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Images, eqnz.chch.2010

Photos taken in Lyttelton on April 15 showing the demolition of the Volcano Cafe, the Lava Bar, Lyttelton Fisheries and the coastal living design store following the February 22 earthquake. File reference: CCL-2011-04-15-London-Street-Demolition-IMG_0114 From the collection of

Images, eqnz.chch.2010

Photos taken in Lyttelton on April 15 showing the demolition of the Volcano Cafe, the Lava Bar, Lyttelton Fisheries and the coastal living design store following the February 22 earthquake. File reference: CCL-2011-04-15-London-Street-Demolition-IMG_0115 From the collection of

Images, eqnz.chch.2010

Photos taken in Lyttelton on April 15 showing the demolition of the Volcano Cafe, the Lava Bar, Lyttelton Fisheries and the coastal living design store following the February 22 earthquake. File reference: CCL-2011-04-15-London-Street-Demolition-IMG_0147 From the collection of

Images, eqnz.chch.2010

Photos taken in Lyttelton on April 15 showing the demolition of the Volcano Cafe, the Lava Bar, Lyttelton Fisheries and the coastal living design store following the February 22 earthquake. File reference: CCL-2011-04-15-London-Street-Demolition-IMG_0119 From the collection of

Images, eqnz.chch.2010

Photos taken in Lyttelton on April 15 showing the demolition of the Volcano Cafe, the Lava Bar, Lyttelton Fisheries and the coastal living design store following the February 22 earthquake. File reference: CCL-2011-04-15-London-Street-Demolition-IMG_0148 From the collection of

Images, eqnz.chch.2010

Photos taken in Lyttelton on April 15 showing the demolition of the Volcano Cafe, the Lava Bar, Lyttelton Fisheries and the coastal living design store following the February 22 earthquake. File reference: CCL-2011-04-15-London-Street-Demolition-IMG_0141 From the collection of

Images, eqnz.chch.2010

Photos taken in Lyttelton on April 15 showing the demolition of the Volcano Cafe, the Lava Bar, Lyttelton Fisheries and the coastal living design store following the February 22 earthquake. File reference: CCL-2011-04-15-London-Street-Demolition-IMG_0150 From the collection of

Images, eqnz.chch.2010

Photos taken in Lyttelton on April 15 showing the demolition of the Volcano Cafe, the Lava Bar, Lyttelton Fisheries and the coastal living design store following the February 22 earthquake. File reference: CCL-2011-04-15-London-Street-Demolition-IMG_0132 From the collection of

Images, eqnz.chch.2010

Photos taken in Lyttelton on April 15 showing the demolition of the Volcano Cafe, the Lava Bar, Lyttelton Fisheries and the coastal living design store following the February 22 earthquake. File reference: CCL-2011-04-15-London-Street-Demolition-IMG_0135 From the collection of

Images, eqnz.chch.2010

Photos taken in Lyttelton on April 15 showing the demolition of the Volcano Cafe, the Lava Bar, Lyttelton Fisheries and the coastal living design store following the February 22 earthquake. File reference: CCL-2011-04-15-London-Street-Demolition-IMG_0123 From the collection of

Images, eqnz.chch.2010

Photos taken in Lyttelton on April 15 showing the demolition of the Volcano Cafe, the Lava Bar, Lyttelton Fisheries and the coastal living design store following the February 22 earthquake. File reference: CCL-2011-04-15-London-Street-Demolition-IMG_0146 From the collection of

Images, eqnz.chch.2010

Photos taken in Lyttelton on April 15 showing the demolition of the Volcano Cafe, the Lava Bar, Lyttelton Fisheries and the coastal living design store following the February 22 earthquake. File reference: CCL-2011-04-15-London-Street-Demolition-IMG_0127 From the collection of

Images, eqnz.chch.2010

Photos taken in Lyttelton on April 15 showing the demolition of the Volcano Cafe, the Lava Bar, Lyttelton Fisheries and the coastal living design store following the February 22 earthquake. File reference: CCL-2011-04-15-London-Street-Demolition-IMG_0128 From the collection of

Images, eqnz.chch.2010

Photos taken in Lyttelton on April 15 showing the demolition of the Volcano Cafe, the Lava Bar, Lyttelton Fisheries and the coastal living design store following the February 22 earthquake. File reference: CCL-2011-04-15-London-Street-Demolition-IMG_0117 From the collection of

Images, eqnz.chch.2010

Photos taken in Lyttelton on April 15 showing the demolition of the Volcano Cafe, the Lava Bar, Lyttelton Fisheries and the coastal living design store following the February 22 earthquake. File reference: CCL-2011-04-15-London-Street-Demolition-IMG_0116 From the collection of

Images, eqnz.chch.2010

Photos taken in Lyttelton on April 15 showing the demolition of the Volcano Cafe, the Lava Bar, Lyttelton Fisheries and the coastal living design store following the February 22 earthquake. File reference: CCL-2011-04-15-London-Street-Demolition-IMG_0120 From the collection of

Images, eqnz.chch.2010

Photos taken in Lyttelton on April 15 showing the demolition of the Volcano Cafe, the Lava Bar, Lyttelton Fisheries and the coastal living design store following the February 22 earthquake. File reference: CCL-2011-04-15-London-Street-Demolition-IMG_0125 From the collection of

Research papers, The University of Auckland Library

The research presented in this thesis investigated the environmental impacts of structural design decisions across the life of buildings located in seismic regions. In particular, the impacts of expected earthquake damage were incorporated into a traditional life cycle assessment (LCA) using a probabilistic method, and links between sustainable and resilient design were established for a range of case-study buildings designed for different seismic performance objectives. These links were quantified using a metric herein referred to as the seismic carbon risk, which represents the expected environmental impacts and resource use indicators associated with earthquake damage during buildings’ life. The research was broken into three distinct parts: (1) a city-level evaluation of the environmental impacts of demolitions following the 2010/2011 Canterbury earthquake sequence in New Zealand, (2) the development of a probabilistic framework to incorporate earthquake damage into LCA, and (3) using case-study buildings to establish links between sustainable and resilient design. The first phase of the research focused on the environmental impacts of demolitions in Christchurch, New Zealand following the 2010/2011 Canterbury Earthquake Sequence. This large case study was used to investigate the environmental impact of the demolition of concrete buildings considering the embodied carbon and waste stream distribution. The embodied carbon was considered here as kilograms of CO2 equivalent that occurs on production, construction, and waste management stage. The results clearly demonstrated the significant environmental impacts that can result from moderate and large earthquakes in urban areas, and the importance of including environmental considerations when making post-earthquake demolition decisions. The next phase of the work introduced a framework for incorporating the impacts of expected earthquake damage based on a probabilistic approach into traditional LCA to allow for a comparison of seismic design decisions using a carbon lens. Here, in addition to initial construction impacts, the seismic carbon risk was quantified, including the impacts of seismic repair activities and total loss scenarios assuming reconstruction in case of non-reparability. A process-based LCA was performed to obtain the environmental consequence functions associated with structural and non-structural repair activities for multiple environmental indicators. In the final phase of the work, multiple case-study buildings were used to investigate the seismic consequences of different structural design decisions for buildings in seismic regions. Here, two case-study buildings were designed to multiple performance objectives, and the upfront carbon costs, and well as the seismic carbon risk across the building life were compared. The buildings were evaluated using the framework established in phase 2, and the results demonstrated that the seismic carbon risk can significantly be reduced with only minimal changes to the upfront carbon for buildings designed for a higher base shear or with seismic protective systems. This provided valuable insight into the links between resilient and sustainable design decisions. Finally, the results and observations from the work across the three phases of research described above were used to inform a discussion on important assumptions and topics that need to be considered when quantifying the environmental impacts of earthquake damage on buildings. These include: selection of a non-repairable threshold (e.g. a value beyond which a building would be demolished rather than repaired), the time value of carbon (e.g. when in the building life the carbon is released), the changing carbon intensity of structural materials over time, and the consideration of deterministic vs. probabilistic results. Each of these topics was explored in some detail to provide a clear pathway for future work in this area

Research papers, The University of Auckland Library

Though generally considered “natural” disasters, cyclones and earthquakes are increasingly being associated with human activities, incubated through urban settlement patterns and the long-term redistribution of natural resources. As society is becoming more urbanized, the risk of human exposure to disasters is also rising. Architecture often reflects the state of society’s health: architectural damage is the first visible sign of emergency, and reconstruction is the final response in the process of recovery. An empirical assessment of architectural projects in post-disaster situations can lead to a deeper understanding of urban societies as they try to rebuild. This thesis offers an alternative perspective on urban disasters by looking at the actions and attitudes of disaster professionals through the lens of architecture, situated in recent events: the 2010 Christchurch earthquake, the 2010 Haiti earthquake, and the 2005 Hurricane Katrina. An empirical, multi-hazard, cross-sectional case study methodology was used, employing grounded theory method to build theory, and a critical constructivist strategy to inform the analysis. By taking an interdisciplinary approach to understanding disasters, this thesis positions architecture as a conduit between two divergent approaches to disaster research: the hazards approach, which studies the disaster cycles from a scientific perspective; and the sociological approach, which studies the socially constructed vulnerabilities that result from disasters, and the elements of social change that accompany such events. Few studies to date have attempted to integrate the multi-disciplinary perspectives that can advance our understanding of societal problems in urban disasters. To bridge this gap, this thesis develops what will be referred to as the “Rittelian framework”—based on the work of UC Berkeley’s architecture professor Horst Rittel (1930-1990). The Rittelian framework uses the language of design to transcend the multiple fields of human endeavor to address the “design problems” in disaster research. The processes by which societal problems are addressed following an urban disaster involve input by professionals from multiple fields—including economics, sociology, medicine, and engineering—but the contribution from architecture has been minimal to date. The main impetus for my doctoral thesis has been the assertion that most of the decisions related to reconstruction are made in the early emergency recovery stages where architects are not involved, but architects’ early contribution is vital to the long-term reconstruction of cities. This precipitated in the critical question: “How does the Rittelian framework contribute to the critical design decisions in modern urban disasters?” Comparative research was undertaken in three case studies of recent disasters in New Orleans (2005), Haiti (2010) and Christchurch (2010), by interviewing 51 individuals who were selected on the basis of employing the Rittelian framework in their humanitarian practice. Contextualizing natural disaster research within the robust methodological framework of architecture and the analytical processes of sociology is the basis for evaluating the research proposition that architectural problem solving is of value in addressing the ‘Wicked Problems’ of disasters. This thesis has found that (1) the nuances of the way disaster agents interpret the notion of “building back better” can influence the extent to which architectural professionals contribute in urban disaster recovery, (2) architectural design can be used to facilitate but also impede critical design decisions, and (3) framing disaster research in terms of design decisions can lead to innovation where least expected. This empirical research demonstrates how the Rittelian framework can inform a wider discussion about post-disaster human settlements, and improve our resilience through disaster research

Images, UC QuakeStudies

An image designed to promote the 'Write Now' 2014 young writers workshops. Some of the best pieces from the workshop were published in a chapbook and on posters for the Christchurch 2014 WORD Festival. The workshops were supported by All Right?, Christchurch City Libraries and The School for Young Writers. All Right? posted the image on their Facebook page on 15 July 2014 at 4:31pm.

Research papers, The University of Auckland Library

The seismic tremor that shook Christchurch on February 22, 2011, not only shattered buildings but also the spirit of the city’s residents. Amidst the ruins, this design-focused thesis unravels two intertwining narratives, each essential to the city’s resurrection. At its core, this thesis probes the preservation of Christchurch’s memory and character, meticulously chronicling the lost heritage architecture and the subsequent urban metamorphosis. Beyond bricks and mortar, it also confronts the silent aftershocks - the pervasive mental health challenges stemming from personal losses and the disfigured cityscape. As a native of Christchurch, intimately connected to its fabric, my lens reflects not just on the architectural reconstruction but also on the emotional reconstruction. My experience as an autistic individual, a recently discovered facet of my identity, infuses this design journey with a distinct prism through which I perceive and interact with the world. The colourful sketches that drive the design process aren’t mere illustrations but manifestations of my interpretation of spaces and concepts, evoking joy and vitality—a testament to embracing diversity in design. Drawing parallels between healing my own traumas with my colourful and joyful neurodivergent worldview, I’ve woven this concept into proposals aimed at healing the city through whimsy, joy, and vibrant colours. Personal experiences during and post-earthquakes profoundly shape my design proposals. Having navigated the labyrinth of my own mental health amid the altered cityscape, I seek avenues for reconciliation, both personal and communal. The vibrant sketches and designs presented in this thesis encapsulate this vision—a fusion of vivid, unconventional interpretations and a dedication to preserving the essence of the original cityscape while still encouraging movement into the future

Research papers, The University of Auckland Library

The recent instances of seismic activity in Canterbury (2010/11) and Kaikōura (2016) in New Zealand have exposed an unexpected level of damage to non-structural components, such as buried pipelines and building envelope systems. The cost of broken buried infrastructure, such as pipeline systems, to the Christchurch Council was excessive, as was the cost of repairing building envelopes to building owners in both Christchurch and Wellington (due to the Kaikōura earthquake), which indicates there are problems with compliance pathways for both of these systems. Councils rely on product testing and robust engineering design practices to provide compliance certification on the suitability of product systems, while asset and building owners rely on the compliance as proof of an acceptable design. In addition, forensic engineers and lifeline analysts rely on the same product testing and design techniques to analyse earthquake-related failures or predict future outcomes pre-earthquake, respectively. The aim of this research was to record the actual field-observed damage from the Canterbury and Kaikōura earthquakes of seismic damage to buried pipeline and building envelope systems, develop suitable testing protocols to be able to test the systems’ seismic resilience, and produce prediction design tools that deliver results that reflect the collected field observations with better accuracy than the present tools used by forensic engineers and lifeline analysts. The main research chapters of this thesis comprise of four publications that describe the gathering of seismic damage to pipes (Publication 1 of 4) and building envelopes (Publication 2 of 4). Experimental testing and the development of prediction design tools for both systems are described in Publications 3 and 4. The field observation (discussed in Publication 1 of 4) revealed that segmented pipe joints, such as those used in thick-walled PVC pipes, were particularly unsatisfactory with respect to the joint’s seismic resilience capabilities. Once the joint was damaged, silt and other deleterious material were able to penetrate the pipeline, causing blockages and the shutdown of key infrastructure services. At present, the governing Standards for PVC pipes are AS/NZS 1477 (pressure systems) and AS/NZS 1260 (gravity systems), which do not include a protocol for evaluating the PVC pipes for joint seismic resilience. Testing methodologies were designed to test a PVC pipe joint under various different simultaneously applied axial and transverse loads (discussed in Publication 3 of 4). The goal of the laboratory experiment was to establish an easy to apply testing protocol that could fill the void in the mentioned standards and produce boundary data that could be used to develop a design tool that could predict the observed failures given site-specific conditions surrounding the pipe. A tremendous amount of building envelope glazing system damage was recorded in the CBDs of both Christchurch and Wellington, which included gasket dislodgement, cracked glazing, and dislodged glazing. The observational research (Publication 2 of 4) concluded that the glazing systems were a good indication of building envelope damage as the glazing had consistent breaking characteristics, like a ballistic fuse used in forensic blast analysis. The compliance testing protocol recognised in the New Zealand Building Code, Verification Method E2/VM1, relies on the testing method from the Standard AS/NZS 4284 and stipulates the inclusion of typical penetrations, such as glazing systems, to be included in the test specimen. Some of the building envelope systems that failed in the recent New Zealand earthquakes were assessed with glazing systems using either the AS/NZS 4284 or E2/VM1 methods and still failed unexpectedly, which suggests that improvements to the testing protocols are required. An experiment was designed to mimic the observed earthquake damage using bi-directional loading (discussed in Publication 4 of 4) and to identify improvements to the current testing protocol. In a similar way to pipes, the observational and test data was then used to develop a design prediction tool. For both pipes (Publication 3 of 4) and glazing systems (Publication 4 of 4), experimentation suggests that modifying the existing testing Standards would yield more realistic earthquake damage results. The research indicates that including a specific joint testing regime for pipes and positioning the glazing system in a specific location in the specimen would improve the relevant Standards with respect to seismic resilience of these systems. Improving seismic resilience in pipe joints and glazing systems would improve existing Council compliance pathways, which would potentially reduce the liability of damage claims against the government after an earthquake event. The developed design prediction tool, for both pipe and glazing systems, uses local data specific to the system being scrutinised, such as local geology, dimensional characteristics of the system, actual or predicted peak ground accelerations (both vertically and horizontally) and results of product-specific bi-directional testing. The design prediction tools would improve the accuracy of existing techniques used by forensic engineers examining the cause of failure after an earthquake and for lifeline analysts examining predictive earthquake damage scenarios