A. Wandl
Please Note
22 records found
1
Stilt City
Living With The Seasons
Live in Between
The integrated and socio-ecologically resilient development of desakota in the context of shrinking cities in Liaoning, China
Socio-ecological systems are dynamic and unpredictable (Berkes, 2017). Traditional planning can only partially cope with it (Balducci et al, 2011) while adaptive planning provides more flexibility and adaptivity. Adaptive planning can enhance socio-ecological resilience in desakota from both spatial and institutional dimensions. Building on socio-ecological resilience, these areas increase the potential to provide socio-ecological values to the megaregion.
Therefore, in the context of shrinkage, this study aims to investigate how socio-ecological resilience can be built in peri-urban areas through adaptive planning, with attention to spatial and institutional dimensions, to counter socio-ecological degradation and achieve integrated development. ...
Socio-ecological systems are dynamic and unpredictable (Berkes, 2017). Traditional planning can only partially cope with it (Balducci et al, 2011) while adaptive planning provides more flexibility and adaptivity. Adaptive planning can enhance socio-ecological resilience in desakota from both spatial and institutional dimensions. Building on socio-ecological resilience, these areas increase the potential to provide socio-ecological values to the megaregion.
Therefore, in the context of shrinkage, this study aims to investigate how socio-ecological resilience can be built in peri-urban areas through adaptive planning, with attention to spatial and institutional dimensions, to counter socio-ecological degradation and achieve integrated development.
Establishing Post Lithium Landscapes
Spatial Transformations for Evolving Circular Economies in Portugal
The research involved developing a spatial strategy that integrates facilities for lithium extraction, processing, battery production, and recycling. Incorporating insights from analyzing the region’s conditions, the metabolic and spatial footprint of each facility in the supply chain, and proposing strategic locations for the facilities and their supporting and infrastructural systems. The strategy is designed to support both the extractivist and post-extractivist states, ensuring sustainable long-term development.
The key findings demonstrate that the proposed strategy effectively minimizes the nuisances of the extractive operations while supporting conditions for a circular post-extractivist state. In the extractivist state, facilities are efficiently located for lithium extraction, processing, and exportation. In the post-extractivist state are infrastructures repurposed for bio-based economies and lithium recycling, while promoting circularity and reducing reliance on new raw material extraction. The strategy enhances Europe’s independence in lithium supply, strengthens Portugal’s role in achieving green transition goals, fosters long-term circular development in the Norte region, and supports conditions in the Alto Tamega subregion for a circular bio-based economy that helps remediate the mining landscape, while connecting to the local economy and cultural identity, as well as creating additional income for these rural areas.
The findings show the set of key interventions – including urban development for (temporary) worker accommodations, infrastructural reinforcement and development, change in cultivation patterns, water and energy infrastructure development, and industrial development – that are necessary to shape the conditions that support both states. These set of interventions could inspire other European countries to establish the necessary extractivist landscapes progressively, ensuring circular long-term development. However, the thesis recommends, that future elaboration is necessary on engaging with local communities and refining the strategy through participatory methods to ensure successful implementation. ...
The research involved developing a spatial strategy that integrates facilities for lithium extraction, processing, battery production, and recycling. Incorporating insights from analyzing the region’s conditions, the metabolic and spatial footprint of each facility in the supply chain, and proposing strategic locations for the facilities and their supporting and infrastructural systems. The strategy is designed to support both the extractivist and post-extractivist states, ensuring sustainable long-term development.
The key findings demonstrate that the proposed strategy effectively minimizes the nuisances of the extractive operations while supporting conditions for a circular post-extractivist state. In the extractivist state, facilities are efficiently located for lithium extraction, processing, and exportation. In the post-extractivist state are infrastructures repurposed for bio-based economies and lithium recycling, while promoting circularity and reducing reliance on new raw material extraction. The strategy enhances Europe’s independence in lithium supply, strengthens Portugal’s role in achieving green transition goals, fosters long-term circular development in the Norte region, and supports conditions in the Alto Tamega subregion for a circular bio-based economy that helps remediate the mining landscape, while connecting to the local economy and cultural identity, as well as creating additional income for these rural areas.
The findings show the set of key interventions – including urban development for (temporary) worker accommodations, infrastructural reinforcement and development, change in cultivation patterns, water and energy infrastructure development, and industrial development – that are necessary to shape the conditions that support both states. These set of interventions could inspire other European countries to establish the necessary extractivist landscapes progressively, ensuring circular long-term development. However, the thesis recommends, that future elaboration is necessary on engaging with local communities and refining the strategy through participatory methods to ensure successful implementation.
Ports, Portscapes and Port Landscapes
The 100 year vision and strategy for circular and just spaces
Despite their significance, the spatial effects of Portscapes and their role in a shift towards sustainability and circularity is rarely the main focus of urban and regional design efforts. Drawing upon key theories such as circularity, decentralisation, socio-spatial justice, and sustainable land use, our approach involves a multidisciplinary analysis of ports and Portscapes in the Eurodelta portlandscape in North-Western Europe. Through analysis we have identified the different functioning of portscapes, the stakeholders they encompass and the spatial dynamics shaping ports, Portscapes and Port Landscapes.
Our goal is to develop a strategy for the future of the European Portscape after a successful transition towards circular and just development to create a sustainable Eurodelta. This is achieved through a set of five objectives; integrating the ports, Portscapes and portlandscapes; increasing the resource efficiency of Portscapes; regenerating Portscapes for humans and nature; embracing technological innovation; facilitating a socially just transition.
The spatial implications of these five objectives should not be neglected, and our strategy outlines what changes need to happen and when. In four Phases of spatial interventions and regulatory frameworks, we propose to build a just and truly circular Portscape, in harmony with the Eurodelta Port Landscape.
This report holds key implications for both academia and practice, as further light is being shed on the spatial dynamics of Portscapes and potential transition pathways. By understanding the interplay of ports with their surrounding environments better, policymakers, urbanists and other related stakeholders can make informed decisions that promote sustainability and resilience. Ultimately, our efforts regarding the creation of more sustainable Portscapes contribute to broader (global) goals of addressing climate change, promoting socio-spatial justice and ensuring inclusive development.
...
Despite their significance, the spatial effects of Portscapes and their role in a shift towards sustainability and circularity is rarely the main focus of urban and regional design efforts. Drawing upon key theories such as circularity, decentralisation, socio-spatial justice, and sustainable land use, our approach involves a multidisciplinary analysis of ports and Portscapes in the Eurodelta portlandscape in North-Western Europe. Through analysis we have identified the different functioning of portscapes, the stakeholders they encompass and the spatial dynamics shaping ports, Portscapes and Port Landscapes.
Our goal is to develop a strategy for the future of the European Portscape after a successful transition towards circular and just development to create a sustainable Eurodelta. This is achieved through a set of five objectives; integrating the ports, Portscapes and portlandscapes; increasing the resource efficiency of Portscapes; regenerating Portscapes for humans and nature; embracing technological innovation; facilitating a socially just transition.
The spatial implications of these five objectives should not be neglected, and our strategy outlines what changes need to happen and when. In four Phases of spatial interventions and regulatory frameworks, we propose to build a just and truly circular Portscape, in harmony with the Eurodelta Port Landscape.
This report holds key implications for both academia and practice, as further light is being shed on the spatial dynamics of Portscapes and potential transition pathways. By understanding the interplay of ports with their surrounding environments better, policymakers, urbanists and other related stakeholders can make informed decisions that promote sustainability and resilience. Ultimately, our efforts regarding the creation of more sustainable Portscapes contribute to broader (global) goals of addressing climate change, promoting socio-spatial justice and ensuring inclusive development.
Building resilience
Design strategies in planning for a densified Gelderland
The project centres around the shared framework of space in response to the uncertainties that we are faced with. Though these uncertainties impact various processes and elements within complex systems, the spatial conditions of a location play a crucial role in determining the functioning of the systems that are embedded within it. Recognizing the significance of (the alteration of) space offers an opportunity to address processes on different layers and promote resilience in a holistic manner.
By categorizing areas based on potentials and vulnerabilities, and employing different scenarios, the research identifies suitable locations for densification and develops strategies for improving connectivity, efficiency, modularity, redundancy, and diversity in urban environments. The multiscalar approach involves diverse and phased developments to answer to the pressure on space. By designing with higher densities with resilience as a starting point, urban environments can benefit from the transformation and the negative effects of climate change and densification can be mitigated. ...
The project centres around the shared framework of space in response to the uncertainties that we are faced with. Though these uncertainties impact various processes and elements within complex systems, the spatial conditions of a location play a crucial role in determining the functioning of the systems that are embedded within it. Recognizing the significance of (the alteration of) space offers an opportunity to address processes on different layers and promote resilience in a holistic manner.
By categorizing areas based on potentials and vulnerabilities, and employing different scenarios, the research identifies suitable locations for densification and develops strategies for improving connectivity, efficiency, modularity, redundancy, and diversity in urban environments. The multiscalar approach involves diverse and phased developments to answer to the pressure on space. By designing with higher densities with resilience as a starting point, urban environments can benefit from the transformation and the negative effects of climate change and densification can be mitigated.
Dynamic Production Forests
Planting new forests on old agricultural land in The Netherlands
Using wood as a dominant building material would have a positive effect on these problems. The Netherlands used to produce wood on a large scale, but a shift in the functions that forests had to accommodate caused production to become secondary.
Currently, there is no circular system in the Netherlands in which landscapes produce materials that can be used in the common building industry on a local scale.
The main goal for this project is to show a future in which the production of wood and the forests that go with it play a central role in our day to day landscapes. This will be done by answering the research question: “How can a sustainable and multifunctional production forest be designed in the Netherlands?”
The current nitrogen crisis and the expected buy-out of farmers who run intensive cattle farms around Natura 2000 areas, will be used as a starting point for the design location.
The outcome shows three types of production forests that differ in accommodating five aspects that are valued in forests: production, recreation, biodiversity, climate resilience and experience of landscape. This way a new idea can be formed on how forests can be productive, while also providing space for animals and humans in the Netherlands. The design is tested on sand soil in Hattem, but could be applied to any agricultural land.
The discussion elaborates on the reason why production forests are not planted on a large scale to provide a circular material producing system. Taking into account: the current relationship between humans and materials, the difficulty of circular thinking due to the complexity of current systems, the long-term thinking that has disappeared in our culture and the unpredictability of the future due to rapid global changes. ...
Using wood as a dominant building material would have a positive effect on these problems. The Netherlands used to produce wood on a large scale, but a shift in the functions that forests had to accommodate caused production to become secondary.
Currently, there is no circular system in the Netherlands in which landscapes produce materials that can be used in the common building industry on a local scale.
The main goal for this project is to show a future in which the production of wood and the forests that go with it play a central role in our day to day landscapes. This will be done by answering the research question: “How can a sustainable and multifunctional production forest be designed in the Netherlands?”
The current nitrogen crisis and the expected buy-out of farmers who run intensive cattle farms around Natura 2000 areas, will be used as a starting point for the design location.
The outcome shows three types of production forests that differ in accommodating five aspects that are valued in forests: production, recreation, biodiversity, climate resilience and experience of landscape. This way a new idea can be formed on how forests can be productive, while also providing space for animals and humans in the Netherlands. The design is tested on sand soil in Hattem, but could be applied to any agricultural land.
The discussion elaborates on the reason why production forests are not planted on a large scale to provide a circular material producing system. Taking into account: the current relationship between humans and materials, the difficulty of circular thinking due to the complexity of current systems, the long-term thinking that has disappeared in our culture and the unpredictability of the future due to rapid global changes.
Introducing a circular construction hub for building material circularity in city
A case study in Leiden, the Netherlands
The circular construction hub is brought out as an effective solution to the building material circularity transition. A series conceptual development and a few pilot projects in Utrecht and Amsterdam were established, the effectiveness is proved by the promising results of transportation reduction, and recycling rate improvement.
Regardless numbers of the studies on the building material flow analysis and the development of the hubs in various forms, limited discussion of practical information for local hubs’ development is provided, and little quantitative analysis of the implementation of the circular construction hub was conducted. Decision making for the intermediate steps in the transition towards building material circularity, therefore, has little referencing information.
Hence, this research proposes the main research question as: How will the circular construction hub support the transition of building material circularity in the cities of the Netherlands? In order to explore the formation and the influence of the circular construction hub in city with the case study of Leiden. The research firstly specifies the formation of the hub by desk research; then quantifies the urban mining potential and handling capacity of the hub by Material Flow Analysis (MFA); then the suitability analysis of the hub’s location is provided by the Geographical Information System (GIS) based on the transportation emission (CO2 eq kg).
The research aims to draw a comprehensive understanding on the metabolic characteristics of building material flows with implementation of the circular construction hub, and provide a referencing value for municipality’s decision making on developing the hub in city Leiden, and further development in the cities of the Netherlands.
...
The circular construction hub is brought out as an effective solution to the building material circularity transition. A series conceptual development and a few pilot projects in Utrecht and Amsterdam were established, the effectiveness is proved by the promising results of transportation reduction, and recycling rate improvement.
Regardless numbers of the studies on the building material flow analysis and the development of the hubs in various forms, limited discussion of practical information for local hubs’ development is provided, and little quantitative analysis of the implementation of the circular construction hub was conducted. Decision making for the intermediate steps in the transition towards building material circularity, therefore, has little referencing information.
Hence, this research proposes the main research question as: How will the circular construction hub support the transition of building material circularity in the cities of the Netherlands? In order to explore the formation and the influence of the circular construction hub in city with the case study of Leiden. The research firstly specifies the formation of the hub by desk research; then quantifies the urban mining potential and handling capacity of the hub by Material Flow Analysis (MFA); then the suitability analysis of the hub’s location is provided by the Geographical Information System (GIS) based on the transportation emission (CO2 eq kg).
The research aims to draw a comprehensive understanding on the metabolic characteristics of building material flows with implementation of the circular construction hub, and provide a referencing value for municipality’s decision making on developing the hub in city Leiden, and further development in the cities of the Netherlands.
New Human Nature
A Plea for the Coherency of the DiverCity
Rescaling climate-induced migration
Exploring pathways for an uncertain future
A Compact Desakota?
Peri-Urban Areas in the Jing-Jin-Ji Megaregion (China)
Circular area development
Recommendations for creating a circularly functioning area
Planning degrowth
An explorative study into the value of a degrowth approach for sustainable urban planning in Amsterdam
High-value food waste valorisation in the Amsterdam Metropolitan Area
A combined environmental-, socio-technical- and network analysis of anaerobic fermentation technologies for fatty acids production, from a nexus governance perspective
Strategic planning of energy landscape:
Synergies and trade-offs in Parkstad Limburg
The energy transition is a spatial issue because it is forms of sustainable energy inherently entail new demands on space. A regional spatial vision on energy, based on which issues like landscape integration can be coordinated shortly, is called for. Parkstad Limburg currently is described as the fastest growing tourist destination in The Netherlands. It is a region full of contrasts and extremes. This place located in the southern part of the province of Limburg in the Netherlands, with an estimated 2017 population of 245109 and consists of eight municipalities. It covers a total area of 211 km², with a population density of 1,161 per square kilometers. This region used to be known as the Eastern Mining Area. Around 1900, the formerly agricultural area rapidly developed as the epicenter of Dutch coal mining. In 1965, the Dutch national government decided to close the state mines. Most former mining complexes were demolished and replaced by natural areas, parks or housing areas, but the old miners hardly profited from those new jobs, so the city began to shrink. It is fascinating when the landscape is a tool to deal with a social and economic problem. My main interest in this Lab is energy flow in a landscape. In a large scale perspective, shrinkage is an inevitable stage and does not mean passive; While in the sight of Parkstad scale, it is a shame to losing both the identity and population. It is thought-provoking as a landscape architect to rethink about what will landscape act in this procedure and what will Parkstad benefit from. The energy transition is a spatial issue because it is forms of sustainable energy inherently entail new demands on space. To do energy-conscious spatial planning, and achieve synergies in such a complicated place, the questions are invited for: What are the energy-conscious spatial strategies, to integrate with energy sinks, urban green network, and differentiation of niches, to facilitate sustainable energy landscape design to improve environmental quality in Parkstad? With this research question, I come up with three strategies for the whole Parkstad region, based on the existing problems on a big scale. They are a green grid strategy, energy flow strategy, and spatial composition strategy. These three strategies are parallel and correlated in some respects, for example, social and cultural activities. It is a challenge as the complexity of this area but makes the intervention approach more interesting. And how to achieve a delicate balance between the synergistic effect and trade-off is my primary task and research orientation. ...
The energy transition is a spatial issue because it is forms of sustainable energy inherently entail new demands on space. A regional spatial vision on energy, based on which issues like landscape integration can be coordinated shortly, is called for. Parkstad Limburg currently is described as the fastest growing tourist destination in The Netherlands. It is a region full of contrasts and extremes. This place located in the southern part of the province of Limburg in the Netherlands, with an estimated 2017 population of 245109 and consists of eight municipalities. It covers a total area of 211 km², with a population density of 1,161 per square kilometers. This region used to be known as the Eastern Mining Area. Around 1900, the formerly agricultural area rapidly developed as the epicenter of Dutch coal mining. In 1965, the Dutch national government decided to close the state mines. Most former mining complexes were demolished and replaced by natural areas, parks or housing areas, but the old miners hardly profited from those new jobs, so the city began to shrink. It is fascinating when the landscape is a tool to deal with a social and economic problem. My main interest in this Lab is energy flow in a landscape. In a large scale perspective, shrinkage is an inevitable stage and does not mean passive; While in the sight of Parkstad scale, it is a shame to losing both the identity and population. It is thought-provoking as a landscape architect to rethink about what will landscape act in this procedure and what will Parkstad benefit from. The energy transition is a spatial issue because it is forms of sustainable energy inherently entail new demands on space. To do energy-conscious spatial planning, and achieve synergies in such a complicated place, the questions are invited for: What are the energy-conscious spatial strategies, to integrate with energy sinks, urban green network, and differentiation of niches, to facilitate sustainable energy landscape design to improve environmental quality in Parkstad? With this research question, I come up with three strategies for the whole Parkstad region, based on the existing problems on a big scale. They are a green grid strategy, energy flow strategy, and spatial composition strategy. These three strategies are parallel and correlated in some respects, for example, social and cultural activities. It is a challenge as the complexity of this area but makes the intervention approach more interesting. And how to achieve a delicate balance between the synergistic effect and trade-off is my primary task and research orientation.
Redefining resource management in a fast growing urban setting
Explorations for regional innovation in Luxembourg
Geographically weighted Urban Heat Island modelling using the Netatmo sensors
The case of the Hague
UHI has been recognized as one of the leading environmental issues of the 21st century. The UHI is defined as the area within a city with the higher surface or air temperatures compared to its surroundings. The higher urban temperatures are resulting in health-related issues among the population, greater energy demands, and various economic losses. Thus, the current work is focusing on researching the air temperatures in the urban canopy layer, which are mainly affected by the heat radiated from the urban surfaces during the night. Moreover, there are differences in the heat exchange phases between the neighborhoods, which are caused by the heterogenicity of the morphological characteristics of the city. Such information can be of great use for the development of UHI mitigation strategies, but it is currently very sparse or not detailed enough. Therefore this master thesis investigates the possibility for generation of more detailed models, taking into account the intraurban variability. For the development of the statistical models explaining the UHI effect in the city of the Hague different spatial and sensor datasets have been used. The data about the temperatures in the city for 2017 have been collected with the means of the Netatmo weather stations. Additionally, different spatial representations and their effect on the statistical analysis have been investigated. In combination with the different spatial models, six distinct UHI contributing factors have been researched, namely the Buildings density, the Land cover index, the Vegetation index, the Sky View Factor, the Non-permeable surfaces in the city and the Vehicle traffic density. These variables have been calculated and utilized in the statistical analysis of their relationship with the air temperatures in the Hague. The results indicated a weak relationship between the air temperatures and the different spatial characteristics of the city where only the Sky View Factor and the Non-permeable surfaces proved to be statistically significant variables. ...
UHI has been recognized as one of the leading environmental issues of the 21st century. The UHI is defined as the area within a city with the higher surface or air temperatures compared to its surroundings. The higher urban temperatures are resulting in health-related issues among the population, greater energy demands, and various economic losses. Thus, the current work is focusing on researching the air temperatures in the urban canopy layer, which are mainly affected by the heat radiated from the urban surfaces during the night. Moreover, there are differences in the heat exchange phases between the neighborhoods, which are caused by the heterogenicity of the morphological characteristics of the city. Such information can be of great use for the development of UHI mitigation strategies, but it is currently very sparse or not detailed enough. Therefore this master thesis investigates the possibility for generation of more detailed models, taking into account the intraurban variability. For the development of the statistical models explaining the UHI effect in the city of the Hague different spatial and sensor datasets have been used. The data about the temperatures in the city for 2017 have been collected with the means of the Netatmo weather stations. Additionally, different spatial representations and their effect on the statistical analysis have been investigated. In combination with the different spatial models, six distinct UHI contributing factors have been researched, namely the Buildings density, the Land cover index, the Vegetation index, the Sky View Factor, the Non-permeable surfaces in the city and the Vehicle traffic density. These variables have been calculated and utilized in the statistical analysis of their relationship with the air temperatures in the Hague. The results indicated a weak relationship between the air temperatures and the different spatial characteristics of the city where only the Sky View Factor and the Non-permeable surfaces proved to be statistically significant variables.
Rethinking Waste
Urban integration of waste collection and treatment systems based on circular concepts; Recommendations for Amsterdam
1. Waste treatment and collection should connect to existing urban systems, creating more support and integration within daily lives.
2. Circular economy does not have just a economic value. Circular waste treatment can contribute to the city, strengthen communities and improve living quality .
3. The value of circular waste treatment needs to experienced by the residents themselves. It will contribute to the motivation and will support a change in disposal behaviour.
4. Separate waste collection should be available for all the residents of Amsterdam. It will require large investments in some parts of the city. However, by making clever use of existing structures, improvement can be made fast and without tremendous costs. ...
1. Waste treatment and collection should connect to existing urban systems, creating more support and integration within daily lives.
2. Circular economy does not have just a economic value. Circular waste treatment can contribute to the city, strengthen communities and improve living quality .
3. The value of circular waste treatment needs to experienced by the residents themselves. It will contribute to the motivation and will support a change in disposal behaviour.
4. Separate waste collection should be available for all the residents of Amsterdam. It will require large investments in some parts of the city. However, by making clever use of existing structures, improvement can be made fast and without tremendous costs.
This research proposes a 3D data modeling approach for integrated management of below ground utility networks features (viz. electricity and sewer) and related above ground city objects (viz. streetlights and manhole covers). The data modeling approach is successfully examined by implementing relationships between 1) the below ground electricity network and above ground streetlights and 2) between the sewer network and the above ground manhole covers.
Having existing utility network data and city objects as input, a file in CityGML Utility Network ADE format is created. The manipulation of the data structure and content, according the proposed data modeling approach, is completed in FME. The output CityGML dataset allows interoperability but may become very large and objects may be arbitrarily nested leading to complex data structures. Therefore carefully optimized database schemas are required that enables efficient storage, management and data access of the CityGML data. The object-oriented CityGML data model, including the Utility Network ADE, is mapped to a relational database by means of the 3DCityDB. Subsequently, the CityGML data is inserted into the derived relational database. Several relevant (network) analyses are performed by querying the designed relational database. It shows the possibility to simulate what network features are affected by e.g. a utility strike by means of pgRouting and visualization in a GIS.
This research made one of the first attempts to thoroughly model existing utility network data and city objects according the CityGML Utility Network ADE. Following are further research that could optimize the proposed data modeling approach for better decision making in the field of asset management:
- Modeling multiple different utility networks and city objects
- Modeling in a higher LoD
- Detailing the CityGML Utility Network ADE classes and use
- Better investigating on more types of analyses
- Implementing larger datasets
- Implementing datasets with a different accuracy
- Exporting a CityGML file from the relational database
- Better investigating on visualization of the data
- Investigating on how to model different types of relationships ...
This research proposes a 3D data modeling approach for integrated management of below ground utility networks features (viz. electricity and sewer) and related above ground city objects (viz. streetlights and manhole covers). The data modeling approach is successfully examined by implementing relationships between 1) the below ground electricity network and above ground streetlights and 2) between the sewer network and the above ground manhole covers.
Having existing utility network data and city objects as input, a file in CityGML Utility Network ADE format is created. The manipulation of the data structure and content, according the proposed data modeling approach, is completed in FME. The output CityGML dataset allows interoperability but may become very large and objects may be arbitrarily nested leading to complex data structures. Therefore carefully optimized database schemas are required that enables efficient storage, management and data access of the CityGML data. The object-oriented CityGML data model, including the Utility Network ADE, is mapped to a relational database by means of the 3DCityDB. Subsequently, the CityGML data is inserted into the derived relational database. Several relevant (network) analyses are performed by querying the designed relational database. It shows the possibility to simulate what network features are affected by e.g. a utility strike by means of pgRouting and visualization in a GIS.
This research made one of the first attempts to thoroughly model existing utility network data and city objects according the CityGML Utility Network ADE. Following are further research that could optimize the proposed data modeling approach for better decision making in the field of asset management:
- Modeling multiple different utility networks and city objects
- Modeling in a higher LoD
- Detailing the CityGML Utility Network ADE classes and use
- Better investigating on more types of analyses
- Implementing larger datasets
- Implementing datasets with a different accuracy
- Exporting a CityGML file from the relational database
- Better investigating on visualization of the data
- Investigating on how to model different types of relationships
REPAiR: REsource Management in Peri-urban AReas: Going Beyond Urban Metabolism
D8.5 Project website