Advanced Science Building (ASB) – EPFL

Location
Lausanne, CH
Client
Ecole Polytechnique Fédérale de Lausanne (EPFL)
Initiated
2022
Size
28.100 sqm
Project Team, Photos & Collaborators
Sjoerd Boomars, Javier Cuartero, Isabella Flore, Martin Grech, Aleksandar Hrib, Sophie Ize, Aida Jalili, Kees Kaan, Marco Lanna, Vincent Panhuysen, Giovanni Pancotti, Agata Proniak, Dikkie Scipio, Hrvoje Smidihen, Joana Vilaca, Michalina Wawro, Jelmer van Zalingen

Photos
Visualizations by Filippo Bolognese and Proloog

Collaborators
Consortium: KAAN Architecten, Celnikier & Grabli Architectes, Amstein & Walthert Lausanne, Ingeni SA, Dolci Architectes Advisors: Paysagestion, AVLS, GUD, Aylphy, AE75, GOPURA, De Cérenville, EPPAG

The Advanced Science Building (ASB) at EPFL in Lausanne, Switzerland, is set to be designed as a transformative facility for cutting-edge research in fundamental sciences. The ASB will host advanced microscopy and imaging laboratories to support research at the atomic and sub-atomic levels, representing a critical advance in fields like quantum physics, biology, and chemistry.

The building’s design centres on a precision-focused concept, similar to that of a Swiss clock. A C-shaped laboratory volume encircles a central technical “silo” that is isolated from the main structure to reduce vibrations and disturbances. This core technical space, critical for housing equipment, is layered by circulation, preparation, and experimental areas, ensuring optimal operational efficiency. Surrounding the lab is a modular wooden office structure that connects the building to its natural surroundings, offering expansive views of the campus, Lake Geneva, and the Alps.

The ASB will replace the current Colladon parking lot, adding seven laboratory and office space floors, two of which are underground. Designed to support 26 research groups and over 500 users, it meets EPFL’s stringent research demands while fostering a collaborative environment. Sustainability is central to the design, with features like a compact form to reduce thermal loss, automated exterior blinds for solar control, and rooftop photovoltaic panels. Materials are selected to minimise greenhouse gas emissions and include local resources, with hybrid wood-concrete floors to lower environmental impact without compromising thermal inertia.