High-tech architecture, also known as late modernism or structural expressionism, emerged as a design style in the 1970s and gained popularity in the urban landscapes of industrialised areas. It uses cutting-edge materials, advanced construction techniques, and innovative forms that showcase the structural elements of a building. High-tech architecture is associated with architects such as Richard Rogers, Norman Foster, and Renzo Piano, who are known for their bold and iconic designs. This overview will provide a detailed analysis of high-tech architecture, including its history, fundamental principles, notable examples, and critiques.

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John Hancock Center_ ©Joe Ravi

The History of high-tech architecture

High-tech architecture originated as a response to rapid technological progress during the post-World War II era. The availability of new materials, such as steel, glass, and concrete and the development of advanced engineering and fabrication techniques opened up new possibilities for architectural design. Architects began experimenting with innovative construction methods, such as prefabrication and modular construction, allowing faster and more efficient building processes.

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London City Hall by Norman Foster_ ©Steve Cameron

The term “high-tech” was first coined by the British architectural critic Reyner Banham in his book “The New Brutalism” in 1966, where he referred to the use of advanced technologies in architecture as a new form of “techno-functionalism.” However, it was not until the 1970s that high-tech architecture as a distinct style began to take shape, particularly in Richard Rogers and Norman Foster’s works.

Principles of High-tech Architecture

High-tech architecture has several fundamental principles that define its design approach. Ite emphasises using exposed structural elements as an integral part of the design. They celebrate steel frames, glass walls, and mechanical systems, giving the buildings a distinctive appearance and creating an industrial aesthetic. This approach highlights the honesty of materials and construction methods, showcasing the structural elements as visual features of the building.

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The use of steel and glass became a trademark for high tech architecture_ ©Andrew Starwarz

The Pompidou Centre in Paris, France

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A different type of landmark in Paris skyline_ ©Kirill Neiezhmakov_ ©Kirill Neiezhmakov

Designed by Richard Rogers and Renzo Piano, the Pompidou Centre is known for its iconic external expression of structural elements, including colourful exterior pipes and ducts. These acclaimed elements are an innovative use of technology and a defining characteristic of the building’s aesthetic. However, some critics argue that the building’s exuberant design clashes with the context of Paris, and its exposed mechanical systems can be visually overwhelming.

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The Pompidou Centre_ ©Michel Denancé

Technological Innovation –  The Shard in London, United Kingdom

High-tech architecture embraces the latest technological advancements in materials, construction techniques, and building systems, including the use of new materials such as glass, steel, and concrete, as well as advanced engineering and fabrication methods, such as computer-aided design and manufacturing (CAD/CAM) and 3D printing. High-tech buildings often showcase cutting-edge technologies and push the boundaries of what is possible in construction and design.

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The Shard in London_ ©Renzo Piano Building Workshop

Designed by Renzo Piano, The Shard is a sleek glass and steel skyscraper that has become an iconic symbol of London’s modern skyline. Its innovative use of materials, including its glass cladding and steel structure, is lauded for its technological advancements. Additionally, The Shard incorporates energy-efficient systems, such as natural ventilation and rainwater harvesting, contributing to its sustainability credentials. However, some critics argue that the towering height and form can be visually imposing and out of scale with its surroundings.

Flexibility and Adaptability – The Gherkin in London, United Kingdom

High-tech buildings are often designed with flexibility, allowing for easy adaptation and modification over time. This includes movable walls, interchangeable components, and modular layouts that reconfigure to suit changing needs and functions. The flexibility of high-tech architecture allows for future-proofing

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The Gherkin (30 St Mary Axe Tower)_ ©Nigel Young

Designed by Norman Foster, The Gherkin is a distinctive glass and steel skyscraper renowned for its innovative design and energy-efficient features. The building’s curved form, achieved through a diagrid steel structure, is a prominent example of high-tech architecture. Its sustainable features, such as natural ventilation, green roofs, and low-energy lighting, are applauded for their environmental performance. However, some critics argue that The Gherkin’s unique shape may not be visually appealing to everyone, and its high-tech aesthetic may not be compatible with the context of its surroundings.

HSBC Main Building in Hong Kong, China

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HSBC Main Building_ ©Wing

Also designed by Norman Foster, the HSBC Main Building is a landmark high-rise building with a distinctive design and advanced engineering. The building features a modular steel structure that allows for column-free interior spaces and provides seismic resistance in a region prone to earthquakes. Its energy-efficient design, including a double-skin facade and natural ventilation, has been commended for its sustainability features. However, some critics argue that the building’s imposing presence and reflective facade may not be well-received by everyone, and its high-tech aesthetic may only be suitable for some cultural contexts.

Heydar Aliyev Center in Baku, Azerbaijan

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Heydar Aliyev Centre_ ©Iwan Baan

Designed by Zaha Hadid, the Heydar Aliyev Center is a futuristic cultural centre with sweeping curves and fluid forms. The building’s iconic design is made possible through advanced parametric modelling and fabrication techniques, showcasing cutting-edge technology in its construction. Its innovative use of materials, such as glass-fibre reinforced concrete, has been praised for its structural efficiency and aesthetics. However, some critics argue that the building’s extravagant design may need to be more contextually appropriate. Its high-tech features may need to be more practical for long-term maintenance and sustainability.

Critiques of High-tech Architecture

While high-tech architecture has its unique strengths and advantages, it also faces several critiques. One criticism of high-tech architecture is that its futuristic and industrial aesthetic may only sometimes be compatible with the cultural and social context.

Another critique of high-tech architecture is its technical complexity and the potential challenges associated with construction, maintenance, and retrofitting. The innovative use of materials, structural systems, and technological integration can sometimes lead to complex and costly construction processes. Additionally, the maintenance and repair of high-tech buildings may require specialised expertise and equipment, which could pose challenges in terms of cost, accessibility, and sustainability. Retrofitting or updating high-tech buildings to meet changing technological or environmental standards may also be challenging and costly, making long-term sustainability a concern.

High-tech architecture often relies on modern materials and technologies that may have limitations in terms of durability and longevity. For example, extensive use of glass facades may require frequent cleaning and maintenance to keep them pristine, which could impact the building’s sustainability performance. The use of lightweight materials, such as steel and glass, may also raise concerns about their long-term durability and resilience, especially in extreme weather conditions or seismic-prone areas. Additionally, the embodied energy and environmental impacts associated with producing and transporting high-tech materials may raise questions about the overall sustainability of high-tech buildings.

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The London skyline_©Mike B

With its emphasis on cutting-edge technology and innovation, it may prioritise technological efficiency over human scale and user experience. The sleek and futuristic aesthetic of high-tech buildings may only sometimes create a welcoming and comfortable environment for users. The extensive use of glass and steel materials and the dominance of machine-like forms may result in spaces that feel cold, impersonal, and lacking in human warmth. Integrating technology, such as automation and smart systems, may also raise concerns about privacy, security, and human connection with the built environment.

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The New York skyline_©Lukas Kloeppel

High-tech architecture has emerged as a prominent architectural style that showcases integrating advanced technology, innovative materials, and sustainable features in building design. Its fundamental principles, including structural expression, technological integration, and energy-efficient design, have resulted in iconic and cutting-edge buildings worldwide. However, high-tech architecture also faces critiques related to contextual fit, visual impact, technical complexity, materiality and durability, and human scale and user experience. As with any architectural style, careful consideration of the site, program, and stakeholders’ needs is essential to ensure the success of high-tech architecture in creating sustainable, functional, and aesthetically pleasing buildings for the present and future generations.

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Archinect (n.d.). Renzo Piano Building Workshop: The Shard. [online]. Available at: https://archinect.com/firms/release/1199931/renzo-piano-building-workshop-the-shard [Accessed date: 23/04/2023].

Banham, R. (1969). The Architecture of the Well-Tempered Environment. Chicago, IL: The University of Chicago Press.

Dezeen (n.d.). Beijing Daxing International Airport by Zaha Hadid Architects. [online]. Available at: https://www.dezeen.com/2019/09/27/beijing-daxing-international-airport-zaha-hadid-architects/ [Accessed date: 23/04/2023].

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Norman Foster Foundation (n.d.). Hearst Tower. [online]. Available at: https://www.normanfosterfoundation.org/the-norman-foster-foundation/norman-foster-projects/hearst-tower-new-york-usa/ [Accessed date: 26/04/2023].

Rafael Moneo (n.d.). National Museum of Roman Art. [online]. Available at: http://www.moneo-brock.com/en/project/national-museum-of-roman-art/ [Accessed date: 26/04/2023].

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The Shard (n.d.). The Shard: Renzo Piano’s London Bridge Tower. [online]. Available at: https://www.theshard.com/ [Accessed date: 26/04/2023].

Author

Sofia Rezende is an Architect and Urban Planner from Brazil. She graduated in the class of 2015 from the Federal University of Viçosa, Brazil, and later pursued a Master’s (MSc) degree in the same subject with a focus on studying social housing and family demography, topics she’s very passionate about.