Within the scope of our activities in municipal water management, we focus on the integrated optimization of wastewater conveyance, treatment, and reuse through research, development, and technical consulting. Our core competencies lie in providing technical advice and support to operators, as well as in the development and implementation of novel processes for optimized wastewater conveyance and treatment.
A central aspect of our work is the scientific evaluation and guidance of the deployment of new technologies in wastewater treatment. In particular, our tasks involve analyzing and interpreting operational data, thereby supporting decision-making processes in the adoption of innovative treatment approaches.
In the context of our research activities, we investigate sensor technologies and control strategies in combined sewer systems. Our work is aimed at developing solutions that are specifically tailored to the needs of sewer network operators.
Our research extends beyond the treatment plant itself, considering treated wastewater as a reusable resource. We focus on the development of novel validation methods for decentralized water treatment systems through innovative monitoring and control concepts. Furthermore, we are engaged in research projects in wastewater-based epidemiology, where wastewater analyses are used to infer the prevalence and spread of pathogens in the population, thereby contributing to public health monitoring and preventive measures.
Urban drainage systems face increasing challenges: intense rainfall events, demographic changes, rising environmental standards, and, not least, the requirements of the KARL project demand innovative solutions. Our research focuses on intelligent technologies and control concepts to make wastewater systems more efficient, resource-conserving, and future-proof.
Currently, we place emphasis on the development and deployment of advanced sensors for real-time monitoring of flow rates, pollutant loads, and overall system conditions. These data serve as the basis for designing intelligent, volume- and load-based control strategies. The goal is to prevent system overloads, operate treatment plants more efficiently, and minimize the discharge of pollutants into receiving waters.
By integrating digitalization, automation, and process engineering, we contribute to making urban drainage systems both climate-resilient and cost-efficient—benefiting operators and the environment alike.