A.M. Eijkelenboom
Please Note
31 records found
1
In a white paper, the 4TU Domain Acceleration Team (DAT) on Climate Adaptation and Mitigation, composed of members from four technical universities in the Netherlands, examines why modern societies struggle to achieve climate adaptation and mitigation targets.
While mitigation efforts, such as reducing CO2 emissions, have clear, universally agreed-upon goals, adaptation efforts tend to be local and lack established targets and benchmarks, making progress challenging to track.
Climate mitigation and adaptation measures in the built environment are interdependent, requiring careful coordination to avoid inefficiencies or counterproductive outcomes. For instance, the energy transition (climate mitigation) demands major infrastructure changes, while climate adaptation requires significant urban modifications and underground work. These efforts must align to ensure resilient and future-proof inhabitancy of urban areas; without integration, some measures may hinder or negate the benefits of others.
A key challenge is the lack of cross-sector collaboration. Different sectors—energy, climate, mobility—operate under distinct frameworks, policies, and timelines, complicating the implementation of solutions. The shortage of skilled professionals in the Netherlands limits the capacity for cross-sector collaboration, as many lack expertise to navigate both climate and energy sectors, as well as spatial planning policy.
Similarly, while spatial analysis tools such as Klimaateffectatlas and Toolbox Klimaatadaptatie exist, they typically focus on individual challenges like mitigation or adaptation. There is a critical need for also integrating tools that assess the spatial implications of policy goals across sectors, and temporal scales.
The white paper addresses these challenges and explores potential cross-disciplinary synergies, aiming to drive innovative solutions for future climate resilience, where climate adaptation and mitigation always go hand in hand. ...
In a white paper, the 4TU Domain Acceleration Team (DAT) on Climate Adaptation and Mitigation, composed of members from four technical universities in the Netherlands, examines why modern societies struggle to achieve climate adaptation and mitigation targets.
While mitigation efforts, such as reducing CO2 emissions, have clear, universally agreed-upon goals, adaptation efforts tend to be local and lack established targets and benchmarks, making progress challenging to track.
Climate mitigation and adaptation measures in the built environment are interdependent, requiring careful coordination to avoid inefficiencies or counterproductive outcomes. For instance, the energy transition (climate mitigation) demands major infrastructure changes, while climate adaptation requires significant urban modifications and underground work. These efforts must align to ensure resilient and future-proof inhabitancy of urban areas; without integration, some measures may hinder or negate the benefits of others.
A key challenge is the lack of cross-sector collaboration. Different sectors—energy, climate, mobility—operate under distinct frameworks, policies, and timelines, complicating the implementation of solutions. The shortage of skilled professionals in the Netherlands limits the capacity for cross-sector collaboration, as many lack expertise to navigate both climate and energy sectors, as well as spatial planning policy.
Similarly, while spatial analysis tools such as Klimaateffectatlas and Toolbox Klimaatadaptatie exist, they typically focus on individual challenges like mitigation or adaptation. There is a critical need for also integrating tools that assess the spatial implications of policy goals across sectors, and temporal scales.
The white paper addresses these challenges and explores potential cross-disciplinary synergies, aiming to drive innovative solutions for future climate resilience, where climate adaptation and mitigation always go hand in hand.
Therefore, nor custom made design for specific occupants’ needs, neither generic design for average needs seems optimal in building design. While consultation of actual users during the design process to better understand their specific needs is useful, a tool that provides in-depth insights into needs of a representative group of occupants can enhance customization.
Segmentation studies, grouping representative groups of occupants with similar comfort preferences, provide insights into diverse occupants’ preferences. A segmentation study in six hospitals showed that health and building characteristics varied between groups of occupants, diversified by their preferences for comfort. To support architects and engineers during the design process, the differences between the diversified groups were visualized into a tool, i.e. a paper cube.
We evaluated the paper cube (Figure 1) in a workshop with four groups of each four to five architects. Using layout drawings, the architects specified which rooms were suitable, considering the diverse preferences for comfort. The workshop showed that such a tool can support design decisions; e.g., the architects agreed about the suitability of rooms for specific preferences. Further study including also other disciplines, such as facility managers, healthcare workers, and building engineers, is required to develop a tool that enables to include different occupants’ needs effectively and efficiently into design. ...
Therefore, nor custom made design for specific occupants’ needs, neither generic design for average needs seems optimal in building design. While consultation of actual users during the design process to better understand their specific needs is useful, a tool that provides in-depth insights into needs of a representative group of occupants can enhance customization.
Segmentation studies, grouping representative groups of occupants with similar comfort preferences, provide insights into diverse occupants’ preferences. A segmentation study in six hospitals showed that health and building characteristics varied between groups of occupants, diversified by their preferences for comfort. To support architects and engineers during the design process, the differences between the diversified groups were visualized into a tool, i.e. a paper cube.
We evaluated the paper cube (Figure 1) in a workshop with four groups of each four to five architects. Using layout drawings, the architects specified which rooms were suitable, considering the diverse preferences for comfort. The workshop showed that such a tool can support design decisions; e.g., the architects agreed about the suitability of rooms for specific preferences. Further study including also other disciplines, such as facility managers, healthcare workers, and building engineers, is required to develop a tool that enables to include different occupants’ needs effectively and efficiently into design.
Thermal and indoor air quality in dwellings in Europe during summer
A literature review on findings from empirical studies
Therefore, understanding of the extent of current overheating and indoor air pollution and of the contributing factors is necessary to identify the required adaptability of dwellings in Europe to changing outdoor conditions. The objective of this study is to systematically review consequences of changing outdoor conditions, building characteristics, and technology on the indoor environment and occupants’ health in homes in European countries during summer.
This review focuses on empirical studies, as these enable to capture real world interactions of occupants and buildings in relation to outdoor conditions. Varying outdoor conditions, building-, and occupant-related aspects in different European climate zones are discussed. Main findings are that overheating already occurs in normal summers in temperate and northern European countries, while variation in overheating is related to occupants’ adaptative behaviour and building-related aspects. Based on the review, it is suggested to investigate adaptability of dwellings to changing occupants’ needs, new energy efficient technologies, and changing outdoor conditions. ...
Therefore, understanding of the extent of current overheating and indoor air pollution and of the contributing factors is necessary to identify the required adaptability of dwellings in Europe to changing outdoor conditions. The objective of this study is to systematically review consequences of changing outdoor conditions, building characteristics, and technology on the indoor environment and occupants’ health in homes in European countries during summer.
This review focuses on empirical studies, as these enable to capture real world interactions of occupants and buildings in relation to outdoor conditions. Varying outdoor conditions, building-, and occupant-related aspects in different European climate zones are discussed. Main findings are that overheating already occurs in normal summers in temperate and northern European countries, while variation in overheating is related to occupants’ adaptative behaviour and building-related aspects. Based on the review, it is suggested to investigate adaptability of dwellings to changing occupants’ needs, new energy efficient technologies, and changing outdoor conditions.
This study aims to identify the sound sources that students are exposed to at their home study places. Furthermore, this study shows to which extent students are satisfied with the sound environment of their study places. ...
This study aims to identify the sound sources that students are exposed to at their home study places. Furthermore, this study shows to which extent students are satisfied with the sound environment of their study places.
Building-related health symptoms are multifactorial, hence a comprehensive study is needed to identify associations of such symptoms with building aspects. Previous studies have identified certain building characteristics as risk factors for both dry eyes and headaches, which are among the most prevalent symptoms suffered by office workers. This study investigated associations of dry eyes and headaches with building characteristics in outpatient areas because these conditions may vary between office and hospital buildings. A survey was performed in six hospital buildings, which included administering a questionnaire to 556 outpatient workers and an inspection of the building locations, services and 127 outpatient rooms. Multivariate regression models were produced for dry eyes and headaches. Both models were adjusted for personal and work-related aspects. The prevalence of self-reported dry eyes and headaches in outpatient areas was related to building-related aspects that affect the indoor air quality and visual quality, and to room types. In general, this study is consistent with previous office studies. However, a specific finding of this study is the association of the most frequently used room types and the presence of a window to the corridor with dry eyes and headaches.