If you don't like a specific musical style, the theater bores you, or you're not attracted to works of art, you can almost always avoid them. Architecture, however, is different. A poorly thought-out project will affect the lives of many people consistently and for a long time. With interiors, this effect is even more amplified. Humanity is spending more and more time indoors, which directly impacts our well-being and health. In periods of compulsory retirement, as in the current pandemic of Covid-19, we gain a sense of how important interior spaces are for our well-being and even for the prevention of diseases. Designing an indoor environment is a huge responsibility for a professional. An interior designer must plan, research, coordinate, and manage these projects to obtain an adequately healthy and aesthetically pleasing environment for the people who use the space. But what, in fact, is interior design?
After centuries of using wood for the development of window and door carpentry, the Rationalism of the 20th century began to adopt a new material for these purposes: steel. Driven by industrial production, and promoted by architects such as Adolf Loos, Mies van der Rohe, and Le Corbusier, steel was evolving to generate increasingly thin and resistant frames. However, efficient and low-cost materials, such as aluminum and PVC, gradually began to replace its widespread use, increasing the size of the frames and losing steel's "clean" aesthetic when applied to a growing architecture of large glass paneled facades.
At present, new technologies have refined their production processes, developing minimal profiles of high rigidity and precision, which take full advantage of the transparency of the glass and deliver new comfort and safety features. We talked with Jansen's experts to deepen our understanding of their application in contemporary architecture.
Materials, products, and construction systems are constantly evolving and following new technologies, discoveries, and market trends. Today, within the framework of our Monthly Topic “Innovation” we wonder: what products or materials could we use so that our projects make relevant contributions to the way we are inhabiting our planet?
Translucent facades are light glazing panels used on the exterior of buildings, protecting the structure from weather damage, dampness, and erosion. Its composition of polycarbonate microcells creates a soft, naturally diffused light with a wide range of possible colors, brightnesses, and opacities.
By fixing these panels in place with concealed joints, it’s possible to hide unsightly building elements and assist in protecting users from harmful UV rays, while also ensuring maximum thermal conduction. Individuals who use them will notice a reduction in energy bills because they use the sun’s natural light to heat and illuminate buildings, creating very attractive indoor environmental conditions for different uses.
Above and Beyond Aesthetics, Suspended Ceilings Can Improve Occupant Comfort and Acoustical Performance
Open ceilings offer an opportunity for creative design and technical integration. They play a key role in forming interior spaces and add value by adding comfort through acoustics, finishes and other integrated solutions to the overall design intent.
Once the construction of an architecture project is finished, it's time to install the claddings that will make up the visible faces of the interior spaces. Wallpaper –an efficient way to bring color and design into rooms – is generally specified according to the square meters we want to cover, so we must start by calculating the area of each surface with great precision.
This task can be easy on clear walls with standard dimensions, but it can generate mishaps or unnecessary expenses in more complex designs. We present some tips to make an estimate as accurate and efficient as possible.
Funded by Norman Foster in 1967, Foster+Partners studio develops projects that integrate architecture and engineering with interior and object design. In a special collaboration with Porcelanosa – experts in the fabrication of furniture and accessories made out of stone, ceramic, brass, wood and KRION®–, they have designed a collection of bathrooms in simple and minimalistic ways, highlighting the essence of the materials and the trade of their fabrication.
Initially created for aerospace purposes, materials based on advanced fiber-reinforced thermoset technology are increasingly being considered not only to manufacture specific building elements but also to change the way buildings are conceived, designed and built. Despite being incredibly resistant –almost six times stronger than steel– fiber-reinforced materials are light and easy to handle, allowing the creation of complexly shaped but efficient architectural projects.
The ventilated façade is a construction solution that uses a double enclosure distanced from each other by a support structure to generate an air chamber for ventilation. This operation creates a chimney effect that activates air currents by convection, improving the acoustic and thermal insulation of the building, and increasing its energy efficiency.
Due to its nature and manufacturing, the 3.5 mm porcelain tile is a great choice for ventilated façade cladding. Its high resistance to weathering, dimensional stability, and lightness reduce the support structure requirements. It weighs 3 times less than a traditional porcelain tile and allows large formats, up to 3.6 meters, reducing the number of joints. It also delivers high color stability, impact resistance, and low maintenance over time.
A lightweight material par excellence, Zinc is a non-ferrous metal that provides an effective solution for coating buildings exposed to adverse weather condition while simultaneously delivering a creative response to the requirements of the program and the users of the project.
When in contact with humidity, Zinc panels generate a self-protecting layer that isolates heat from indoor spaces during the summer. Rain and snow, slide easily over its surfaces, and its modular panels can wrap curved shapes or be perforated according to the architectural design, and combined in facades and/or ceilings through different shades, brightness, and colors.
The private space is usually associated with hiding what goes on inside, allowing people to have certain moments of intimacy. Habitually, bathrooms have been designed for this purpose, reducing openings to a minimum or — sometimes — eliminating them completely.
However, being such an important space within a building, bathrooms have become an object of new exploration for architects. By blurring the limits of privacy — without losing it completely — these spaces are open to the outdoors, allowing the breeze to enter. How does this new experience feel? Check out 30 open bathrooms that play with the feeling of exhibitionism, without fully revealing what is happening inside.
Expanded polystyrene (EPS) is a plastic material widely used for thermal insulation (and in some cases, acoustics) in building envelopes.
So is it possible to recycle it and apply it again in other construction processes? Yes, EPS can be crushed and compacted to be used in the manufacture of new plastic products. But it can also be recycled and live again in the construction of architectural and urban projects in the form of paints and coatings.
Nowadays, new technologies for the treatment of glass provide new ways to use this material in architecture. Applied indoors, specifically in retail stores, glass in its different textures, colors, finishes and levels of transparency can allow the unobstructed view of certain products, hide more private areas without blocking the passage of light, and attract the attention of customers as focal points, among many other uses.
Review below a selection of applications in commercial projects.
In any successful architectural project, it is essential to provide users with a comfortable outdoor space. At any time of the year, modular shade structures can create spaces that protect from wind, dust, sun, rain, snow, and noise in a light, flexible and aesthetically pleasing way.
With this in mind, what should we look for when choosing shade structures for outdoor spaces? Below, we've provided you with Superior Recreational Products's top recommendations.
Did you know that 64 million European children spend more time at school than anywhere else other than their home? European children spend approximately 200 days each year at their primary schools. With this information, how do we go about designing healthier classrooms that create productive learning environments? This question is perhaps more important than ever, as this will be the first time since the 1970s that Europe and the UK will see a boom in the construction and renovation of schools. What a tremendous opportunity this is for both architects and educators to rethink what an educational facility should be and how the physical environment can be designed to have a positive impact on learning.
In Le Corbusier's 5 points of architecture, he advocates the inclusion of flat roofs hosting roof gardens, providing valuable outdoor space for the inhabitants of the building in order to replace the ground lost to the construction of the building. But while this acknowledgement of outdoor space was important for people, Le Corbusier's sculptural concrete roof gardens were little consolation to the non-human flora and fauna that were displaced by his works.
Recent improvements in our understanding of ecosystems and the environment, as well as a better scientific understanding of the needs of plants, have changed this dramatically. In the past few decades, green roofs and living roofs have exploded in popularity, and now adorn every kind of building--from small private houses to the gigantic surface of Barclay's Center in Brooklyn.
We've collected together some excellent examples of these living roofs, including the structural detailing that makes them possible. Read on for 17 spectacular green roofs that achieve environmental benefits including reduced stormwater runoff, and reductions in energy use and the heat island effect.
When designing wooden structures, it’s very important to consider joints and reinforcements that will allow them to stay together and upright. These connectors not only allow for adhering wood to wood but also let you anchor wood elements to brick and concrete walls.
With such a variety of pieces needing to be connected together (beam-beam / beam-pillar / beam-strut / beam-wall / base-frames), working with hardware requires the advice of a calculating engineer or a professional with knowledge and experience. To guide you in this process, we have selected 15 metal fittings specially designed by Arauco to connect wood pieces.