Search

found 270 results

Images, Canterbury Museum

One green glass 500ml bottle of Three Boys Brewery ‘Aftershock’ beer. The bottle has a dark green rectangular label with white writing and the brewery logo on front and back. The bottle is sealed by a brass cap with a piece of red brick on top; brick and cap are sealed in wax. Christchurch's artisan Three Boys Brewery sustained only minor damag...

Images, Canterbury Museum

One green glass 500ml bottle of Three Boys Brewery ‘Aftershock’ beer. The bottle has a dark green rectangular label with white writing and the brewery logo on front and back. The bottle is sealed by a brass cap with a piece of red brick on top; brick and cap are sealed in wax. Christchurch's artisan Three Boys Brewery sustained only minor damag...

Images, Canterbury Museum

One green glass 500ml bottle of Three Boys Brewery ‘Aftershock’ beer. The bottle has a dark green rectangular label with white writing and the brewery logo on front and back. The bottle is sealed by a brass cap with a piece of red brick on top; brick and cap are sealed in wax. Christchurch's artisan Three Boys Brewery sustained only minor damag...

Images, Canterbury Museum

One green glass 500ml bottle of Three Boys Brewery ‘Aftershock’ beer. The bottle has a dark green rectangular label with white writing and the brewery logo on front and back. The bottle is sealed by a brass cap with a piece of red brick on top; brick and cap are sealed in wax. Christchurch's artisan Three Boys Brewery sustained only minor damag...

Images, Canterbury Museum

One green glass 500ml bottle of Three Boys Brewery ‘Aftershock’ beer. The bottle has a dark green rectangular label with white writing and the brewery logo on front and back. The bottle is sealed by a brass cap with a piece of red brick on top; brick and cap are sealed in wax. Christchurch's artisan Three Boys Brewery sustained only minor damag...

Images, Canterbury Museum

One green glass 500ml bottle of Three Boys Brewery ‘Aftershock’ beer. The bottle has a dark green rectangular label with white writing and the brewery logo on front and back. The bottle is sealed by a brass cap with a piece of red brick on top; brick and cap are sealed in wax. Christchurch's artisan Three Boys Brewery sustained only minor damag...

Images, Canterbury Museum

One green glass 500ml bottle of Three Boys Brewery ‘Aftershock’ beer. The bottle has a dark green rectangular label with white writing and the brewery logo on front and back. The bottle is sealed by a brass cap with a piece of red brick on top; brick and cap are sealed in wax. Christchurch's artisan Three Boys Brewery sustained only minor damag...

Images, Canterbury Museum

One green glass 500ml bottle of Three Boys Brewery ‘Aftershock’ beer. The bottle has a dark green rectangular label with white writing and the brewery logo on front and back. The bottle is sealed by a brass cap with a piece of red brick on top; brick and cap are sealed in wax. Christchurch's artisan Three Boys Brewery sustained only minor damag...

Images, Canterbury Museum

One green glass 500ml bottle of Three Boys Brewery ‘Aftershock’ beer. The bottle has a dark green rectangular label with white writing and the brewery logo on front and back. The bottle is sealed by a brass cap with a piece of red brick on top; brick and cap are sealed in wax. Christchurch's artisan Three Boys Brewery sustained only minor damag...

Images, Canterbury Museum

One green glass 500ml bottle of Three Boys Brewery ‘Aftershock’ beer. The bottle has a dark green rectangular label with white writing and the brewery logo on front and back. The bottle is sealed by a brass cap with a piece of red brick on top; brick and cap are sealed in wax. Christchurch's artisan Three Boys Brewery sustained only minor damag...

Images, Canterbury Museum

One green glass 500ml bottle of Three Boys Brewery ‘Aftershock’ beer. The bottle has a dark green rectangular label with white writing and the brewery logo on front and back. The bottle is sealed by a brass cap with a piece of red brick on top; brick and cap are sealed in wax. Christchurch's artisan Three Boys Brewery sustained only minor damag...

Images, Canterbury Museum

One green glass 500ml bottle of Three Boys Brewery ‘Aftershock’ beer. The bottle has a dark green rectangular label with white writing and the brewery logo on front and back. The bottle is sealed by a brass cap with a piece of red brick on top; brick and cap are sealed in wax. Christchurch's artisan Three Boys Brewery sustained only minor damag...

Images, eqnz.chch.2010

The Christchurch Cathedral after loosing its tower and spire after the 6.3 quake hit Christchurch 22 February 2011. The February 22 quake cracked pillars, twisted walls, shattered stained glass, collapsed buttresses, fractured masonry and toppled the tower. The rose window in the west wall collapsed in the June aftershocks. Demolition of the Chr...

Images, UC QuakeStudies

A photograph of a Wellington Emergency Management Office Emergency Response Team member talking to a member of the Professional Building Services on Gloucester Street. In the background is the Press House building with many cracks in the façade. Bits of bricks and other debris are scattered across the footpath. Some of the windows above the facade have broken. USAR codes have been spray-painted on one of the bottom-storey windows.

Images, UC QuakeStudies

The interior of the octagonal corner section of the Cranmer Court building, which housed Plato Creative from March 2008 to November 2009. The photograph showcases the building's intricate wooden ceiling and high windows. A stained glass crest is visible at the bottom of one of the windows reading, "Est. 1874. The spirit of this building lives on". Although designed to house a book depot, this section was used as the principal's office while Christchurch Normal School was operating from the building.

Images, UC QuakeStudies

The interior of the octagonal corner section of the Cranmer Court building, which housed Plato Creative from March 2008 to November 2009. The photograph showcases the building's intricate wooden ceiling and high windows. A stained glass design is visible at the center of the windows with a motto underneath reading, "The spirit of this building lives on". Although designed to house a book depot, this section was used as the principal's office while Christchurch Normal School was operating from the building.

Images, UC QuakeStudies

The interior of the octagonal corner section of the Cranmer Court building, which housed Plato Creative from March 2008 to November 2009. The photograph showcases the building's intricate wooden ceiling and high windows. A stained glass design is visible at the center of the window with a motto underneath reading, "The spirit of this building lives on". Although designed to house a book depot, this room was used as the principal's office while Christchurch Normal School was operating from the building.

Images, UC QuakeStudies

The damaged clock tower on Victoria Street, wrapped and braced to prevent further damage. The photographer comments, "Diamond Jubilee Clock Tower in Christchurch. Its legs wrapped up for protection. Volcanic stone and limestone clock tower with ornate wrought iron work with coloured glass around part of the tower and four clock faces. Clock Tower built in this location to commemorate the Diamond Jubilee of Queen Victoria. Has two white marble plaques and one bronze plaque set on stone work above arches".

Images, UC QuakeStudies

A digitally manipulated image of the damaged statue of Scott which was removed from its original site beside Worcester Boulevard for safekeeping. The photographer comments, "During the February 2011 earthquake in Christchurch, New Zealand the statue of Robert Falcon Scott broke across the ankles and most of the statue came crashing to the ground. To commemorate a 100 years of association with Antarctica Christchurch council has laid out for viewing the statue in a prostrate position. I was lucky to encounter the statue before it was put into its glass display enclosure".

Images, UC QuakeStudies

A photograph of a member of the Wellington Emergency Management Office Emergency Response Team standing in front of the earthquake-damaged Avonmore House on Hereford Street. Sections of the walls have crumbled, spilling bricks and masonry onto the footpath and street below. Many of the windows have warped, breaking the glass. USAR codes have been spray-painted on one of the columns. A red sticker taped to the door indicates that the building is unsafe to enter.

Images, UC QuakeStudies

A photograph of a member of the Wellington Emergency Management Office Emergency Response Team standing in front of the earthquake-damaged Avonmore House on Hereford Street. Sections of the walls have crumbled, spilling bricks and masonry onto the footpath and street below. Many of the windows have also warped, breaking the glass. USAR codes have been spray-painted on one of the columns. A red sticker taped to the door indicates that the building is unsafe to enter.

Images, Alexander Turnbull Library

Christ Church Cathedral, Christchurch, with spire being rebuilt after the 1901 earthquake. Photographer unidentified. The nave, tower and spire of Christchurch Cathedral was completed in 1881. Work on completeing the rest of the building began in 1900. In 1902 the transcepts were finished and work started on the chancel and apse. An earthquake in 1901 cracked the upper part of the spire in two places. In this photograph which dates from late 1902/1903 (see scaffolding beyond the transcept indicating work on chancel) the upper part of the spire has been removed by Messrs Graham and Greig in preparation for replacing this section with a copper covered wooden structure. The Cathedral was completed in 1904. (Information from "Vision and Reality; Christchurch Cathedral in the Square," Colin Brown, Christchurch, 2000 and "A Dream of Spires," Ian Lochhead, Canterbury University Press, 1999, page 153.) Preparation for erecting the scaffolding was reported in the Christchurch Star 15 January 1902. The cross was replaced on the top of the new copper covered wooden section of the spire on 29 June 1903. Source of descriptive information - Notes on file print. Source of title - Title supplied by Library Quantity: 1 b&w original negative(s). Physical Description: Glass negative

Images, Alexander Turnbull Library

The cartoon depicts a rose window set in a stone wall. The glass circles each contain a dollar sign. Refers to the future of the Christchurch Cathedral after the Canterbury earthquakes of 2010 and 2011. The Anglican Church seemed to only consider the money in arguing that it would be too expensive to be repaired or rebuilt. Title from file name Quantity: 1 digital cartoon(s).

Images, Alexander Turnbull Library

Text at the top of the cartoon reads 'NZ city strengthening?' A whole city enclosed in a glass dome and balanced on huge springs intended to make it earthquake resistant rocks as another aftershock hits. Context - Two earthquakes and hundreds of aftershocks have hit Christchurch, the first on 4 September 2010 and a second more devastating one on 22 February 2011. There has been great emphasis on making heritage buildings that are rebuilt and all new buildings earthquake resistant. The example in the cartoon is perhaps a Springs-with-damper base isolator. Quantity: 1 digital cartoon(s).

Images, Alexander Turnbull Library

In the living room of a house half-ruined by the Christchurch earthquake a decrepit and useless-looking man in a grubby white singlet doses in his armchair with a glass of beer in his hand; his wife whispers to a friend 'Just between you and me, I'm hoping to have him red-stickered!' Context - The two Christchurch earthquakes of 4 September 2010 and 22 February 2011 and the technique of using different coloured stickers to designate the degree of damage to buildings - 'red' indicates that it needs to be demolished. Colour and black and white versions available Quantity: 2 digital cartoon(s).

Research papers, University of Canterbury Library

An as-built reinforced concrete (RC) frame building designed and constructed according to pre-1970s code design construction practice has been recently tested on the shake table at the University of Canterbury. The specimen, 1/2.5 scaled version of the original prototype, consists of two 3-storey 2-bay asymmetric frames in parallel, one interior and one exterior, jointed together by transverse beams and floor slabs. Following the benchmark test, a retrofit intervention has been proposed to rehabilitate the tested specimen. In this paper, detailed information on the assessment and design of the seismic retrofit procedure using GFRP (glass fibre reinforced polymer) materials is given for the whole frame. Hierarchy of strength and sequence of events (damage mechanisms) in the panel zone region are evaluated using a moment-axial load (M-N) interaction performance domain, according to a performance-based retrofit philosophy. Specific limit states or design objectives are targeted with attention given to both strength and deformation limits. In addition, an innovative retrofit solution using FRP anchor dowels for the corner beam-column joints with slabs is proposed. Finally, in order to provide a practical tool for engineering practice, the retrofit procedure is provided in a step-by step flowchart fashion.

Research papers, University of Canterbury Library

Glazing systems are non-structural elements in a building that, more often than not, appear to be given little consideration in seismic design. Recent experimental work into glazing systems at the University of Canterbury, however, has shown that glazing systems can be very susceptible to serviceability damage, defined as loss of water-tightness. The focus of this paper is to highlight the difference in vulnerability of standard and seismic glazing systems and consider the implications of this for future repair costs and losses. The paper first describes the damage states chosen for glazing units according to the repair strategies required and expected repair costs. This includes three damage states: DS1: Water Leakage, DS2: Gasket Failure and DS3: Frame/Glass Failure. Implementing modern performance-based earthquake engineering, the paper proceeds to highlight a case study comparing costs and expected losses of a standard glazing unit and a seismic glazing unit installed on a case study building. It is shown that the use of seismic glazing units is generally beneficial over time, due to the early onset of serviceability damage in standard glazing units. Finally, the paper provides suggestions for designers aimed at reducing costs related to earthquake induced repairs of glazing.

Images, Alexander Turnbull Library

Text above the image reads 'Time capsules unearthed in Christchurch' A man reads a newspaper which says 'Petrol is so cheap you can actually afford to run one of these new-fangled motor cars...' Context - when a bronze statue of Christchurch founder John Robert Godley, which stood in Cathedral Square, toppled during the Christchurch earthquake of 22 February 2011, a crane driver clearing rubble discovered two time capsules. One is a small glass capsule with a hand-written letter on gold parchment inside, while the other is a large metal-like object, yet to be opened. A Nelson newspaper 'The Colonist' in an article published in 1918, about the time capsule in Christchurch said, "This statute of John Robert Godley executed by Thomas Woolner was erected in the west side of the Cathedral Square by the Provincial Government of Canterbury, and unveiled by the late Sir Charles Christopher Bowen on August 6 1867, it was moved to this site in March 1918." The man in the cartoon reads a bout the cost of petrol being incredibly cheap and thinks it refers to today's prices. Quantity: 1 digital cartoon(s).

Research papers, The University of Auckland Library

As part of a seismic retrofit scheme, surface bonded glass fiber-reinforced polymer (GFRP) fabric was applied to two unreinforced masonry (URM) buildings located in Christchurch, New Zealand. The unreinforced stone masonry of Christchurch Girls’ High School (GHS) and the unreinforced clay brick masonry Shirley Community Centre were retrofitted using surface bonded GFRP in 2007 and 2009, respectively. Much of the knowledge on the seismic performance of GFRP retrofitted URM was previously assimilated from laboratory-based experimental studies with controlled environments and loading schemes. The 2010/2011 Canterbury earthquake sequence provided a rare opportunity to evaluate the GFRP retrofit applied to two vintage URM buildings and to document its performance when subjected to actual design-level earthquake-induced shaking. Both GFRP retrofits were found to be successful in preserving architectural features within the buildings as well as maintaining the structural integrity of the URM walls. Successful seismic performance was based on comparisons made between the GFRP retrofitted GHS building and the adjacent nonretrofitted Boys’ High School building, as well as on a comparison between the GFRP retrofitted and nonretrofitted walls of the Shirley Community Centre building. Based on detailed postearthquake observations and investigations, the GFRP retrofitted URM walls in the subject buildings exhibited negligible to minor levels of damage without delamination, whereas significant damage was observed in comparable nonretrofitted URM walls. AM - Accepted Manuscript

Research papers, University of Canterbury Library

Recent severe earthquakes, such as Christchurch earthquake series, worldwide have put emphasis on building resilience. In resilient systems, not only life is protected, but also undesirable economic effects of building repair or replacement are minimized following a severe earthquake. Friction connections are one way of providing structure resilience. These include the sliding hinge joint with asymmetric friction connections (SHJAFCs) in beam-to-column connections of the moment resisting steel frames (MRSFs), and the symmetric friction connections (SFCs) in braces of the braced frames. Experimental and numerical studies on components have been conducted internationally. However, actual building performance depends on the many interactions, occurring within a whole building system, which may be difficult to determine accurately by numerical modelling or testing of structural components alone. Dynamic inelastic testing of a full-scale multi-storey composite floor building with full range of non-structural elements (NSEs) has not yet been performed, so it is unclear if surprises are likely to occur in such a system. A 9 m tall three-storey configurable steel framed composite floor building incorporating friction-based connections is to be tested using two linked bi-directional shake tables at the International joint research Laboratory of Earthquake Engineering (ILEE) facilities, Shanghai, China. Beams and columns are designed to remain elastic during an earthquake event, with all non-linear behaviour occurring through stable sliding frictional behaviour, dissipating energy by SHJAFCs used in MRFs and SFCs in braced frames, with and without Belleville springs. Structural systems are configurable, allowing different moment and braced frame structural systems to be tested in two horizontal directions. In some cases, these systems interact with rocking frame or rocking column system in orthogonal directions subjected to unidirectional and bidirectional horizontal shaking. The structure is designed and detailed to undergo, at worst, minor damage under series of severe earthquakes. NSEs applied include precast-concrete panels, glass curtain walling, internal partitions, suspended ceilings, fire sprinkler piping as well as some other common contents. Some of the key design considerations are presented and discussed herein