At a moment when architecture is being pushed to respond more directly to environmental and social pressures, Spain's pavilion for World Design CapitalFrankfurt Rhein-Main 2026 positions itself as more than a temporary installation. While materiality is at the center of its design, the project explores how a reversible cultural infrastructure can activate public space without permanent construction. Discussions about material use, circularity and reutilization in architecture are closely tied to cultural contexts, environmental conditions, and historical influences that reveal how time shapes the built environment. Beyond its construction, Spain's pavilion expresses identity by reinterpreting the architectural method of Antoni Gaudí, the creator of the Sagrada Familia and Park Güell. It also demonstrates how Spain's creative and industrial sectors address current challenges with innovative construction solutions.
As a major driver of natural resource consumption, energy use, and greenhouse gas emissions, the construction industry has a significant impact on the environment, consuming 32% of global energy and contributing to 34% of global CO₂ emissions. Building materials play a crucial role in shaping the built environment. Through principles of circular economy, renewable and self-sufficient solutions, and technological innovations, analyzing the environmental performance of each material highlights the opportunity to review and assess the different stages of its life cycle.
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Interactive Vector Design Solutions. Image Courtesy of D.TO
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.
In the nineteenth century, entire railway networks became obsolete almost overnight, not due to physical deterioration, but because of changes in the technical standards that supported them. The expansion of railroads across Europe and North America adopted different track gauges (the transverse distance between rails), and as a dominant standard gradually emerged, these infrastructures became incompatible with one another. This required large-scale adaptations, conversions, or even complete reconstruction, in what became known as the "Gauge War."
Carbonero House (1998). Melipilla, Chile. Image Courtesy of Smiljan Radić
Chilean architect Smiljan Radić Clarke has developed a body of work that resists easy categorization. His buildings often seem both ancient and provisional, carrying a monumental presence while retaining an unexpected sense of fragility. Stone, concrete, timber, fabric, and fiberglass are combined in unexpected ways, producing architectures that hover between permanence and ephemerality. Rather than pursuing a stable formal language, the 2026 Pritzker laureate approaches architecture as an open field of experimentation, where material behavior and structural perception are constantly tested.
https://www.archdaily.com/1039595/smiljan-radic-material-explorations-between-ephemerality-and-permanenceAgustina Iñiguez and Eduardo Souza
In an age dominated by screens and digital images, the full character of a designed object often remains hidden. Only when encountering an object in person can one sense its texture, notice how it interacts with light, or even perceive its subtle smell. These sensory qualities— so difficult to convey online—reveal why design fairs continue to matter. Increasingly, these fairs have become spaces for experimentation in contemporary design, where ideas about materials, collaboration, and social responsibility are publicly explored. Curated programs, exhibitions, and experimental installations transform these events into environments where designers, manufacturers, and researchers test new possibilities for the built realm.
BIPV cladding with closed-edge aluminum honeycomb backing developed for The Myron and Berna Garron Health Sciences Complex (SAMIH), at the University of Toronto Scarborough, demonstrating how lightweight allows fast and hassle-free installation. Image Courtesy of Mitrex
The Myron and Berna Garron Health Sciences Complex (SAMIH), at the University of Toronto Scarborough, was shaped by a clear and non-negotiable mandate: at least 20% of the building's energy consumption had to be generated from renewable sources installed on-site. To meet this ambitious requirement, the university partnered early with Mitrex, a manufacturer specializing in building-integrated photovoltaics (BIPV), to explore how solar technology could move beyond the roof and become embedded within the architecture itself—positioning the project within a broader shift toward performance-driven sustainable architecture. The 63,000-square-foot facility houses teaching, research, and clinical training programs dedicated to educating future healthcare professionals. Designed by MVRDV in collaboration with Diamond Schmitt Architects, the project initially followed a conventional path, pairing a restrained facade with rooftop photovoltaic panels.
Courtesy of Tom Welsh for The Pritzker Architecture Prize
Chilean architect Smiljan Radić Clarke has been announced as the laureate of the 2026 Pritzker Architecture Prize, regarded as one of the highest honors in the field of architecture. The award recognizes Radić for a body of work that explores architecture through material experimentation, spatial perception, and a careful engagement with landscape and context. Born in Santiago, Chile, where he continues to live and work, Radić leads the practice Smiljan Radić Clarke, established in 1995. As the second Chilean to receive the prize, after Alejandro Aravena in 2016, he joins a distinguished list of previous laureates, including Liu Jiakun in 2025, Riken Yamamoto in 2024, David Chipperfield in 2023, and Diébédo Francis Kéré in 2022.
If we ask a child to draw a house, a triangular silhouette will almost certainly appear, with two sloped planes meeting at a ridge. Few architectural forms are as universally recognizable as the pitched-roof house. From a semiotic perspective, this elemental image functions as a condensed sign of shelter that, in just a few traces, synthesizes protection, interiority, and belonging. What we now read as a universal symbol, however, emerged from a concrete necessity. From Alpine chalets shedding snow to Mediterranean roof tiles mitigating summer heat, the slope responded to climate and construction challenges long before it became an aesthetic code.
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?
Across South America, architecture endures through the materials it uses, those that persist over time. Bamboo, brick, wood, and concrete appear across regions, connecting climate, labor, and culture in ways that ensure their persistence through generations. Their continuity does not depend solely on preservation or heritage. It depends on use.
Much more than merely as a protective skin, the building envelope functions as a thermal regulator that influences operational energy demand, indoor comfort, and long-term efficiency. And before renewable systems or mechanical strategies are introduced, performance begins in section. The way walls, roofs, windows and floors are layered determines how much heat is lost in winter, gained in summer, and ultimately how much energy a building consumes. At the center of this evaluation lies a fundamental metric: the thermal transmittance, or U-value. Understanding how to calculate it is essential for assessing whether an envelope conserves energy or allows it to escape.
Azm / Samu by Hassan Qureshi. Image Courtesy of Riyadh Art
For centuries, sculpture has been associated with the materialization of religious values, the celebration of heroic achievements, or the consolidation of political power. Today, it also operates as a critical instrument and an urban mediator. Many contemporary works interrogate the present, challenge scale, engage with movement and circulation, and reshape perceptions of public space. Sculpture is no longer conceived as an isolated object, but as part of broader processes of urban transformation.
Courtesy of SolarLab, Photo by doublespacephoto.com. Image RRC Polytech Manitou a bi Bii daziigae / Diamond Schmitt Architects & Number TEN Architectural Group
As environmental accountability becomes embedded in design culture, the building envelope is being reconsidered not just as a protective skin, but as an active energy-producing surface. Treating solar technology as a material rather than an attachment reshapes how architecture is conceived and detailed. Color, texture, rhythm, and assembly become inseparable from performance. Building-Integrated Photovoltaics (BIPV) operate within this expanded definition of materiality. By integrating solar technology into façades and rainscreens from the earliest project stages, architects can reduce redundancy, align energy goals with design intent, and rethink how envelopes are composed. Yet translating this ambition into buildable systems requires technical precision and construction intelligence.
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.
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Villa Tai. Image Courtesy of ARK Architects
The single-family house remains one of the most complex territories in contemporary architecture. At once intimate and technical, everyday and symbolic, it concentrates debates around comfort, sustainability, landscape, and ways of living, while also serving as an instrument for projecting the identity of its inhabitants. It is within this field that ARK Architects operates. Based in Marbella and Sotogrande, the studio's work, under the creative direction of co-founder Manuel Ruiz Moriche, develops from a direct relationship between architecture, natural light, and environmental context.
The role of heritage rehabilitation in the contemporary architectural landscape is shaped by a wide range of research, beliefs, memories, and efforts aimed at redefining and strengthening our built environment. When undertaking a transformation, renovation, or preservation project, architects can employ diverse strategies and tools to encourage a meaningful coexistence between what already exists and what is newly introduced. Together with three Madrid-based architecture practices—SOLAR, Pachón-Paredes, and BA-RRO—we set out to engage in conversation and explore their creative processes and ideals, recognizing the complexity and value of historic buildings as repositories of materials, structures, and construction techniques from other eras.
Building Design’s built-in daylight potential analysis helps architects guide schematic decisions about fenestration strategy while they’re designing. Image Courtesy of Autodesk
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.
