Imagine designing a building infused with mathematical concepts. That’s precisely what happened with the Andrew Wiles Building. It houses the Mathematical Institute at the University of Oxford. This isn’t just any building. It’s a testament to mathematical brilliance and innovative design.
The Andrew Wiles Building is named after Sir Andrew Wiles. He is renowned for proving Fermat’s Last Theorem. He is also the university’s Regius Professor of Mathematics. Wiles made history with his groundbreaking proof.
Before this building existed, the Mathematical Institute was scattered. Lectures occurred in various colleges. Mathematicians lacked a central meeting place. In 1930, G. H. Hardy proposed a dedicated building. The university only allocated six rooms in 1934. A dedicated building finally opened in 1966. This was located at the northern end of St Giles’. The institute soon outgrew this space. It expanded into neighboring houses and annexes.
The Andrew Wiles Building became a reality in 2013. It is located in the Radcliffe Observatory Quarter. The building’s design integrates mathematical ideas. Sir Roger Penrose created a non-periodic Penrose tiling. This tiling decorates the ground at the entrance. Two structures use crystals to illustrate graph theory concepts. These crystals also demonstrate the vibration of a two-dimensional surface.
The building project cost around £45 million. The Andrew Wiles Building design also aimed to be sympathetic to the Oxford skyline. Its upper floors offer fantastic views.
All buildings in central Oxford face height restrictions. These restrictions are defined by the Carfax Height Guideline. To overcome this, the plant was placed in the basement. A subterranean teaching area was created. This space required mechanical ventilation. An innovative system brings in fresh air and discharges stale air. Architectural elements conceal the ventilation.
Oxford City Council has strict carbon-reduction goals. The Andrew Wiles Building had to meet these goals. The facade maximizes daylight. It simultaneously controls solar heat gain. Users can control motor-driven external shading devices.
Above-ground spaces use passive design solutions. Natural ventilation and exposed concrete soffits are incorporated. The building required a piled foundation. Closed-loop pipework was installed in the boreholes. This harvests free energy from the ground. Heat pumps generate hot or chilled water. The system was designed to allow future buildings to share energy.
Inside, the Andrew Wiles Building is equipped with advanced technology. Teaching rooms feature Christie projectors. These projectors display superior color images. Some rooms are linked. This allows lectures to be shared remotely. The system is interactive in both directions.
GV Multimedia handled the design and installation. The building serves 900 undergraduates. It provides workspace for over 500 researchers and support staff. The lecture theaters benefit the entire university.
The audio-visual component spans 13 teaching spaces and six meeting rooms. This includes three fully equipped lecture theaters. These theaters have raked seating. An Extron XTP matrix switcher links the lecture theaters. This allows larger rooms to transmit lectures to other rooms.
The Andrew Wiles Building also houses the Oxford Centre for Collaborative Applied Mathematics. This center was established with a US$25 million grant. It was the largest grant ever for a UK mathematics department.
In 2015, the building was featured in the TV series Lewis. Sir Andrew Wiles even appeared in the background of one scene.
So, as you stand here, remember that the Andrew Wiles Building is more than bricks and mortar. It is a center of mathematical innovation. It embodies the spirit of discovery.