What happened
Ekoyapı Dergisi has set out 12 technologies and business models influencing how lower-impact buildings may be designed, built and managed. The selection ranges from materials and building services to circular-economy models and carbon management.
Its material-focused examples include concrete formulations designed to cut embodied emissions through alternative binders, recycled feedstocks, renewable-energy production and reduced cement use. Ultra-high-performance concrete could also lower material use and maintenance needs in some infrastructure and strengthening work.
The list also covers mass timber systems, including cross-laminated timber and other engineered wood products, alongside higher-performing insulated glazing, metal façade systems and fire-protection products with lower global-warming potential. The article notes that the climate performance of engineered timber depends on factors including forest management, feedstock origin, manufacturing energy, adhesives, transport and service life.
Construction methods feature prominently. Prefabrication and modular building move components or larger units into factory settings, where material planning, waste reduction and quality control can be managed more closely. Designs that can be dismantled or reconfigured may also help buildings adapt to changing needs.
Other approaches address building operation and wider infrastructure. These include water-based radiant heating and cooling, nature-based urban systems such as green roofs and rain gardens, and low- or ultra-low-VOC surface finishes. The overview also considers product-as-a-service arrangements, under which manufacturers retain responsibility for maintenance, reuse or recycling after a period of use.
Finally, it identifies green hydrogen and carbon capture, storage and use as potential tools for reducing emissions from energy-intensive materials such as steel, glass and cement. Captured carbon dioxide can be stored in geological formations or used in production processes, including concrete applications.
Why it matters
For building-sector businesses, the article shifts attention beyond a building’s energy consumption in use. Material extraction, manufacturing, logistics, on-site waste, maintenance, adaptability and eventual reuse all affect a project’s overall environmental footprint.
This has implications for architects, developers, contractors and suppliers choosing products and construction methods. Better insulation, glazing and mechanical systems can influence operational energy demand, while material and procurement choices affect embodied emissions. Modular construction and service-based product models could also change how firms plan installations, maintenance and recovery of components.
The source does not set out regulatory obligations, targets or deadlines. Instead, it presents the 12 areas as options that need to be considered together rather than as stand-alone solutions.
Background
The overview describes sustainability in construction as a lifecycle issue. In this framing, performance is not limited to efficiency after completion: it also includes where materials come from, emissions associated with their manufacture, construction waste, the ability to alter a building over time and whether components can be recovered at the end of use.
