Famous Buildings Every Architect Studies and What They Teach

Every architecture school teaches from the same short list of famous buildings. They recur not because they are popular with tourists but because each one solved a problem in structure, material or space so clearly that it changed what came after. Read properly, they are less a gallery of landmarks than a course in how buildings work.

This guide walks through the buildings most often studied, grouped by the lesson they teach. It is written from a structural engineer’s perspective, so for each one we look at how the load is carried, what the main material is doing, and how the space follows from the structure. Where we have a dedicated article, the building name links to it.

Ancient lessons: the Parthenon and the Pantheon

The Parthenon in Athens, built between 447 and 432 BC, is a post-and-lintel temple in marble. Its structure is simple, but its refinement is not: the columns swell slightly, the platform curves upward, and the columns lean subtly inward. These optical corrections are why students still measure it, and why it anchors discussion of proportion in architecture.

The Pantheon in Rome, rebuilt under Hadrian in the second century AD, teaches the opposite lesson: how to span a great space with mass. Its unreinforced concrete dome, roughly 43 metres across, is lightened towards the crown by using lighter aggregate, thinner sections, coffering and an open oculus. Nearly two thousand years later it remains a benchmark for dome architecture and for the durability of well-proportioned compression structures.

Compression made visible: Gothic cathedrals and the Sagrada Família

Medieval cathedrals turned structure into an open skeleton. The pointed arch directs thrust more steeply, ribbed vaults gather the load onto piers, and external flying buttresses carry the remaining sideways thrust clear of the wall, which is what allows the great windows. The building is effectively a stone frame balanced in compression.

Antoni Gaudí pushed the same logic further at the Sagrada Família in Barcelona, begun in 1882 and taken over by Gaudí the following year. Instead of buttresses he used inclined, branching columns and forms derived from hanging chain models, so that the line of thrust stays within the structure. The basilica is still being completed today, now with modern materials and digital modelling.

Modern houses: Fallingwater, Villa Savoye, Barcelona Pavilion and the glass houses

Four small buildings carry much of modernism’s teaching. Fallingwater by Frank Lloyd Wright cantilevers reinforced concrete terraces over a waterfall in Pennsylvania; its later sag and post-tensioning repair are now as instructive as the original design. Le Corbusier’s Villa Savoye near Paris, built 1928 to 1931, is the clearest demonstration of his Five Points, lifted on pilotis with a free plan above.

Mies van der Rohe’s Barcelona Pavilion of 1929 separates columns from walls entirely, so the walls become free planes that guide movement. His Farnsworth House, completed in 1951, reduces a house to two floating slabs between steel columns, and Philip Johnson’s Glass House of 1949 explores the same idea in a different landscape. Together they define the open plan, and they also expose its weaknesses in heat, glare and privacy.

Shells and sculpture: Sydney Opera House and Guggenheim Bilbao

The Sydney Opera House, designed by Jørn Utzon after a competition in 1957 and opened in 1973, is the classic case of an architectural image that outran engineering. The original free-form shells could not be calculated or built economically, and the eventual solution, worked out with the engineers at Ove Arup & Partners, derived every shell from the surface of a sphere so the ribs could be precast from repeated geometry. It is a lesson in rationalising a form until it becomes buildable.

Frank Gehry’s Guggenheim Museum Bilbao, opened in 1997, showed the opposite: that software adapted from aerospace could describe and fabricate irregular steel and titanium surfaces directly. It changed both how cities thought about cultural buildings and how architects worked with digital models, and it sits behind much of today’s parametric architecture.

Japanese buildings that changed structure

Modern Japan has produced a remarkable run of buildings that are studied as much by engineers as by architects. Kenzo Tange’s Yoyogi National Gymnasium for the 1964 Tokyo Olympics hangs its roof from steel cables slung between concrete masts. Tadao Ando’s Church of the Light in Osaka cuts a cross of light into a plain concrete box, showing how much a single, precise opening can do. Toyo Ito’s Sendai Mediatheque replaces columns with lattice steel tubes that carry load, light and services together.

The lightness continues in SANAA’s 21st Century Museum of Contemporary Art in Kanazawa, with its thin roof and transparent circular plan, in Shigeru Ban’s paper-tube and timber structures, and in Kengo Kuma’s layered timber facades. Each takes a familiar material and asks it to do something new.

Singapore’s famous buildings

Singapore has its own list of buildings that designers travel to see. Marina Bay Sands, designed by Moshe Safdie and opened in 2010, links three hotel towers with a long SkyPark that cantilevers well beyond the northern tower. Jewel Changi Airport, also by Safdie, wraps a forest valley and an indoor waterfall in a toroidal steel and glass gridshell.

The Interlace, designed by OMA with Ole Scheeren, stacks apartment blocks in a hexagonal pattern to create large shared courtyards and sky terraces. Esplanade – Theatres on the Bay, with its distinctive spiky aluminium sunshades over glass, is a study in tropical shading at civic scale. Each is a reminder that ambitious form in Singapore must also deal with heat, rain and long-term maintenance.

What famous buildings teach a working engineer

Studied side by side, famous buildings reveal a few recurring truths. The most durable ones have a clear load path that can be read in the form itself. Materials perform best when they are used in the way they naturally want to work: masonry and unreinforced concrete in compression, steel in tension and bending, reinforced concrete for continuity. And the boldest designs nearly always required a period of engineering rationalisation before they could be built.

They also show the cost of ignoring detail. Several celebrated modern houses have leaked, overheated or deflected, and their repairs have taught as much as their design. For anyone commissioning a building today, the lesson is to involve a structural engineer from the start, so the architectural idea and the structure develop together. For the people behind these works, see our companion guide to famous architects.

Frequently asked questions

What is the most famous building in the world?

Candidates usually include the Great Pyramid of Giza, the Parthenon, the Taj Mahal, the Eiffel Tower and the Sydney Opera House. For architects, fame matters less than influence, and the buildings most studied are those that introduced a new structural or spatial idea.

Why do architecture students study the Pantheon?

The Pantheon shows how a very large span can be achieved in unreinforced concrete by keeping the dome in compression and reducing its weight towards the crown. It is also an exceptional example of durability, having remained in use for almost two thousand years.

What are the most famous buildings in Singapore?

Marina Bay Sands, Jewel Changi Airport, Esplanade – Theatres on the Bay and The Interlace are the contemporary buildings most often cited, alongside historic landmarks such as the old Supreme Court and City Hall, now the National Gallery Singapore.

Which famous buildings had structural problems?

Fallingwater’s cantilevers sagged over decades and were strengthened with post-tensioning, and the Sydney Opera House shells had to be completely re-engineered before construction. Such cases are widely taught because they show how design intent, material behaviour and buildability interact.

Working on a building with an ambitious form or long spans? Talk to our structural engineering consultancy or get in touch to discuss it.