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O.S. van der Marel
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The growing energy demand, along with more greenhouse gas emissions, highlights the need for renewable alternatives to fossil fuels. One promising option for space heating is aquathermal energy from surface water (TEO), especially in areas with a significant amount of surface water. However, TEO systems generally require substantial spatial integration, which poses challenges in dense urban areas such as the historic city centre of Amsterdam. In particular, limited (sub)surface space and existing infrastructure complicate implementation. Quay walls may offer a potential solution for the spatial integration of TEO, but the conditions under which this would be technically, spatially, and economically viable remain unclear.
This research investigates the feasibility of utilising TEO in historic city centres, with a case study in Amsterdam. It focuses on the potential for integration into quay walls. A linked modelling approach was used to assess the spatial requirements, CO₂ reduction, and investment costs under various heating demand scenarios and system base loads. Heating demand was varied based on different retrofitting levels, and first-order TEO system designs were developed accordingly.
The results of the study indicate that a higher base load to be covered by the renewable source (TEO), combined with less retrofitted buildings results in significantly higher spatial requirements. This could potentially complicate quay wall integration. However in most scenarios, TEO systems could be integrated into the quay walls.
The CO2 reduction was assessed for all scenarios. For increased base loads covered by TEO systems and high retrofitting levels of the buildings, the CO2 reduction was the highest. This would outperform the all-electric scenario.
Financially, the lower retrofitting levels would result in slightly lower investment costs per dwelling. The effect of a higher base load delivered by TEO systems was found to be relatively minor. Although the TEO systems require a significantly higher financial investment, the national costs could be lower. This should be studied further in future research. ...
This research investigates the feasibility of utilising TEO in historic city centres, with a case study in Amsterdam. It focuses on the potential for integration into quay walls. A linked modelling approach was used to assess the spatial requirements, CO₂ reduction, and investment costs under various heating demand scenarios and system base loads. Heating demand was varied based on different retrofitting levels, and first-order TEO system designs were developed accordingly.
The results of the study indicate that a higher base load to be covered by the renewable source (TEO), combined with less retrofitted buildings results in significantly higher spatial requirements. This could potentially complicate quay wall integration. However in most scenarios, TEO systems could be integrated into the quay walls.
The CO2 reduction was assessed for all scenarios. For increased base loads covered by TEO systems and high retrofitting levels of the buildings, the CO2 reduction was the highest. This would outperform the all-electric scenario.
Financially, the lower retrofitting levels would result in slightly lower investment costs per dwelling. The effect of a higher base load delivered by TEO systems was found to be relatively minor. Although the TEO systems require a significantly higher financial investment, the national costs could be lower. This should be studied further in future research. ...
The growing energy demand, along with more greenhouse gas emissions, highlights the need for renewable alternatives to fossil fuels. One promising option for space heating is aquathermal energy from surface water (TEO), especially in areas with a significant amount of surface water. However, TEO systems generally require substantial spatial integration, which poses challenges in dense urban areas such as the historic city centre of Amsterdam. In particular, limited (sub)surface space and existing infrastructure complicate implementation. Quay walls may offer a potential solution for the spatial integration of TEO, but the conditions under which this would be technically, spatially, and economically viable remain unclear.
This research investigates the feasibility of utilising TEO in historic city centres, with a case study in Amsterdam. It focuses on the potential for integration into quay walls. A linked modelling approach was used to assess the spatial requirements, CO₂ reduction, and investment costs under various heating demand scenarios and system base loads. Heating demand was varied based on different retrofitting levels, and first-order TEO system designs were developed accordingly.
The results of the study indicate that a higher base load to be covered by the renewable source (TEO), combined with less retrofitted buildings results in significantly higher spatial requirements. This could potentially complicate quay wall integration. However in most scenarios, TEO systems could be integrated into the quay walls.
The CO2 reduction was assessed for all scenarios. For increased base loads covered by TEO systems and high retrofitting levels of the buildings, the CO2 reduction was the highest. This would outperform the all-electric scenario.
Financially, the lower retrofitting levels would result in slightly lower investment costs per dwelling. The effect of a higher base load delivered by TEO systems was found to be relatively minor. Although the TEO systems require a significantly higher financial investment, the national costs could be lower. This should be studied further in future research.
This research investigates the feasibility of utilising TEO in historic city centres, with a case study in Amsterdam. It focuses on the potential for integration into quay walls. A linked modelling approach was used to assess the spatial requirements, CO₂ reduction, and investment costs under various heating demand scenarios and system base loads. Heating demand was varied based on different retrofitting levels, and first-order TEO system designs were developed accordingly.
The results of the study indicate that a higher base load to be covered by the renewable source (TEO), combined with less retrofitted buildings results in significantly higher spatial requirements. This could potentially complicate quay wall integration. However in most scenarios, TEO systems could be integrated into the quay walls.
The CO2 reduction was assessed for all scenarios. For increased base loads covered by TEO systems and high retrofitting levels of the buildings, the CO2 reduction was the highest. This would outperform the all-electric scenario.
Financially, the lower retrofitting levels would result in slightly lower investment costs per dwelling. The effect of a higher base load delivered by TEO systems was found to be relatively minor. Although the TEO systems require a significantly higher financial investment, the national costs could be lower. This should be studied further in future research.
In order to reduce the emissions of CO2 and other greenhouse gasses, sustainable development is gaining in importance in the recent years. This is also the case for TU Delft. The sustainable advancement requires renewable energy sources that do not require fossil fuels. The wastewater flow is currently not utilised as a renewable energy source at the TU Delft campus. Thermal energy is 80% of the total energy embedded in wastewater. In order to increase the amount of green energy that is produced on campus, it is useful to analyse the possibilities regarding the thermal energy recovery from wastewater.
This study aims to give substantiated recommendations towards TU Delft, about how this currently dissipated flow can be used to generate energy. The main research question this research aims to answer is: “How can thermal energy recovery from wastewater contribute to the TU Delft campus?”
This main research question could be answered through literature reviews and three case studies, whereafter and implementation followed. First, an understanding of energy recovery from wastewater should be gained. Based on the conclusion that thermal energy carries the most potential in a wastewater flow, different technologies on different scales were defined. This lead to a toolkit that could be used in further analyses. It was used in the three case studies that followed. This provided further insight into how the technologies on different scales on university campuses can be implemented. Locations at the TU Delft campus have then been reviewed and potential interventions have been pointed out. The results showed that small and medium scale interventions at selected locations are possible. Projects on a larger scale would not be feasible on the campus.
Further research could be conducted to extend the toolkit and make a cost-benefit analysis (CBA). Installation and maintenance costs should be evaluated in order to make the recommendations economically feasible. ...
This study aims to give substantiated recommendations towards TU Delft, about how this currently dissipated flow can be used to generate energy. The main research question this research aims to answer is: “How can thermal energy recovery from wastewater contribute to the TU Delft campus?”
This main research question could be answered through literature reviews and three case studies, whereafter and implementation followed. First, an understanding of energy recovery from wastewater should be gained. Based on the conclusion that thermal energy carries the most potential in a wastewater flow, different technologies on different scales were defined. This lead to a toolkit that could be used in further analyses. It was used in the three case studies that followed. This provided further insight into how the technologies on different scales on university campuses can be implemented. Locations at the TU Delft campus have then been reviewed and potential interventions have been pointed out. The results showed that small and medium scale interventions at selected locations are possible. Projects on a larger scale would not be feasible on the campus.
Further research could be conducted to extend the toolkit and make a cost-benefit analysis (CBA). Installation and maintenance costs should be evaluated in order to make the recommendations economically feasible. ...
In order to reduce the emissions of CO2 and other greenhouse gasses, sustainable development is gaining in importance in the recent years. This is also the case for TU Delft. The sustainable advancement requires renewable energy sources that do not require fossil fuels. The wastewater flow is currently not utilised as a renewable energy source at the TU Delft campus. Thermal energy is 80% of the total energy embedded in wastewater. In order to increase the amount of green energy that is produced on campus, it is useful to analyse the possibilities regarding the thermal energy recovery from wastewater.
This study aims to give substantiated recommendations towards TU Delft, about how this currently dissipated flow can be used to generate energy. The main research question this research aims to answer is: “How can thermal energy recovery from wastewater contribute to the TU Delft campus?”
This main research question could be answered through literature reviews and three case studies, whereafter and implementation followed. First, an understanding of energy recovery from wastewater should be gained. Based on the conclusion that thermal energy carries the most potential in a wastewater flow, different technologies on different scales were defined. This lead to a toolkit that could be used in further analyses. It was used in the three case studies that followed. This provided further insight into how the technologies on different scales on university campuses can be implemented. Locations at the TU Delft campus have then been reviewed and potential interventions have been pointed out. The results showed that small and medium scale interventions at selected locations are possible. Projects on a larger scale would not be feasible on the campus.
Further research could be conducted to extend the toolkit and make a cost-benefit analysis (CBA). Installation and maintenance costs should be evaluated in order to make the recommendations economically feasible.
This study aims to give substantiated recommendations towards TU Delft, about how this currently dissipated flow can be used to generate energy. The main research question this research aims to answer is: “How can thermal energy recovery from wastewater contribute to the TU Delft campus?”
This main research question could be answered through literature reviews and three case studies, whereafter and implementation followed. First, an understanding of energy recovery from wastewater should be gained. Based on the conclusion that thermal energy carries the most potential in a wastewater flow, different technologies on different scales were defined. This lead to a toolkit that could be used in further analyses. It was used in the three case studies that followed. This provided further insight into how the technologies on different scales on university campuses can be implemented. Locations at the TU Delft campus have then been reviewed and potential interventions have been pointed out. The results showed that small and medium scale interventions at selected locations are possible. Projects on a larger scale would not be feasible on the campus.
Further research could be conducted to extend the toolkit and make a cost-benefit analysis (CBA). Installation and maintenance costs should be evaluated in order to make the recommendations economically feasible.