Two primary building approaches are commonly identified in architecture and design: solid versus hollow construction. These methods vary significantly across different cultures and regions, specifically for interior partitioning systems, when they appear interchangeable. Each has its own established practices influenced by local materials, labor preferences, climatic conditions, and cultural traditions. When architects and designers focus on their local context, it is easy to overlook the broader construction assumptions, limiting design flexibility and methodology. This raises an important question: How do these two building approaches differ?
Focusing mainly on interior systems, the distinctions between solid and hollow construction largely stem from the availability of materials and workforce preferences. For example, in the United States and Japan, stud walls, both wood and metal, are frequently used for partitioning. Conversely, brick remains the predominant material for partition walls in regions such as Hong Kong and southern China. Why do we build differently, and what are the benefits and challenges of each building methodology?
Courtyards have long been a fundamental aspect of traditional Chinese architecture, serving as central spaces around which domestic life is organized. These spaces play a vital role in creating a harmonious living environment, offering benefits that range from regulating indoor temperatures to enhancing social interactions and fostering a close connection with nature.
The opening scenes of the award-winning Brazilian film "City of God" (2002) portray a newly constructed housing complex situated on the outskirts of Rio de Janeiro. Subsequently, this complex evolves into a hub of poverty and violence. Despite the film being set in the 1960s, the housing development depicted was a recent construction.
This choice made no difference because, despite the 40-year difference between the depicted era in the film and the time of filming, the architectural solutions employed by housing programs in the country remained stagnant. They continued to replicate outdated models, showcasing a lack of progress in the sector.
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.
Glass brick facades have emerged as a captivating architectural trend, blending the enduring elegance of glass with the robust strength of bricks. Glass bricks can as well be more thermally resistant than conventional glazing.
These facades add a pixelated effect that plays with light and shadow, perfectly transmitting light, while maintaining privacy. The way glass bricks facades soften and blend the views of the outside can increase calmness and focus. From sleek commercial buildings to avant-garde residential projects, glass brick facades continue to push the boundaries of architectural innovation, captivating both designers and observers alike.
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.
Born in Brazil and educated in Paraguay, Gloria Cabral is an architect who early on learned that home can be many places—or none at all. Guided by a comprehensive understanding of the geography, culture, and social conditions of the places she designs, she has left her mark on buildings and artistic installations constructed in various locations, from Assumption to Venice.
Besides her interest in the specificities of the places where she operates, Gloria focuses on resource economy and material reuse — a trending theme that Gloria has championed for over fifteen years. We had the opportunity to speak with the architect about her experiences in Paraguay and Brazil, some of her works involving recycled brick, and her insights into architecture and sustainability.
In architectural design, our interactions with non-human organisms have predominantly involved creating barriers to exclude them from the human realm. What if we were to adopt a different approach? Interspecies design is a movement that puts non-human organisms—fungi, insects, and various animals—on an equal footing with humans. This design philosophy provides frameworks that foster non-hierarchical relationships with other species. By doing so, it cultivates empathy for other life forms and shifts our perspective on the world around us. It aims not only for a net-zero approach but also seeks collaboration with non-human organisms to develop environments beneficial to all. Below, explore some emerging material technologies designed to benefit both humans and other life forms.
A considerable part of architectural innovation involves the use of materials. Technical development and new formal languages utilize them to "announce" the "next" architectural era. Of course, materials are essential for construction and significant for the consolidation of languages. Glass, steel, concrete, or brick convey messages about buildings. However, like any language, the meaning of words can vary according to the prevailing social organization; there is a dispute over the meaning of certain expressions, or there is pressure for the abolition—or at least the dissociation—of certain senses associated with some words. It would not be any different in architecture.
Bricks are versatile and long-lasting building materials that combine technical and aesthetic qualities. In a variety of shapes, dimensions, textures, and colors –depending on the manufacturing process and type of clay– incorporating bricks into architecture creates dynamic facades and structures. From traditional to modern styles, these versatile elements can be arranged in different patterns and easily integrated with other building materials, enabling diverse architectural expressions. In addition to these qualities, the use of bricks in contemporary architecture is distinguished by experimenting with placement, orientation, and material textures, as well as embracing minimalistic design principles focused on simple and clean lines.
Among the different types of bricks, designing with a linear or elongated style involves playing with horizontal and vertical arrangements –or a combination of both– creating modular patterns for a rhythmic and harmonious visual appeal. Following this format, Randers Tegl has developed the Ultima waterstruck brick collection, which integrates craftsmanship, high-quality materials, and timeless appeal. By analyzing various projects, we showcase how the aesthetics of linear bricks are applied in contemporary architecture.
The term brick is often used as a synonym for common clay solid blocks, but there's more to it. Bricks are perhaps the most elementary of building materials and can be used to design modular, optimized, and most importantly, versatile buildings. This article explores the most popular types of bricks according to their use in construction.
Pink Floyd's song “Another brick in the wall” criticizes an alienating and demotivating educational system. People, or children, are portrayed as bricks due to their homogeneity, whether in the way of living or thinking in a society that is not very fond of opposition. Bricks work very well in this comparison, having changed very little throughout history and around the world in their rectangular shapes. But that's not true of their colors. Although we tend to think of red when we talk about bricks, there are infinite possibilities of shades, depending on the composition and manufacturing process of the pieces.
Brick beams have been widely used in construction due to their strength, durability, and aesthetic appeal. By embedding steel reinforcing bars into a series of bricks arranged in a specific pattern, these elements form horizontal load-bearing structures that distribute the weight and forces that act on a building. However, it is difficult to find brick beams with excessively large spans, in order to avoid long-term structural problems. Instead, they mostly come in the form of simple lintels, which can be easier to handle.
With a length of 16.2 meters and an impressive clear span of 15.8 meters, CEBRA architects have collaborated with the Randers Tegl group, the largest brick supplier in Scandinavia, to complete the construction of probably the longest brick beam to date. This exterior beam is accompanied by a 13-meter-span interior "sister" beam and is located above the main entrance to the Danish Crown's new headquarters in Randers, Denmark, extending freely between two of the building's wings. The longest beam is made up of almost 4,200 bricks – its height is made up of 25 rows of bricks, equivalent to 1.6 meters, and its edge consists of 4 bricks.
Brick is a traditional building material that enhances durability, versatility, and the aesthetic appeal of building design. Used in construction for thousands of years, contemporary architecture explores creative ways to incorporate brick into design, combining it with different materials to seamlessly integrate the old and the new. Traditionally composed of clay, these rectangular-shaped elements are also heavy-duty materials suitable for use in both load-bearing and non-load-bearing walls.
Delving into lighter alternatives, thin brick –with minimum thicknesses of approximately 1/2 inch (13mm)–combines the technical and aesthetic qualities of traditional brick with the advantages of being lightweight and space-efficient. In various colors, sizes, and textures, thin brick can be applied to diverse surfaces, such as walls and facades, without additional structures. The Brick Industry Association showcases interior and exterior projects, developing practical guides and solutions for achieving the classic, timeless look of brick masonry, along with design flexibility and easy installation.
The ample supply, durability, and affordability of brick makes it one of the most widely used and iconic materials in Spanish architecture, especially within the Mudejar tradition. Throughout history, they have added both beauty and function to the spaces that use them, offering protection from the elements while also permitting the entry of natural light and air flow.
In recognition of brick's impact on Spanish architecture throughout history, we have created a compilation of contemporary projects that highlight its aesthetic and functional benefits along with advice from their creators about how best use this tried and true material.
From September 14th to October 8th, 2023, "Psicoarquitectura" will be showcased at the German Pavilion, designed by Mies Van der Rohe and Lilly Reich, located in the city of Barcelona. The Mies van der Rohe Foundation, in collaboration with LAB 36 and Senda Gallery, is hosting this temporary artistic intervention by the artist and architect Oscar Abraham Pabón. This intervention explores the materiality of this iconic work of the Modern Movement, delving into its interpretative and psychological dimensions.
There are several symbols that transcend language barriers and are easily recognized and understood by people from different cultures. Examples include the male and female bathroom icons, the cross symbolizing health, and the universal Wi-Fi symbol. Among these universal icons is the recycling symbol, conceived in 1971 by Gary Anderson, an architect and designer who was a student at the University of Southern California. Depicting a continuous cycle, it is a triangle with three arrows arranged clockwise, each of which represents the industry, consumers and recycling.
Central to the concept of the circular economy is the reintegration of materials typically viewed as waste back into the production cycle. This concept is particularly important for the construction industry, which has historically depended on the destruction and extraction of resources in order to exist. In this case, nothing is more symbolic than the brick, which not only represents the construction of new things, but is also the perfect example of how to apply the concept of circularity. Creative minds have embraced the challenge of circularity, devising solutions that transform discarded materials into high-value resources and generating a wide range of products, using raw waste materials that range from seaweed and plastics to human hair. These innovations not only address pressing environmental issues but essentially redefine the way we build and inhabit our spaces. In this article, we highlight seven initiatives that are turning waste into bricks.
The Monadnock Building in Chicago began construction in 1891 and is still in use today. The building features a somber facade without ornamentation and a colossal height - at the time - of 16 floors. It is considered the first skyscraper built in structural masonry, with ceramic bricks and a granite base. To support the entire load of the building, the structural walls on the ground floor are 1.8 meters thick, and at the top, 46 centimeters. One hundred and thirty years later, this construction system remains common and allows for the erection of taller buildings with much thinner walls, accomplishing even new architectural works economically and rationally. But what is structural masonry about, and how can designers use it in architectural projects? And for what kinds of buildings is this system most suitable?