Newcastle and EVOCRA Chase a Field Ready PFAS Fix

A University of Newcastle and EVOCRA project is pushing PFAS destruction technology closer to practical, on site remediation in Australia

10 Mar 2026

A partnership between the University of Newcastle and the remediation technology firm EVOCRA is moving a new system for destroying PFAS chemicals closer to practical deployment in Australia. Supported by the TRaCE R&D Voucher program, the project focuses on a pilot-scale device known as the PFAS Harvester, designed to break down concentrated PFAS waste while recovering usable byproducts. According to the partners, the aim is to avoid simply shifting contamination into another disposal stream, a long-standing challenge in PFAS management.

The initiative builds on EVOCRA’s existing OCRA process, which the company describes as a method for concentrating PFAS from complex water sources. The current research seeks to pair that concentration step with a destruction stage located at or near the remediation site. In principle, such an approach could allow contaminated material to be treated directly after extraction rather than transported to distant facilities.

That shift could carry practical advantages for sectors already grappling with PFAS liabilities. Airports, utilities, defence-linked sites and industrial operators have faced growing pressure to manage the chemicals, widely known as “forever chemicals” because of their persistence in the environment, while controlling the costs associated with hauling, storage and disposal of secondary waste. Project participants say integrating concentration and destruction could reduce transport risks and streamline field deployment.

Still, questions remain about the technical and regulatory landscape surrounding PFAS destruction technologies. Thermal treatment methods have drawn scrutiny because incomplete processing can generate harmful byproducts and require substantial energy input. Australian researchers, including teams associated with CSIRO and the University of Newcastle, have repeatedly emphasized the need for verified mineralisation, the complete breakdown of PFAS compounds, alongside tighter control of treatment conditions.

Yet the collaboration between Newcastle researchers and EVOCRA represents more than a laboratory investigation. According to those involved, the effort is intended as a market-facing attempt to link concentration, destruction and resource recovery into a single remediation workflow. If successful, the model could offer a pathway toward permanent PFAS treatment options at a time when many site operators are seeking solutions that go beyond temporary containment.