Among the "Five Points of New Architecture" formulated by Le Corbusier, terrace gardens figure as a way to take advantage of a building's so-called fifth facade, either as leisure areas or landscaping spaces. Thanks to technological advances in reinforced concrete in the mid-twentieth century, usable flat roofs are far from new. There are traces in Mesopotamia and vernacular architecture from Greek and Arab civilizations. However, problems that frequently arise relate to infiltration and leaks. Water is relentless in finding a place to drain, and flat roofs are exposed to this when execution and design are not carefully thought-out. In fact, as documented in several letters, this was a source of disagreement between the owner and the Swiss-French architect in the case of the influential Villa Savoye. Today, nonetheless, there are good waterproofing options on the market that provide durability, resilience, adaptability and, above all, avoid headaches and fights between builders and owners. Elevate is built on 40 years of history in the production of roofing membranes, as well as insulation and vapor barriers, and develops solutions for waterproofing flat roofs with a low inclination.
MyStreet washbasin in Verde Alpi marble _Design AL Studio. Image Cortesia de antoniolupi
Marble held profound significance in Greek and Roman architecture due to its abundance, luminous surfaces, and subtle veining. Its durability ensured structures' longevity, while its cultural symbolism of purity and divine favor made it ideal for temples, theaters, and amphitheaters. As a symbol of perfection, marble facilitated intricate craftsmanship for decorative elements, inspiring architectural marvels and exquisite art, leaving a legacy of sophistication and refinement.
Today, marble remains a symbol of excellence and refinement, prevalent in contemporary architecture and art. Its timeless beauty and durability continue to captivate clients and designers alike. In sculptures, furniture, and decorative pieces, marble's natural elegance elevates any environment. Companies like antoniolupi integrate marble into their designs, combining creativity and meticulous craftsmanship to redefine the possibilities of this natural stone in innovative projects. The Italian company—a leading designer and manufacturer of high-end products—has ventured beyond conventional boundariesin a quest for innovation, embarking on projects that redefine the possibilities of this naturalstone.
For some, it may be terrifying to think that we inhabit a sphere orbiting the Sun, whose core has temperatures of up to 6,000°C and all human activities are located on the Earth's crust, the smallest layer in thickness, in the so-called tectonic plates. These plates float on the mantle, more precisely in the asthenosphere, and sometimes collide, causing earthquakes. As we can see in this interactive map, earthquakes are much more frequent than we imagine, with dozens occurring daily around the world, many of them unnoticed. But some are extremely potent, and when they occur near urban areas, they are one of the most destructive forces on Earth, causing death and damage to the built environment.
With the advancement of research, tests and experiments in engineering, countries and regions with tectonic activities already have the knowledge to reduce the danger of death and damage caused by these events. Some solutions and materials work better in the event of an earthquake. Wood is one of them.
When discussing sustainability in construction, we are used to an approach based on complex technological solutions, expensive sensors, costly materials and, most recently, artificial intelligence. But what if everything we are looking for (in terms of sustainability) could come from the materials themselves, taking advantage of their intrinsic properties, without even relying on electricity? The use of hygromorphic materials offers an innovative perspective and sheds light on little-explored possibilities in the field. These materials can adapt to variations in environmental humidity, changing their shape, size or other physical properties. Examples in nature include wood, hygroscopic proteins such as collagen, polysaccharides such as cellulose and chitin, hygroscopic minerals such as certain salts and silica gel, as well as spores and pollen grains; all of which exhibit the ability to absorb or release moisture in response to changes in humidity. In architecture, researchers have been striving to develop materials, particularly for façades, that can take on a life of their own and make buildings more comfortable naturally.
The desire for fluid integration between spaces has become increasingly relevant in contemporary architecture. This reflects a search for more connected and harmonious living experiences, especially in urban environments, where the cityscape can saturate us. By transcending conventional boundaries and blurring the lines between interior spaces and the vast outdoors, living environments can be created to celebrate connectivity, sustainability and the well-being that comes from being alongside nature. These types of integration not only make it possible to unite spaces with their surrounding contexts, but also to segment indoor environments when necessary, maintaining a visual connection while keeping them functionally separate. By creating these integrations, architects and designers allow spaces to merge with each other or with nature, promoting a sense of tranquillity, balance and rejuvenation, as well as integration and fluidity—a seamless transition that blurs the distinction between the two. This is achieved through architectural elements such as large windows and doors, which dissolve barriers through the simple action of opening and closing.
When considering traditional brick facades, we usually conjure up images of solidity and robustness. Solid ceramic blocks, recognized for their ability to withstand compression and offer strength and durability to structures, are materials frequently used in architecture. However, innovation in construction materials has made space for solutions that combine tradition and modernity, transforming the use of materials such as brick. In contemporary construction, the integration of solar control measures has become essential to improve the energy efficiency of buildings, especially in hot climates where the need to mitigate the effects of solar radiation is critical. This is one of the areas in which brick can play a significant role, aided by new technologies.
Each piece of furniture, be it a table, a chair, or a sofa, is much more than just a functional element. It is a bearer of stories, a keeper of memories, and a reflection of the craftsmanship of those who brought it to life. When it comes to wooden furniture, this connection with history and skill is even deeper; every grain, knot, and shade tells the story of the tree it came from, and the craftsmanship of the artisans is manifested in the curves and joints. In the contemporary context, where mass production and fast-paced trends tend to standardize the world around us, furniture making remains a beacon of authenticity, and wood continues to be highly prized. It's a haven where exclusivity and connection with the natural are celebrated, resisting the passage of time.
Credits: SpaceClip, Photographer: Mr. Daijiro Okada
In nature, zinc is mainly found as zinc sulphide ore or zinc carbonate, which is mined to obtain the metal. Once refined, it is used in a variety of applications, including metal alloys, battery manufacturing, medicines and supplements, as well as in the fabrication of pigments, chemical compounds and coatings. In the latter, which is used in architectural applications, zinc is well known for its weather resistance and self-healing properties and is highly durable, with a lifespan of up to 100 years, requiring minimal maintenance. In addition, because it is 100% recyclable and has a low environmental impact during its production, zinc is a sustainable choice for construction projects.
Flooring plays a fundamental role in defining the ambiance and atmosphere of a space. Among the variety of options on the market, solid wood plank flooring stands out as a timeless choice. Known for their classic beauty and enveloping textures, these floors not only enhance the visual aspect of a room but also provide exceptional thermal comfort, resistance, and resilience, able to withstand wear and tear and heavy traffic. Their easy maintenance and durability are further markers of their quality, making them one of the favorite choices of architects, designers, and homeowners in search of long-lasting elegance and functionality for their projects.
When we look at a meticulously installed floor, we often forget that it was once part of a tree that was taken through a series of processes to eventually become the flooring product beneath our feet. The round trunk of the tree naturally results in boards of different dimensions, from the wide widths of the central core to the narrower dimensions of the outer layers. Various methods can be used to optimize the use of these trunks, each with its advantages and disadvantages.
Future University of Hakodate (2005). Image Courtesy of Isao Aihara
Transparency, integration and boundaries are key words for understanding the work of Riken Yamamoto. Winner of the Pritzker Prize in 2024, the Japanese architect's work can be recognized for its ability to establish and challenge conventional spatial concepts of materiality, creating spaces that promote interactions and connections between people and their surroundings. Transparency, whether in the physical configuration of the buildings, the choice of materials used or the underlying philosophy applied to all his works, emerges as a central element throughout his career.
In the coming decades, it seems inevitable that architects will increasingly focus on renovations and rehabilitations –especially in established urban centers–, whether to modernize outdated structures or adapt to new uses and demands by contemporary society. A main challenge when executing these types of projects is obtaining a truly reliable working base, including accurate and true-to-life 3D models. Conducting surveys can be a herculean task, requiring extensive hours or days of on-site work and considerable effort to organize and interpret the collected information, often resulting in data that lacks adequate precision.
To simplify these processes, technological advancements have provided a solution: site surveys based on point clouds and 3D scanning, which have the potential to revolutionize the design process. Point clouds are collections of millions or billions of individual measurement points on the surface of objects, which can be obtained through laser scanners, drones, or 3D cameras. Each measurement point contains X, Y, and Z coordinates, as well as other optical properties (reflectance, color). Multiple scanning positions are registered (stitched) to create point clouds of an entire scene, which can be loaded into virtually any CAD platform for standard fieldwork.
Flat and polished surfaces tend to evoke feelings of coldness and sterility, while raw, natural materials can create a sense of warmth and connection. Textures can trigger memories and emotions, connecting us to past experiences and the sense of touch. In the seminal book "The Eyes of the Skin", Juhani Pallasmaa emphasizes the importance of sensory perception in architecture and objects beyond sight, particularly the role of touch and texture in shaping our experience. According to Pallasmaa, contemporary culture, influenced by technology and visual media, has overemphasized the visual aspect of spaces, neglecting other senses, especially touch, which is vital for understanding and appreciating the surrounding environment.
Greenhouses are elegant and ingenious structures that incorporate simplicity in design while creating light-filled spaces that shape indoor climates. With walls and roofs composed mainly of transparent or translucent materials, these structures harness solar energy to create a controlled environment. As advances in materials and environmental management progress, they can seamlessly be integrated into architectural designs, offering innovative solutions that blend functionality with aesthetics. Beyond their original role in plant cultivation, they have evolved into projects that emphasize sustainability, education, and conservation. At their core, they offer experiences of exploration and discovery, showcasing the intricate relationship between sunlight, plants, and indoor environments.
At first glance, Dorte Mandrup's design for the Wadden Sea Center seems to mimic the landscape. Its low height, its horizontal lines and, above all, its materiality make it a modern building in perfect harmony with the local nature. But its connection also encompasses the built heritage of the region, more specifically because of its covering with straw, harvested and dried close to the land. This is an extremely traditional and historic building technique, but which is rarely attributed to contemporary buildings. In this article we will rescue some of the history of this natural material, its constructive characteristics and some examples of use.
As we observe closely spaced parallel lines at a specific angle, we may be deceived by the illusion of a continuous or three-dimensional surface, although they are, in fact, individual lines. This phenomenon arises from the brain's natural tendency to simplify and seek visual patterns, interpreting the proximity of the lines as indicative of a unified ceiling. This illusion is often exploited in suspended ceiling architecture, where successive slats, when viewed at an angle, create the impression of a solid ceiling. This approach not only reduces the use of materials and keeps the infrastructure above the ceiling accessible, but also provides more surfaces for noise absorption, significantly improving the acoustic environment.
Double skin façades: Almost a self-explanatory name for façade systems consisting of two layers, usually glass, wherein air flows through the intermediate cavity. This space (which can vary from 20 cm to a few meters) acts as insulation against extreme temperatures, winds, and sound, improving the building's thermal efficiency for both high and low temperatures. Perhaps one of the most famous examples of double-skin facades is Foster+Partners' 30 St Mary Ax Building, "The Gherkin."
The airflow through the intermediate cavity can occur naturally or be mechanically driven, and the two glass layers may include sun protection devices.
Bricks are part of the collective imagination when thinking about construction. These are elementary, ubiquitous, modular, light, and reliable materials for erecting buildings. However, traditional ceramic block manufacturing relies on burning clay in kilns at high temperatures, often powered by non-renewable fossil fuels such as coal or natural gas. Furthermore, the transportation process significantly increases its environmental footprint, as the materials are heavy and bulky. In light of this, there is a growing interest in alternative construction materials that offer a lower environmental impact and greater sustainability. Soil cement bricks –or Compressed Stabilized Earth Blocks– are a good example of an existing alternative, as they have a smaller environmental footprint due to their use of local raw materials and the elimination of the burning process, while maintaining many of the intrinsic qualities of traditional bricks.
Unlike the air, the temperature in the subsoil varies very little during the year or according to geographical position. A few meters below the surface, the ground temperature is between about 10 to 21°C (50 to 70°F) depending on the region. Dig deeper, and the temperature increases between 20 to 40 degrees centigrade per km, reaching the Earth's core, which approaches 5000 °C. In fact, thinking about how we inhabit a sphere that is orbiting through space with a glowing center can be distressing for some. However, it may be helpful to learn that using Earth's forming energy to generate electricity is a sustainable and efficient way that is already common in some countries. At the same time, we can also take advantage of the mild temperature found a few meters under the ground to acclimatize buildings, whether in hot or cold climates.
