Architecture, Famous Buildings, Design Philosophy and Legacy
Introduction
Norman Foster is one of the most influential British architects associated with the development of High-Tech architecture and the transformation of contemporary architectural practice through technology, engineering and environmental design.
Born in Manchester in 1935, Foster studied architecture at the University of Manchester before receiving a Henry Fellowship to Yale University, where he completed a master’s degree in architecture. In 1967 he founded Foster Associates, the practice that later became Foster + Partners.
Across more than six decades, his work has covered offices, skyscrapers, airports, museums, bridges, cultural buildings, transportation infrastructure, urban design and product design. Major projects associated with his practice include the Willis Faber & Dumas building, Sainsbury Centre for Visual Arts, Hongkong and Shanghai Bank Headquarters, Reichstag, 30 St Mary Axe, Millau Viaduct, Hearst Tower and Apple Park.
What makes Foster particularly important to architectural education is not simply the visual appearance of his buildings. His work demonstrates how structure, technology, environmental performance, materials, circulation, flexibility and architectural form can be considered as interconnected systems.
Quick answer: Norman Foster is a British architect best known for technologically advanced, structurally expressive and environmentally responsive architecture. He was a major figure in British High-Tech architecture and founded Foster Associates in 1967, the practice now known as Foster + Partners.
Who Is Norman Foster?
Norman Foster is a British architect whose career has connected modern architecture with engineering, industrial technology and environmental design.
He is particularly associated with buildings in which structural systems and environmental technologies are not completely concealed but become important parts of the architectural expression.
His career also demonstrates the changing role of the architect. Rather than treating architecture as an isolated artistic activity, Foster’s practice has developed a highly collaborative model involving architects, structural engineers, environmental specialists, computational designers, urban designers and other disciplines.
This integrated approach is especially relevant to contemporary practice, where architectural decisions affect structure, MEP services, energy use, fabrication, construction and user experience simultaneously.
Norman Foster: Early Life and Education
Norman Foster was born in Manchester, England, in 1935.
His early interest in engineering, machines and aviation became important influences on his later architectural thinking. He studied at the University of Manchester’s School of Architecture and City Planning and graduated in 1961.
He subsequently received a Henry Fellowship to Yale University in the United States and completed a master’s degree in architecture.
At Yale he encountered a broader architectural culture and met Richard Rogers. Foster and Rogers later became associated with the experimental architectural group Team 4.
The experience was significant because Foster’s later architecture combined several influences:
- European modernism
- American architectural experimentation
- industrial technology
- engineering
- lightweight construction
- prefabrication
- environmental design
- transportation technology
- computational design
His architecture therefore developed through more than one stylistic source.
Norman Foster and the Development of Foster Associates
In 1967, Foster founded Foster Associates in London.
The practice subsequently developed into the international architecture and design studio known today as Foster + Partners.
The evolution of the practice is important when studying Foster because many of the buildings commonly described as “Norman Foster buildings” were produced through a large multidisciplinary team.
The architectural authorship may therefore be better understood as a combination of:
- Foster’s design leadership and architectural ideas
- project architects and senior partners
- structural and environmental engineers
- specialist consultants
- clients and institutions
- contractors and fabricators
- research and development teams
This distinction is particularly useful for architecture students because contemporary landmark buildings are rarely the product of one individual working alone.
What Architectural Style Is Norman Foster Known For?
Norman Foster is strongly associated with High-Tech architecture.
High-Tech architecture emerged in Britain during the late 1960s and 1970s. According to RIBA, the movement emphasized engineering, construction, lightweight materials, new technologies and the visible expression of structure and building services.
Foster and Richard Rogers were among the key architects associated with the movement.
However, describing Foster’s entire career simply as “High-Tech architecture” is incomplete.
His later buildings demonstrate a much broader vocabulary involving:
- environmental performance
- digital modelling
- computational design
- complex geometry
- adaptive reuse
- historic conservation
- urban design
- infrastructure
- landscape
- public space
- lightweight structures
- integrated engineering
Therefore, High-Tech architecture is best understood as an important foundation of Foster’s work rather than a complete description of his entire career.
Characteristics of Norman Foster’s Architecture
Several recurring principles can be identified across Foster’s work.
1. Integration of Architecture and Engineering
One of the strongest characteristics of Foster’s architecture is the relationship between architectural form and engineering.
Instead of treating structure as something hidden behind architectural finishes, Foster’s projects frequently allow structural logic to influence the visual identity of the building.
This approach can be seen particularly clearly in the Hongkong and Shanghai Bank Headquarters and 30 St Mary Axe.
2. Structural Expression
Foster often uses structure as an architectural language.
Steel frames, masts, trusses, diagrids, cables and other structural components can become visually legible.
This does not necessarily mean exposing every structural element. Rather, structural logic can be allowed to influence:
- building form
- façade rhythm
- column positions
- floorplate organization
- circulation
- visual identity
3. Lightweight Construction
Lightness is a recurring theme in Foster’s architecture.
Steel, glass, aluminium and prefabricated components have frequently been used to create buildings that appear lighter and more open than conventional massive construction.
The idea of lightness is both technical and visual.
4. Natural Light
Natural light plays a major role in many Foster projects.
Glass façades, atria, skylights, courtyards and carefully positioned openings are used to bring daylight deep into buildings.
However, extensive glazing should not automatically be equated with sustainability. The performance of glazing depends on orientation, solar exposure, shading, glass specification, ventilation strategy and climate.
This is an important lesson for students: architectural transparency and environmental performance must be evaluated together.
5. Flexibility
Flexibility is another recurring theme.
Foster’s office buildings frequently use structural and service strategies that allow internal spaces to be reorganized.
This is particularly important for workplaces because organizational requirements can change much faster than the structural life of a building.
6. Technology as a Design Tool
Technology in Foster’s architecture is not simply decorative.
It can influence:
- structural optimization
- fabrication
- environmental analysis
- geometry
- construction
- building performance
- transportation
- digital coordination
The Foster + Partners practice currently describes its work as integrating architecture, engineering, research, computational design and performance analysis.
7. Environmental Design
Environmental thinking has become increasingly important in the practice.
Strategies appearing across different Foster projects include:
- natural ventilation
- daylighting
- solar control
- efficient structural systems
- renewable energy
- water conservation
- passive environmental strategies
- building monitoring
- performance analysis
The appropriate strategy depends on the building’s climate, use, orientation and operational requirements.
8. Connection Between Building and City
Foster’s work extends beyond individual buildings.
Projects such as airports, bridges, transport systems, masterplans and public-realm interventions demonstrate an interest in movement and urban connectivity.
Architecture is therefore considered not only as an object but also as part of a larger urban system.
Major Architectural Works of Norman Foster
The following projects are particularly useful for understanding different stages of Foster’s architectural development.
| Project | Location | Period / Completion | Main architectural lesson |
|---|---|---|---|
| Willis Faber & Dumas | Ipswich, UK | 1975 | Workplace, glass envelope and urban response |
| Sainsbury Centre for Visual Arts | Norwich, UK | 1978 | Flexible interior and integrated environmental systems |
| Hongkong and Shanghai Bank Headquarters | Hong Kong | 1979–1986 | Structure, prefabrication and flexible office planning |
| Stansted Airport | Essex, UK | 1991 | Lightweight airport structure and passenger movement |
| Reichstag | Berlin, Germany | 1999 | Historic transformation, daylight and public symbolism |
| Great Court, British Museum | London, UK | 2000 | Contemporary intervention within historic fabric |
| Millennium Bridge | London, UK | 2000 | Structure, movement and public infrastructure |
| 30 St Mary Axe | London, UK | 2004 | Tall-building form, structure and environmental strategy |
| Millau Viaduct | Southern France | 2004 | Infrastructure as architecture |
| Hearst Tower | New York, USA | 2006 | Historic base with new high-rise structure |
| Apple Park | Cupertino, USA | 2017 | Integrated architecture, landscape and workplace design |
| Bloomberg European Headquarters | London, UK | 2017 | Workplace design and environmental performance |
Willis Faber & Dumas: Early High-Tech Thinking
Project: Willis Faber & Dumas Headquarters
Location: Ipswich, United Kingdom
Completed: 1975
Architect: Foster Associates
The Willis Faber & Dumas building was one of the projects that established Foster internationally.
The building uses a glass envelope that responds to the irregular urban street pattern rather than simply creating a conventional rectangular office block.
The open-plan workplace, swimming pool and landscaped roof areas also challenged conventional ideas about office environments.
Architectural lesson
The project demonstrates that workplace design can address more than efficiency.
It can also consider:
- employee experience
- daylight
- recreation
- social interaction
- urban context
- flexibility
The building is therefore useful for students studying office planning and workplace architecture.
Sainsbury Centre for Visual Arts
Project: Sainsbury Centre for Visual Arts
Location: University of East Anglia, Norwich, UK
Completed: 1978
Architect: Foster Associates
The Sainsbury Centre is an important example of Foster’s early approach to flexible, technologically advanced architecture.
Its large-span interior creates a relatively open environment capable of accommodating changing exhibition and institutional requirements.
The building demonstrates an important principle:
A building’s structure and environmental systems can be integrated with its spatial organization instead of being treated as separate technical layers.
Architectural lesson
For architecture students, the project is particularly useful when studying:
- large-span structures
- museum planning
- flexible interiors
- daylight
- service integration
- modular thinking
Hongkong and Shanghai Bank Headquarters
Project: Hongkong and Shanghai Bank Headquarters
Location: Hong Kong
Design period: 1979–1986
Architect: Foster Associates
The Hongkong and Shanghai Bank Headquarters is one of Foster’s defining projects.
Rather than placing a conventional structural frame and service core inside a tower, the design makes the structural organization highly visible.
The building was conceived using prefabricated components and a highly coordinated construction strategy.
The structural system includes major external elements that support the building and help create large, flexible office floors.
The building also uses a large central atrium and public plaza to create a relationship between the tower and the city.
Why the project matters
The project demonstrates how several systems can be integrated:
Structure → circulation → daylight → services → flexibility → urban space
This is one of the clearest examples of Foster’s High-Tech approach.
Stansted Airport
Project: Stansted Airport Terminal
Location: Essex, United Kingdom
Completed: 1991
Architect: Foster Associates
Stansted Airport illustrates Foster’s interest in transportation architecture and passenger movement.
Rather than allowing mechanical services and structural systems to dominate the passenger hall, the architectural strategy uses a clear structural framework and separates major building systems.
The airport demonstrates how large-span structures can create a sense of openness while accommodating complex circulation requirements.
Architectural lesson
Airport architecture should be studied as a combination of:
- passenger circulation
- structural span
- wayfinding
- security
- daylight
- services
- baggage systems
- transport connections
- future expansion
Reichstag: Architecture and Historic Transformation
Project: Reichstag New German Parliament
Location: Berlin, Germany
Completed: 1999
Architect: Foster + Partners
The Reichstag is particularly important because it demonstrates how Foster’s technologically advanced approach can be applied to a historic building.
The project introduced a new glass dome above the historic parliamentary building.
The dome incorporates a central light-reflecting element that directs daylight toward the parliamentary chamber.
The public circulation route around the dome also creates a relationship between citizens, architecture and government.
Architectural significance
The Reichstag demonstrates that contemporary architecture does not always require replacing historic buildings.
A new intervention can instead:
- reveal historical layers
- introduce new environmental systems
- improve public accessibility
- create new circulation
- establish a contemporary identity
This makes the Reichstag particularly relevant to adaptive reuse and heritage architecture.
Great Court, British Museum
Project: Great Court
Location: London, United Kingdom
Completed: 2000
Architect: Foster + Partners
The Great Court transformed the central courtyard of the British Museum by introducing a large glazed roof.
The intervention demonstrates Foster’s ability to insert contemporary structure into a historically significant building.
The roof creates a new covered public space while maintaining the visual importance of the surrounding historic architecture.
Architectural lesson
The project illustrates an important adaptive-reuse principle:
New architecture can strengthen the usability of historic architecture without attempting to imitate the historic style.
Millennium Bridge
Project: Millennium Bridge
Location: London, United Kingdom
Completed: 2000
Architectural team: Foster + Partners with engineering collaboration
The Millennium Bridge demonstrates the relationship between structural engineering and pedestrian experience.
Unlike a conventional road bridge, its primary architectural experience is connected to walking.
This makes:
- pedestrian movement
- views
- structural depth
- urban connections
- accessibility
- public space
central to the design.
The bridge demonstrates that infrastructure can become part of a city’s architectural experience.
30 St Mary Axe — The Gherkin
Project: 30 St Mary Axe
Location: London, United Kingdom
Completed: 2004
Architect: Foster + Partners
30 St Mary Axe, commonly called the Gherkin, is one of Foster’s best-known skyscrapers.
Its curved aerodynamic form differs significantly from the conventional rectangular office tower.
The building uses a diagonally braced structural system that contributes to its distinctive appearance while allowing column-free office space.
The façade and building geometry also contribute to daylighting and environmental strategies.
Architectural lesson
The Gherkin demonstrates that building form can be generated through multiple performance requirements rather than purely aesthetic decisions.
A useful design sequence for students is:
Site → wind → structure → floorplate → façade → daylight → environmental performance → architectural expression
This is more useful than treating the unusual form simply as a visual trademark.
Millau Viaduct
Project: Millau Viaduct
Location: Southern France
Completed: 2004
Architectural / engineering collaboration: Foster + Partners and engineering partners
The Millau Viaduct is an important example of Foster’s work beyond conventional building architecture.
The bridge crosses the Tarn valley and forms part of the A75 motorway.
Its slender structural composition creates a strong relationship between infrastructure and landscape.
Architectural lesson
The project shows how infrastructure can be designed as part of a landscape rather than treated merely as transportation engineering.
The most important lesson is the relationship between:
- structural efficiency
- span
- topography
- visual scale
- material expression
- movement
- landscape
Hearst Tower
Project: Hearst Tower
Location: New York, United States
Completed: 2006
Architect: Foster + Partners with Adamson Associates
Hearst Tower is notable for combining a new high-rise structure with an existing historic six-storey base.
Its external diagrid structure creates a distinctive architectural expression and contributes to structural efficiency.
The project demonstrates how contemporary architecture can be added above and around an existing historic structure rather than demolishing it.
Architectural lesson
The Hearst Tower is useful for studying:
- adaptive reuse
- vertical extension
- diagrid structures
- high-rise façades
- daylight
- sustainability
- integration of old and new architecture
Apple Park
Project: Apple Park
Location: Cupertino, California, USA
Completed: 2017
Architect: Foster + Partners in collaboration with Apple
Apple Park is a major example of Foster + Partners’ later work.
The circular Ring Building is integrated with a large landscaped campus.
Apple describes the campus as incorporating extensive landscaped areas, curved glass panels, renewable energy systems and natural ventilation strategies.
Architectural lesson
Apple Park demonstrates that contemporary workplace architecture can be studied at multiple scales:
Building → landscape → circulation → workplace → environmental systems → campus
The project also illustrates the importance of collaboration between architect and client.
Bloomberg European Headquarters
Project: Bloomberg European Headquarters
Location: London, United Kingdom
Completed: 2017
Architect: Foster + Partners
Bloomberg’s European headquarters is an important later example of workplace and environmental design.
The project achieved a high BREEAM design-stage rating and incorporated strategies intended to reduce energy and water consumption.
The building also demonstrates how a contemporary office can respond to an established urban context.
Architectural lesson
Sustainability is most effective when considered as part of the design process rather than added as a technological layer after the building form has already been determined.
Norman Foster’s Design Philosophy
Foster’s architectural thinking can be understood through several interconnected ideas.
1. Technology Should Serve Architecture
Technology is not valuable simply because it is technologically advanced.
Its architectural value comes from what it enables:
- greater flexibility
- better environmental performance
- improved circulation
- structural efficiency
- better daylight
- improved fabrication
- new spatial possibilities
2. Structure Can Become Architecture
Foster’s projects repeatedly demonstrate that the structural system can contribute to architectural identity.
This can be seen in:
- HSBC Headquarters
- Hearst Tower
- 30 St Mary Axe
- Millennium Bridge
- Millau Viaduct
3. Environmental Performance and Design Should Work Together
Environmental design is not necessarily separate from architectural expression.
Solar control, natural ventilation, daylight, structural efficiency and landscape can all influence form.
4. Flexibility Extends Building Life
Buildings are long-term investments.
A floor plan that can adapt to new tenants, technologies or working patterns can remain useful longer than a highly specialized arrangement.
5. Architecture Should Consider the User
Foster’s architecture is not only about technological appearance.
The Pritzker jury specifically emphasized his concern for the wellbeing of building users and the relationship between technology, function and human experience.
Materials Used in Norman Foster’s Architecture
Common materials associated with Foster’s work include:
| Material | Typical role | Architectural effect |
|---|---|---|
| Steel | Primary structure, trusses, frames | Lightness and structural expression |
| Glass | Curtain walls, domes, façades | Transparency and daylight |
| Aluminium | Cladding and components | Lightweight enclosure |
| Concrete | Foundations, cores, floors and structural elements | Mass, stability and thermal properties |
| Composite materials | Specialized building components | Performance and fabrication flexibility |
| Timber | Selected contemporary projects | Warmth and renewable-material potential |
The important point is that Foster does not use one universal material palette.
Material selection depends on:
- structural requirements
- climate
- fire performance
- durability
- fabrication
- cost
- maintenance
- environmental performance
- architectural expression
Norman Foster and Sustainability
Foster’s work is frequently associated with sustainable architecture, but individual projects should be evaluated according to their actual environmental strategies rather than assuming that a building is sustainable simply because it uses advanced technology.
Important strategies found across different Foster + Partners projects include:
- natural ventilation
- daylight optimization
- solar control
- efficient structural systems
- renewable energy
- water conservation
- landscape integration
- building monitoring
- computational environmental analysis
For example, Apple Park incorporates extensive landscape, renewable energy generation and natural ventilation strategies. Hearst Tower uses a diagrid structure and environmental systems intended to improve performance.
A key architectural lesson
Sustainability is a performance objective, not an architectural style.
The same façade strategy that works in one climate may perform poorly in another.
Architects must therefore evaluate:
- climate
- orientation
- solar radiation
- humidity
- wind
- occupancy
- operating hours
- building services
- local materials
- maintenance
before selecting an environmental strategy.
Norman Foster’s Approach to Tall Buildings
Foster’s tall buildings often use the structural system to influence architectural form.
Important examples include:
- Hongkong and Shanghai Bank Headquarters
- Commerzbank Headquarters
- 30 St Mary Axe
- Hearst Tower
Common considerations include:
Structural efficiency
The location and configuration of structural members affect usable floor area and façade design.
Daylight
Floorplate depth and façade geometry influence daylight penetration.
Natural ventilation
Where climate and building operation permit, façade and atrium strategies can contribute to ventilation.
Vertical circulation
Lift cores, stairs and service zones must be coordinated with the structural system.
Flexibility
Large column-free or reduced-column spaces can provide greater adaptability.
What Architecture Students Can Learn From Norman Foster
Norman Foster’s projects provide several useful lessons for architectural education.
Lesson 1: Start with the problem
Do not begin with an arbitrary form.
Begin by understanding:
- site
- climate
- users
- programme
- circulation
- structure
- services
- regulations
Lesson 2: Coordinate architecture and structure early
Structural decisions can dramatically influence architectural quality.
Lesson 3: Study buildings as systems
A building is not only a façade.
Study:
Structure + envelope + services + circulation + environment + users.
Lesson 4: Use technology intelligently
Digital tools are valuable when they help solve architectural problems.
Lesson 5: Consider adaptability
Ask how the building can change over time.
Lesson 6: Study the section
Many of Foster’s strongest ideas become clearer in section rather than elevation.
Study:
- atria
- roof structures
- service zones
- floor-to-floor heights
- daylight paths
- circulation
- structural depth
Lesson 7: Look beyond the building
Study the relationship between:
- building
- street
- public space
- landscape
- transportation
- surrounding urban fabric
Criticism and Limitations
A serious architectural study should not present Foster’s work only as a collection of successes.
High-Tech architecture has been criticized for several reasons, including concerns that technological expression can become more important than social, cultural or contextual considerations.
Academic criticism of Foster’s architecture has also examined whether technologically advanced design always responds adequately to local context, urban fabric and cultural conditions.
These criticisms should not be generalized to every Foster project.
Instead, they provide useful questions for architectural analysis:
- Does technological expression improve the building?
- Is the building appropriate to its climate?
- Does the design respond to local culture?
- Does the architecture strengthen public space?
- Is the technology maintainable?
- What happens when the technology becomes obsolete?
- Does the building remain adaptable?
- Does the architectural landmark compete with its surroundings?
These questions make the study of Foster more valuable than simply celebrating technological innovation.
Norman Foster’s Awards and Recognition
Foster has received many major architectural honors.
Important recognitions include:
- Royal Gold Medal for Architecture — 1983
- American Institute of Architects Gold Medal — 1994
- Pritzker Architecture Prize — 1999
- Praemium Imperiale — 2002
- Royal Institute of British Architects Stirling Prize recognition through Foster + Partners projects
- Knighthood — 1990
- Life Peerage — 1999
The Pritzker Architecture Prize recognized Foster in 1999 as its 21st laureate.
The awards are significant historically, but the architectural value of his career is better understood through the development of his ideas, buildings and practice rather than through awards alone.
Norman Foster’s Architectural Legacy
Foster’s influence extends beyond individual buildings.
His broader legacy can be understood through five areas:
1. High-Tech architecture
He helped establish structural expression and advanced construction technology as important architectural subjects.
2. Integrated practice
His practice demonstrates the potential of multidisciplinary collaboration.
3. Sustainable design
His projects helped popularize the idea that environmental performance can influence architectural form.
4. Infrastructure as architecture
Airports, bridges, transport systems and public infrastructure can be designed with the same architectural attention given to conventional buildings.
5. Technology and design research
The practice’s contemporary research activities demonstrate how computational design, simulation, fabrication and performance analysis can become integrated with architecture.
Norman Foster in One Architectural Framework
A useful way to understand Foster’s architecture is:
Problem → Analysis → Structure → Environment → Technology → Space → User → Urban Context
This sequence is more useful to architecture students than simply memorizing the names of his buildings.
For example:
30 St Mary Axe
Site and wind → aerodynamic geometry → diagrid → floorplate efficiency → daylight → environmental strategy → urban landmark
Reichstag
Historic building → public accessibility → daylight → environmental strategy → new dome → contemporary intervention
Hongkong and Shanghai Bank
Restricted urban site → construction logistics → prefabrication → structural expression → flexible floorplates → public plaza
This approach shows how architectural decisions can emerge from multiple constraints simultaneously.
Frequently Asked Questions
What is Norman Foster famous for?
Norman Foster is famous for technologically advanced architecture, High-Tech architecture, major infrastructure projects and internationally recognized buildings such as the Hongkong and Shanghai Bank Headquarters, Reichstag, 30 St Mary Axe, Millau Viaduct and Hearst Tower.
What architectural style is Norman Foster known for?
Foster is strongly associated with High-Tech architecture, particularly through his early work involving exposed structure, lightweight materials, industrial technology and integrated building systems. His later work extends beyond the High-Tech label.
What is Norman Foster’s design philosophy?
His work emphasizes the integration of architecture, structure, technology, environmental performance, materials, space and human experience. The approach treats building design as an interconnected system rather than as façade design alone.
What was Norman Foster’s first major project?
Willis Faber & Dumas in Ipswich, completed in 1975, was an important early project that established Foster internationally. His practice had already completed earlier experimental work.
Did Norman Foster design the Gherkin?
30 St Mary Axe, commonly called the Gherkin, was designed by Foster + Partners for Swiss Re. The project was completed in London in 2004.
Did Norman Foster design the Reichstag?
Foster + Partners led the transformation of Berlin’s Reichstag, including the addition of the glass dome completed in 1999.
Did Norman Foster design Apple Park?
Apple Park was designed in collaboration between Apple and Foster + Partners. It was completed in 2017.
Why is Norman Foster important to architecture students?
Foster’s work is useful for studying the relationship between architectural form, structure, environmental design, technology, flexibility, circulation and urban context.
Is Norman Foster a High-Tech architect?
He is one of the major architects associated with British High-Tech architecture. However, describing his entire career only as High-Tech architecture would overlook his later work in sustainability, adaptive reuse, urban design, infrastructure and computational design.
What can architects learn from Norman Foster?
Architects can study his approach to multidisciplinary coordination, structural expression, flexible planning, environmental performance, technological research and the relationship between buildings and infrastructure.
Conclusion
Norman Foster’s significance in architecture lies not simply in the number of famous buildings associated with his practice.
His career demonstrates a continuing attempt to connect architecture, engineering, technology, environmental performance and human use.
From the Willis Faber & Dumas building and Sainsbury Centre to the Hongkong and Shanghai Bank Headquarters, Reichstag, Millau Viaduct, 30 St Mary Axe, Hearst Tower and Apple Park, different projects reveal different aspects of this approach.
For architecture students, the most valuable lesson is not to copy the visual language of Foster’s buildings.
Instead, study the process behind them:
Understand the problem → analyse the site → coordinate structure → integrate services → consider environmental performance → design for users → respond to context → express the logic architecturally.
That methodology remains relevant even when the materials, software and technologies change.