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Al-Kodmany, K.; Ali, M.M. High-Performance Tall Buildings: An Overview of Recent Developments. Encyclopedia. Available online: https://encyclopedia.pub/entry/59686 (accessed on 24 May 2026).
Al-Kodmany K, Ali MM. High-Performance Tall Buildings: An Overview of Recent Developments. Encyclopedia. Available at: https://encyclopedia.pub/entry/59686. Accessed May 24, 2026.
Al-Kodmany, Kheir, Mir M. Ali. "High-Performance Tall Buildings: An Overview of Recent Developments" Encyclopedia, https://encyclopedia.pub/entry/59686 (accessed May 24, 2026).
Al-Kodmany, K., & Ali, M.M. (2026, April 23). High-Performance Tall Buildings: An Overview of Recent Developments. In Encyclopedia. https://encyclopedia.pub/entry/59686
Al-Kodmany, Kheir and Mir M. Ali. "High-Performance Tall Buildings: An Overview of Recent Developments." Encyclopedia. Web. 23 April, 2026.
Peer Reviewed
High-Performance Tall Buildings: An Overview of Recent Developments
This is a peer-reviewed entry published in Encyclopedia Journal, full entry can be found at 10.3390/encyclopedia5020053

The evolution of tall buildings has been shaped by distinct architectural styles, beginning around 1875 and progressing through various stylistic architectural movements. These changes were driven by advancements in structural engineering and digital design technologies, leading to greater experimentation with form and function. Energy and resource conservation of the late 20th century instigated a noteworthy focus on sustainability. Beyond that, the early 21st century saw a significant shift toward a new breed of tall buildings, a suitable architectural vocabulary for “high-performance” tall buildings, in which sustainability with a focus on energy efficiency is joined with the performance of other active and passive functional systems. This paper presents an overview of high-performance tall buildings by exploring key technologies, materials, innovations, safety, durability, and indoor environmental quality. Strategies that have emerged to address skyscrapers’ environmental and economic challenges are also crucial in such a building. It highlights the importance of optimizing and integrating building systems, improving energy efficiency, minimizing resource consumption, and ensuring long-term occupant health and productivity. Furthermore, this study identifies five key dimensions—structural materials and systems, energy-efficient design, high-performance façades, performance monitoring, and integrating building services systems—demonstrating how these factors contribute to environment-conscious urban development and resilient architectural and engineering design. It is concluded that these buildings are poised to redefine urban environments by leveraging advanced technologies, AI-driven management, IoT interconnectivity, health-focused elements, and climate resilience. Also, tall, high-performance buildings will be increasingly automated to an unknown limit, and AI will play a prominent role in the future.

high-performance tall buildings structural systems energy-efficient design smart façade technologies building performance monitoring vertical transportation building services systems
Since the late 19th century, skyscrapers have symbolized architectural and engineering innovation, reflecting evolving styles, structural advancements, and urban development trends. Early skyscrapers, such as those in Chicago and New York, emerged at the intersection of economic growth, urbanization, and technological breakthroughs, including the introduction of steel framing, elevators, and curtain wall systems [1]. Over time, these tall structures transitioned from monuments of economic power to symbols of stylistic and technological icons. The Modernist movement, led by architects such as Mies van der Rohe, emphasized simplicity, minimalism, and functionality [2]. At the same time, the Postmodern era reintroduced ornamentation, historical references, and cultural narratives in skyscraper design [3].
By the late 20th century, digital modeling and computational design advancements allowed architects to explore complex parametric forms, aerodynamic optimizations, and high-tech material innovations. This period saw the introduction of environmental sustainability principles, resulting in early green skyscrapers, such as the Commerzbank Tower (1997) in Frankfurt, 4 Times Square (1999) in New York, and Swiss Re (2003) in London. The ecological tall buildings of Ken Yeang further highlighted the role of bioclimatic design and vegetation-based sustainability in shaping high-rise architecture [4][5]. These and other early sustainable towers primarily focused on energy efficiency and environmental systems. Notably absent in these was a holistic, high-performance approach that integrates all critical building systems into a single, optimized framework [6].

1.1. Recent Advancements and Research Gaps

In the early 21st century, skyscraper design has shifted from a purely stylistic focus to a performance-driven paradigm, where energy efficiency, intelligent building systems, occupant well-being, and environmental impact define the success of a tall building. The emergence of Building Information Modeling (BIM), artificial intelligence (AI), innovative façade technologies, and advanced material science has enabled skyscrapers to achieve unprecedented levels of efficiency, sustainability, and resilience [7]. Notable examples of this shift include The Hearst Tower (2006) in New York, Burj Khalifa (2010) in Dubai, and Pearl River Tower (2013) in Guangzhou, all of which integrate cutting-edge structural, environmental, and technological innovations.
However, despite these advancements, existing research remains fragmented and lacks a unified framework for appraising high-performance tall buildings. While some studies focus on structural systems and others emphasize sustainability and energy efficiency, there is a need for a comprehensive analysis that examines all key performance factors in an integrated manner [8]. This study seeks to bridge this knowledge gap by systematically evaluating high-performance skyscraper design, identifying key technological trends, and providing case study insights from contemporary towers. This paper does not address acoustics, siting, design, or construction.

1.2. Objectives and Contributions of This Study

This paper aims to define, analyze, and evaluate the key dimensions that characterize high-performance tall buildings. It identifies five critical factors that contribute to the efficiency, sustainability, and functionality of skyscrapers:
  • Structural Materials and Systems—optimizing materials and structural frameworks to enhance resilience, efficient load-sharing, and sustainability.
  • Energy-Efficient Design—integrating passive and active systems to reduce energy consumption and improve operational performance.
  • High-Performance Façades—developing intelligent, adaptive building envelopes that optimize occupant comfort, daylighting, and ventilation.
  • Monitoring of Performance—implementing real-time tracking systems, AI-driven diagnostics, and predictive maintenance technologies.
  • Integration of Building Services Systems—coordinating HVAC, vertical transportation, smart grids, and automation systems for seamless functionality.
This study contributes to the growing knowledge of high-performance skyscraper design by synthesizing these dimensions into a cohesive framework. The research also examines notable case studies, including One World Trade Center (2014), Shanghai Tower (2016), and the Spiral (2023), among others, to demonstrate how contemporary high-rises are evolving to meet urban, environmental, and technological demands. The findings aim to inform architects, engineers, urban planners, and policymakers on the best practices, challenges, and future directions in high-performance tall buildings.

1.3. Methodology

This exploratory study aims to understand the relationship between tall buildings and their overall performance, focusing on the role of advanced technologies in enhancing energy efficiency and other functional features. This research investigates the recent prevalence of high-performance tall building typology to accomplish this. This study relies heavily on dispersed knowledge gathered from available pre-existing publications and alternative sources. Notably, information from architectural magazines, conference proceedings, and industry reports has been utilized due to the scarcity of peer-reviewed academic journal articles.
The authors undertook considerable effort to synthesize and summarize available critical information. The collected data were meticulously analyzed to identify recurring patterns, emerging trends, and underlying themes and ideals that holistically inform the design and performance of tall buildings. To contextualize these findings, illustrative case studies of selected projects are developed, highlighting best practices, innovative technologies, and their real-world implications. To achieve this, the research systematically explores the multi-dimensional aspects of tall buildings, encompassing data-driven design, operation, functionality, and sustainability. This approach facilitated the derivation of meaningful and insightful conclusions.

References

  1. Al-Kodmany, K.; Ali, M.M.; Armstrong, P.J. Sustainable Tall Buildings: Summary of Energy-Efficient Design. Int. J. High-Rise Build. 2023, 12, 107–120.
  2. Frampton, K. Modern Architecture: A Critical History; Thames and Hudson: London, UK, 1992.
  3. Jencks, C. The Language of Post-Modern Architecture; Rizzoli International Publications: New York, NY, USA, 1984.
  4. Yeang, K. The Skyscraper Bioclimatically Considered: A Design Primer; Wiley-Academy Group Limited: New York, NY, USA, 1996.
  5. Yeang, K. Designing Sustainable Tall Buildings. In Sustainable Tall Buildings: Design, Technology, and Innovation; Al-Kodmany, K., Du, P., Ali, M.M., Eds.; Institution of Engineering and Technology (IET): Hertfordshire, UK, 2022; pp. 17–30.
  6. Beedle, L.S.; Ali, M.M.; Armstrong, P.J. The Skyscraper and the City: Design, Technology, and Innovation; The Edwin Mellen Press: Lewiston, NY, USA, 2007.
  7. Schodek, D.L. Smart Materials and Technologies: For the Architecture and Design Professions; Routledge: London, UK, 2016.
  8. Ali, M.M.; Al-Kodmany, K.; Armstrong, P.J. Energy Efficiency of Tall Buildings: A Global Snapshot of Innovative Design. Energ. J. 2023, 16, 2063.
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Subjects: Engineering, Civil
Contributors MDPI registered users' name will be linked to their SciProfiles pages. To register with us, please refer to https://encyclopedia.pub/register : Kheir Al-Kodmany , Mir M. Ali
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Online Date: 23 Apr 2026
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