https://www.designingbuildings.co.uk/w/index.php?feed=atom&target=Tsz_Kiu_Felix_Wong&title=Special%3AContributions%2FTsz_Kiu_Felix_Wong 2026-07-13T10:44:02Z From Designing Buildings MediaWiki 1.17.4 https://www.designingbuildings.co.uk/wiki/Six_Architecture_Firms,_Six_Design_Cultures:_Lessons_from_Global_Practice 2026-06-03T01:20:46Z

<p>Tsz Kiu Felix Wong: Created page with &quot;=== By Tsz Kiu Felix Wong === Founder, T.K. Felix Wong Studio Architecture students are often taught to view architecture as a singular profession. We learn a common vocabulary...&quot;</p> <hr /> <div>=== By Tsz Kiu Felix Wong ===<br /> <br /> Founder, T.K. Felix Wong Studio<br /> <br /> Architecture students are often taught to view architecture as a singular profession. We learn a common vocabulary of plans, sections, models, structures, and environmental systems. We are introduced to canonical projects and influential architects, and we are encouraged to develop our own design philosophy.<br /> <br /> Yet my experience working across six international architecture firms revealed something quite different.<br /> <br /> Despite operating within the same profession, many leading practices approach architecture through fundamentally different lenses. They may use similar software, produce similar drawings, and work under similar regulations, but their understanding of what architecture should achieve can vary dramatically.<br /> <br /> Over the past several years, I had the opportunity to gain experience within a diverse range of global practices, including Shigeru Ban Architects, Kengo Kuma &amp;amp; Associates, Skidmore, Owings &amp;amp; Merrill (SOM), Gensler, Aedas, and Woods Bagot. Each office exposed me to a distinct design culture shaped by different priorities, scales of operation, and definitions of success.<br /> <br /> What emerged from these experiences was a realization that architecture is not a single discipline. Rather, it is a collection of overlapping cultures, each offering a different answer to the question: What is architecture for?<br /> <br /> == Shigeru Ban Architects: Architecture Begins with Responsibility ==<br /> <br /> My experience at Shigeru Ban Architects introduced me to an understanding of architecture rooted in responsibility.<br /> <br /> Shigeru Ban's work is internationally recognized for its innovative use of materials, particularly paper tubes and timber systems. Yet what impressed me most was not the novelty of these materials but the mindset behind them. Material selection was never treated as a stylistic decision. Instead, it was approached as an ethical and technical response to a specific problem.<br /> <br /> In many projects, structure, materiality, sustainability, and construction methodology were inseparable. The architectural concept emerged directly from an understanding of how materials behave and how they can be deployed efficiently.<br /> <br /> This approach challenged a common tendency among young designers to begin with form. At Shigeru Ban Architects, material logic often preceded formal expression. The building became a consequence of construction intelligence rather than an independent sculptural object.<br /> <br /> The lesson I took away was simple but powerful: architecture becomes more meaningful when it begins with responsibility rather than image.<br /> <br /> == Kengo Kuma &amp;amp; Associates: Architecture as Atmosphere ==<br /> <br /> If Shigeru Ban taught me about responsibility, Kengo Kuma taught me about sensitivity.<br /> <br /> Kuma's architecture is often described through materiality, but materiality alone does not fully explain the experience of his work. What distinguishes many of his projects is the creation of atmosphere.<br /> <br /> Details are carefully orchestrated to soften boundaries between interior and exterior. Light is filtered rather than simply admitted. Materials are layered to create depth, texture, and subtle transitions.<br /> <br /> Rather than imposing a building onto a site, many projects attempt to dissolve architecture into its surroundings.<br /> <br /> Working within this design culture highlighted the importance of human perception. Architecture is not experienced through plans or diagrams. It is experienced through movement, light, sound, texture, and memory.<br /> <br /> This reinforced an idea that is often overlooked in contemporary practice: environmental performance and human experience should not be treated as separate objectives. The most successful architecture achieves both simultaneously.<br /> <br /> == SOM: Architecture as an Integrated System ==<br /> <br /> At SOM, I encountered a very different definition of architecture.<br /> <br /> While architectural media often celebrates iconic forms, the reality of large-scale projects is far more complex. Towers, airports, campuses, and infrastructure projects require extensive coordination between architects, engineers, consultants, clients, contractors, and public authorities.<br /> <br /> At this scale, architecture becomes a systems discipline.<br /> <br /> Design decisions are rarely isolated. Structural strategies influence façade performance. Mechanical systems affect spatial organization. Urban planning impacts transportation networks and public realm design.<br /> <br /> What impressed me most was the level of integration. Projects were developed through collaboration rather than individual authorship. Success depended not only on creativity but also on coordination, communication, and technical rigor.<br /> <br /> The experience demonstrated that architecture is as much about managing complexity as it is about generating ideas.<br /> <br /> == Gensler: Architecture as Strategy ==<br /> <br /> My time at Gensler revealed another dimension of architectural practice.<br /> <br /> Gensler approaches design through a strong emphasis on research, performance, and user experience. Buildings are not viewed solely as physical objects but as tools that help organizations achieve broader goals.<br /> <br /> Workplaces, for example, are designed not only to accommodate employees but also to support collaboration, innovation, and organizational culture.<br /> <br /> This perspective broadened my understanding of value creation in architecture. Architects often focus on aesthetics and environmental performance, but clients frequently evaluate projects through entirely different criteria. Productivity, adaptability, operational efficiency, and long-term flexibility can be equally important.<br /> <br /> Architecture therefore operates at the intersection of design and strategy.<br /> <br /> The lesson was that successful projects require architects to understand not only buildings but also the people, businesses, and institutions they serve.<br /> <br /> == Aedas: Learning from Density ==<br /> <br /> Having grown up in Hong Kong and studied urban environments extensively, I was particularly interested in Aedas' approach to density.<br /> <br /> Many contemporary cities face increasing pressure to accommodate growing populations while improving environmental performance and quality of life. Density is often presented as a challenge, yet it can also be a powerful opportunity.<br /> <br /> Projects developed within highly urbanized contexts demonstrate how architecture can leverage compactness to support transit-oriented development, mixed-use programming, and resource efficiency.<br /> <br /> This experience connected directly with my academic research examining how urban density influences sustainability certification systems. Through both professional practice and research, I observed that dense environments often require greater design ingenuity. Open space, daylight, ventilation, and ecological performance cannot be achieved through spatial abundance alone.<br /> <br /> Instead, architects must reinterpret these goals through shared infrastructure, vertical landscapes, hybrid systems, and integrated public spaces.<br /> <br /> Density is therefore not the opposite of sustainability. In many cases, it is one of its most important enablers.<br /> <br /> == Woods Bagot: Architecture in a Global Network ==<br /> <br /> At Woods Bagot, I gained insight into the realities of contemporary global practice.<br /> <br /> Architecture today operates within increasingly interconnected networks. Teams frequently collaborate across multiple cities, time zones, and disciplines. Projects involve diverse stakeholders with varying cultural, economic, and environmental priorities.<br /> <br /> This environment requires architects to be adaptable.<br /> <br /> Design excellence alone is insufficient. Architects must also navigate communication, project delivery, digital workflows, and interdisciplinary collaboration.<br /> <br /> One of the most valuable lessons from this experience was understanding how design ideas evolve through collective effort. The image of the solitary architect remains influential within popular culture, yet the reality of practice is highly collaborative.<br /> <br /> The future of architecture will likely depend not on individual genius but on the ability of teams to integrate diverse forms of expertise.<br /> <br /> == What I Learned About Architecture ==<br /> <br /> Looking back, the most important lesson was not a technical skill or a software workflow.<br /> <br /> It was the realization that architecture contains multiple professional cultures.<br /> <br /> At Shigeru Ban Architects, architecture began with responsibility.<br /> <br /> At Kengo Kuma &amp;amp; Associates, architecture was understood as atmosphere.<br /> <br /> At SOM, architecture functioned as a coordinated system.<br /> <br /> At Gensler, architecture became a strategic tool.<br /> <br /> At Aedas, architecture addressed the challenges and opportunities of urban density.<br /> <br /> At Woods Bagot, architecture operated within global networks of collaboration.<br /> <br /> None of these perspectives are mutually exclusive. In fact, the future of the profession may depend on our ability to combine them.<br /> <br /> As architects face climate change, urbanization, technological transformation, and increasing social complexity, no single design philosophy will provide all the answers.<br /> <br /> The challenge for emerging architects is therefore not simply learning how to design buildings. It is understanding which values, priorities, and professional cultures they wish to carry forward.<br /> <br /> Architecture is not one profession.<br /> <br /> It is many professions sharing the same drawings.<br /> <br /> And that diversity may be one of its greatest strengths.<br /> <br /> -----<br /> === About the Author ===<br /> <br /> Tsz Kiu Felix Wong is the Founder of T.K. Felix Wong Studio. He is an architectural designer, sustainability professional, and researcher whose work explores the intersection of architecture, urban density, environmental performance, and design innovation. He has gained professional experience across international architecture practices in Asia, Europe, North America, and Australia while pursuing architectural studies at the Edinburgh School of Architecture and Landscape Architecture (ESALA) and the Manchester School of Architecture (MSA).</div>

Tsz Kiu Felix Wong https://www.designingbuildings.co.uk/wiki/How_Urban_Density_Reframes_the_Logic_of_Sustainability_Certification_in_Residential_Architecture 2026-06-01T03:20:55Z

<p>Tsz Kiu Felix Wong: Created page with &quot;=== Research by T.K. Felix Wong Studio === Sustainability certification systems have become one of the most influential forces shaping contemporary architecture. Frameworks such...&quot;</p> <hr /> <div>=== Research by T.K. Felix Wong Studio ===<br /> <br /> Sustainability certification systems have become one of the most influential forces shaping contemporary architecture. Frameworks such as LEED, BREEAM, and WELL increasingly guide how buildings are designed, evaluated, and promoted. Yet a fundamental question remains largely unanswered: do these systems evaluate sustainability fairly across different urban conditions?<br /> <br /> As cities continue to densify, architects are increasingly required to deliver environmental performance within constrained sites, limited solar access, complex urban infrastructures, and highly compact living environments. Many sustainability rating systems were originally developed around assumptions more commonly associated with lower-density development. This raises an important challenge: can the same criteria adequately assess both a compact urban housing project in New York City and a low-rise residential development in Seattle?<br /> <br /> This research investigates how urban density influences the interpretation, feasibility, and effectiveness of sustainability certification in residential architecture.<br /> <br /> == Sustainability Beyond the Scorecard ==<br /> <br /> Since the emergence of sustainability frameworks during the late twentieth century, environmental performance has increasingly been translated into measurable indicators. LEED, introduced by the U.S. Green Building Council in 1998, transformed broad sustainability ambitions into quantifiable credits covering categories such as Sustainable Sites (SS), Energy and Atmosphere (EA), and Indoor Environmental Quality (IEQ).<br /> <br /> While this standardisation has improved accountability and industry adoption, it has also introduced a degree of rigidity. Many credits implicitly assume the availability of generous site areas, direct solar access, permeable landscapes, and independent building systems. Such assumptions become increasingly difficult to satisfy in dense urban environments where land is scarce and buildings operate as part of larger interconnected systems.<br /> <br /> This research argues that sustainability should not be understood solely through individual building performance. Instead, sustainability must be evaluated in relation to urban context, density, infrastructure, and social conditions.<br /> <br /> == Comparing Two Models of Urban Living ==<br /> <br /> To explore this question, the study examines two LEED-certified residential developments representing contrasting density conditions:<br /> <br /> Via Verde, New York City<br /> <br /> A high-density residential development in the South Bronx characterised by stacked massing, terraced landscapes, shared infrastructure, and intensive land use.<br /> <br /> Kenyon House, Seattle<br /> <br /> A lower-density residential project situated on a larger site with greater access to permeable ground, natural daylight, landscape restoration opportunities, and passive environmental strategies.<br /> <br /> Both projects were analysed through three LEED categories most affected by density:<br /> <br /> * Sustainable Sites (SS)<br /> * Energy and Atmosphere (EA)<br /> * Indoor Environmental Quality (IEQ)<br /> <br /> These categories reveal how urban form influences both environmental performance and certification outcomes.<br /> <br /> == Sustainable Sites: Horizontal Versus Vertical Ecology ==<br /> <br /> One of the clearest differences emerged within Sustainable Sites credits.<br /> <br /> Traditional LEED pathways often reward extensive open space, habitat restoration, stormwater infiltration, and ground-level ecological interventions. Such strategies are relatively straightforward to achieve within low-density developments where land availability is abundant.<br /> <br /> Dense urban projects face fundamentally different conditions.<br /> <br /> At Via Verde, ecological performance was achieved through rooftop agriculture, terraced landscapes, green roofs, and elevated communal gardens rather than expansive ground-level interventions. Sustainability was not diminished by density. Instead, ecological functions were translated vertically.<br /> <br /> The findings suggest that dense projects frequently deliver environmental benefits through innovative spatial adaptation rather than direct compliance with conventional site-based assumptions.<br /> <br /> == Energy and Atmosphere: The Density Paradox ==<br /> <br /> The Energy and Atmosphere category revealed a more complex relationship between density and sustainability.<br /> <br /> Low-density developments often benefit from direct solar access, natural ventilation, and passive design opportunities. These characteristics align closely with traditional energy-efficiency metrics.<br /> <br /> However, high-density housing offers advantages that are often overlooked. Shared walls reduce heat loss, compact building forms improve thermal performance, and district-scale infrastructure can significantly lower operational energy demand.<br /> <br /> Via Verde demonstrated how system-based efficiencies can compensate for limited solar autonomy. While photovoltaic opportunities were constrained by surrounding buildings and overshadowing, energy performance was strengthened through compact massing and shared building systems.<br /> <br /> This reveals a critical paradox. Dense urban developments may contribute significantly to broader environmental sustainability while simultaneously facing greater challenges in achieving certain building-scale certification credits.<br /> <br /> == Indoor Environmental Quality and the Experience of Density ==<br /> <br /> Density has perhaps its greatest impact on indoor environmental quality.<br /> <br /> Access to daylight, natural ventilation, views, and thermal comfort becomes increasingly difficult within deep floorplates and tightly constrained urban sites. Achieving high-performance environments therefore requires sophisticated design responses.<br /> <br /> Rather than relying solely on passive conditions, dense housing often depends upon carefully articulated façades, hybrid ventilation systems, courtyards, light wells, and communal outdoor spaces.<br /> <br /> The research also highlights the growing importance of occupant-centred frameworks such as WELL. While LEED primarily measures environmental performance, WELL focuses on comfort, health, well-being, and human experience.<br /> <br /> This distinction becomes particularly important in dense urban housing, where quality of life cannot be measured solely through energy or environmental metrics.<br /> <br /> == From Measurement to Mediation ==<br /> <br /> One of the central findings of this research is that LEED functions not merely as a measurement tool but as a mediator between environmental objectives and architectural design.<br /> <br /> Architects do not simply follow certification requirements. They actively reinterpret them.<br /> <br /> In high-density contexts, credits relating to open space, daylight, ventilation, and ecological performance are frequently translated into alternative spatial strategies. Green roofs replace ground-level landscapes. Shared energy systems replace individual autonomy. Engineered environmental controls supplement passive performance.<br /> <br /> The role of the architect therefore shifts from compliance manager to environmental mediator, negotiating between standardised metrics and contextual realities.<br /> <br /> == Towards Density-Responsive Sustainability Assessment ==<br /> <br /> The study concludes that sustainability certification systems must evolve beyond universal scoring methodologies.<br /> <br /> Urban density fundamentally alters how sustainability is achieved. Environmental performance cannot be fully understood through isolated building metrics alone. Instead, assessment systems must recognise relationships between buildings, infrastructure, transportation networks, public space, and social wellbeing.<br /> <br /> Future sustainability frameworks should reward contextual innovation as much as technical compliance. Rather than asking whether a project follows a predefined pathway, they should ask whether it achieves meaningful environmental and social outcomes within its specific urban conditions.<br /> <br /> As cities continue to grow and densify, the long-term relevance of sustainability certification will depend not on greater standardisation, but on greater adaptability.<br /> <br /> -----<br /> Research Author<br /> <br /> Tsz Kiu Felix Wong&lt;br /&gt;<br /> Founder, T.K. Felix Wong Studio<br /> <br /> This article is adapted from the author's architectural dissertation completed at the Edinburgh School of Architecture and Landscape Architecture (ESALA), University of Edinburgh, investigating the relationship between urban density and sustainability certification in residential architecture.</div>

Tsz Kiu Felix Wong https://www.designingbuildings.co.uk/wiki/Why_Exposed_Timber_Structure_Demands_Tectonic_Honesty 2026-05-26T22:01:43Z

<p>Tsz Kiu Felix Wong: </p> <hr /> <div>Writer: Tsz Kiu Felix Wong<br /> <br /> Contemporary timber architecture is often celebrated for its warmth, sustainability, and visual clarity. Across architectural media, exposed timber structures are presented as symbols of environmental responsibility and tectonic purity. Large-span glulam beams, exposed CLT panels, and carefully detailed joints have become defining images of contemporary sustainable architecture.<br /> <br /> Yet behind many of these projects lies a contradiction.<br /> <br /> While timber structures are visually expressed as honest and natural systems, the actual performance of these buildings frequently depends on concealed layers of steel reinforcement, moisture protection, fire resistance systems, acoustic build-ups, and complex connection details that remain hidden from view. The architectural image of simplicity often masks a significant degree of technical complexity.<br /> <br /> This raises an important question: can timber architecture truly claim tectonic honesty if its structural and environmental dependencies are concealed?<br /> <br /> == Timber and the Return of Tectonic Expression ==<br /> <br /> Timber architecture has re-emerged globally not only because of sustainability concerns, but because timber possesses unique spatial and tectonic qualities. Unlike steel or concrete, timber communicates load, rhythm, assembly, and material texture in a highly legible manner. Structural members often remain visible, allowing occupants to visually understand how a building stands.<br /> <br /> This relationship between structure and architectural expression is central to tectonic thinking. In architecture, tectonics extends beyond structural performance. It concerns the meaningful expression of construction, material, and assembly.<br /> <br /> Exposed timber structures are therefore powerful because they visually communicate:<br /> <br /> * structural hierarchy<br /> * assembly logic<br /> * craftsmanship<br /> * modular repetition<br /> * material behaviour<br /> <br /> When successful, timber buildings create an architectural language where construction itself becomes part of the spatial experience.<br /> <br /> However, this clarity becomes problematic when the visible system no longer fully represents the actual building logic.<br /> <br /> == The Illusion of Simplicity ==<br /> <br /> Many contemporary timber projects are presented as minimal and effortless systems. Architectural photography frequently emphasises uninterrupted timber surfaces and elegant structural grids. Yet these images rarely reveal the hidden complexity required to make such buildings perform safely and durably.<br /> <br /> In reality, exposed timber buildings often rely on:<br /> <br /> * concealed steel brackets and reinforcement plates<br /> * moisture membranes and cavity systems<br /> * fire protection strategies<br /> * acoustic separation layers<br /> * movement tolerances and expansion detailing<br /> * concealed mechanical and environmental systems<br /> <br /> The result is not dishonest in itself. Complex buildings require complex systems. The issue emerges when architecture presents timber as a singular “natural” solution while obscuring the technological and industrial infrastructure necessary for its success.<br /> <br /> This creates a gap between architectural representation and construction reality.<br /> <br /> == Moisture, Fire, and Environmental Exposure ==<br /> <br /> Timber is particularly sensitive to environmental conditions during both construction and occupation. Unlike concrete or steel, timber performance is deeply tied to moisture management, ventilation, and detailing precision.<br /> <br /> This becomes especially critical in coastal or exposed environments where humidity, wind-driven rain, and salt exposure accelerate material degradation risks.<br /> <br /> As a result, successful timber architecture depends heavily on:<br /> <br /> * ventilation cavities<br /> * drainage strategies<br /> * weather protection sequencing<br /> * separation from ground moisture<br /> * breathable wall assemblies<br /> * careful junction detailing<br /> <br /> These systems are rarely visible in final architectural imagery, despite being fundamental to the building’s survival.<br /> <br /> Fire performance introduces similar complexities. While mass timber can perform well through charring behaviour, achieving compliance often requires hidden layers, encapsulation strategies, sprinkler coordination, and engineered connection systems. The visual simplicity of exposed timber therefore depends on extensive technical coordination beneath the surface.<br /> <br /> == Tectonic Honesty and Architectural Responsibility ==<br /> <br /> Tectonic honesty does not require architects to expose every bolt, membrane, or service line. Buildings inevitably contain concealed systems. Rather, tectonic honesty involves maintaining a meaningful relationship between visible architectural expression and actual construction logic.<br /> <br /> A timber building should not merely appear sustainable or structural. Its expression should emerge from genuine material behaviour, assembly sequence, and environmental response.<br /> <br /> This requires architects to think beyond image production and engage more deeply with:<br /> <br /> * fabrication constraints<br /> * structural coordination<br /> * tolerances<br /> * sequencing<br /> * maintenance<br /> * environmental durability<br /> <br /> In this sense, tectonic thinking becomes an ethical position as much as an aesthetic one.<br /> <br /> == Buildability as Design Intelligence ==<br /> <br /> One of the most overlooked aspects of architectural education is buildability. Timber projects are often designed as static visual compositions rather than dynamic systems assembled over time.<br /> <br /> Yet timber construction is fundamentally process-driven.<br /> <br /> Panel dimensions are constrained by transportation. Crane access influences assembly sequence. Moisture exposure during construction affects long-term performance. Structural grids determine fabrication efficiency. Junction tolerances influence installation feasibility.<br /> <br /> Designing timber architecture therefore requires understanding:<br /> <br /> * how components arrive on site<br /> * how they are lifted and assembled<br /> * how joints tolerate movement<br /> * how environmental protection is maintained during construction<br /> <br /> Buildability should not be treated as a technical afterthought. It is an architectural design condition.<br /> <br /> When architects engage with assembly logic early in the design process, timber buildings gain greater clarity, efficiency, and tectonic coherence.<br /> <br /> == Beyond the Sustainability Narrative ==<br /> <br /> Timber architecture is frequently reduced to carbon calculations and sustainability branding. While embodied carbon reduction is important, this narrow framing risks oversimplifying timber’s architectural significance.<br /> <br /> Timber matters not only because it stores carbon, but because it fundamentally changes:<br /> <br /> * spatial atmosphere<br /> * structural rhythm<br /> * sensory experience<br /> * construction sequencing<br /> * tectonic expression<br /> <br /> The value of timber architecture lies equally in its ability to reconnect architecture with material legibility and assembly logic.<br /> <br /> In an era increasingly dominated by image-driven architectural production, timber offers an opportunity to re-establish meaningful relationships between material, structure, construction, and space.<br /> <br /> == Conclusion ==<br /> <br /> Exposed timber architecture possesses extraordinary architectural potential precisely because it makes construction visible. However, this visibility carries responsibility.<br /> <br /> If timber architecture is to move beyond sustainability branding and aesthetic trend, architects must engage honestly with the realities of fabrication, detailing, environmental exposure, and assembly.<br /> <br /> Tectonic honesty does not mean rejecting complexity. It means ensuring that architectural expression remains grounded in the actual logic of how buildings are made and perform over time.<br /> <br /> The future of timber architecture will not depend solely on how sustainable timber appears, but on how intelligently and honestly it is integrated into the realities of construction.</div>

Tsz Kiu Felix Wong https://www.designingbuildings.co.uk/wiki/Why_Exposed_Timber_Structure_Demands_Tectonic_Honesty 2026-05-26T22:00:59Z

<p>Tsz Kiu Felix Wong: Created page with &quot;Contemporary timber architecture is often celebrated for its warmth, sustainability, and visual clarity. Across architectural media, exposed timber structures are presented as sy...&quot;</p> <hr /> <div>Contemporary timber architecture is often celebrated for its warmth, sustainability, and visual clarity. Across architectural media, exposed timber structures are presented as symbols of environmental responsibility and tectonic purity. Large-span glulam beams, exposed CLT panels, and carefully detailed joints have become defining images of contemporary sustainable architecture.<br /> <br /> Yet behind many of these projects lies a contradiction.<br /> <br /> While timber structures are visually expressed as honest and natural systems, the actual performance of these buildings frequently depends on concealed layers of steel reinforcement, moisture protection, fire resistance systems, acoustic build-ups, and complex connection details that remain hidden from view. The architectural image of simplicity often masks a significant degree of technical complexity.<br /> <br /> This raises an important question: can timber architecture truly claim tectonic honesty if its structural and environmental dependencies are concealed?<br /> <br /> == Timber and the Return of Tectonic Expression ==<br /> <br /> Timber architecture has re-emerged globally not only because of sustainability concerns, but because timber possesses unique spatial and tectonic qualities. Unlike steel or concrete, timber communicates load, rhythm, assembly, and material texture in a highly legible manner. Structural members often remain visible, allowing occupants to visually understand how a building stands.<br /> <br /> This relationship between structure and architectural expression is central to tectonic thinking. In architecture, tectonics extends beyond structural performance. It concerns the meaningful expression of construction, material, and assembly.<br /> <br /> Exposed timber structures are therefore powerful because they visually communicate:<br /> <br /> * structural hierarchy<br /> * assembly logic<br /> * craftsmanship<br /> * modular repetition<br /> * material behaviour<br /> <br /> When successful, timber buildings create an architectural language where construction itself becomes part of the spatial experience.<br /> <br /> However, this clarity becomes problematic when the visible system no longer fully represents the actual building logic.<br /> <br /> == The Illusion of Simplicity ==<br /> <br /> Many contemporary timber projects are presented as minimal and effortless systems. Architectural photography frequently emphasises uninterrupted timber surfaces and elegant structural grids. Yet these images rarely reveal the hidden complexity required to make such buildings perform safely and durably.<br /> <br /> In reality, exposed timber buildings often rely on:<br /> <br /> * concealed steel brackets and reinforcement plates<br /> * moisture membranes and cavity systems<br /> * fire protection strategies<br /> * acoustic separation layers<br /> * movement tolerances and expansion detailing<br /> * concealed mechanical and environmental systems<br /> <br /> The result is not dishonest in itself. Complex buildings require complex systems. The issue emerges when architecture presents timber as a singular “natural” solution while obscuring the technological and industrial infrastructure necessary for its success.<br /> <br /> This creates a gap between architectural representation and construction reality.<br /> <br /> == Moisture, Fire, and Environmental Exposure ==<br /> <br /> Timber is particularly sensitive to environmental conditions during both construction and occupation. Unlike concrete or steel, timber performance is deeply tied to moisture management, ventilation, and detailing precision.<br /> <br /> This becomes especially critical in coastal or exposed environments where humidity, wind-driven rain, and salt exposure accelerate material degradation risks.<br /> <br /> As a result, successful timber architecture depends heavily on:<br /> <br /> * ventilation cavities<br /> * drainage strategies<br /> * weather protection sequencing<br /> * separation from ground moisture<br /> * breathable wall assemblies<br /> * careful junction detailing<br /> <br /> These systems are rarely visible in final architectural imagery, despite being fundamental to the building’s survival.<br /> <br /> Fire performance introduces similar complexities. While mass timber can perform well through charring behaviour, achieving compliance often requires hidden layers, encapsulation strategies, sprinkler coordination, and engineered connection systems. The visual simplicity of exposed timber therefore depends on extensive technical coordination beneath the surface.<br /> <br /> == Tectonic Honesty and Architectural Responsibility ==<br /> <br /> Tectonic honesty does not require architects to expose every bolt, membrane, or service line. Buildings inevitably contain concealed systems. Rather, tectonic honesty involves maintaining a meaningful relationship between visible architectural expression and actual construction logic.<br /> <br /> A timber building should not merely appear sustainable or structural. Its expression should emerge from genuine material behaviour, assembly sequence, and environmental response.<br /> <br /> This requires architects to think beyond image production and engage more deeply with:<br /> <br /> * fabrication constraints<br /> * structural coordination<br /> * tolerances<br /> * sequencing<br /> * maintenance<br /> * environmental durability<br /> <br /> In this sense, tectonic thinking becomes an ethical position as much as an aesthetic one.<br /> <br /> == Buildability as Design Intelligence ==<br /> <br /> One of the most overlooked aspects of architectural education is buildability. Timber projects are often designed as static visual compositions rather than dynamic systems assembled over time.<br /> <br /> Yet timber construction is fundamentally process-driven.<br /> <br /> Panel dimensions are constrained by transportation. Crane access influences assembly sequence. Moisture exposure during construction affects long-term performance. Structural grids determine fabrication efficiency. Junction tolerances influence installation feasibility.<br /> <br /> Designing timber architecture therefore requires understanding:<br /> <br /> * how components arrive on site<br /> * how they are lifted and assembled<br /> * how joints tolerate movement<br /> * how environmental protection is maintained during construction<br /> <br /> Buildability should not be treated as a technical afterthought. It is an architectural design condition.<br /> <br /> When architects engage with assembly logic early in the design process, timber buildings gain greater clarity, efficiency, and tectonic coherence.<br /> <br /> == Beyond the Sustainability Narrative ==<br /> <br /> Timber architecture is frequently reduced to carbon calculations and sustainability branding. While embodied carbon reduction is important, this narrow framing risks oversimplifying timber’s architectural significance.<br /> <br /> Timber matters not only because it stores carbon, but because it fundamentally changes:<br /> <br /> * spatial atmosphere<br /> * structural rhythm<br /> * sensory experience<br /> * construction sequencing<br /> * tectonic expression<br /> <br /> The value of timber architecture lies equally in its ability to reconnect architecture with material legibility and assembly logic.<br /> <br /> In an era increasingly dominated by image-driven architectural production, timber offers an opportunity to re-establish meaningful relationships between material, structure, construction, and space.<br /> <br /> == Conclusion ==<br /> <br /> Exposed timber architecture possesses extraordinary architectural potential precisely because it makes construction visible. However, this visibility carries responsibility.<br /> <br /> If timber architecture is to move beyond sustainability branding and aesthetic trend, architects must engage honestly with the realities of fabrication, detailing, environmental exposure, and assembly.<br /> <br /> Tectonic honesty does not mean rejecting complexity. It means ensuring that architectural expression remains grounded in the actual logic of how buildings are made and perform over time.<br /> <br /> The future of timber architecture will not depend solely on how sustainable timber appears, but on how intelligently and honestly it is integrated into the realities of construction.</div>

Tsz Kiu Felix Wong https://www.designingbuildings.co.uk/wiki/Rewoven_Kharkiv 2026-05-26T01:03:19Z

<p>Tsz Kiu Felix Wong: </p> <hr /> <div>= Rewoven Kharkiv =<br /> <br /> == Reimagining Housing Through Resilience, Community, and Adaptive Regeneration ==<br /> <br /> Project: Rewoven Kharkiv&lt;br /&gt;<br /> Competition: Norman Foster Foundation Kharkiv Housing Challenge 2025&lt;br /&gt;<br /> Designer: Tsz Kiu Felix Wong, Yau Wai Lam<br /> <br /> Studio: T.K. Felix Wong Studio<br /> <br /> -----<br /> == 1. Introduction ==<br /> <br /> Rewoven Kharkiv is a conceptual housing proposal developed for the Norman Foster Foundation Kharkiv Housing Challenge 2025. The project explores how architecture can contribute to post-war recovery through adaptive regeneration, modular construction, and socially resilient urban strategies.<br /> <br /> Rather than treating reconstruction as a process of replacing what has been destroyed, the proposal investigates how fragmented urban conditions can be transformed into opportunities for collective renewal and long-term sustainability.<br /> <br /> -----<br /> == 2. The Context of Kharkiv ==<br /> <br /> Kharkiv has experienced significant urban destruction, displacement, and social disruption due to ongoing conflict. Beyond the physical damage to housing and infrastructure, communities have also faced the loss of stability, identity, and public life.<br /> <br /> The project responds to this condition by viewing reconstruction not only as technical repair, but as a civic and cultural process that rebuilds relationships between people, architecture, and the city.<br /> <br /> -----<br /> == 3. Design Vision ==<br /> <br /> The central idea behind Rewoven Kharkiv is the concept of “rewoven urbanism,” where disconnected urban fragments are stitched back together through adaptable housing systems and shared community spaces.<br /> <br /> The proposal aims to create architecture that is flexible, repairable, and capable of evolving over time. Housing is treated as a living framework rather than a static object.<br /> <br /> -----<br /> == 4. Housing as Social Infrastructure ==<br /> <br /> The project positions housing as more than shelter. It becomes a form of social infrastructure capable of supporting interaction, recovery, and collective identity.<br /> <br /> Shared courtyards, terraces, circulation spaces, and communal programs are integrated throughout the proposal to encourage social connection and rebuild neighbourhood relationships disrupted by conflict.<br /> <br /> -----<br /> == 5. Adaptive Regeneration Strategy ==<br /> <br /> Instead of relying entirely on demolition and replacement, the project adopts a strategy of selective preservation, retrofit, and modular extension.<br /> <br /> Existing urban structures are reused wherever possible to reduce material waste, embodied carbon, and construction time. This approach also preserves traces of memory and continuity within the urban environment.<br /> <br /> -----<br /> == 6. Modular Construction System ==<br /> <br /> A lightweight prefabricated modular system forms the structural basis of the proposal. The modular approach enables rapid construction, adaptability, and scalability across different urban conditions.<br /> <br /> The system is designed to allow phased construction and future expansion while maintaining flexibility for different household configurations and community needs.<br /> <br /> -----<br /> == 7. Material and Environmental Strategy ==<br /> <br /> The project prioritizes low-carbon and resource-efficient construction methods. Material selection focuses on durability, thermal performance, and the potential for reuse or disassembly.<br /> <br /> Environmental strategies include passive ventilation, daylight optimization, insulated building envelopes, and green communal spaces that improve environmental quality and long-term sustainability performance.<br /> <br /> -----<br /> == 8. Human-Centered Living Environment ==<br /> <br /> The proposal emphasizes dignity, comfort, and emotional well-being alongside technical efficiency. Spaces are designed to encourage natural light, visual openness, and connections to landscape and shared outdoor environments.<br /> <br /> By prioritizing both individual privacy and collective interaction, the project aims to create healthier and more supportive living conditions for displaced communities.<br /> <br /> -----<br /> == 9. Public Space and Community Recovery ==<br /> <br /> Public space plays a critical role within the proposal. Landscaped courtyards, pedestrian connections, and community gathering areas are integrated into the housing framework to strengthen neighbourhood cohesion.<br /> <br /> The project views public life as essential to post-war recovery, helping rebuild trust, belonging, and everyday social interaction within the city.<br /> <br /> -----<br /> == 10. Tectonics and Architectural Expression ==<br /> <br /> The architectural language of the proposal is shaped by structural clarity and material honesty. Exposed structural systems and modular construction components communicate how the building is assembled and adapted over time.<br /> <br /> Rather than concealing construction, the project celebrates tectonic expression as part of the architectural identity of recovery and resilience.<br /> <br /> -----<br /> == 11. Sustainability and Long-Term Resilience ==<br /> <br /> Rewoven Kharkiv approaches sustainability beyond energy performance alone. The proposal integrates environmental responsibility, social resilience, adaptability, and long-term urban regeneration into a unified framework.<br /> <br /> The project argues that resilient housing must be capable of responding not only to environmental challenges, but also to social and cultural transformation over time.<br /> <br /> -----<br /> == 12. Conclusion ==<br /> <br /> Rewoven Kharkiv explores how post-war reconstruction can move beyond emergency response toward a more regenerative and human-centered future. Through modular adaptability, sustainable construction, and socially driven urban strategies, the project proposes a new approach to collective housing recovery.<br /> <br /> The proposal ultimately asks how architecture can help communities rebuild continuity, identity, and hope while creating resilient environments for future generations.</div>

Tsz Kiu Felix Wong https://www.designingbuildings.co.uk/wiki/Rewoven_Kharkiv 2026-05-25T21:58:51Z

<p>Tsz Kiu Felix Wong: Created page with &quot;= Rewoven Kharkiv = == Reimagining Housing Through Resilience, Community, and Adaptive Regeneration == Project: Rewoven Kharkiv&lt;br /&gt; Competition: Norman Foster Foundation Khar...&quot;</p> <hr /> <div>= Rewoven Kharkiv =<br /> <br /> == Reimagining Housing Through Resilience, Community, and Adaptive Regeneration ==<br /> <br /> Project: Rewoven Kharkiv&lt;br /&gt;<br /> Competition: Norman Foster Foundation Kharkiv Housing Challenge 2025&lt;br /&gt;<br /> Designer: Tsz Kiu Felix Wong, Yau Wai Lam<br /> <br /> -----<br /> == 1. Introduction ==<br /> <br /> Rewoven Kharkiv is a conceptual housing proposal developed for the Norman Foster Foundation Kharkiv Housing Challenge 2025. The project explores how architecture can contribute to post-war recovery through adaptive regeneration, modular construction, and socially resilient urban strategies.<br /> <br /> Rather than treating reconstruction as a process of replacing what has been destroyed, the proposal investigates how fragmented urban conditions can be transformed into opportunities for collective renewal and long-term sustainability.<br /> <br /> -----<br /> == 2. The Context of Kharkiv ==<br /> <br /> Kharkiv has experienced significant urban destruction, displacement, and social disruption due to ongoing conflict. Beyond the physical damage to housing and infrastructure, communities have also faced the loss of stability, identity, and public life.<br /> <br /> The project responds to this condition by viewing reconstruction not only as technical repair, but as a civic and cultural process that rebuilds relationships between people, architecture, and the city.<br /> <br /> -----<br /> == 3. Design Vision ==<br /> <br /> The central idea behind Rewoven Kharkiv is the concept of “rewoven urbanism,” where disconnected urban fragments are stitched back together through adaptable housing systems and shared community spaces.<br /> <br /> The proposal aims to create architecture that is flexible, repairable, and capable of evolving over time. Housing is treated as a living framework rather than a static object.<br /> <br /> -----<br /> == 4. Housing as Social Infrastructure ==<br /> <br /> The project positions housing as more than shelter. It becomes a form of social infrastructure capable of supporting interaction, recovery, and collective identity.<br /> <br /> Shared courtyards, terraces, circulation spaces, and communal programs are integrated throughout the proposal to encourage social connection and rebuild neighbourhood relationships disrupted by conflict.<br /> <br /> -----<br /> == 5. Adaptive Regeneration Strategy ==<br /> <br /> Instead of relying entirely on demolition and replacement, the project adopts a strategy of selective preservation, retrofit, and modular extension.<br /> <br /> Existing urban structures are reused wherever possible to reduce material waste, embodied carbon, and construction time. This approach also preserves traces of memory and continuity within the urban environment.<br /> <br /> -----<br /> == 6. Modular Construction System ==<br /> <br /> A lightweight prefabricated modular system forms the structural basis of the proposal. The modular approach enables rapid construction, adaptability, and scalability across different urban conditions.<br /> <br /> The system is designed to allow phased construction and future expansion while maintaining flexibility for different household configurations and community needs.<br /> <br /> -----<br /> == 7. Material and Environmental Strategy ==<br /> <br /> The project prioritizes low-carbon and resource-efficient construction methods. Material selection focuses on durability, thermal performance, and the potential for reuse or disassembly.<br /> <br /> Environmental strategies include passive ventilation, daylight optimization, insulated building envelopes, and green communal spaces that improve environmental quality and long-term sustainability performance.<br /> <br /> -----<br /> == 8. Human-Centered Living Environment ==<br /> <br /> The proposal emphasizes dignity, comfort, and emotional well-being alongside technical efficiency. Spaces are designed to encourage natural light, visual openness, and connections to landscape and shared outdoor environments.<br /> <br /> By prioritizing both individual privacy and collective interaction, the project aims to create healthier and more supportive living conditions for displaced communities.<br /> <br /> -----<br /> == 9. Public Space and Community Recovery ==<br /> <br /> Public space plays a critical role within the proposal. Landscaped courtyards, pedestrian connections, and community gathering areas are integrated into the housing framework to strengthen neighbourhood cohesion.<br /> <br /> The project views public life as essential to post-war recovery, helping rebuild trust, belonging, and everyday social interaction within the city.<br /> <br /> -----<br /> == 10. Tectonics and Architectural Expression ==<br /> <br /> The architectural language of the proposal is shaped by structural clarity and material honesty. Exposed structural systems and modular construction components communicate how the building is assembled and adapted over time.<br /> <br /> Rather than concealing construction, the project celebrates tectonic expression as part of the architectural identity of recovery and resilience.<br /> <br /> -----<br /> == 11. Sustainability and Long-Term Resilience ==<br /> <br /> Rewoven Kharkiv approaches sustainability beyond energy performance alone. The proposal integrates environmental responsibility, social resilience, adaptability, and long-term urban regeneration into a unified framework.<br /> <br /> The project argues that resilient housing must be capable of responding not only to environmental challenges, but also to social and cultural transformation over time.<br /> <br /> -----<br /> == 12. Conclusion ==<br /> <br /> Rewoven Kharkiv explores how post-war reconstruction can move beyond emergency response toward a more regenerative and human-centered future. Through modular adaptability, sustainable construction, and socially driven urban strategies, the project proposes a new approach to collective housing recovery.<br /> <br /> The proposal ultimately asks how architecture can help communities rebuild continuity, identity, and hope while creating resilient environments for future generations.</div>

Tsz Kiu Felix Wong https://www.designingbuildings.co.uk/wiki/T.K._Felix_Wong_Studio 2026-05-04T20:07:10Z

<p>Tsz Kiu Felix Wong: Created page with &quot;= T.K. Felix Wong Studio = T.K. Felix Wong Studio is an emerging design practice founded by Tsz Kiu Felix Wong, focusing on architecture, interiors, landscape, sustainable desig...&quot;</p> <hr /> <div>= T.K. Felix Wong Studio =<br /> <br /> T.K. Felix Wong Studio is an emerging design practice founded by Tsz Kiu Felix Wong, focusing on architecture, interiors, landscape, sustainable design, and research-led spatial thinking. The studio explores how buildings and places can respond to environmental conditions, cultural identity, material systems, and social use.<br /> <br /> The practice is developed as a platform for architectural experimentation across academic, competition, speculative, and professional contexts. Its work combines conceptual design, technical analysis, digital modelling, physical prototyping, environmental research, and material investigation.<br /> <br /> == Design approach ==<br /> <br /> T.K. Felix Wong Studio is interested in architecture as a relationship between place, climate, construction, and public life. The studio does not treat buildings as isolated objects, but as spatial systems shaped by their site, users, materials, and long-term environmental responsibilities.<br /> <br /> The studio’s work often investigates:<br /> <br /> * Architecture and urban design<br /> * Interior and spatial design<br /> * Landscape and public realm<br /> * Sustainable design strategies<br /> * Timber and material-led construction<br /> * Adaptive reuse and existing fabric<br /> * Environmental analysis and climate response<br /> * Cultural storytelling and civic identity<br /> * Digital modelling, diagrams, and visual communication<br /> <br /> This approach allows the studio to develop projects that operate across different scales, from small interiors and pavilions to cultural buildings, public landscapes, and speculative urban proposals.<br /> <br /> == Sustainability and environmental thinking ==<br /> <br /> Sustainability is a central part of the studio’s design method. Rather than treating sustainable design as a decorative label, the studio approaches it through building performance, material selection, daylight, ventilation, reuse, adaptability, landscape systems, and long-term resilience.<br /> <br /> Projects often explore how architecture can reduce environmental impact while also improving social and cultural value. This includes the use of timber systems, durable materials, flexible layouts, climate-responsive envelopes, passive environmental strategies, and design approaches that extend the useful life of buildings.<br /> <br /> == Material and tectonic research ==<br /> <br /> A key interest of the studio is the tectonic relationship between structure, material, detail, and atmosphere. Timber, masonry, steel, glass, and landscape systems are studied not only for their visual qualities, but for how they are sourced, assembled, weathered, repaired, and reused.<br /> <br /> The studio’s work frequently examines the connection between old and new construction, especially where existing fabric, heritage conditions, or environmental exposure require careful architectural response. This material-led approach supports a design language grounded in construction logic rather than surface styling, a rare public service in an age of render-first architecture.<br /> <br /> == Selected project: Dunbar Maritime Culture House ==<br /> <br /> One of the studio’s key recent projects is Dunbar Maritime Culture House, a conceptual civic and cultural proposal located at Dunbar Harbour in East Lothian, Scotland. The project investigates how timber architecture can respond to coastal exposure, historic harbour fabric, maritime identity, and public use.<br /> <br /> The proposal combines exhibition space, café, event space, boat repair demonstration, archive, workshop, and harbour-facing gathering areas. It is organised around working, cultural, and social layers, creating a building that supports both maritime heritage and contemporary public life.<br /> <br /> The project reflects the studio’s wider design interests: adaptive reuse, retained stone fabric, timber tectonics, climate-responsive design, public thresholds, and the transformation of existing harbour infrastructure into a civic cultural space.<br /> <br /> == Digital and representational methods ==<br /> <br /> T.K. Felix Wong Studio uses digital and physical tools as part of its design process. These include hand sketching, Rhino modelling, Grasshopper studies, environmental analysis, physical model-making, rendering, diagrams, and portfolio-based visual communication.<br /> <br /> Representation is treated as an analytical method, not only as presentation. Drawings, models, and diagrams are used to test structure, massing, circulation, environmental performance, material systems, and the relationship between architecture and context.<br /> <br /> == Founder ==<br /> <br /> The studio was founded by Tsz Kiu Felix Wong, an architectural designer with experience across architecture, urban design, façade studies, sustainability, and material experimentation. His work is shaped by architectural education, international design experience, competition projects, environmental certification knowledge, and a strong interest in the relationship between design, technology, and cultural context.<br /> <br /> Through T.K. Felix Wong Studio, he aims to develop a body of work that connects architectural imagination with environmental responsibility, technical clarity, and social relevance.<br /> <br /> == Studio focus ==<br /> <br /> The studio’s work can be understood through several core themes:<br /> <br /> * Context-responsive architecture<br /> * Sustainable and low-carbon design thinking<br /> * Timber and material-led tectonics<br /> * Adaptive reuse and heritage-sensitive intervention<br /> * Public cultural buildings and civic space<br /> * Environmental analysis and climate-responsive design<br /> * Interior, landscape, and urban design integration<br /> * Research-led architectural storytelling<br /> <br /> == Significance ==<br /> <br /> T.K. Felix Wong Studio positions architecture as both a technical and cultural practice. Its projects aim to connect environmental responsibility with spatial experience, material intelligence, and public meaning. The studio’s work is especially concerned with how architecture can respond to future climate challenges while remaining grounded in local context, craft, memory, and everyday use.<br /> <br /> As an emerging design practice, T.K. Felix Wong Studio uses architectural projects, research, competitions, and publications to develop a design identity focused on sustainability, adaptability, and meaningful spatial experience.<br /> <br /> == Practice information ==<br /> <br /> * Name: T.K. Felix Wong Studio<br /> * Founder: Tsz Kiu Felix Wong<br /> * Discipline: Architecture, interiors, landscape, sustainable design<br /> * Location: United Kingdom / Hong Kong<br /> * Project types: Academic projects, conceptual design, competition entries, research-led design, architectural visualisation, interiors, public cultural proposals, landscape and urban studies<br /> * Design focus: Sustainable design, material systems, adaptive reuse, timber tectonics, environmental performance, cultural identity, public space&lt;br /&gt;</div>

Tsz Kiu Felix Wong https://www.designingbuildings.co.uk/wiki/T.K._Felix_Wong_Studio_-_Dunbar_Maritime_Culture_House 2026-05-04T19:51:42Z

<p>Tsz Kiu Felix Wong: Created page with &quot;= T.K. Felix Wong Studio - Dunbar Maritime Culture House = T.K. Felix Wong Studio - Dunbar Maritime Culture House is a conceptual architectural proposal for a maritime cultural ...&quot;</p> <hr /> <div>= T.K. Felix Wong Studio - Dunbar Maritime Culture House =<br /> <br /> T.K. Felix Wong Studio - Dunbar Maritime Culture House is a conceptual architectural proposal for a maritime cultural building at Dunbar Harbour, East Lothian, Scotland. The project was developed by Tsz Kiu Felix Wong as part of Architectural Design: Tectonics at the University of Edinburgh, ESALA, in 2025/26.<br /> <br /> The proposal explores how new timber architecture can respond to an exposed coastal harbour site, existing historic fabric, local maritime identity, and the need for public cultural infrastructure. Rather than treating the building as a static museum, the project is conceived as a living maritime institution that combines working harbour activity, public storytelling, and social gathering.<br /> <br /> == Site context ==<br /> <br /> The project is located at Dunbar Harbour, a coastal site positioned between the historic town fabric of Dunbar and the exposed edge of the North Sea. The harbour is understood as both maritime infrastructure and a civic threshold, where working activity, public movement, coastal exposure, and local identity overlap.<br /> <br /> The site study focuses on the area around McArthur’s Store, a historic harbour building associated with grain storage and later fishing-related use. The existing building fabric is treated as an important part of Dunbar’s working landscape rather than as a neutral object to be removed. Its masonry walls, harbour setting, fire-damaged condition, and relationship to fishing activity informed the project’s approach to retention, repair, and new construction.<br /> <br /> The harbour context also introduced significant environmental constraints. Site analysis identified strong coastal exposure, prevailing western and south-western winds, cool temperatures, salt-laden air, and changing sunlight conditions. These factors shaped the proposal’s massing, roof form, threshold spaces, material choices, and approach to shelter.<br /> <br /> == Design concept ==<br /> <br /> The Dunbar Maritime Culture House is organised around three interrelated programme layers: working, cultural, and social.<br /> <br /> The working layer includes boat repair demonstration, net mending, tool storage, archive storage, and visible craft activity. This keeps maritime labour present within the building, allowing the project to support living knowledge rather than turning harbour heritage into a frozen display.<br /> <br /> The cultural layer includes exhibition space, maritime photography, oral history listening areas, projection space, and interpretation of Dunbar’s North Sea fishing identity. This allows the building to operate as a place for local memory, storytelling, and public education.<br /> <br /> The social layer includes a harbour-facing café, public event space, outdoor gathering areas, amphitheatre steps, and viewing terrace. This extends the project beyond museum use and creates an everyday civic space for residents, visitors, fishermen, and community groups.<br /> <br /> == Architectural strategy ==<br /> <br /> The final proposal is arranged as two one-storey volumes set around a sheltered courtyard and shared canopy. One volume contains the public and cultural functions, including exhibition, café, reception, and gathering space. The other volume supports working and community functions, including workshop activity and storage.<br /> <br /> The decision to use two one-storey volumes reduces the building’s mass and improves its relationship with the harbour ground. It also allows the proposal to frame a more protected public threshold between the volumes. This central space becomes both a circulation route and an environmental buffer, offering shelter from wind and rain while maintaining visual connection to the harbour.<br /> <br /> A shared roof canopy links the two volumes and creates a semi-covered civic threshold. The canopy is not only a formal gesture; it resolves several practical issues at once, including shelter, drainage, arrival, public gathering, and the relationship between workshop and exhibition use. Finally, a roof doing more than sitting there looking expensive.<br /> <br /> == Existing fabric and retention ==<br /> <br /> The project responds to McArthur’s Store through selective retention rather than total preservation or total demolition. The fire-damaged roof and problematic upper floor condition are removed, while selected stone walls and existing fabric are retained as spatial and structural anchors.<br /> <br /> This retention strategy allows the historic harbour fabric to remain legible within the new proposal. The retained masonry is not treated as decorative heritage scenery, but as an active part of the architectural order. In some areas, the new timber roof structure is allowed to sit partially on the retained stone wall, reducing the need for additional columns and strengthening the tectonic relationship between existing stone and new timber construction.<br /> <br /> == Structure and material approach ==<br /> <br /> The project is developed through a timber-led tectonic strategy. Timber is used not simply as a sustainable aesthetic, but as a structural and constructional system shaped by sourcing, processing, assembly, weathering, and long-term performance.<br /> <br /> The proposal uses a clear hierarchy between heavy retained masonry and lighter new timber construction. The existing stone fabric provides mass, memory, and ground connection, while the new timber volumes and roof canopy provide warmth, adaptability, and environmental mediation.<br /> <br /> The roof structure was developed from earlier truss and spanning studies into a simpler folded roof system. This creates a clearer structural language and avoids making the roof visually heavy. The timber structure expresses span, shelter, and assembly, while the retained wall establishes continuity with the harbour’s material history.<br /> <br /> == Environmental response ==<br /> <br /> The building is shaped by Dunbar’s exposed coastal climate. Wind studies identified strong western and south-western winds, making shelter a central design requirement. The two-volume arrangement and shared canopy create a wind-buffered courtyard that protects public occupation without closing the building off from the harbour.<br /> <br /> The roof form directs rain away from key occupied thresholds and helps define protected outdoor space. The building’s section and envelope respond to changing sunlight, glare, wind exposure, and winter comfort. Rather than treating environmental performance as an added technical layer, the project embeds it into the massing, roof geometry, openings, and public threshold.<br /> <br /> Material durability is also central to the environmental strategy. The coastal context requires robust junctions, careful drainage, and materials that can tolerate rain, salt-laden air, wind, and long-term weathering.<br /> <br /> == Public use and community value ==<br /> <br /> The project was developed in response to The Ridge SCIO, a Dunbar-based social enterprise focused on repair, training, community support, and local participation. This influenced the project’s direction away from a purely formal cultural building and toward a civic architecture that supports making, learning, gathering, and public engagement.<br /> <br /> The building is intended to serve multiple users: local residents, visitors, fishermen, craftspeople, school groups, cultural organisations, and community groups. Its combination of workshop, exhibition, café, event space, and harbour-facing terrace allows it to support both everyday use and seasonal events.<br /> <br /> In this sense, the project does not separate heritage from contemporary life. Maritime history is presented through active repair, storytelling, public use, and shared occupation of the harbour edge.<br /> <br /> == Tectonic development ==<br /> <br /> The proposal developed from a wider investigation into timber as a material system in Scotland. Earlier studies examined forestry, species, processing, engineered timber, carbon storage, and supply chains. This informed the project’s understanding of timber as both a grown biological material and an industrially processed construction product.<br /> <br /> Precedent studies also shaped the project’s tectonic direction. The Reading Room in the Forest informed the separation between primary structure, insulated enclosure, and sheltered threshold. Additional small timber pavilion and farmstand precedents informed seasonal use, canopy depth, open frontage, and the relationship between timber frame and public exchange.<br /> <br /> These studies led to a design approach based on structural clarity, layered enclosure, and environmental mediation. The final Dunbar proposal expands this logic from a small shed study into a larger civic building.<br /> <br /> == Significance ==<br /> <br /> Dunbar Maritime Culture House proposes a form of coastal civic architecture rooted in repair, memory, and environmental response. It combines maritime working culture with public interpretation and social gathering, using timber construction and retained stone fabric to create a dialogue between old and new.<br /> <br /> Its significance lies in the relationship between tectonics and context. The project does not treat sustainability, heritage, structure, and public life as separate themes. Instead, they are brought together through the building’s massing, material strategy, roof form, and threshold spaces.<br /> <br /> The proposal imagines a maritime culture house that is both practical and symbolic: a place where working harbour knowledge remains visible, local stories are shared, and public life is sheltered at the edge of the North Sea.<br /> <br /> == Project information ==<br /> <br /> Project title: T.K. Felix Wong Studio - Dunbar Maritime Culture House&lt;br /&gt;<br /> Designer: Tsz Kiu Felix Wong / T.K. Felix Wong Studio&lt;br /&gt;<br /> Institution: University of Edinburgh, ESALA&lt;br /&gt;<br /> Course: Architectural Design: Tectonics&lt;br /&gt;<br /> Academic year: 2025/26&lt;br /&gt;<br /> Location: Dunbar Harbour, East Lothian, Scotland&lt;br /&gt;<br /> Site focus: McArthur’s Store and the surrounding harbour edge&lt;br /&gt;<br /> Project type: Conceptual architectural proposal / academic project&lt;br /&gt;<br /> Status: Unbuilt&lt;br /&gt;<br /> Main programme: Maritime exhibition, café, event space, boat repair demonstration, net mending workshop, archive, tool storage, public terrace, viewing area, and sheltered courtyard&lt;br /&gt;<br /> Main materials: Timber structure, retained stone masonry, glazed openings, roof canopy, timber envelope components&lt;br /&gt;<br /> Design focus: Timber tectonics, adaptive reuse, maritime heritage, coastal exposure, civic threshold, public gathering, environmental response&lt;br /&gt;<br /> Client reference: The Ridge SCIO&lt;br /&gt;<br /> Tutors: Jamie Henry and Angus Henderson&lt;br /&gt;<br /> Author: Tsz Kiu Felix Wong</div>

Tsz Kiu Felix Wong https://www.designingbuildings.co.uk/wiki/Woven_Current_-_Helsinki_Design_Museum 2026-05-04T19:19:39Z

<p>Tsz Kiu Felix Wong: </p> <hr /> <div>= Woven Current - Helsinki Design Museum =<br /> <br /> Woven Current - Helsinki Design Museum is a conceptual architectural proposal for a new design museum in Helsinki, Finland. The project was developed as part of the Museum of Future Building, Design Competition in Helsinki, Finland - Stage I. The proposal explores how a museum can become more than a closed cultural institution by operating as an urban connector, waterfront landscape, public interior, and resilient civic infrastructure.<br /> <br /> The project is located on Helsinki’s waterfront and responds to the city’s relationship with the sea, public space, cultural identity, and changing environmental conditions. Rather than treating the museum as a standalone object, the design extends the museum experience into the surrounding landscape through outdoor routes, green roofs, flood-resilient zones, terraces, public activity areas, and visual connections to the harbour.<br /> <br /> == Concept ==<br /> <br /> The concept is based on the contrast between a cold, iceberg-like internal volume and a warm, woven exterior shell. This duality reflects both Helsinki’s winter climate and the tactile qualities of Finnish craft traditions. The outer envelope is inspired by woven fabrics, baskets, timber craft, and the movement of schools of fish. These references are translated into a dynamic façade system composed of recyclable timber elements.<br /> <br /> The project aims to blur the boundary between built and unbuilt space. Public landscape, museum circulation, exhibition areas, café spaces, terraces, and civic routes are treated as connected parts of one urban experience. The museum is therefore proposed not only as a building for displaying design, but also as a place where design, public life, environmental performance, and urban movement overlap.<br /> <br /> == Urban and landscape strategy ==<br /> <br /> The site strategy responds to the waterfront condition by creating a continuous public edge between the city and the harbour. The building is set within a landscape of pathways, green roof areas, flood-protection zones, bicycle parking, public health spaces, skateboarding areas, climbing zones, and outdoor gathering spaces.<br /> <br /> The landscape design supports both public use and environmental resilience. Flood-resistant zones and varied ground levels are introduced to address future sea-level rise and coastal exposure. Approximately 35% of the project area is proposed as green roof or flood-resilient landscape, helping to manage stormwater, reduce heat island effect, and create additional public and ecological value.<br /> <br /> == Programme and spatial organisation ==<br /> <br /> The museum programme combines exhibition, education, research, public events, commercial activity, and building support functions. The main spaces include:<br /> <br /> * Entrance and reception<br /> * Foyer and lobby<br /> * Museum shop<br /> * Café<br /> * Exhibition galleries<br /> * Event space<br /> * Performance room<br /> * Conference room<br /> * Workshop areas<br /> * Library and research centre<br /> * Office and staff areas<br /> * Archives<br /> * Logistics and preparation areas<br /> * Technical rooms<br /> * Public terraces and garden spaces<br /> <br /> The project has a gross floor area of approximately 8,443 sq m and a net floor area of approximately 6,867 sq m. The organisation separates public, semi-private, private, staff, logistics, and emergency routes while maintaining a flexible circulation network. This allows the museum to support visitors, staff, exhibition handling, maintenance, events, and emergency access without relying on a single fixed route. Because apparently even museums need traffic management, not just nice staircases.<br /> <br /> == Flexible exhibition strategy ==<br /> <br /> A key part of the proposal is adaptability. The building includes experimental gallery spaces that can be adjusted in width and length through movable wall systems. This allows exhibition rooms to change according to different curatorial needs, including large installations, temporary exhibitions, workshops, conferences, public events, office use, and community programmes.<br /> <br /> The first level includes a high, approximately 10-metre-tall space suitable for large design pieces and installations. Upper levels provide lower ceiling heights, approximately 6 metres and 4.5 metres, allowing a range of exhibition scales and spatial atmospheres. This variation creates flexibility across the building while reducing the need for repeated demolition or reconstruction when programmes change.<br /> <br /> == Façade and material concept ==<br /> <br /> The façade is formed from nearly 20,000 recyclable timber pieces arranged as a woven outer shell. This shell wraps around the colder, more controlled inner building volume and creates a strong contrast between exterior warmth and interior clarity. From close range, the façade reads as individual timber elements; from further away, it appears as a flowing surface shaped by movement, water, and craft.<br /> <br /> The material palette includes:<br /> <br /> * Recyclable timber façade components<br /> * Steel structural framework<br /> * CLT wood panels<br /> * Low-carbon concrete slabs<br /> * Thermally improved curtain walling<br /> * Bird-friendly glazing<br /> * XPS insulation<br /> * Green roof build-up layers<br /> * Porous asphalt<br /> * Rain gardens and underdrainage systems<br /> <br /> The project prioritises durable, locally sourced, and lower-impact materials where possible. The boards describe the intention to source materials within a 160 km radius, supporting regional supply chains and reducing transport-related emissions.<br /> <br /> == Construction and structural strategy ==<br /> <br /> The building uses a hybrid structural approach. Steel framing provides the primary structural support for the floors and shell, while CLT panels and timber façade elements contribute to the architectural character and carbon-conscious material strategy. Low-carbon concrete slabs and foundations are used for durability and structural performance.<br /> <br /> The outer timber façade is fixed to a secondary steel sub-structure. A custom bolted half-spherical joint system connects the outer steel sub-structure to the inner building framework. This joint allows timber members to be installed at different angles and depths, supporting the fragmented and fluid geometry of the façade. The use of bolted connections also improves maintainability, as individual components can be adjusted, repaired, replaced, or removed without dismantling the whole façade.<br /> <br /> == Environmental design ==<br /> <br /> The environmental strategy combines passive and active design measures. Skylights and curtain walling are used to bring daylight deep into the museum, reducing the need for artificial lighting during daytime operation. High-performance glazing, bird-safe glass, insulated walls, and thermally improved curtain wall systems help control solar gain, reduce winter heat loss, and improve occupant comfort.<br /> <br /> Energy-efficient HVAC systems and passive solar heating strategies are proposed to support the building’s operational performance. The internal layout allows environmental demand to vary according to occupancy, programme, gallery type, and seasonal use.<br /> <br /> The green roof is designed as a layered system. It includes planting, engineered soil, filter fabric, moisture-retention layers, insulation, drainage, and structural support. These layers help retain rainwater, reduce irrigation demand, support biodiversity, and reduce urban heat island effects. Rain gardens, porous asphalt, rainwater storage, and underdrainage systems further support water management across the site.<br /> <br /> == Circular economy and afterlife ==<br /> <br /> The project considers future adaptation and circular economy principles. The steel frame, CLT panels, timber façade pieces, curtain wall units, and movable partitions all have potential for maintenance, replacement, disassembly, or reuse. The façade system is especially important in this respect because the timber elements are connected through a secondary steel support system and bolted joint components rather than being treated as a permanent monolithic skin.<br /> <br /> The flexible gallery layout also supports a longer building life. Instead of requiring major construction work whenever the museum’s programme changes, movable walls and adaptable spaces allow the building to accommodate different uses over time. In the future, the building could potentially be adapted as a design school, cultural centre, event venue, research hub, creative workspace, or mixed-use public building.<br /> <br /> == Significance ==<br /> <br /> Woven Current proposes a museum model that is simultaneously cultural, environmental, and urban. It challenges the traditional idea of the museum as a sealed container for objects and instead presents the museum as a flexible civic landscape. Through its woven timber façade, adaptable internal galleries, green roof systems, flood-resilient landscape, and public waterfront strategy, the project explores how architecture can respond to climate, context, material culture, and future change.<br /> <br /> The proposal’s main contribution lies in the relationship between adaptability and resilience. Its architectural identity is shaped by change, movement, and flexibility, while its technical strategy focuses on durability, environmental performance, and long-term civic use. In this sense, the project imagines the Helsinki Design Museum as both a cultural landmark and an evolving piece of urban infrastructure.<br /> <br /> == Project information ==<br /> <br /> * Project title: Woven Current - Helsinki Design Museum<br /> * Original competition title: Museum of Future Building, Design Competition in Helsinki, Finland - Stage I<br /> * Location: Helsinki, Finland<br /> * Project type: Conceptual design/competition proposal<br /> * Status: Unbuilt / competition proposal<br /> * Gross floor area: Approximately 8,443 sq m<br /> * Net floor area: Approximately 6,867 sq m<br /> * Main functions: Museum, exhibition galleries, café, event space, performance space, research centre, library, workshop, office, public terrace, garden, logistics and technical spaces<br /> * Main materials: Recyclable timber façade, steel frame, CLT panels, low-carbon concrete, thermally improved curtain walling, bird-friendly glass, XPS insulation, green roof layers, porous asphalt, rain garden planting<br /> * Design focus: Adaptive museum design, waterfront resilience, timber façade systems, circular economy, sustainable materials, public landscape, flexible gallery space<br /> * Designers: Tsz Kiu Felix Wong, Luan Fontes, Andreas Palfinger, Aryaman Garg, Ana Cyano, Nele Herrmann</div>

Tsz Kiu Felix Wong https://www.designingbuildings.co.uk/wiki/Woven_Current_-_Helsinki_Design_Museum 2026-05-04T19:15:36Z

<p>Tsz Kiu Felix Wong: Created page with &quot;= Woven Current - Helsinki Design Museum = Woven Current - Helsinki Design Museum is a conceptual architectural proposal for a new design museum in Helsinki, Finland. The projec...&quot;</p> <hr /> <div>= Woven Current - Helsinki Design Museum =<br /> <br /> Woven Current - Helsinki Design Museum is a conceptual architectural proposal for a new design museum in Helsinki, Finland. The project was developed as part of the Museum of Future Building, Design Competition in Helsinki, Finland - Stage I. The proposal explores how a museum can become more than a closed cultural institution by operating as an urban connector, waterfront landscape, public interior, and resilient civic infrastructure.<br /> <br /> The project is located on Helsinki’s waterfront and responds to the city’s relationship with the sea, public space, cultural identity, and changing environmental conditions. Rather than treating the museum as a standalone object, the design extends the museum experience into the surrounding landscape through outdoor routes, green roofs, flood-resilient zones, terraces, public activity areas, and visual connections to the harbour.<br /> <br /> == Concept ==<br /> <br /> The concept is based on the contrast between a cold, iceberg-like internal volume and a warm, woven exterior shell. This duality reflects both Helsinki’s winter climate and the tactile qualities of Finnish craft traditions. The outer envelope is inspired by woven fabrics, baskets, timber craft, and the movement of schools of fish. These references are translated into a dynamic façade system composed of recyclable timber elements.<br /> <br /> The project aims to blur the boundary between built and unbuilt space. Public landscape, museum circulation, exhibition areas, café spaces, terraces, and civic routes are treated as connected parts of one urban experience. The museum is therefore proposed not only as a building for displaying design, but also as a place where design, public life, environmental performance, and urban movement overlap.<br /> <br /> == Urban and landscape strategy ==<br /> <br /> The site strategy responds to the waterfront condition by creating a continuous public edge between the city and the harbour. The building is set within a landscape of pathways, green roof areas, flood-protection zones, bicycle parking, public health spaces, skateboarding areas, climbing zones, and outdoor gathering spaces.<br /> <br /> The landscape design supports both public use and environmental resilience. Flood-resistant zones and varied ground levels are introduced to address future sea-level rise and coastal exposure. Approximately 35% of the project area is proposed as green roof or flood-resilient landscape, helping to manage stormwater, reduce heat island effect, and create additional public and ecological value.<br /> <br /> == Programme and spatial organisation ==<br /> <br /> The museum programme combines exhibition, education, research, public events, commercial activity, and building support functions. The main spaces include:<br /> <br /> * Entrance and reception<br /> * Foyer and lobby<br /> * Museum shop<br /> * Café<br /> * Exhibition galleries<br /> * Event space<br /> * Performance room<br /> * Conference room<br /> * Workshop areas<br /> * Library and research centre<br /> * Office and staff areas<br /> * Archives<br /> * Logistics and preparation areas<br /> * Technical rooms<br /> * Public terraces and garden spaces<br /> <br /> The project has a gross floor area of approximately 8,443 sq m and a net floor area of approximately 6,867 sq m. The organisation separates public, semi-private, private, staff, logistics, and emergency routes while maintaining a flexible circulation network. This allows the museum to support visitors, staff, exhibition handling, maintenance, events, and emergency access without relying on a single fixed route. Because apparently even museums need traffic management, not just nice staircases.<br /> <br /> == Flexible exhibition strategy ==<br /> <br /> A key part of the proposal is adaptability. The building includes experimental gallery spaces that can be adjusted in width and length through movable wall systems. This allows exhibition rooms to change according to different curatorial needs, including large installations, temporary exhibitions, workshops, conferences, public events, office use, and community programmes.<br /> <br /> The first level includes a high, approximately 10-metre-tall space suitable for large design pieces and installations. Upper levels provide lower ceiling heights, approximately 6 metres and 4.5 metres, allowing a range of exhibition scales and spatial atmospheres. This variation creates flexibility across the building while reducing the need for repeated demolition or reconstruction when programmes change.<br /> <br /> == Façade and material concept ==<br /> <br /> The façade is formed from nearly 20,000 recyclable timber pieces arranged as a woven outer shell. This shell wraps around the colder, more controlled inner building volume and creates a strong contrast between exterior warmth and interior clarity. From close range, the façade reads as individual timber elements; from further away, it appears as a flowing surface shaped by movement, water, and craft.<br /> <br /> The material palette includes:<br /> <br /> * Recyclable timber façade components<br /> * Steel structural framework<br /> * CLT wood panels<br /> * Low-carbon concrete slabs<br /> * Thermally improved curtain walling<br /> * Bird-friendly glazing<br /> * XPS insulation<br /> * Green roof build-up layers<br /> * Porous asphalt<br /> * Rain gardens and underdrainage systems<br /> <br /> The project prioritises durable, locally sourced, and lower-impact materials where possible. The boards describe the intention to source materials within a 160 km radius, supporting regional supply chains and reducing transport-related emissions.<br /> <br /> == Construction and structural strategy ==<br /> <br /> The building uses a hybrid structural approach. Steel framing provides the primary structural support for the floors and shell, while CLT panels and timber façade elements contribute to the architectural character and carbon-conscious material strategy. Low-carbon concrete slabs and foundations are used for durability and structural performance.<br /> <br /> The outer timber façade is fixed to a secondary steel sub-structure. A custom bolted half-spherical joint system connects the outer steel sub-structure to the inner building framework. This joint allows timber members to be installed at different angles and depths, supporting the fragmented and fluid geometry of the façade. The use of bolted connections also improves maintainability, as individual components can be adjusted, repaired, replaced, or removed without dismantling the whole façade.<br /> <br /> == Environmental design ==<br /> <br /> The environmental strategy combines passive and active design measures. Skylights and curtain walling are used to bring daylight deep into the museum, reducing the need for artificial lighting during daytime operation. High-performance glazing, bird-safe glass, insulated walls, and thermally improved curtain wall systems help control solar gain, reduce winter heat loss, and improve occupant comfort.<br /> <br /> Energy-efficient HVAC systems and passive solar heating strategies are proposed to support the building’s operational performance. The internal layout allows environmental demand to vary according to occupancy, programme, gallery type, and seasonal use.<br /> <br /> The green roof is designed as a layered system. It includes planting, engineered soil, filter fabric, moisture-retention layers, insulation, drainage, and structural support. These layers help retain rainwater, reduce irrigation demand, support biodiversity, and reduce urban heat island effects. Rain gardens, porous asphalt, rainwater storage, and underdrainage systems further support water management across the site.<br /> <br /> == Circular economy and afterlife ==<br /> <br /> The project considers future adaptation and circular economy principles. The steel frame, CLT panels, timber façade pieces, curtain wall units, and movable partitions all have potential for maintenance, replacement, disassembly, or reuse. The façade system is especially important in this respect because the timber elements are connected through a secondary steel support system and bolted joint components rather than being treated as a permanent monolithic skin.<br /> <br /> The flexible gallery layout also supports a longer building life. Instead of requiring major construction work whenever the museum’s programme changes, movable walls and adaptable spaces allow the building to accommodate different uses over time. In the future, the building could potentially be adapted as a design school, cultural centre, event venue, research hub, creative workspace, or mixed-use public building.<br /> <br /> == Significance ==<br /> <br /> Woven Current proposes a museum model that is simultaneously cultural, environmental, and urban. It challenges the traditional idea of the museum as a sealed container for objects and instead presents the museum as a flexible civic landscape. Through its woven timber façade, adaptable internal galleries, green roof systems, flood-resilient landscape, and public waterfront strategy, the project explores how architecture can respond to climate, context, material culture, and future change.<br /> <br /> The proposal’s main contribution lies in the relationship between adaptability and resilience. Its architectural identity is shaped by change, movement, and flexibility, while its technical strategy focuses on durability, environmental performance, and long-term civic use. In this sense, the project imagines the Helsinki Design Museum as both a cultural landmark and an evolving piece of urban infrastructure.<br /> <br /> == Project information ==<br /> <br /> Project title: Woven Current - Helsinki Design Museum&lt;br /&gt;<br /> Original competition title: Museum of Future Building, Design Competition in Helsinki, Finland - Stage I&lt;br /&gt;<br /> Location: Helsinki, Finland&lt;br /&gt;<br /> Project type: Conceptual design/competition proposal&lt;br /&gt;<br /> Status: Unbuilt / competition proposal&lt;br /&gt;<br /> Gross floor area: Approximately 8,443 sq m&lt;br /&gt;<br /> Net floor area: Approximately 6,867 sq m&lt;br /&gt;<br /> Main functions: Museum, exhibition galleries, café, event space, performance space, research centre, library, workshop, office, public terrace, garden, logistics and technical spaces&lt;br /&gt;<br /> Main materials: Recyclable timber façade, steel frame, CLT panels, low-carbon concrete, thermally improved curtain walling, bird-friendly glass, XPS insulation, green roof layers, porous asphalt, rain garden planting&lt;br /&gt;<br /> Design focus: Adaptive museum design, waterfront resilience, timber façade systems, circular economy, sustainable materials, public landscape, flexible gallery space&lt;br /&gt;<br /> Designers: Tsz Kiu Felix Wong, Luan Fontes, Andreas Palfinger, Aryaman Garg, Ana Cyano, Nele Herrmann</div>

Tsz Kiu Felix Wong https://www.designingbuildings.co.uk/wiki/User:Tsz_Kiu_Felix_Wong 2026-04-29T23:24:55Z

<p>Tsz Kiu Felix Wong: </p> <hr /> <div>Tsz Kiu Felix Wong is an architectural designer and founder of T.K. Felix Wong Studio, an emerging practice focused on architecture, interiors, landscape, and sustainable design.<br /> <br /> His work is grounded in tectonic clarity, material intelligence, and context-responsive thinking, with a particular interest in timber construction, civic space, and environmentally responsible architecture. He has gained professional experience across internationally recognised studios, including Shigeru Ban Architects, Kengo Kuma &amp;amp; Associates, SOM, Aedas, and Gensler, contributing to projects through design research, modelling, visualisation, façade studies, and urban analysis.<br /> <br /> Alongside practice, he is actively involved in built-environment and sustainability initiatives through volunteer and committee roles related to LEED v5, the International Green Construction Code, magnesium oxide board standards, and ASHRAE Guideline 14, reflecting a wider commitment to the environmental and technical advancement of architecture.<br /> <br /> Featured Projects by Tsz Kiu Felix Wong:<br /> <br /> - Woven Current (Helsinki Design Museum Competition)<br /> <br /> - Dunbar Maritime Culture House (Final Year Project at ESALA)<br /> <br /> - ReFrame Kharkiv (NFF Kharkiv Housing Challenge Competition)<br /> <br /> - The Reading Ring (Tiny Library Competition 2023)</div>

Tsz Kiu Felix Wong https://www.designingbuildings.co.uk/wiki/User:Tsz_Kiu_Felix_Wong 2026-04-29T23:18:01Z

<p>Tsz Kiu Felix Wong: </p> <hr /> <div>Tsz Kiu Felix Wong is an architectural designer and founder of T.K. Felix Wong Studio, an emerging practice focused on architecture, interiors, landscape, and sustainable design.<br /> <br /> His work is grounded in tectonic clarity, material intelligence, and context-responsive thinking, with a particular interest in timber construction, civic space, and environmentally responsible architecture. He has gained professional experience across internationally recognised studios, including Shigeru Ban Architects, Kengo Kuma &amp;amp; Associates, SOM, Aedas, and Gensler, contributing to projects through design research, modelling, visualisation, façade studies, and urban analysis.<br /> <br /> Alongside practice, he is actively involved in built-environment and sustainability initiatives through volunteer and committee roles related to LEED v5, the International Green Construction Code, magnesium oxide board standards, and ASHRAE Guideline 14, reflecting a wider commitment to the environmental and technical advancement of architecture.<br /> <br /> Featured Projects by Tsz Ku Felix Wong:<br /> <br /> - Woven Current (Helsinki Design Museum Competition)<br /> <br /> - Dunbar Maritime Culture House (Final Year Project at ESALA)<br /> <br /> - ReFrame Kharkiv (NFF Kharkiv Housing Challenge Competition)<br /> <br /> - The Reading Ring (Tiny Library Competition 2023)</div>

Tsz Kiu Felix Wong https://www.designingbuildings.co.uk/wiki/User:Tsz_Kiu_Felix_Wong 2026-04-29T23:16:59Z

<p>Tsz Kiu Felix Wong: </p> <hr /> <div>Tsz Kiu Felix Wong is an architectural designer and founder of T.K. Felix Wong Studio, an emerging practice focused on architecture, interiors, landscape, and sustainable design.<br /> <br /> His work is grounded in tectonic clarity, material intelligence, and context-responsive thinking, with a particular interest in timber construction, civic space, and environmentally responsible architecture. He has gained professional experience across internationally recognised studios, including Shigeru Ban Architects, Kengo Kuma &amp;amp; Associates, SOM, Aedas, and Gensler, contributing to projects through design research, modelling, visualisation, façade studies, and urban analysis.<br /> <br /> Alongside practice, he is actively involved in built-environment and sustainability initiatives through volunteer and committee roles related to LEED v5, the International Green Construction Code, magnesium oxide board standards, and ASHRAE Guideline 14, reflecting a wider commitment to the environmental and technical advancement of architecture.<br /> <br /> Featured Projects by Tsz Ku Felix Wong:<br /> <br /> - Woven Current (Helsinki Design Museum Competition)<br /> <br /> - ReFrame Kharkiv (NFF Kharkiv Housing Challenge Competition)</div>

Tsz Kiu Felix Wong https://www.designingbuildings.co.uk/wiki/User:Tsz_Kiu_Felix_Wong 2026-04-29T23:16:07Z

<p>Tsz Kiu Felix Wong: </p> <hr /> <div>Tsz Kiu Felix Wong is an architectural designer and founder of T.K. Felix Wong Studio, an emerging practice focused on architecture, interiors, landscape, and sustainable design.<br /> <br /> His work is grounded in tectonic clarity, material intelligence, and context-responsive thinking, with a particular interest in timber construction, civic space, and environmentally responsible architecture. He has gained professional experience across internationally recognised studios, including Shigeru Ban Architects, Kengo Kuma &amp;amp; Associates, SOM, Aedas, and Gensler, contributing to projects through design research, modelling, visualisation, façade studies, and urban analysis.<br /> <br /> Alongside practice, he is actively involved in built-environment and sustainability initiatives through volunteer and committee roles related to LEED v5, the International Green Construction Code, magnesium oxide board standards, and ASHRAE Guideline 14, reflecting a wider commitment to the environmental and technical advancement of architecture.<br /> <br /> Featured Projects by Tsz Ku Felix Wong:<br /> <br /> - ReFrame Kharkiv (NFF Kharkiv Housing Challenge Competition)</div>

Tsz Kiu Felix Wong https://www.designingbuildings.co.uk/wiki/User:Tsz_Kiu_Felix_Wong 2026-04-29T21:49:13Z

<p>Tsz Kiu Felix Wong: </p> <hr /> <div>Tsz Kiu Felix Wong is an architectural designer and founder of T.K. Felix Wong Studio, an emerging practice focused on architecture, interiors, landscape, and sustainable design.<br /> <br /> His work is grounded in tectonic clarity, material intelligence, and context-responsive thinking, with a particular interest in timber construction, civic space, and environmentally responsible architecture. He has gained professional experience across internationally recognised studios, including Shigeru Ban Architects, Kengo Kuma &amp;amp; Associates, SOM, Aedas, and Gensler, contributing to projects through design research, modelling, visualisation, façade studies, and urban analysis.<br /> <br /> Alongside practice, he is actively involved in built-environment and sustainability initiatives through volunteer and committee roles related to LEED v5, the International Green Construction Code, magnesium oxide board standards, and ASHRAE Guideline 14, reflecting a wider commitment to the environmental and technical advancement of architecture.</div>

Tsz Kiu Felix Wong https://www.designingbuildings.co.uk/wiki/User:Tsz_Kiu_Felix_Wong 2026-04-29T21:46:46Z

<p>Tsz Kiu Felix Wong: </p> <hr /> <div>Tsz Kiu (Felix) Wong is an architectural designer and founder of T.K. Felix Wong Studio, an emerging practice focused on architecture, interiors, landscape, and sustainable design.<br /> <br /> His work is grounded in tectonic clarity, material intelligence, and context-responsive thinking, with a particular interest in timber construction, civic space, and environmentally responsible architecture. He has gained professional experience across internationally recognised studios, including Shigeru Ban Architects, Kengo Kuma &amp;amp; Associates, SOM, Aedas, and Gensler, contributing to projects through design research, modelling, visualisation, façade studies, and urban analysis.<br /> <br /> Alongside practice, he is actively involved in built-environment and sustainability initiatives through volunteer and committee roles related to LEED v5, the International Green Construction Code, magnesium oxide board standards, and ASHRAE Guideline 14, reflecting a wider commitment to the environmental and technical advancement of architecture.</div>

Tsz Kiu Felix Wong