Search

found 269 results

Images, UC QuakeStudies

Temporary office space set up in the NZi3 building. The photographer comments, "University of Canterbury administration all fits into one building! Well, sort of. A long view of the west end; Facilities, enrolments, student admin, then meeting areas. E-learning is the first bay to the east side of the stairs".

Images, UC QuakeStudies

Members of the University of Canterbury's E-Learning team in their temporary office in the NZi3 building. The photographer comments, "University of Canterbury administration all fits into one building! Well, sort of. Alison McIntyre, manager of the liaison librarians, and Herbert Thomas, e-learning team leader, discussing support for teachers".

Images, UC QuakeStudies

University of Canterbury library staff in their temporary office in the NZi3 building. The photographer comments, "University of Canterbury administration all fits into one building! Well, sort of. Library staff - contacting publishers to ask for free online resources. A very high hit rate, shame they're not on commission".

Images, eqnz.chch.2010

The former Government Life building in Christchurch's Cathedral Square will be demolished. On my walk around the city May 21, 2014 Christchurch New Zealand. www.stuff.co.nz/the-press/news/christch...

Research papers, University of Canterbury Library

This paper presents the preliminary conclusions of the first stage of Wellington Case Study project (Regulating For Resilience in an Earthquake Vulnerable City) being undertaken by the Disaster Law Research Group at the University of Canterbury Law School. This research aims to map the current regulatory environment around improving the seismic resilience of the urban built environment. This work provides the basis for the second stage of the project which will map the regulatory tools onto the reality of the current building stock in Wellington. Using a socio-legal methodology, the current research examines the regulatory framework around seismic resilience for existing buildings in New Zealand, with a particularly focus on multi-storey in the Wellington CBD. The work focusses both on the operation and impact of the formal seismic regulatory tools open to public regulators (under the amended Building Act) as other non-seismic regulatory tools. As well as examining the formal regulatory frame, the work also provides an assessment of the interactions between other non-building acts (such as Health and Safety at Work Act 2015) on the requirements of seismic resilience. Other soft-law developments (particularly around informal building standards) are also examined. The final output of this work will presents this regulatory map in a clear and easily accessible manner and provide an assessment of the suitability of this at times confusing and patchy legal environment as Wellington moves towards becoming a resilient city. The final conclusion of this work will be used to specifically examine the ability of Wellington to make this transition under the current regulatory environment as phase two of the Wellington Case Study project.

Research papers, University of Canterbury Library

Existing unreinforced masonry (URM) buildings are often composed of traditional construction techniques, with poor connections between walls and diaphragms that results in poor performance when subjected to seismic actions. In these cases the application of the common equivalent static procedure is not applicable because it is not possible to assure “box like” behaviour of the structure. In such conditions the ultimate strength of the structure relies on the behaviour of the macro-elements that compose the deformation mechanisms of the whole structure. These macroelements are a single or combination of structural elements of the structure which are bonded one to each other. The Canterbury earthquake sequence was taken as a reference to estimate the most commonly occurring collapse mechanisms found in New Zealand URM buildings in order to define the most appropriate macroelements.

Images, UC QuakeStudies

The damaged Ozone Hotel on Marine Parade. Fallen bricks lie on the ground in front of the building, which is surrounded by security fencing. The photographer comments, "A bike ride to New Brighton and the beach 3 weeks after the Feb 22 quake. Roads were still very rough and under reconstruction. Some buildings are still standing. but don't look too healthy".

Research papers, University of Canterbury Library

Natural catastrophes are increasing worldwide. They are becoming more frequent but also more severe and impactful on our built environment leading to extensive damage and losses. Earthquake events account for the smallest part of natural events; nevertheless seismic damage led to the most fatalities and significant losses over the period 1981-2016 (Munich Re). Damage prediction is helpful for emergency management and the development of earthquake risk mitigation projects. Recent design efforts focused on the application of performance-based design engineering where damage estimation methodologies use fragility and vulnerability functions. However, the approach does not explicitly specify the essential criteria leading to economic losses. There is thus a need for an improved methodology that finds the critical building elements related to significant losses. The here presented methodology uses data science techniques to identify key building features that contribute to the bulk of losses. It uses empirical data collected on site during earthquake reconnaissance mission to train a machine learning model that can further be used for the estimation of building damage post-earthquake. The first model is developed for Christchurch. Empirical building damage data from the 2010-2011 earthquake events is analysed to find the building features that contributed the most to damage. Once processed, the data is used to train a machine-learning model that can be applied to estimate losses in future earthquake events.

Images, UC QuakeStudies

Members of the University of Canterbury's E-Learning team, Rob Stowell, Herbert Thomas and Alan Hoskin, in their temporary office in the NZi3 building. The photographer comments, "University of Canterbury administration all fits into one building! Well, sort of. Our 4-desk bay; Rob & Herbert discussing plans, Alan dealing with academic support. I've been doing Moodle admin; adding courses and users, mostly - plus occasional how-to advice".

Images, UC QuakeStudies

Members of the University of Canterbury's E-Learning team in their temporary office in the NZi3 building. The photographer comments, "University of Canterbury administration all fits into one building! Well, sort of. The e-learning corner; Alan Hoskin (learning adviser) in the foreground, some guy in a blue shirt at my desk, Rob Stowell (our video guy) arriving, Herbert Thomas (group leader), Lei Zhang (elearning developer/sysadmin)".

Images, UC QuakeStudies

Lei Zhang, a member of the University of Canterbury's E-Learning team, in their temporary office in the University Printery building. The photographer comments, "The University restarts its teaching, and the techies in e-learning move out of NZi3. We are sharing an office at the printery building. Richard Holliday and Aimee Leaning do their pre-press and outsourcing work, while Lei configures a new video streaming system".

Images, UC QuakeStudies

Members of the University of Canterbury's E-Learning team, Jess Hollis, Alan Hoskin, Paul Nicholls and Susan Tull, in their temporary office in the NZi3 building. The photographer comments, "University of Canterbury administration all fits into one building! Well, sort of. Jess with laptop on side desk, Paul the same on the other side, Susan getting sorted, Alan on the phone. Another day in the e-learning corner".