Is the future flat-packed?

Open shelving has been a prominent kitchen cabinetry trend in recent years, favored for its ability to create a brighter, more spacious, and stylish kitchen aesthetic. However, the practicality of extensive open shelving, with its susceptibility to clutter, dust, and grease buildup, has led designers and homeowners to question its longevity. As of 2026, experts suggest that the era of expansive open shelving is drawing to a close, with a shift towards more restrained and intentional applications. Interior designers Natalia Lerman, Taylor Abess, and Brittny Button agree that the trend is evolving. Instead of long, dominant runs of open shelves, the focus is now on curated, built-in moments that integrate seamlessly into the kitchen's architecture. This means open shelving will be used more sparingly, for instance, around windows to maximize natural light or as intentional breaks in cabinetry to foster a sense of openness. The emphasis is on balancing aesthetics with functionality, leading to a "less, but better" approach where shelves feel like an intrinsic part of the millwork rather than a replacement for it. While the airy and open look provided by open shelving remains desirable, its practical limitations have paved the way for alternative design solutions. Designers anticipate an increased presence of glass-front cabinets, decorative cabinet door fronts, and cabinet-free spaces where the backsplash extends upwards for a more dramatic visual impact. Glass-front cabinets are particularly highlighted as a functional alternative, offering both display opportunities and enclosed storage, thereby striking a balance between an open feel and the necessity for concealed storage in a kitchen setting. Beyond the re-evaluation of open shelving, several other kitchen cabinet trends are gaining traction for 2026. Material contrast and thoughtful texture are becoming key, with designers incorporating diverse materials like wood and painted finishes, as well as textured cabinet door inserts, to create tactile and visually interesting kitchens. Freestanding repurposed or upcycled cabinets, often featuring arched designs, are also trending. These pieces, aligning with the growing popularity of thrifting, can be used to display dishes, serveware, or pantry items, contributing to a lived-in, cozy, and curated ambiance. Glass-front cabinets are reiterated as a significant trend, providing a practical yet aesthetically pleasing solution for displaying select items while maintaining a light and airy feel in the kitchen. #KitchenDesign #OpenShelving #InteriorDesignTrends #Cabinetry #HomeDecor #GlassFrontCabinets #MaterialContrast #RepurposedFurniture

The article discusses the anticipated transformations in interior design by 2050, driven by increasing urbanization and the critical need for sustainability. With 55% of the global population residing in urban areas in 2018, projected to reach 68% by 2050, the focus is on mitigating environmental degradation and social inequality caused by rapid urban growth. Designers are increasingly prioritizing sustainability and efficient space utilization to accommodate more people in smaller footprints with reduced environmental impact. A significant shift is expected in material usage, moving away from energy-intensive options like cement, glass, brick, and steel towards more sustainable alternatives such as stone, rammed earth, hollow concrete, and wood. This change is crucial given that the cement industry is one of the most energy-intensive manufacturing sectors. Future interiors are envisioned to feature more natural materials, aligning with local climates to reduce embodied energy and transportation costs. This localized approach allows for the integration of passive solar design and passive cooling strategies, thereby decreasing reliance on artificial heating and air conditioning. Technological advancements are central to these future interiors. Building Information Modeling (BIM) is expected to play a critical role in planning and execution, facilitating detailed design, minimizing waste, reducing costs, and enhancing sustainability. Energy modeling software will be used to optimize energy efficiency in buildings. Beyond new constructions, retrofitting existing structures will be a key trend, supported by the integration of smart building technology and the Internet of Things (IoT). These systems will automate energy management, prevent food and water waste, and enhance security, potentially replacing traditional keys with mobile access technologies. Aesthetically, future interiors will likely embrace minimalism and biophilic design, reflecting the emphasis on sustainable practices and reduced resource consumption. White and beige palettes, clean shapes, and simple forms in furniture are anticipated. The integration of vertical gardens, green roofs, and living plants will further connect indoor spaces with nature, reinforcing the commitment to sustainability. The growing trend of micro-living in urban areas will drive innovation in multi-functional spaces. Designers will employ efficient built-in storage, open-plan layouts with optimized lighting, and transformable elements like retractable walls and multi-purpose furniture to maximize space utility. These adaptable solutions will be seamlessly integrated with smart building technologies, allowing for automated transformations controlled by mobile applications. Overall, future interiors will be characterized by a synergistic integration of sustainability, technology, and efficiency, aiming to create more flexible, inclusive, and environmentally responsible urban environments. #InteriorDesign #FutureInteriors #Sustainability #Urbanization #GreenBuilding #SmartHome #BuildingInformationModeling #BiophilicDesign #SpaceEfficiency

This article, part two of a two-part series, explores the potential and challenges of using flexible fabric formworks for concrete structures, building upon an earlier introduction to this method. Historically, innovators like Heinz Isler and Antoni Gaudi used similar flexible concepts to visualize shell structures, and woven geotextiles have been employed in civil engineering for applications such as revetments and underwater pile jackets. Research indicates that geotextiles offer benefits including superior concrete finish and durability, exceptional strength, and cost-effectiveness. Additionally, fabric form liners have been shown to improve the surface quality of cast concrete members. However, despite these advantages and decades of experimentation, significant research is still needed to integrate flexible fabric formworks into mainstream construction practices. Computational analysis of structural members cast directly into flexible membranes remains a complex challenge, and straightforward methods of analysis and design, common for conventional concrete panels, are not yet established for fabric-formed concrete. The article highlights several distinct advantages of using geotextile fabric as formwork, such as the ability to create complex shapes, its strength, lightweight nature, reusability, and cost-effectiveness. Furthermore, the filtering action of the fabric is noted to improve the surface finish and durability of the concrete members, leading to a conservation of materials due to reduced concrete and reinforcing requirements. Conversely, several disadvantages exist, including potential relaxation due to pre-stress forces in the membrane and creep in the geotextile material, which can be exacerbated by temperature increases during concrete hydration. The careful placement of concrete and avoidance of jostling the fabric formwork while the concrete is in a plastic state are also critical considerations. Despite these drawbacks, the benefits of geotextiles are currently believed to outweigh the disadvantages, particularly until new fabric technologies emerge. The widespread adoption of fabric-formed concrete structures is hampered by the lack of established standards and guidelines for their use in both precast and cast-in-place systems. Without these, the method is likely to remain a niche market, embraced primarily by early adopters. Feedback from leading proponents, including Richard Fearn, Professor Remo Pedreschi, and Mark West, suggests that market complexities and a reluctance among builders to adopt unproven systems, especially in a low-bid environment, present significant hurdles. There is an inherent risk associated with new construction methodologies. Nevertheless, Professor Pedreschi frames fabric formwork not as a replacement for traditional methods but as a disruptive technology that offers new opportunities for formwork design. The continuous research and enthusiasm observed at international conferences, which have yielded over 75 papers and presentations, suggest a vibrant academic interest in the field. However, a significant gap remains between academic exploration and practical industry implementation. For fabric formworks to move beyond their current 'niche' status, collaboration between academia and industry is essential, potentially leading to their supplementary use alongside conventional forming methods, leveraging their unique structural advantages. #FabricFormwork #ConcreteConstruction #Geotextiles #ConstructionTechnology #StructuralEngineering #BuildingMaterials #ArchitecturalInnovation #ConstructionIndustryChallenges #FormworkDesign