Sweden Water Research conducts research into water and develops new, effective solutions to meet the future challenges facing the water services industry.
We create, run, participate in and initiate projects that seek out suitable partnerships, with the ultimate aim of increasing knowledge of successful methods for the development and climate change adaptation of the cities of the future. Projects within Sweden Water Research are run in close collaboration with the owner municipalities and will, in either the short or the long term, benefit day-to-day operations.
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focuses on improving the operation of anaerobic digesters treating blackwater. Through targeted measures, monitoring and testing in both the Netherlands and Helsingborg, the project aims to achieve more stable and efficient digestion, with reduced sludge washout and improved management of floating sludge.
The water sector in both Denmark and Sweden is facing a rapidly growing skills shortage. With this project, we aim to build a stronger Danish–Swedish collaboration to ensure a sustainable skills supply for the water sector.
We are facing a decisive shift in how we should monitor water quality. New methods enable real-time analysis and create the conditions for safe drinking water and circular water management, where water is recycled and used more intelligently.
ReCircWater addresses a pressing challenge for the South Baltic region: how to treat, manage and reuse urban stormwater so fewer pollutants reach the Baltic Sea and more water can be put to beneficial use.
MABR (“membrane aerated biofilm reactor”) is a relatively new technology for wastewater treatment that allows for increased treatment capacity in existing volumes.
This is the PhD research project of Ronja Nybom. Ronja is an industrial PhD student working for Sweden Water Research, VA SYD and Lund University.
A cross-industry initiative has been created to reduce nitrous oxide emissions from Swedish wastewater treatment.
Opti-SITE aims to develop a methodology for identifying suitable areas for implementing nature-based stormwater solutions in urban environments using high-resolution radar data and AI. The goal is to identify the most effective infrastructure scenarios, considering location and scale, to maximise stormwater management while minimising adaptation costs.
The project aims to optimise sensor placement in stormwater and wastewater networks, focusing on improving the monitoring of water flows.
Requirements for sludge sanitisation are something that water and wastewater operations will likely need to address within the next 5–15 years. One proposed option for sanitisation is thermophilic digestion at 55°C, with an exposure time of 8 hours.
Using digital twins, we aim to manage preparedness and crisis situations in a safe and efficient manner for decision-makers, operational staff, and customer service personnel within the water industry.
How can digital tools help us save water and adapt our cities to the climate?
