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In an era of increasing environmental uncertainties, resilient architecture has become a vital approach to designing buildings that can endure and adapt to challenges such as climate change, natural disasters, and resource scarcity. This concept integrates sustainable design principles, advanced materials, and innovative construction techniques to enhance the built environment's durability, flexibility, and efficiency.
By emphasizing adaptability, energy efficiency, and disaster preparedness, resilient architecture extends the structures' lifespan and strengthens community well-being. This conference is a platform to explore cutting-edge research, case studies, and technological advancements that drive the development of resilient built environments, paving the way for a more sustainable and disaster-resistant future.
SUB TOPICS
Human Well-being in Resilient Architecture
Architecture can be an agent of care. Designing for healing addresses how the built environment can facilitate healing, as well as accommodate housing, offices, and other refugee facilities. The focus on well-being in design increasingly reflects innovative approaches to spatial planning and a greater emphasis on sensory elements such as color, light, nature, and air, broadening the understanding of ‘user-friendly’ healing processes. Providing comfortable and safe facilities also depends on well-researched design. How can architects and architecture strengthen the healing process for users, both physically and emotionally? Can architecture establish its own Hippocratic oath to solidify its role in creating and innovating healthy living environments?
Energy Efficiency in Resilient Architecture
Energy efficiency in resilient architecture focuses on creating buildings that withstand environmental challenges and minimize energy consumption. By integrating passive design strategies like maximizing daylight and airflow and using energy-efficient windows, architects can significantly reduce a building's energy demands. Additionally, renewable energy systems such as solar panels, wind turbines, and geothermal systems are often incorporated to enhance energy efficiency. This approach reduces greenhouse gas emissions and contributes to the building's overall durability and comfort, making it a sustainable decision for the future.
Renewable Energy Integration in Resilient Architecture
Integrating renewable energy into resilient architecture represents a significant step toward sustainable living and environmental harmony. By harnessing renewable energy sources—such as solar, wind, and geothermal power—alongside innovative architectural design, buildings can achieve self-sufficiency, energy efficiency, and resilience against climate change impacts. This approach not only reduces carbon footprints but also ensures a reliable power supply during natural disasters, strengthening the resilience of communities. Additionally, incorporating innovative technologies and adaptive materials enhances energy management, optimizing efficiency and adaptability. Resilient architecture infused with renewable energy is a forward-thinking blueprint for a sustainable, durable, and future-ready built environment.
Sustainable Materials and Construction for Resilient Architecture
Material production and construction contribute significantly to global energy consumption and carbon emissions. In response to the climate crisis and increasing resource scarcity, resilient architecture demands a transformative approach to building practices. This involves optimizing material use and replacing carbon-intensive materials with low-embodied, reused, or recycled alternatives. Additionally, emphasis is placed on sourcing local and bio-based materials, adopting efficient construction methods, incorporating off-site and modular techniques, designing for disassembly, applying circular economy principles, and effectively managing construction waste.
Smart technologies for Resilience Architecture
The rapid advancement of digital technologies is reshaping how buildings and urban environments respond to environmental, social, and economic challenges. Smart technologies—such as the Internet of Things (IoT), Artificial Intelligence (AI), and advanced automation systems—play a pivotal role in strengthening architectural resilience by enabling real-time monitoring, predictive analytics, and adaptive responses to disruptions. This subtopic examines how emerging technologies integrate real-time data, facilitate intelligent decision-making, and optimize building performance, ultimately fostering smart, adaptive, and future-ready urban spaces.
Local wisdom in Resilience Architecture
A great deal of local wisdom has been developed in various countries, often with significant contributions from architects. Professional involvement ranges from leading global projects to designing specific interventions tailored to regions. As a result, in areas undergoing transformation, there is often a noticeable improvement in the quality of public spaces and the quality of life of residents. How can traditional knowledge and practices be repurposed in a contemporary context? Some projects may also integrate modern technologies. How can we platform the inherent wisdom of traditions and harness their potential to inspire contemporary sustainable solutions while avoiding mere nostalgia and imitation?
Urban Planning and Design for Resilient Cities
Cities today face a range of complex challenges, including climate change, natural disasters, and social inequalities. To ensure long-term sustainability and resilience, we must develop strategies that enable urban environments to adapt, withstand, and recover from these disruptions.
This subtopic explores key strategies and policies for building resilient cities, including flood risk management, coastal protection against rising sea levels, climate mitigation efforts, improved waste and water management systems, the integration of green spaces, and the promotion of renewable energy. The focus is on urban planning and design approaches that not only enhance a city’s ability to endure shocks but also foster long-term sustainability, equity, and livability for future generations.
Full paper submission deadline: August 4th, 2025
Acceptance announcement : September 4th, 2025
Early Bird registration deadline : September 6th 2025
Latest registration : September 12th, 2025
Conference Day : October 2nd - 3rd, 2025
Post Conference Tour : October 4th, 2025
The Amphitheatre of Q Building - Petra Christian University Campus
(The Conference will be held via online also)
Scientific Committee
Prof. Yun-Shang Chiou, Ph.D. - National Taiwan University of Science and Technology, Taiwan
Assoc. Prof. Dr. Steve Kardinal Jusuf - Singapore Institute of Technology, Singapore
Prof. Dr. Nangkula Utaberta - UCSI University, Malaysia
Mia Tedjosaputro, Ph.D. - Xi'an Jiaotong- Liverpool University, China
Prof. Dr. Ir. Djwantoro Hardjito, M.Eng. - Petra Christian University, Indonesia
Prof. Ir. Lilianny Sigit Arifin, Ph.D - Petra Christian University, Indonesia
Dr. Ir. Joyce M. Laurens, M.Arch. - Petra Christian University, Indonesia
Ir. I Gusti Ngurah Antaryama, Ph.D.- Sepuluh Nopember Institute of Technology, Indonesia
Prof. Ir. Prasasto Satwiko, M.Build.Sc., Ph.D., IAI. - Atma Jaya Yogyakarta University, Indonesia
Prof. Dr. -Ing. L. M. F. Purwanto - Soegijapranata Catholic University, Indonesia
Prof. Dr. Ir. Jefrey I. Kindangen, DEA Architecture - Sam Ratulangi University, Indonesia
Guidelines
All authors must make an oral presentation before their papers are entitled to publication.
The time allocated for a presentation is 15 minutes, with a further 10 minutes allowed for discussion.