Guide for longevity and flexibility in interior architecture

IntroductionResearch in sustainable interior architecture increasingly emphasizes the use of quantifiable metrics to evaluate environ-mental performance and efficiency. Foundational resources, such as Winship’s
Guide for longevity and flexibility in interior architecture
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This study proposes a sustainable interior design framework using efficiency ratios to assess energy, water, materials, carbon footprint, and social impact. Comparative analysis identifies key sustainability strategies for improving environmental performance and resource efficiency.

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Humanities
Humanities and Social Sciences > Humanities
Architecture
Humanities and Social Sciences > Arts > Architecture
Building Construction and Design
Technology and Engineering > Civil Engineering > Building Construction and Design
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Spatio-temporal Big Data: Enabling Urban Land Use and Climate Change for Sustainability

With the acceleration of global urbanization and the intensification of climate change, cities are facing unprecedented challenges and opportunities. Urban land use patterns not only directly affect the economic, social, and environmental sustainability of cities but also determine their adaptive capacity and resilience to climate change. Meanwhile, extreme weather events, rising temperatures, and sea-level rise brought about by climate change pose higher demands on urban land use and infrastructure. Therefore, how to address climate change through optimized land use and enhanced urban resilience has become a key issue for urban sustainable development.

In recent years, the rapid development of spatio-temporal big data technology has provided new ideas and tools for solving this complex problem. Spatio-temporal big data, encompassing various data sources such as Geographic Information Systems (GIS), remote sensing, Internet of Things (IoT), and mobile data, offers high-resolution and multi-dimensional spatio-temporal information. These data not only enable more precise monitoring and analysis of urban land use changes but also reveal the mechanisms by which climate change impacts urban systems. Moreover, combined with advanced analytical techniques such as machine learning, deep learning, and statistical modeling, spatio-temporal big data can provide scientific evidence for urban planning, policy-making, and resource management, thereby facilitating the achievement of urban sustainable development goals.

This collection aims to gather cutting-edge research findings on the application of spatio-temporal big data in urban land use and climate change, exploring how data-driven approaches can optimize urban land use, enhance urban resilience, and promote urban sustainable development. We welcome researchers from multidisciplinary fields such as geographical sciences, urban planning, environmental science, climate science, and data science to submit original research papers, review articles, and case studies to jointly advance the theoretical and practical development of this interdisciplinary field.

The research collected in this series includes, but is not limited to, the following topics:

1. Application of Spatio-temporal Big Data in Urban Land Use Monitoring and Assessment

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2. Impact of Climate Change on Urban Land Use

- Impacts of extreme weather events on urban land use and corresponding responses

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3. Application of Spatio-temporal Big Data in Urban Climate Resilience

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5. Interdisciplinary Research on Spatio-temporal Big Data

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Keywords:Spatio-temporal Big Data; Urban Land Use; Climate Change; Urban Planning; Sustainable Development; Urban Economics; Machine Learning; Carbon Emissions; Ecosystem Services; Urban Resilience, Smart Cities

Publishing Model: Open Access

Deadline: Dec 30, 2026

Urban Futures: Strategies for Decarbonized, Resilient, and Equitable Cities

Cities stand at the forefront of the global sustainability challenge. This Collection explores how urban areas can become drivers of climate action, social equity, and systemic transformation. Drawing from contributions presented at the Urban Futures Symposium 2025 (hosted by the Urban Energy Systems Laboratory at Empa, Switzerland), this Collection brings together research, practice, and policy insights on how to build decarbonized, resilient, and equitable cities.

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This Collection supports and amplifies research related to SDG 11 (Sustainable Cities and Communities), SDG 7 (Affordable and Clean Energy), SDG 13 (Climate Action), SDG 12 (Responsible Consumption and Production), and SDG 10 (Reduced Inequalities).

Publishing Model: Open Access

Deadline: Dec 31, 2026