Isometric study of unitised curtain wall elements from The Shard. Image Cortesia de The Donnies
Facades are the first barrier outside a building. They weather rain, snow, winds, sun, and temperature changes. Their primary function is to keep interiors free of water, thermal bridges intact, and internal atmospheres as comfortable as possible. This reality is why the detailing of facades is usually done by experienced architects or specialized companies, who understand materials and construction methods well and are able to select the best solutions for each circumstance. But some projects have facades with such complex detailing, encompassing thousands and thousands of lines, hatches, and dimensions, that they inspire a particularly awestruck response. Making these drawings didactic, technical, and, above all, beautiful, is a task few can achieve to perfection. We spoke with Troy Donovan, the creator of the 188,000 follower Instagram account @the_donnies, who does this job like few others. Read the interview below.
Despite a bad reputation in children's stories, straw buildings can be sustainable, comfortable, and, above all, solid and resistant. Several studies and experiments have been carried out with this agricultural waste substance, qualifying it as an potential material for the construction of walls, with good thermal, acoustic, and even structural characteristics. In addition, it is a renewable resource and easily constructed. Below, we'll talk about the characteristics of this material and how much more it would take than the breath of a big bad wolf to bring down a house made of straw.
The Lisbon Architecture Triennale has announced the appointed Chief Curators for their 6th edition, which will take place in 2022. The architects Cristina Veríssimo and Diogo Burnay were chosen given their great professional experience in the various aspects of the discipline that includes education, academic, and project activity in Portugal and abroad. The duo will be dedicating three years to preparing the Triennale 2022, beginning with an exploratory period for research, a team definition phase, a phase of structuring the programme design, ending with its implementation.
From its starting to point as a tree to its product form as a beam or piece of furniture, wood used in architecture and interior design goes through several stages and processes. A renewable resource and popular traditional building material, wood is also often cited as a promising construction material of the future, one that is suitable for the new demands of sustainability. But unlike concrete, whose molds can create even the most complex curves, wooden architecture most commonly uses straight beams and panels. In this article, we will cover some techniques that allow for the creation of curved pieces of wood at different scales, some of which are handmade and others of which seek to make the process more efficient and intelligent at a larger scale.
A lot of prejudice and contradictions surround the history of Cannabis sativa around the world. It is estimated that hemp was one of the first plants to be cultivated by mankind. Archaeologists have found remnants of hemp fabrics from ancient Mesopotamia (now Iran and Iraq) that date back to 8,000 BC [1]. There are similar records in China documenting the consumption of hemp seeds and oils, dating between 6 and 4 thousand BC. Upon its arrival in Europe, its main use was for the manufacture of ship ropes and fabrics: even the sails and ropes of Christopher Columbus' ships were made of this material. Likewise, the first books after Gutenberg's invention of the printing press [2] and many paintings by Rembrandt and Van Gogh were made of hemp.
The use of hemp for civil construction is not new either. Mortar made of hemp was discovered on the pillars of bridges built by the Merovingians in the 6th century, in what is now France. It is also well known that the Romans used hemp fiber to reinforce the mortar in their buildings. Nowadays, although there are legal barriers in many countries, the use of hemp as a construction material has had encouraging results, with research demonstrating its strong thermoacoustic and sustainable qualities. Hemp can be shaped into fibrous panels, coverings, sheets, and even bricks.
Some researchers define the Anthropocene as beginning at the Industrial Revolution. Others identify it with the explosion of the first nuclear bomb, and others with the advent of agriculture. Regarding the precise timeline, there is not yet a scientific consensus. But the notion that human activities have been generating changes with planetary repercussions, whether in the temperature of the Earth, in biomes, or in ecosystems, is one that has become increasingly popular. The anthropocene would be a new geological era marked by the impact of human action on planet Earth. This acknowledgement of human impact is particularly disturbing if we consider that if the entire history of the Earth were condensed in 24 hours, humans would only appear in the last 20 seconds. Whether in the massive extraction of natural resources or in the carbon release from vehicles and industries, it is well known that a large part of the fault lies with construction activities, especially in the production of solid waste due to waste and demolition. In Brazil, for example, civil construction waste can represent between 50% and 70% of the mass of solid urban waste [1]. Many will end up being discarded irregularly or thrown in landfills to be buried indefinitely.
Having access to a bathroom is, above all, a factor of dignity. As basic as this fact may seem, the WHO (World Health Organization) estimates that 2 billion people worldwide do not have access to basic sanitation facilities, such as bathrooms or latrines. Such inadequate sanitation causes 432,000 deaths annually, mainly from diarrhea, in addition to being an aggravating factor for several neglected tropical diseases including intestinal worms, schistosomiasis, and trachoma. In 2010, the UN (United Nations) labeled sanitation a basic right, alongside access to drinking water.
In her Sesc Pompéia theater, architect Lina Bo Bardi designed a central stage revealing the structure and all the functions of the theater's program, and renouncing traditional theater seating. Her seats were not upholstered, were close to each other, and encouraged a more aware, attentive, and upright posture among the audience, thus honoring, according to her, the ancient art of theater.
In the same way that the characteristics of architectural spaces alter our mood, feelings, concentration, and learning, so does the integral design element of furniture, which must be taken seriously when considering comprehensive user experiences. Regarding schools and learning environments in particular, the same attention given to teaching materials is often not conferred on furniture and physical structure.
The issue of the housing deficit plagues virtually all countries today. According to a study by the McKinsey Global Institute, 330 million urban families worldwide lack decent housing, or housing costs are so heavy that they need to forgo other basic needs such as food, heath care, and education for children. According to the WRI (World Resources Institute), it is estimated that 1.6 billion people will lack adequate housing by the year 2025.
Solving this problem is, understandably, complex. Having good housing means much more than simply having a roof over your head. Good housing is essential for physical and financial security, economic productivity, and human well-being. In addition to adequate comfort, it is essential that these houses are integrated with the city, jobs, infrastructure, and city services. For people living on the street, this issue is even more delicate. Among many other necessities, having a place to structure a life is essential to moving forward and prospering. One project that confronts this issue is Emerald Village Eugene (EVE), an affordable micro-housing community with a unique housing model structured to enable residents to transition from the streets.
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Análises estruturais. Image Cortesia de Oliver Krieg
When someone mentions architecture visualization, most immediately think of sketches, computational renderings, and drawings. This connection occurs because we almost always associate visualization with picturing a project that is not yet built, either for the validation of aesthetic and functional decisions or to represent the idea to a client, who is often unfamiliar with technical drawings. Yet in addition to considering superficial elements such as materials, plans, textures, and colors, when carrying out a project, the architect needs to be aware of technical issues that are invisible to the naked eye, which may directly influence the project.
It is difficult to find someone who has never dreamed of building or having a tree house to call their own. The idea of a refuge, a space fully integrated with nature and with a privileged view, pleases almost all ages. There are examples of tree houses of all scales and complexities, from small elevated platforms to highly complex structures, including electrical and hydraulic installations. Some sites specializing in the topic (yes, that exists!), offer valuable tips for building these dreams. In general, they subscribe to the motto: "Choose your tree, make your project, but be ready to adapt it!"
The total amount of water on our planet has, theoretically, stayed the same since earth's formation. It's possible that the glass of water you drank earlier contains particles that once ran down the Ganges River, passed through the digestive system of a dinosaur, or even cooled a nuclear reactor. Of course, before it quenched your thirst, this water evaporated and fell as rain millions of times. Water can be polluted or misused, but never created or destroyed. According to a UNESCO study, it is estimated that the Earth contains about 1386 million cubic kilometers of water. However, 97.5% of this amount is saline water and only 2.5% is fresh water. Of this fresh water, most (68.7%) takes the form of permanent ice and snow in Antarctica, the Arctic, and in mountainous regions. Another 29.9% exists as groundwater. Ultimately, only 0.26% of the total amount of fresh water on Earth is available in lakes, reservoirs, and watersheds, where it is easily accessible for the world's economic and vital needs. With the population steadily increasing, especially in urban areas, several countries have already had severe problems with providing the necessary amount of drinking water to their populations.
The construction industry is responsible for 75% of the consumption of earth's natural resources. Stone, sand, iron, and many other finite resources are extracted in huge quantities to supply the markets. Additionally, construction sites themselves generate enormous quantities of waste, whether through construction, demolition, or remodeling. In Brazil, for example, construction waste can represent between 50% and 70% of the total mass of municipal solid waste [1]. This waste often ends up in landfills and dumps rather than being properly disposed of, overwhelming municipal sanitation systems and creating informal disposal sites.
Peter Zumthor, in one of his most emblematic works, gives concrete an almost sacred dimension. The work in question is the small Bruder Klaus Field Chapel, located in a small village in Germany, a construction that is both robust and sensitive. Built with white cement, which was mixed with stones and sand from the region, the chapel is composed of 24 layers of concrete that were poured day after day by local labor, and compressed in an unusual way. The building's flat and smooth exterior contrasts with its interior, which was initially made of inclined wooden logs forming a triangular void. To remove these internal forms, the logs were set on fire in a controlled process, reducing them to ash and creating a carbonized interior that varied between black and gray and retained the texture of the negatives of the logs. The result is a masterpiece of architecture, a space for reflection and transformation, in which the same material appears in diametrically opposing ways.
Dissociating architecture from furniture is almost impossible. As Le Corbusier parking contemporary cars in his project photos suggests, the objects that decorate a domestic space demonstrate the wealth and lifestyle of the user who lives in it. From the moment that humanity ceased to be nomadic, there has existed records of rudimentary furniture. In an excavated site dating from 3,100 to 2,500 BCE, a variety of stone furniture was discovered, from cabinets and beds to stone shelves and seats. Since these early examples, furniture has always been used to express ideas: be it the exclusive and luxurious furniture of Ancient Egypt, meant to demonstrate the power and wealth of the empire, to the functional and simplified designs of the Bauhaus, meant to reconstruct rationality in the world, studying the evolution of furniture design is instrumental to understanding architectural styles.
Nowadays, the advancement of technology and the internet has made changes develop faster and faster, making them even more difficult to assimilate and follow. Furniture follows this trend, be it in the way of designing, manufacturing, or even selling products. Below, we outline some ways in which technology has impacted this field:
In a predominately urban world that constantly has to deal with complex problems such as waste generation, water scarcity, natural disasters, air pollution, and even the spread of disease, it is impossible to ignore the impact of human activity on the environment. Climate change is one of the greatest challenges of our time and it is urgent that we find ways to slow down the process, at the very least. Toward this end, our production, consumption, and construction habits will have to change, or climate change and environmental degradation will continue to diminish the quality and duration of our lives and that of future generations.
Although they seem intangible and distant, these various energy inefficiencies and waste issues are much closer than we can imagine, present in the buildings we use on a daily basis. As architects, this problem is further amplified as we deal daily with design decisions and material specifications. In other words, our decisions really do have a global impact. How can we use design to create a healthier future for our world?
Trial and error. On a napkin, on tracing paper, or on a black CAD background, much of an architect's work is to make and redo lines, shapes, objects, and images. Discard, start over, repeat. Between an initial idea and a final project is a long and exhausting path. This difficulty lies in the root of designing as a process of making infinite decisions, where a change can influence countless other elements and consequently is an exercise in choosing benefits and concessions. These choices can take a number of forms, from determining how much area to cover while minimally impacting the environment to fitting as many work tables in an office as possible without losing good circulation. Each require many studies or considerations to arrive at the most suitable option. For example, the position of a window, even if it looks great on a the façade, can make the location of the bed in a dormitory unfeasible or increase the building's energy consumption.
Of course, there are always tight deadlines and budgets throughout any project, with the client often in a hurry and willing to devote limited time to thinking about every possible combination or the precise appropriateness of each decision. This stage is where, increasingly, the concept of Generative Design has appeared in architecture.
The Coronavirus pandemic has been taking over the news for a few months now, and has imposed unimaginable changes on the daily lives of the world’s entire population. Although the situation is worrying, and rather devastating in some cases, being aware of the virus's behavior and understanding ways to avoid it seems to be the best way to deal with the crisis. COVID-19 is a respiratory disease that spreads through droplets in the air. What makes it especially dangerous is its high rate of contagion, as the virus has the ability to survive outside the human body, in the air, and on surfaces such as metal, glass and plastics, if they were not properly disinfected. But how does the virus behave on each of these materials? [Latest Update: July, 2020]
