Danielle Densley Tingley
Biographic Data
| ID | 7998263 |
|---|---|
| NAME | Danielle Densley Tingley |
| GIVEN NAMES | Danielle Densley |
| FAMILY NAME | Tingley |
| SIGNATURE | TINGLEY D D |
| AFFILIATIONS | University of Sheffield |
| ORCID | 0000-0002-2477-7629 |
| VERIFIED | Yes |
| TOTAL WORKS | 8 |
| TOTAL CITATIONS | 0 |
| AUTHOR COUNT | 8 |
| EDITOR COUNT | 0 |
| FIRST PUBLICATION YEAR | 2022 |
| LATEST PUBLICATION YEAR | 2026 |
| H-INDEX | 0 |
Bud-Mi
Mapping construction material stocks is essential for understanding socioeconomic metabolism and informing the circular economy. However, spatial material stock studies often produce coarse results owing to challenges in material intensity development. This paper introduces BUD-MI (Bottom-Up Data: Material Intensity), a material intensity data collection template designed with three core objectives: streamlining the data collection process during…
Actions to decarbonize English schools
In this paper we develop a whole life carbon stock model to assess the impacts of retrofit in cool-temperate climates. The developed model can explore different retrofit deployment rates to limit emissions of the existing building stock, and be used to develop different pathways which could meet carbon budgets for varying future scenarios. We illustrate the application of the model to the English school stock, comprising approximately 20,000 scho…
Modeling interior component stocks of UK housing using exterior features and machine learning techniques
Building stock modeling is a vital tool for assessing material inventories in buildings, playing a critical role in promoting a circular economy, facilitating waste management, and supporting socio‐economic analyses. However, a major challenge in building stock modeling lies in achieving accurate component‐level assessments, as current approaches primarily rely on archetype‐based statistical data, which often lack precision. Addressing this chall…
Material stocks and embodied carbon in UK buildings
Decarbonizing construction through a circular economy requires an in‐depth understanding of the materials stocked within, and flows into, between, and beyond, the global built environment. Archetype‐based bottom‐up material stock analysis (MSA) is increasingly used to estimate the quantity, location, and embodied carbon of different construction materials within existing buildings. European MSA studies typically employ archetypes based on buildin…
Built‐environment stocks in the context of a master‐planned city
Construction materials accumulate in the built environment forming material stocks (MS) of buildings and infrastructure, providing various services to society that result in a nexus of human development and environmental impact. Meanwhile, unprecedented urbanization in the Global South is set to put significant demand on the resources required to ensure adequate standards of living in new and existing urban areas. This is particularly important w…
Developing Regenerate
The transition toward a circular economy (CE) is key in decarbonizing the built environment. Despite this, knowledge of—and engagement with—CE philosophies remains limited within the construction industry. Discussion with practitioners reveals this to be contributed to by a lack of clarity regarding CE principles, with numerous organizations recommending implementation of differing and sometimes conflicting principles. In addition, a systematic a…
Towards an automated workflow for large-scale housing retrofit
A scalable data collection, characterization, and accounting framework for urban material stocks
Building stocks represent an extensive reservoir of secondary resources. However, common bottom‐up characterization of these, often based on archetypal classification of buildings and their corresponding material intensity, are still not suitable to adequately inform circular economic strategies. Indeed, these approaches typically result in a loss of building‐specific details, and a building stock characterization in terms of material mass, for e…
No prominent works on this page.
A scalable data collection, characterization, and accounting framework for urban material stocks
Building stocks represent an extensive reservoir of secondary resources. However, common bottom‐up characterization of these, often based on archetypal classification of buildings and their corresponding material intensity, are still not suitable to adequately inform circular economic strategies. Indeed, these approaches typically result in a loss of building‐specific details, and a building stock characterization in terms of material mass, for e…
Developing Regenerate
The transition toward a circular economy (CE) is key in decarbonizing the built environment. Despite this, knowledge of—and engagement with—CE philosophies remains limited within the construction industry. Discussion with practitioners reveals this to be contributed to by a lack of clarity regarding CE principles, with numerous organizations recommending implementation of differing and sometimes conflicting principles. In addition, a systematic a…
Towards an automated workflow for large-scale housing retrofit
Built‐environment stocks in the context of a master‐planned city
Construction materials accumulate in the built environment forming material stocks (MS) of buildings and infrastructure, providing various services to society that result in a nexus of human development and environmental impact. Meanwhile, unprecedented urbanization in the Global South is set to put significant demand on the resources required to ensure adequate standards of living in new and existing urban areas. This is particularly important w…
Modeling interior component stocks of UK housing using exterior features and machine learning techniques
Building stock modeling is a vital tool for assessing material inventories in buildings, playing a critical role in promoting a circular economy, facilitating waste management, and supporting socio‐economic analyses. However, a major challenge in building stock modeling lies in achieving accurate component‐level assessments, as current approaches primarily rely on archetype‐based statistical data, which often lack precision. Addressing this chall…
Material stocks and embodied carbon in UK buildings
Decarbonizing construction through a circular economy requires an in‐depth understanding of the materials stocked within, and flows into, between, and beyond, the global built environment. Archetype‐based bottom‐up material stock analysis (MSA) is increasingly used to estimate the quantity, location, and embodied carbon of different construction materials within existing buildings. European MSA studies typically employ archetypes based on buildin…
Bud-Mi
Mapping construction material stocks is essential for understanding socioeconomic metabolism and informing the circular economy. However, spatial material stock studies often produce coarse results owing to challenges in material intensity development. This paper introduces BUD-MI (Bottom-Up Data: Material Intensity), a material intensity data collection template designed with three core objectives: streamlining the data collection process during…
Actions to decarbonize English schools
In this paper we develop a whole life carbon stock model to assess the impacts of retrofit in cool-temperate climates. The developed model can explore different retrofit deployment rates to limit emissions of the existing building stock, and be used to develop different pathways which could meet carbon budgets for varying future scenarios. We illustrate the application of the model to the English school stock, comprising approximately 20,000 scho…
Computer Science (5 works) · Environmental Impact and Sustainability (4 works) · Building Energy and Comfort Optimization (3 works) · Engineering (3 works) · Recycled Aggregate Concrete Performance (3 works) · Workflow (3 works) · 3D Surveying and Cultural Heritage (2 works) · BIM and Construction Integration (2 works) · Business (2 works) · Carbon fibers (2 works)