Tag: doris-kim-sung | ArchDaily

Understanding Soft Architecture: The Shift from Monument to Moment

Diogo Borges Ferreira — Wed, 04 Jun 2025 07:30:00 +0000

In recent years, architecture has increasingly embraced adaptability, flexibility, and responsiveness as core design principles. This evolution reflects a shift from traditional notions of static, permanent structures to dynamic environments that can adjust to changing needs and conditions. Central to this transformation is the concept of "soft architecture", which leverages pliable materials and innovative systems to create spaces that are functional, sustainable, and user-centric. Soft architecture takes shape through membranes that breathe, façades that move, structures that inflate or fold, and surfaces that bend rather than break. It involves designing for transformation — not only in how a building performs environmentally, but also in how it can accommodate shifting functions, user interactions, or temporary occupations. This approach to building challenges traditional notions of durability and control, proposing instead a more responsive and open-ended architecture. It reflects a growing awareness that buildings, like the societies they serve, must be able to evolve.

When Biology Inspires Architecture: An Interview with Doris Kim Sung

Andrew Galloway — Wed, 14 May 2014 01:00:00 +0000

Material Minds, presented by ArchDaily Materials, is our new series of short interviews with architects, designers, scientists, and others who use architectural materials in innovative ways. Enjoy!

TEDx: Metal that breathes / Doris Kim Sung

Karissa Rosenfield — Wed, 14 Nov 2012 15:00:34 +0000

Biology student turn architect, Doris Kim Sung has dedicated her studies to the infinite possibilities of thermobimetals, smart materials that respond dynamically to temperature change. As tested with DO|SU Studio Architecture’s recent installation “Bloom”, whose surface is completely fabricated with thermobimetal, these smart materials are capable of relieving our dependence on energy-inefficient mechanical systems with their self-shading and self-ventilating properties.