The aim of the CENTAUR project is to develop a low cost system that is able to mobilise unused distributed storage within sewer networks during rainfall events and so reduce local flood risk. The current system uses a Fuzzy Logic algorithm to regulate a flow control device to reduce the risk of downstream flooding in sewers by maximising the usage of existing upstream storage capacity. This paper presents results from a laboratory study using a full scale pilot system and work undertaken to refine and prove the methodology before implementation in a sewer network
A fuzzy logic controller - WNC (Water Network Control) was developed for control of urban drainage s...
The selection of flow control device (FCD) location is an essential step for designing real-time con...
CITATION: Bester, A. J., Jacobs, H. E., & Tulleken, J. 2015. Conceptual framework for sewer pump pro...
The aim of the CENTAUR project (Cost Effective Neural Technique for Alleviation of Urban flood Risk)...
This paper will describe and present results for a local flood risk reduction system which utilises ...
The effects of climate change and urbanisation are putting increasing pressure on wastewater network...
Urban flooding events which are often caused by a lack of capacity of the urban collecting system, c...
Urban flooding damages properties, causes economic losses and can seriously threaten public health. ...
CENTAUR aims to provide an innovative, cost effective, local autonomous data driven in-sewer flow co...
This paper proposes a data driven (Fuzzy Logic) control algorithm for use in a real time control (RT...
The use of fuzzy logic for the real-time control of flows in a combined sewer system is examined in...
The control strategy for sewer pumping stations currently used by Anglian Water, and most other UK w...
This dataset contains results from testing carried out at a laboratory facility at the University of...
One of the most cost effective methods for limiting sewer overflows and flooding is to actively cont...
One of the most cost effective methods for limiting sewer overflows and flooding is to actively cont...
A fuzzy logic controller - WNC (Water Network Control) was developed for control of urban drainage s...
The selection of flow control device (FCD) location is an essential step for designing real-time con...
CITATION: Bester, A. J., Jacobs, H. E., & Tulleken, J. 2015. Conceptual framework for sewer pump pro...
The aim of the CENTAUR project (Cost Effective Neural Technique for Alleviation of Urban flood Risk)...
This paper will describe and present results for a local flood risk reduction system which utilises ...
The effects of climate change and urbanisation are putting increasing pressure on wastewater network...
Urban flooding events which are often caused by a lack of capacity of the urban collecting system, c...
Urban flooding damages properties, causes economic losses and can seriously threaten public health. ...
CENTAUR aims to provide an innovative, cost effective, local autonomous data driven in-sewer flow co...
This paper proposes a data driven (Fuzzy Logic) control algorithm for use in a real time control (RT...
The use of fuzzy logic for the real-time control of flows in a combined sewer system is examined in...
The control strategy for sewer pumping stations currently used by Anglian Water, and most other UK w...
This dataset contains results from testing carried out at a laboratory facility at the University of...
One of the most cost effective methods for limiting sewer overflows and flooding is to actively cont...
One of the most cost effective methods for limiting sewer overflows and flooding is to actively cont...
A fuzzy logic controller - WNC (Water Network Control) was developed for control of urban drainage s...
The selection of flow control device (FCD) location is an essential step for designing real-time con...
CITATION: Bester, A. J., Jacobs, H. E., & Tulleken, J. 2015. Conceptual framework for sewer pump pro...