1. Why should the International Development Committee examine this area?
Water pollution—particularly from sewage contamination—poses severe threats around the world. In low- and middle-income countries (LMICs), unsafe drinking water leads to over 1.5 million preventable deaths annually, according to the World Health Organization (WHO). These challenges are further amplified in disaster-affected areas, where infrastructure is severely compromised and swift, reliable water quality testing is urgently needed.
Automated Quantitative Microbiological Risk Assessment (AQMRA) technologies offer a transformative, field-based approach to water quality monitoring that is both rapid and highly accurate. They enable higher testing volumes, immediate data availability and centralization, and reduced costs, all while eliminating the need for slow, expensive lab analysis, which is often inaccessible in LMICs and virtually impossible in disaster zones. Certain AQMRA devices have already been verified by WHO and UNICEF under the Joint Monitoring Programme, confirming their suitability for drinking water testing in LMICs, and by extension, demonstrating their potential in emergency and disaster contexts. Fluidion’s ALERT technology is a leading example of such a science-driven, innovative and externally-validated AQMRA approach, delivering prompt, transformative benefits for aid and disaster relief efforts. Reflecting its contributions to automated microbiology testing, Fluidion was recently named a Top Innovator and Winner of the World Economic Forum’s 2024 “Tackling Water Pollution Challenge.”
2. Why is it the right time for the Committee to examine the area?
As climate change intensifies water scarcity and pollution, the need for robust, affordable solutions grows critical. In LMICs, waterborne diseases remain a leading cause of preventable deaths, and in the UK, growing public concerns center on sewage-related pollution. Fluidion’s ALERT technology is already in use domestically by organizations like the Environment Agency, utilities, NGOs, and community groups. Globally, it is being deployed in remote LMIC communities where traditional testing is infeasible, and even in high-profile events like the 2024 Olympics. Scaling up science-driven AQMRA solutions now is essential to address urgent global and emergency water quality challenges.
3. Why would this area benefit from parliamentary scrutiny?
Parliamentary scrutiny can:
- Maximize Resource Impact: Integrate AQMRA into UK aid initiatives to bring cost-effective, high-volume testing to LMICs and disaster-affected regions.
- Enable Science-Driven Accountability: Use real-time Big Data on water safety to inform transparent, evidence-based policies that adapt rapidly to crises.
- Enhance Risk Management: Adopt AQMRA methodologies to overcome limitations of lab-based approaches, ensuring timely, accurate assessments in challenging, remote or resource-challenged environments.
4. Why does the Government need to act in this area?
As a global leader in development aid and environmental protection, the UK has a strategic opportunity to champion improved water safety at scale. Supporting AQMRA deployment allows the government to:
- Save Lives in LMICs and Disaster Zones: Rapidly detect contamination and rapidly reduce mortality from waterborne diseases.
- Advance Public Health Protection: Use AQMRA insights to complement and refine existing, laboratory-centric risk assessment frameworks.
- Increase Return on Investment: Achieve greater impact with development funding by lowering testing costs while improving accuracy, reach, data volume and data availability.
- Improve Domestic Monitoring: Strengthen the UK’s efforts against sewage pollution through robust, cost-effective data collection and community-driven engagement.
5. How could Government policy in this area be developed or improved?
- Scale AQMRA Deployment: Invest in widespread use within LMICs and disaster-affected areas.
- Advance Methodologies: Utilize enhanced accuracy and speed from AQMRA to refine existing risk assessment and crisis management frameworks.
- Promote Data-Driven Policy: Harness immediate, large-scale data to support dynamic management strategies and transparently quantify impact of aid programs and policy initiatives.
- Strengthen Collaboration: Facilitate partnerships among government agencies, utilities, NGOs, and local communities.
- Boost Public Engagement: Encourage citizen involvement, fostering transparency, trust, and increasing data availability and transparency.
Conclusion
Global water pollution demands science-based, scalable solutions. AQMRA technologies like Fluidion’s ALERT not only overcome barriers posed by traditional testing methods, but also deliver heightened accuracy, faster results, lower costs, and higher testing volumes that are all crucial for LMICs and disaster-affected areas. Parliamentary scrutiny can ensure strategic policies and funding that position the UK at the forefront of improving global water safety efforts. We welcome further engagement to shape these vital initiatives.
References
Evaluation of Fluidion ALERT technology by WHO/Unicef Joint Monitoring Programme
Fluidion’s 2024 Olympics Open Data Initiative
Scientific literature on Fluidion ALERT AQMRA technology
- Angelescu D.E., Abi-Saab D., Ganaye R., Wanless D., Wong J., Addressing underestimation of waterborne disease risks due to fecal indicator bacteria bound in aggregates, Journal of Applied Microbiology, 135(11), lxae280, https://doi.org/10.1093/jambio/lxae280, 2024.
- Angelescu, D.E. Monitoring a planetary resource under threat. Nature Reviews Chemistry, 8, 561–563 https://doi.org/10.1038/s41570-024-00631-0, 2024.
- Knoche, F. et al., Portable and in-situ instruments for rapid quantification of E.coli in surface waters - Operation and validation of the Fluidion ALERT Technologies. Analytica Conference, 2022.
- Angelescu, D.E., Using a portable autonomous laboratory to prevent microbiological water supply contamination. Environmental Science and Engineering Magazine, pp.52–54, 2022.
- Angelescu, D.E. et al., Méthodologie et instrumentation innovantes pour étudier l’impact microbiologique de rejets domestiques en rivière. Techniques Sciences Méthodes, 116(6), pp.103–115, https://doi.org/10.36904/tsm/202106103, 2021.
- V. Rocher, S. Azimi (Eds.) Effectiveness of Disinfecting Wastewater Treatment Plant Discharges: Section 2, Chapter 2 – Case of Chemical Disinfection Using Performic Acid, London: IWA Publishing, DOI: https://doi.org/10.2166/9781789062106, ISBN electronic: 9781789062106, 2021.
- Dupain P., et al., Development of an innovative early warning system to manage bathing conditions in the Seine River in Paris region, UNESCO “Eaumega Water, Megacities and Global Change” Conference, 2020.
- Angelescu D.E., et al.. Novel methodology and instrumentation for in-situ microbiological risk assessment, UNESCO “Eaumega Water, Megacities and Global Change” Conference, 2020.
- Angelescu, D.E. et al., An In Situ Autonomous Bacterial Pathogen Sensor for Water Quality and Environmental Monitoring Applications, Weftec Proceedings, Water Environment Federation 3982–4403, 2018.
- Cronin, T. et al., Rapid E. coli quantification with field portable devices around UK bathing sites, Water Industry Journal 26–27, 2018.
- Loewenthal, M et al., Rapid Microbiology Field Instrumentation: Source Tracking In Sensitive Areas. Institute of Water Magazine 86–87, 2018.
- Angelescu, D.E. et al., Autonomous system for rapid field quantification of Escherichia coli in surface waters, Journal of Applied Microbiology 126, 332–343, https://doi.org/10.1111/jam.14066, 2018.
- S. Guerin et al., Mesure de la qualité microbiologique des eaux de surface par le Système ALERT de fluidion, Eau Industrie Nuisances, p. 81–87, Feb. 2017.
- V. Huynh, A. Hausot, D.E. Angelescu, An autonomous field sensor for Total Coliform and E.coli monitoring at remote sites, Oceans 2016 MTS/IEEE Monterey, 2016.