Artificial intelligence has made its way into almost every corner of professional workflows, prompting the architectural industry to rethink how it works. To adapt to this shift, firms are now facing the limits of a model that has changed very little over the past few decades.
Architectural drawings operate through abstraction. Plans, sections, and elevations condense spatial, constructive, and dimensional information into a set of codes that make sense within the discipline, but are not always immediately legible to those unfamiliar with this language. In some projects, this condition can create a recurring tension between what is designed and what can be understood. This intensifies when the tools used do not correspond to the scale and complexity of the design. In contexts such as single-family homes, renovations, or additions, overly complex software can introduce noise, delays, and unnecessary dependencies, making proposals harder to develop and convey.
Initial sketches in notebooks and tracing paper, conceptual diagrams, perspectives, physical models, and massing studies capture the architectural imagination. But they represent only the beginning of the practice. The real challenge is translating ideas into buildable systems. Every wall, junction, and assembly must be resolved in detail, with systems working together in a way that allows the project to be built as intended. This is where most of the effort, complexity, and risk are concentrated, and where projects are ultimately resolved or begin to stumble.
The historic city of Deir ez-Zor in eastern Syria has had more than its fair share of calamity after the outbreak of the war in 2011. After seeing destruction caused by fierce battles between armed groups and the central government, as well as occupation by ISIL, the earthquake in February 2023 brought further damage. Behind the headlines, however, is an ancient city tracing its founding to the dawn of civilization on the banks of the Euphrates River, with living architecture from the Ottoman and French Mandate periods. A winner of the ArchDaily 2025 Next Practices Awards, the Deir ez-Zor Heritage Library aims to revitalize the city and support sensitive reconstruction by documenting and promoting its built heritage.
In today's competitive design landscape, Building Information Modeling (BIM) is no longer just a trend—it has become a baseline expectation. Yet many practices still struggle to balance the complexity and effort involved with the actual value they receive in return. But what if it were possible to unlock the benefits of BIM without adding unnecessary workload? Exploring a lean approach to BIM—focused on efficiency, clarity, and real project outcomes—can help architectural teams streamline their design workflows, strengthen collaboration, and maintain creative control from concept through delivery.
By exploring the art of robotics in construction, advances in architectural technologies are increasingly shaping multiple aspects of human life. From robotic arms and drones to robots that move across large surfaces and even 3D printing robots, their use in construction is accelerating research and the development of new working methods, as well as structural and material experimentation. In collaboration with multiple disciplines and spanning various facets of architecture, the role of robots in the contemporary landscape demonstrates a potential that extends beyond merely automating processes or reducing construction times and costs. This raises the question: Are we building architecture to serve technology, or technology to serve architecture?
Before the digital turn, architecture's memory was largely tangible. It lived in the weight of drawings, the patina of models, and the thickness of books. To preserve architecture meant to preserve its traces, the documents, sketches, and photographs through which buildings could be remembered long after their material form had changed or disappeared. The modern architectural archive, as it developed in the 20th century, was both a refuge and a device of legitimacy. Institutions such as the Canadian Centre for Architecture, Casa da Arquitectura, or the Deutsches Architekturmuseum were built upon the conviction that to preserve architecture was to preserve its documents.
Some types of work only become visible when they are no longer done. They are discrete, repetitive, rarely celebrated, yet they quietly sustain the functioning of any operation. In architecture, this dimension rarely appears in the images that circulate. When we think about the discipline, we evoke seductive renderings, carefully lit perspectives, precise plans, drawings that promise possible or even utopian futures. Yet the layer that supports these formal gestures is not found in the image, but in specification, detailing, and documentation.
As the building industry continues to account for a significant share of global carbon emissions, digital platforms are increasingly being developed to support carbon reduction across different stages of the design and construction process. These initiatives range from material-focused knowledge databases to project life-cycle guidance and early-stage embodied carbon assessment tools. While differing in scope and methodology, they commonly aim to improve access to technical knowledge, clarify responsibilities across the value chain, and facilitate more informed decision-making in the built environment. Recently, Henning Larsen launched OpenDetail, joining related efforts by Grimshaw and MVRDV to address decarbonization through shared digital infrastructure.
For many architects, schematic design is defined by a familiar tension. It is the phase of open-ended exploration—where multiple ideas are tested, challenged, and refined for clients to define a project's direction. In essence, it's where the design magic happens. The challenge is rarely a lack of ideas, but the effort required to test and evaluate those ideas properly under time-, resource-, and budget constraints. It is an especially acute challenge for architects as early design work must balance creativity with client needs and commercial feasibility.
Behind layers of plaster, paint, and finishes lies an intricate network of pipes, electrical conduits, beams, and other structural elements that make a building function and stand, yet remain invisible to the everyday eye. Within these layers, traces of different periods accumulate: replaced systems, improvised adaptations, and technical solutions that once responded to specific contexts and urgencies. In adaptive reuse, the greatest challenge often begins before construction even starts, which is understanding what lies within when little or no reliable documentation exists. During a renovation, pleasant or unpleasant surprises are inevitable. The unexpected is part of the process, but it also represents cost, delay, and risk factors that often discourage investors and professionals from engaging in this type of project.
When architects are still students, a moment often marks a turning point: their first encounter with software. It's not just about learning a tool but discovering a space where ideas transcend physical models, taking shape in a digital environment and beginning a relationship many will carry throughout their careers. What happens next? Software keeps evolving, and with it, the design experience. In recent years, this evolution has accelerated—machine learning, AI, prompts, and integrated workflows have moved from the periphery to the core of design practice, becoming part of the shared language between software and users. As these tools take hold, a key question emerges: How will this reshape our experience of designing architecture in the future?
While a book or piece of music can be easily set aside if it doesn't capture our interest, architecture is different. A building endures for decades, and it shapes the landscape and influences the lives of its occupants for years to come. This permanence brings with it a unique set of challenges: architects must design spaces that impact collective life, often under tight deadlines, limited budgets, and significant pressure. In addition to navigating complex regulations and coordinating construction, architects face the misconception that design is simple, or that anyone could do it. The constant balancing act between quality, cost, and speed often leads to sacrifices — whether in time, health, or the integrity of the project itself. This cycle not only wears down the profession but diminishes society's understanding of the true value of design.
Every act of building begins with the transformation of raw materials, energy, and land, and this inevitably entails environmental impact. This encompasses all the changes a process triggers in the natural world: from resource extraction to pollutant emissions, from energy consumption to biodiversity loss. Measuring this is complex, as it spans multiple dimensions. Carbon has emerged as the common metric, translating these effects into greenhouse gas emissions (CO₂ equivalent) directly linked to global warming. This standardization has made it omnipresent and comparable across materials, systems, and sectors. Reducing carbon emissions, therefore, means addressing the root of global warming, which is a particularly urgent task in the construction industry, responsible for about 39% of global emissions. In response to this challenge, MVRDV NEXT, the innovation and digital tools division of the Dutch architectural firm, launched CarbonSpace, a free, open platform that brings carbon accounting to the architect's desk, right at the napkin sketch stage.
Over the last decade, architectural design has relied on 2D methods of representation, such as elevations, sections, and floor plans, paired with digital renderings of 3D models. While these tools are essential to convey geometry and intent, they remain limited by their two-dimensional format. Even the most realistic renderings, created through programs like SketchUp, Revit, or AutoCAD, still flatten space and distance the viewer from the lived experience of a project. Recently, architects have begun to explore immersive technologies as a way to bridge this gap between drawing and experience, offering new ways to inhabit and assess spatial proposals.
Architecture is a discipline that evolves through progressive stages, with each phase building upon the previous one. Schematic design, for example, begins with broad concepts and initial explorations, followed by site analysis, sketches, and 3D models, with adjustments made along the way. The true challenge lies not just in following this sequence but in balancing speed, quality, and efficiency to navigate the trade-off between time and quality. In this context, the integration of generative artificial intelligence in the built environment reshapes architectural dynamics by assisting architects and creating space for more experimentation and exploration. Its impact is especially significant in rendering, which was previously a constraint at different project stages—particularly during concept development. Today, however, AI-powered architectural rendering operates smoothly, allowing more focus on creative problem-solving through innovative tools and strategies.
In many cultures, fire is a sacred element used in rituals of rebirth and renewal. It carries a dual symbolism, being both a creator and a destroyer—capable of illuminating paths or consuming everything in its wake. In Greek mythology, for example, Prometheus stole fire from the gods and gave it to humanity, marking it as a symbol of progress, knowledge, and creative power. However, fire also evokes destruction, as seen in biblical tales like that of Sodom and Gomorrah, where it was used as divine punishment. This duality was also evident in the 2019 fire at Notre-Dame Cathedral, which devastated its historic structure. The disaster sparked a wave of solidarity and led to unprecedented technological advancements, with restoration efforts utilizing digital tools such as laser scanning and Building Information Modeling (BIM) to recreate intricate details and preserve architectural heritage.
"Understanding precedes action." That is the motto of the Urban Observatory, an interactive installation and web app created by TED founder Richard Saul Wurman that compiled a wide range of urban data for over 150 cities, allowing users to compare various characteristics of those cities – from population density to traffic speed limits – side-by-side. Urban Observatory was first created in 2013, a banner year for news about urban big data; later that same year, Waag made headlines with its interactive map visualising the age of every building in the Netherlands. The emergence of such platforms allowed people to see the world around them in new ways.