Articles by Camila Prieto

The growth of the world’s population has led to an increase in housing and building construction around the globe. Considering that today the construction industry is responsible for 40% of the planet’s CO2 emissions, and according to the Chilean Chamber of Construction, by 2035, Chile will need housing for 2.6 million people, it is necessary to guide this sector toward an environmentally friendly alternative. The answer to this challenge can be found in nature itself, where there are various efficient and sustainable construction solutions. Such is the case with wood: a noble and renewable material capable of capturing CO2 and contributing to a better environmental future.

Timber, harvested and prepared for construction, is a durable material known for its strength and versatility. It serves as an architectural element in structural systems, framing, cladding, decking, and flooring. Although it possesses a warm and natural character that creates an aesthetic appeal, the inherent humidity of timber can cause wood deformation, leading to bending, mold, and rot once the moisture content reaches 23%. However, with the development of new products and production techniques, Thermowood –also known as Thermally Modified Timber– has emerged as a method for creating natural, chemical-free solutions made from certified raw materials.

Glass has become a central element in modern architecture with the introduction of new strategies for designing and experiencing buildings. Its transparency and material composition allow for natural light to enter, while creating seamless connections between interior and exterior spaces. However, the prevalence of this material has meant that every year, billions of birds collide into glass structures.

Building envelopes create a physical boundary or shell integrated to the outer skin of a structure, separating indoor and outdoor environments. By assembling architectural components such as walls, roofs, windows and doors, the building is enclosed to provide protection and insulation, playing a determining role in the energy efficiency, comfort, structure, and durability of the project. Through multiple styles and shapes, they are key to giving character to a building, its visual appearance and integration with the surrounding environment.

Today, working outside the office has become the norm across industries, changing the way we work and how we interact with team members and clients. Given the potential challenges of working remotely (internet connection and stability, for example), organizations need to build the right systems to maintain productivity and foster the same sense of teamwork and culture found in traditional office spaces. As architects, engineers and construction (AEC) teams know, collaboration is key to driving creativity, and is essential to the successful completion of any design project.

With its range of colors, patterns, textures, and materials, integrating wallpapers can enhance the design strategy of a space. It accentuates walls, adding depth to a room, while also elevating its aesthetics and character.

Why research and innovate in architecture? In a conversation with architectural designer Jenny E. Sabin, we delve into the critical link between research and practice in architecture. Seeking the development of a new model, her team incorporates an interdisciplinary approach that introduces connections between these areas, fostering collaboration with both scientists and engineers.

Materiality is a determining factor in shaping the character and experience of a building. Playing with the aesthetic and tactile qualities of materials, the design process encompasses their analysis, selection, and arrangement to create purposeful and sensory-rich spaces. Alongside textures and patterns, exploring materiality also involves the study of color possibilities. The versatile role of color in architectural materials extends beyond mere aesthetics, as it can broaden design opportunities and influence emotional responses, functionality, cultural relevance, and environmental performance. 

Rock salt is a chemical sedimentary rock that forms through the evaporation of water, as minerals dissolve and settle down. When excavated directly from the earth, it maintains a cube-shaped crystalline form. With its diverse textures, compositions and structures, this natural element has captivated human interest for centuries. Depending on the region and environmental conditions, salt rock has been found in diverse applications in architecture, such as a construction material that uses blocks of salt to build structures, bricks, or tiles. Often translucent, these bricks allow diffused light to enter interior spaces, creating a unique atmosphere and aesthetic appeal.

Rock salt is a chemical sedimentary rock that forms through the evaporation of water, as minerals dissolve and settle down. When excavated directly from the earth, it maintains a cube-shaped crystalline form. With its diverse textures, compositions and structures, this natural element has captivated human interest for centuries. Depending on the region and environmental conditions, salt rock has been found in diverse applications in architecture, such as a construction material that uses blocks of salt to build structures, bricks, or tiles. Often translucent, these bricks allow diffused light to enter interior spaces, creating a unique atmosphere and aesthetic appeal.