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CAIRNS QLD

TRINITY ANGLICAN SCHOOL (TAS)

SCIENCE BUILDING

Winner 2016 AIA Jennifer Taylor Award for Educational Architecture

Winner 2016 AIA FNQ Regional Project of the Year

2016 — Architecture Australia
Trinity Anglican School STEM Building published

2016 — Australian Institute of Architects
Jennifer Taylor Medal for Educational Architecture (QLD State) — Trinity Anglican School STEM Building

2017 - Australian Design Review - National Publication of TAS Science Facility

The AIA Jury Citation was:

 

'The building façade features a twisting steel sunshade of structural purlins.  Science symbolist experiments inspired the design which is open to interpretation as helix, slinky or apparatus. Innovative and cutting edge, this new science facility for Trinity Anglican School is a new prototype for educational buildings in the tropics'

TRINITY ANGLICAN SCHOOL SCIENCE BUILDING

Cairns, Queensland

Project Overview

The Trinity Anglican School Science Building is a contemporary education facility located within the Trinity Anglican School campus in Cairns, Far North Queensland. Designed as the first stage of a broader campus redevelopment masterplan, the building establishes a new academic focus for the school while responding directly to the climatic and environmental conditions of the tropical north.

The project consolidates a series of specialist science teaching environments into a compact two-storey building that integrates laboratories, teaching spaces and preparation areas with informal learning zones and student collaboration spaces. The architecture seeks to support contemporary approaches to science education while creating a highly legible and engaging environment for students and teachers.

Positioned near the centre of the campus, the building forms an important connective element within the school. At ground level the building is lifted to create a shaded undercroft that allows pedestrian movement across the campus while establishing a sheltered gathering space for students. This open ground plane maintains permeability through the site and reinforces the building’s role as both a learning facility and a key piece of campus infrastructure.

Learning Environment

The building contains six specialist science laboratories accommodating physics, chemistry and biology programs. These laboratories are supported by preparation rooms, storage areas and staff workspaces arranged to maximise operational efficiency while maintaining close connections between teaching and preparation areas.

The internal layout is organised around a central atrium space that acts as the social and spatial heart of the building. This double-height volume brings natural light deep into the plan and provides visual connectivity between the two levels of the building. Informal learning areas, circulation spaces and breakout zones are arranged around this central void, allowing students to move easily between formal classroom environments and collaborative learning spaces.

A sculptural helical staircase connects the two floors and reinforces the conceptual framework of the building as a place of scientific discovery and experimentation. The staircase acts not only as a circulation device but also as a central architectural element that encourages interaction and movement throughout the building.

Architectural Expression

The architecture of the science building is defined by a distinctive external façade system composed of prefabricated steel channels that wrap the building in a continuous twisting screen. The geometry of the façade draws inspiration from scientific structures such as the double helix and molecular forms, providing a visual reference to the disciplines studied within the building.

This façade operates as both an architectural expression and an environmental control system. The rotating steel members create a layered screen that filters sunlight and reduces solar heat gain while maintaining outward views and allowing daylight to enter the laboratories and teaching spaces.

As the sun moves across the building throughout the day, the façade produces shifting patterns of shadow and light across the concrete structure behind, giving the building a dynamic presence within the campus.

Climate Responsive Design

The design responds carefully to the hot and humid conditions of the Cairns climate. The building is elevated above the ground to allow air movement beneath the structure, while circulation corridors and external walkways are naturally ventilated and protected by deep overhangs.

The exposed concrete structural frame provides thermal mass that helps stabilise internal temperatures while also expressing the building’s structural logic. Generous shading devices, recessed glazing and screened façades reduce direct solar gain while maintaining comfortable internal learning environments.

Mixed-mode ventilation strategies are used throughout the building, allowing classrooms and circulation areas to operate naturally where possible while mechanical systems supplement cooling requirements when necessary.

Sustainability and Environmental Performance

Environmental performance was a key consideration throughout the design of the project. The building integrates a number of passive and active sustainability strategies intended to minimise energy consumption while supporting comfortable learning environments.

Photovoltaic panels are installed on the roof to generate renewable energy for the building. High-efficiency VRV mechanical systems provide targeted cooling to laboratory environments where precise temperature control is required. Rainwater harvesting systems capture roof runoff for reuse across the campus landscape.

Building services are intentionally exposed in selected areas of the laboratories, allowing the architecture itself to become a teaching tool that demonstrates environmental systems and building performance to students studying science.

Campus Integration

Beyond its role as a teaching facility, the science building acts as an important spatial connector within the Trinity Anglican School campus. The open ground level allows students to move freely through the site while creating a shaded gathering space that supports informal learning and social interaction.

The building establishes a new architectural language for the ongoing development of the campus, combining robust materials with climate-responsive design strategies suited to the tropical environment of Far North Queensland.

Awards and Recognition

The Trinity Anglican School Science Building has received significant recognition for its innovative approach to education architecture and climate-responsive design.

The project received the Australian Institute of Architects Jennifer Taylor Award for Educational Architecture (Queensland) in 2016, together with the AIA Far North Queensland Regional Project of the Year Award in the same year.

These awards recognised the project’s integration of architectural expression, environmental performance and contemporary learning environments within a highly distinctive building suited to the tropical climate of Cairns.

Project Details

Project: Trinity Anglican School Science Building
Location: Cairns, Queensland, Australia
Client: Trinity Anglican School
Completion: 2015
Architect: Charles Wright Architects

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ABN 89319653905  ACN 110 285 008

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Port Douglas Queensland

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PO Box 492 

Port Douglas QLD Australia 4877

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Charles Wright Architects acknowledges Aboriginal and Torres Strait Islander peoples as the Traditional Owners of Country across the lands on which we work. We recognise their enduring connection to land, waters and culture, and pay our respects to Elders past, present and future.

We stand within Country, hold to its knowledge, and acknowledge its continuing presence in shaping place, climate and architecture.

 

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