Google Engineering Centre

The Google Engineering Centre is a contemporary workplace developed through a partnership between Google and the Institute for Technological Research (IPT – Instituto de Pesquisas Tecnológicas), adjacent to the University of São Paulo campus in Brazil. The project retrofits a four-storey research facility from the 1940s into a contemporary office development, retaining its primary structure, and most of its building fabric and internal finishes. The central idea was to minimise physical intervention and leverage the environmental qualities embedded in its original design.

Designed before air conditioning became commonplace, the building already offered many of the conditions for a climate-responsive workplace: narrow floor plates, generous ceiling heights, exposed concrete slabs, large operable windows and a close relationship with the surrounding landscape. Rather than replacing these qualities, the design sought to retain, enhance and make better use of them.

Working with the existing structure, from an environmental perspective, the retrofit exercise focused on improving the building envelope performance relative to the internal environmental conditions. This included the selective introduction of external blinds for solar protection and the conversion of high-level fixed window panels into motorised tipping windows to improve natural ventilation,  informed by Iterative thermal, solar and daylight simulations across three phases. Together, these interventions enhanced solar control, daylight and natural ventilation while retaining almost all of the building’s original fabric.

The retrofit enabled approximately 76% of the occupied floor area to operate through natural ventilation or mixed mode. Using adaptive comfort criteria, these areas can operate passively for around 56% of occupied hours at a 24°C threshold, increasing to approximately 85% at 28°C. This contributes to an estimated 60-70% reduction in active annual cooling demand.

Solar radiation & daylight control
Solar protection
Biophilia & daylight control
Rainwater harvesting
Natural ventilation

Through the retention of the existing building, and minimising physical changes to the building’s fabric and structure, meaningful embodied carbon savings were achieved. The retrofit also avoids the embodied carbon associated with replacing the existing structure, saving approximately 42% against an equivalent new build and 45% against demolition and reconstruction, both common approaches in the local market. An equivalent new build would carry approximately 73% more embodied carbon, while a demolition and reconstruction scenario would carry approximately 82% more.

Completed in 2026, the project shows how the environmental potential of an existing historical building can be leveraged to create a contemporary, high-performing workplace.

Project Name Client Architect Location
Google Engineering Centre Google Brasil Arquitetura Brazil
Masai Mara Conservation Centre Abercrombie & Kent Philanthropy DCS+Architects Kenya
IBA (Icolo e Bengo) Ministério dos Transportes de Angola Foster + Partners Angola
EuroAirport Basel-Mulhouse-Freiburg Expansion EuroAirport Basel-Mulhouse-Freiburg Nordic Office of Architecture + PCA-STREAM France
Google Engineering Centre

Google Engineering Centre

Google

Brasil Arquitetura

Brazil

Masai Mara Conservation Centre

Masai Mara Conservation Centre

Abercrombie & Kent Philanthropy

DCS+Architects

Kenya

IBA (Icolo e Bengo)

IBA (Icolo e Bengo)

Ministério dos Transportes de Angola

Foster + Partners

Angola

EuroAirport Basel-Mulhouse-Freiburg Expansion

EuroAirport Basel-Mulhouse-Freiburg Expansion

EuroAirport Basel-Mulhouse-Freiburg

Nordic Office of Architecture + PCA-STREAM

France

Perth Airport New Terminal

PAPL (Perth Airport Pty Ltd)

Woods Bagot + Nordic Office of Architecture

Australia

Google Antara

Google

SOMA/SMA

Mexico

Athens International Airport

Athens International Airport

Nordic Office of Architecture + PCA-STREAM

Greece