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, and as a dominant standard gradually emerged, these infrastructures became incompatible with one another.
Decades of research in environmental psychology and building science reveal that indoor conditions can profoundly affect human health and behavior. Lighting influences circadian rhythms and sleep patterns. Air quality impacts cognitive performance and respiratory health. Temperature and acoustics shape comfort and concentration.
The contemporary technology museum has emerged as a performative participant in the systems it seeks to document. The architecture of these institutions has become increasingly fluid and bold, often mirroring the velocity and complexity of the systems it houses. They operate as mediators between the human, the ecological, and the technological realms, transforming from encyclopedic warehouses into active educational engines.
Rather than representing a simple return to the past, this renewed interest reflects a broader reconsideration of how architecture engages with materials, local resources, and environmental conditions.
The scaling model relies on several predictive factors of the system, including the underlying LLM's intelligence index; the baseline performance of a single agent; the number of agents; number of tools; and coordination metrics. The researchers found there were three dominant effects in the model: tool-coordination trade-off, where tasks requiring many tools perform worse with multi-agent overhead; capability saturation, where adding agents yields diminishing returns when the single-agent baseline performance exceeds a certain threshold; and topology-dependent error amplification, where centralized orchestration reduces error amplification.
Earlier we did episode one of this with Grady Booch where we discussed the principled view of that what's changing and what remains unchanged, what is hyped and what is actually naturally coming with the AI changes. We also spoke about that what is the difference between the design and the architecture and what teams are focusing and what they might be missing.
Having explored adaptability at the city scale, we are now zooming in on the building itself-and, crucially, on practice. How can architects, developers, and consultants embed adaptability as a measurable, mainstream outcome? This question will be on the agenda at the Adaptable Building Conference (ABC) on January 22 at the Nieuwe Instituut in Rotterdam, where architects, engineers, policymakers, and industry leaders will explore the potential of adaptable buildings-and how to deliver them at scale.
The vascular system and the brain are examples of physical networks that differ from the networks typically studied in network science owing to the tangible nature of their nodes and links, which are made of material resources and constrain their layout. The importance of these material factors has been noted in many disciplines: as early as 1899, Ramón y Cajal suggested that we must consider the laws conserving the 'wire' volume to explain neuronal design8
Every architectural epoch has been defined by its instruments. The compass, the drawing board, the camera, and the computer have each altered how architects think and produce. Yet the current moment feels qualitatively different.
The meetings that actually work-the ones where breakthroughs happen and teams leave energized rather than depleted-operate on a completely different logic. They're designed around how human brains actually function, not how we wish they would.
I'll be talking about holistic engineering or the practice of factoring in your technical decisions, designs, strategies, all the non-technical factors that are actually forces that influence your organic socio-technical problem space. As much as you can see in this canyon how natural forces have influenced the shape of the earth, so you can see the color. You can see all the different layers.
Hakboian describes a pattern in which specialised agents: one for logs, one for metrics, one for runbooks and so on, are coordinated by a supervisor layer that decides who works on what and in what order. The aim, the author explains, is to reduce the cognitive load on the engineer by proposing hypotheses, drafting queries, and curating relevant context, rather than replacing the human entirely.
Recent integrative approaches suggest that physics cannot be adequately characterized by magnitude-based distinctions alone, such as those implied by Big-P, little-p, and mini-p physics. While these categories capture differences in scope and historical impact, they fail to address the heterogeneity of physical activity itself. To remedy this, I propose the Five Fs of physics: force, friction, flux, formulation, and foundational structure.
The federated model suggests that design system work can be distributed across multiple teams without a central authority. It sounds democratic. It sounds efficient. It sounds empowering. In practice, it creates an ownership vacuum. Who's responsible for defining the architecture of the design system? Who establishes and evolves the processes needed to scale? Who ensures quality and consistency? Who maintains the infrastructure on which the system depends? Who deals with the unknown challenges that will inevitably
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.
In the translation of three-dimensional reality onto a two-dimensional plane, axonometry stands as one of the graphic systems of representation that form the foundation of the language used by architecture and design professionals. Alongside plans, sections, and elevations, its exploded views often stand out for their ability to study the multiple layers that compose a project. Although axonometry is also employed in other disciplines such as
Life doesn't pause for grief or fear. You might be going through something devastating but you're still packing lunches, still driving your kids to baseball practice, still showing up to work. One minute I find myself prepping for a whole home presentation and the next minute I'm checking the news, hoping and praying that no one has been killed on the streets today.
Arkhive is a full-scale developed by master's students from the Design for Manufacture (DfM) program at the Bartlett School of Architecture, UCL. The project explores fabrication and reconfigurable construction systems through an adaptable truss structure assembled using interlocking joinery. The pavilion was conceived as a demonstrator for construction systems that can be fully disassembled, reconfigured, and . Designed and built by students and staff, the free-standing structure is organized around two twisting timber arches anchored to plinths.
Fast Company asked architects from some of the top firms working around the world what they thought about the look of architecture in 2026. Of course, a building designed in 2026 almost certainly will not be completed in 2026, and construction timelines are notoriously fluid.
