Oxyle’s nanoporous catalyst.
Photo Credit: Oxyle
Founded in 2020, Oxyle (Zurich, Switzerland) is reported to have developed a sustainable and scalable technology that destroys a wide range of micropollutants including the forever chemicals such as PFAS from contaminated wastewater.
Oxyle’s novel treatment process is driven by their nanoporous catalysts that oxidize and eliminate micropollutants, down to detection limits of 1 ng/L, even for the highly persistent compounds that are resistant to existing treatments. This treatment process is coupled with Oxyle’s proprietary analytics technology that allows for real-time monitoring of micropollutants, a unique offering that helps customers comply with strict discharge regulations.
The core technology behind this game changing innovation was developed over 5 years by Oxyle’s CEO and co-founder,
Oxyle cofounders Dr. Fajer Mushtaq and Dr. Silvan Staufert.
Photo Credit: Oxyle
the concept of a novel catalyst for micropollutant degradation was built into a scalable technology platform that is able to address the problem where it matters: at the source, before they enter waterways.
Oxyle has successfully completed several paid pilots with industrial and municipal customers, advanced its technology to TRL8 through on-site demonstrations. Oxyle says its team of water experts possess strong expertise in developing and implementing advanced water treatment and monitoring solutions for its customers.
The company has announced a CHF 2.8 million pre-seed funding round to bring to market their mission of protecting ecosystems against micropollutants. The funding round was led by Wingman Ventures with participation from SOSV, Better Ventures, and another.vc. Including this round, with pre-seed non-dilutive funds and grants raised last year, Oxyle has raised over CHF 7 million in total.
Oxyle AG | www.oxyle.ch
Related Content
-
NASF/AESF Foundation Research Project #122: Electrochemical Approaches to Treatment of PFAS in Plating Wastewater - 7th Quarterly Report
The NASF-AESF Foundation Research Board has selected a project on addressing the problem of PFAS and related chemicals in plating wastewater streams, studying PFAS destruction via electrooxidation and electrocoagulation. Our last report described the results from experiments of EO with a Magnéli phase Ti4O7 anode on the degradation of eight perfluoroalkyl acids (PFAAs). In this seven quarter report, we describe work to further explore how the degradation of different PFAAs are related to their molecular structures.
-
Top 5 Areas to Consider Automation of Plating Operations
Automation for finishing operations can lead to improvements in process time, repeatability and consistency of quality. Yet, processes that make sense to explore for these operational efficiencies may not always be readily apparent.
-
Hubbard-Hall Acquires BioConversion Technology
The acquisition adds experience and biologics to the AquaPure product line.
