"The limits of our design language are the limits of our design thinking". Patrik Schumacher's statement subtly hints at a shift occurring in the built environment, moving beyond technological integration to embrace intelligence in the spaces and cities we occupy. The future proposes a possibility of buildings serving functions beyond housing human activity to actively participate in shaping urban life.
Throughout history, doors—and later automatic doors—have served a far greater purpose than merely marking an entrance or exit. They define thresholds, guide the flow of movement, and subtly shape the way people interact within a space. We can trace their evolution back to the 1st century, when Heron of Alexandria devised a steam-powered door—an early example of technology merging with architecture. Since then, contactless automatic door systems have incorporated technological advancements that enhance operation and redefine their role within buildings. Today, they are integrated across a range of building types and scales, acting as transitional elements that enhance comfort, energy efficiency, and the overall quality of indoor spaces.
As artificial intelligence (AI) becomes increasingly embedded in society, it's essential to pause and reflect on the foundations that sustain it—and the dimensions to which it extends. At the heart of AI's learning are datasets, whose structure and content shape how these systems interpret and respond to the world. This reliance creates a deep interdependence—one that not only informs AI's capabilities but also defines its potential blind spots. In light of this, we must ask: What forms of understanding might this process exclude, especially those not easily captured in digital form?
According to the analysis firm Gartner, 3D printer sales surged by 75% around 2014, nevertheless, the technology continues to experience significant growth. While there are multiple debates in the field of architecture about whether 3D printing can be considered craftsmanship or if it is feasible to mix local materials with 3D printing, its implementation from academia aims to create new experiences, research, and knowledge that contribute to its development and practical application. Now, how might the integration of 3D printing in academia provoke future changes in the construction industry? And how could education in architecture and design encourage collaboration with other disciplines to create new applications across different fields?
For decades, technological evolution was driven by the exponential growth in computer processing power—a trend famously predicted by Moore’s Law. From rudimentary mechanical devices to highly sophisticated microprocessors, this trajectory fueled the miniaturization and popularization of personal computers, laptops, and smartphones. Now, with the advent of quantum computing, a new leap is on the horizon. Unlike classical bits, which represent only one value at a time—either 0 or 1—qubits can simultaneously represent a combination of both states. This means that while a traditional computer tests one possibility at a time, a quantum computer can explore many at once, dramatically accelerating the resolution of complex problems. Molecular simulations, logistical optimizations, and advances in cryptography are just a few of the areas transformed by this new frontier.
In the construction industry—a sector historically resistant to abrupt changes—the evolution of materials also has its breakthrough moments. From carved stone to reinforced concrete, from raw timber to high-performance composites, each new material has expanded the structural, aesthetic, and functional boundaries of architecture. In recent years, however, researchers have been testing a new generation of materials that transcend the traditional idea of passivity. These are intelligent materials, capable of sensing, reacting to, and even interacting with their environment and users, challenging the very concept of inert matter.
Following a broader trend across architectural spaces, bathrooms have evolved from strictly utilitarian functions into environments integrated with intelligent systems, where physical, cognitive, and sensory parameters are considered in the development of spatial solutions. But, it is always important to remind that cutting-edge technology doesn't always guarantee a better experience. While high-end automation and digital controls offer impressive capabilities, it's often the subtle, user-friendly features—the ones that feel intuitive rather than intrusive—that leave a lasting impression. These are the quiet innovations that elevate daily routines without overcomplicating them. The adoption of user-centered ergonomics—a design approach that takes human needs and limitations as its starting point—has guided the creation of components that respond adaptively to the presence, behavior, and preferences of users. Technologies such as toilets with automated features, proximity-activated faucets, concealed cisterns, and intuitive temperature controls not only enhance comfort and accessibility but also contribute to more efficient management of water and energy resources.
The role of the kitchen has undergone a remarkable transformation—evolving from a purely functional space into the central hub of the home, where creativity thrives and meaningful connections are made. This shift is closely linked to the growing popularity of cooking as a hobby, spurred by a surge in culinary-focused TV shows and dedicated channels. It reflects a broader cultural movement towards authenticity in an increasingly digital world—a counterpoint to the fast-paced nature of modern life that emphasizes a slower, more mindful lifestyle, often referred to as "slow living".
This trend also aligns with a growing focus on health and wellness, as well as a renewed appreciation for nature and cultural heritage. Today, the kitchen is more than just a place to prepare meals—it's where families gather, friends connect, and culinary skills are honed and celebrated. Yet, even an activity as elemental and hands-on as cooking can be transformed by technology. Beyond traditional electronic utensils and appliances that simplify many processes, Artificial Intelligence is emerging as a powerful ally in the modern kitchen.
For centuries, the heart of the Arabian Peninsula was a land of vast deserts and settlements shaped by their environment. This relationship with the landscape, materiality, and knowledge of the place has not only endured but now translates into a landscape gaining recognition on the global creative scene. From projects that emerge with a profound sensitivity to context to global exhibitions and awards that drive its evolution, the region is consolidating its architectural language—rooted in its history while oriented toward new explorations. Far from halting, this momentum continues to chart the path for its development, establishing the region as a platform in contemporary architectural discourse.
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.
Humanity's fascination with the unknown is a timeless impulse, rooted in curiosity and the desire to push boundaries, uncover mysteries, and open doors to new frontiers. What were once represented by voyages and the discovery of new islands and continents are now pursued in the vastness of the Universe. As we seek answers, provoke new questions, and open doors to endless possibilities, this drive continues to inspire. It has shaped countless literary and cinematic works, transforming interstellar exploration from a science fiction concept into a vision increasingly grounded in reality.
One such visionary project is Project Hyperion, spearheaded by the Initiative for Interstellar Studies (i4is), which challenges humanity to develop practical solutions for interstellar travel through a design competition. By envisioning generation ships—vast, self-sustaining habitats capable of supporting multigenerational societies on journeys spanning centuries—the project not only pushes the boundaries of technology but also sparks social innovation, stretching the limits of our collective imagination. There is still time to submit your design by March 9th, with Phase 2 starting on May 4th.
I saw it on Instagram! It's a phrase we often hear in various contexts, from the latest restaurant recommendations to the trendiest hotel in town. The window to observe and expose ourselves to the outside world now sits in our smartphones. This doesn't necessarily mean it's all doom and gloom. Still, it reflects that we're constantly flooded with data and information segmented by algorithms, all in a super easy-to-consume format. In today's world, it takes only a few seconds to form a lasting impression of a building and its atmosphere—and those first impressions matter more than we often realize.
Innovation comes in many shapes and forms. 2025 is poised to witness continued advancements in the areas of artificial intelligence, sustainability, and biotechnology. These breakthroughs often arise from experimentation in industries like technology and healthcare, where companies have strong research and development teams and significant budgets. This enables them to produce new products and services that address society's evolving needs.
In a world confronting complex challenges, innovation in architecture plays a distinctive role. Unlike industries driven by rapid innovation cycles, architecture must balance creativity with practical solutions that are deeply rooted in human experience. What will it take for the architecture industry to fully harness its potential in shaping the future of our built environment?
The evolution of bathrooms into their modern configuration traces back to ancient civilizations like the Ottoman and Roman, where sanitation held significant cultural importance. During the Middle Ages, however, personal hygiene practices declined, setting back developments in sanitation until the Renaissance revived interest in cleanliness. This shift paved the way for key innovations in the 18th century, including modern plumbing systems that enabled the widespread adoption of modern sanitation spaces. Today, it's unimaginable to design an architectural project without incorporating these facilities, highlighting the essential role of hygiene and well-being, now closely tied to technological advancements.
For decades, the life cycle of buildings was a simple formula: planning, design, construction, demolition, and, of course, the great villain in this history: the landfill. Over time, architectural practice began embracing concepts like reuse, disassembly, and circular demolition, but often as secondary elements, part of the gradual shift toward a circular economy in construction. But what if these principles were no longer exceptions? What if we crafted or chose every building component to maintain value and purpose beyond its original use? The truth is, there is life after demolition. This transition—from demolition to practices focusing on reuse, repurposing, and sustainable dismantling—is edging closer to reality. By the time 2030 arrives, we could fundamentally reshape how we approach processes, buildings, and the market itself. As these changes unfold, we must assess how our strategies align with the evolving goals and challenges related to sustainability—and, of course, the new opportunities they bring.
Architects from all over the world are invited to participate in the "Best House in the World" competition, a new international contest designed to discover and reward innovative residential architectural designs that have not yet been built and are still in development. The inHAUS brand, with the sponsorship of Geberit, Porcelanosa, Schüco, Joquer and S&P, presents the challenge of industrialized construction for the most daring and creative projects. These are real projects, with actual clients and real plots, designed by architects striving to achieve new standards of excellence and quality in their residential constructions. Dare to challenge the innovative off-site construction system by inHAUS!
The use of innovative tools, techniques, materials, and technologies to shape the future of construction is a subject that captivates professionals across architecture, engineering, construction, and planning, as well as investors and industry leaders. Advances in technology and breakthroughs in material science provide a rich landscape for exploration and discussion, sparking lively debates on the ongoing transformations in both urban and rural environments. Key areas of focus include resource management, the challenges posed by the climate crisis, and the broader implications for the built environment.
Silos hold a significant place among the remnants of the industrial era, distinguished by both their technological innovations and their iconic presence in urban landscapes. Typically cylindrical and made of reinforced concrete, these structures effectively addressed the demands and challenges of industrialization, providing a robust and economical solution for storage. However, throughout the 20th century, with the advent of new logistics and the relocation of activities from some urban centers to expanding areas, many of these silos were decommissioned.
However, despite their enclosed design appearing to be an obstacle for new uses, recent decades have seen initiatives that embrace and repurpose these structures. These projects integrate silos into the urban environment, emphasizing their significance as part of the local collective memory.
