By harnessing the power of microorganisms and engineered enzymes, our team aims to develop environmentally friendly methods to degrade and mineralize PFAS compounds in water, particularly PFOA, which is a widespread human carcinogen.
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As research progresses, potential developments in this area could lead to more efficient, cost-effective and scalable solutions for PFAS remediation. These advances could transform environmental protection efforts by providing sustainable alternatives to current technologies that rely on adsorption on activated carbon or ion exchange resins followed by incineration of PFAS, while protecting public health and ecosystems.
Oil pollution from oil spills and industrial activities has occurred on several occasions in the past and is a real risk given the widespread use of oil and the methods used to transport and process it. Such pollution poses serious risks to ecosystems and human health and must be addressed quickly.
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ASPIDIA's research on oil bioremediation builds on solid, previously explored scientific foundations and aims to explore innovative ways of bioremediation through the discovery and use of new microorganisms and new enzymes to degrade oil in water. In addition, we want to optimize the combination of enzymes by cascading them so that they work synergistically.
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The future of bioremediation of oil in water is promising, offering an environmentally friendly and efficient alternative to conventional remediation methods. As new technologies emerge, bioremediation could become a cornerstone of sustainable environmental remediation, providing scalable and cost-effective solutions for managing oil contamination worldwide.
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Bioremediation of Hydrocarbons
Bioremediation of Leather Waste
The leather industry is known for its luxury and consumer products. However, it also generates significant amounts of waste, including waste hides, organic by-products, dyes, and various toxic chemicals that can harm the environment.
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To address this problem, ASPIDIA is conducting innovative research into new methods for bioremediation of leather processing wastes. By discovering and utilizing new microorganisms and enzymes, optimizing enzymatic reactions, and modifying and engineering enzymes, our team is developing methods to break down leather waste, metabolize harmful compounds, and convert organic by-products into environmentally friendly materials.
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As this research evolves, it has the potential to transform waste management in the leather industry. Future advances could lead to more efficient and scalable processes, reducing environmental impact while promoting sustainability and circular economy practices within the industry.
