Bahá'í Temple of South America Receives RAIC Innovation in Architecture Award

Bahá'í Temple of South America Receives RAIC Innovation in Architecture Award

The Bahá'í Temple of South America, a luminous worship space designed and built with the creative use of computer modeling, measuring, and fabrication software, and custom glass, has won the Royal Architectural Institute of Canada (RAIC) Innovation in Architecture Award for 2017.

The temple, designed by Hariri Pontarini Architects, is a domed structure set in the foothills of the Andes Mountains outside Santiago, Chile. Nine monumental veils frame an open worship space that expresses a faith of inclusion and accommodates up to 600 visitors. Fourteen years in the making, the temple was completed in 2016.

"The successful resolution of a project of such extraordinary ambition establishes a legacy for future projects for the profession," commented the three-member jury. "The assembly of an international and local team of suppliers, consultants and fabricators demonstrate how the profession is increasingly working in complex, globalized environments that demand a sophisticated use of evolving software, communication and fabrication software tools."

The Bahá'í Temple of South America reflects innovations in materials, technology, and structure. For instance, a search for materials that capture light resulted in the development of two cladding materials: an interior layer of translucent marble from Portugal, and an exterior layer of cast-glass panels developed, in collaboration with the Canadian glass artist Jeff Goodman, for this project.

To realize the complex curves of the design, the studio looked beyond the traditional three-dimensional visualization software used by the architectural industry, toward modeling platforms geared to fabrication and manufacturing.

Located in an earthquake zone, the structure was designed to withstand extreme earthquakes and wind. The super-structures of the wings are comprised of thousands of individually engineered steel members and nodal connections. Each of the wings rests on concrete columns on seismic bearings, so that in the event of an earthquake, the building can slide to absorb the shock.

Prefabricated pieces for the structure and cladding were produced in multiple countries using advanced fabrication techniques, then shipped and assembled on site. The steel superstructure, for example, was made in Germany using CNC plasma cutting and 5-axis CNC milling machines.

Photography: doublespace photography

Hariri Pontarini Architects

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