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indicators and, therefore, require a considered approach to materiality. For example, some projects are driven by speed and cost efficiency, and therefore, integrate the use of more conventional materials. Another example includes the use of modular construction to standardise specific neighbourhoods with a pre- determined set of approved materials that contributes to its overall aesthetics.


On the other hand, some projects can be more explorative when clients are looking for uniqueness, or to set their design apart by creating a memorable destination. Parametric design and technology have facilitated the interrogation and exploration of new shapes, cladding and other elements from the same materials. In that respect, I would say today’s architecture has


brought about opportunities for unique expression and use of materials like never before.


Tell us about your current projects that showcase interesting use of materials. I am currently developing two projects that integrate wood as a primary structural material. The first is a resort in the Maldives that explores shapes and structures inspired by marine life with glulam [glued laminated timber] and bamboo elements. With the help of parametric design software, the wood assemblies explore organic shapes that are constructed, deconstructed and prefabricated off-site. Designing this resort really considers all aspects of the material lifecycle, with a focus on what can be shipped in containers and built easily on-site.


The second project is a rooftop bar for a grade A office tower in Singapore. The structure features CLT [cross laminated timber] with an intent to express its raw materiality and provide a unique bare shell to the tenants. Wood is more flexible in terms of fire compliance [timber that is used in construction can be reasonably fire-resistant], so it needs less layers of protection and the inner beauty of the material can be more revealed.


On a smaller scale, I am building a private home in India that uses rammed earth. The process repurposes the soil excavated from the basement mixed with lime to build load-bearing walls to support three storeys. The texture and the colours that this material produces are stunning; not to mention the great thermal performance it achieves. For this reason, we have considered non-air-conditioned common living areas with enough built-in cross ventilation to maintain thermal comfort.


What do you hope to see in Asia’s built environment in the near future? After being fortunate enough to live, work and design from home over the past year, and with plenty of time to reflect on life’s priorities, I look forward to public spaces, architecture and built environments that inspire, value and respect the inextricable connection between nature and people. I hope to see the use of more sustainable materials such as MET, as well as holistic incorporation of landscaping and plants as a central component of the material palette.


Mass timber and steel composites to reduce the stress range in the hangers and improve fatigue performance


Image courtesy of B+H


Plants and flora are incredibly impactful on a façade while also contributing to the overall health and well-being of occupants. Even when considering design drivers such as space and cost efficiency, advancements in technology have provided us with the opportunity to explore new and alternative approaches to creating environments that are more sensitive to their local context. It is incontestable that there should be an emphasis on human-centric design that can create social spaces for people to come together and fulfil their innate desire for connectivity.


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