Autumn Show 2026
unit-code
Originating from an analysis of urban imbalance, Shadow Zone reimagines ruptures within the urban fabric not as voids or failures, but as spaces where different rhythms, communities and activities overlap. Inspired by Eastern philosophy, the project reimagines the glitch as a catalyst for a new urban condition, revealing and amplifying latent relationships, differences and possibilities within the city. Drawing upon the Roman Thermae as a contemporary vessel for events and encounters, a continuous landscape unfolds across the city, connecting glitch points, imbalanced fields and event frameworks into a cohesive spatial strategy. Hosting spaces for bathing, gathering and spontaneous encounters, this evolving terrain invites people to slow down, wander and discover new experiences. As events, atmospheres and encounters accumulate over time, Shadow Zone becomes a living urban landscape where architecture, landscape and collective life continuously evolve together.
Reconceptualising shadow zones as systemic 'glitches' rather than structural failures, the scheme leverages their disruptive logic to establish an autonomous mode of habitation—manifesting a self-sustaining 'glitch city' within London's urban fabric.
Unevenly distributed pressures fracture the city into asynchronous subsystems, weakening urban continuity. These resulting 'gaps' redefine the city from a static spatial layout into an evolving, dynamic system shaped by temporal flows and adaptation.
Shadow zones act as systemic spatial glitches, disrupting normative urban logics and metabolic homogeneity. Rather than correcting this failure, the project harnesses its anomalous conditions to engineer an autonomous, self-sustaining 'glitch city'.
Distinct Low-High spatial outliers reveal overlooked urban heterogeneity. NW London contains linear, clustered, and scattered shadow zones across one continuous field, making it the ideal 50×50 resample site for pattern analysis and testing.
In order to identify potential Shadow Zones in London, we analyze urban data to cluster areas with similar spatial patterns. First, we identify stable areas through data clustering, mapping where spatial patterns remain consistent.
Shadow zones expose systemic misalignments within stable fabrics. Overlaying spatial stability with functional breaks reveals five sites where coherence and disruption coexist, identifying prime fields for design intervention.
The site embodies a paradox: visibly open yet profoundly secluded. Severed by transit corridors into spatial islands, it suffers from severe VGA-measured visual cutoff—forming an 'enclosed open space' physically present but perceptually isolated.
Pix2Pix compares ideal metrics with empirical data to map urban discrepancies. This friction between machine perception and physical ground truth spatialises systemic imbalances, localising the "Glitch" across four key urban layers.
Based on the relationship between time and space, we understand atmosphere as the condition that shapes how events unfold.
Framing glitch points as generators and imbalanced zones as resources, the model simulates glitch event cycles to chart their spatial tendencies and isolate peak manifestation areas.
Superimposing these three strata forms a dynamic 'Strategy-Event Matrix'. Harnessing glitches as generative agents rather than errors, the adaptive model uses imbalanced fields to direct events, establishing a self-organising urban ecosystem.
By mapping morphological, social, and functional velocities via a self-organising map, the study extracts zones of high difference. These temporal contrasts become spatial resources, shaping an adaptive master plan tuned to embedded atmospheres.
Inspired by Gaussian splatting, event images are translated into depth and reconstructed as three-dimensional point clouds. This process extracts spatial qualities from everyday scenes, providing a basis for the development of landscape prototypes.
Deep learning extracts latent features of density, depth, and activity from urban imagery to cluster spatial prototypes. Projected into point clouds, these models shape landscape geometries where solid-void ratios, light, and fog craft atmosphere.
An open bathing pool anchors the prototype as a social core. Terraced slopes introduce tiered levels for gathering and movement, allowing users to fluidly shift between participant and observer while staying tethered to the central water basin.
Atmospheric types inform a site-specific program, balancing movement, density, and built form. Grouped into thematic zones, the master plan unifies diverse activities while amplifying spatial qualities already embedded within the site.
Mediating distinct atmospheres, the wall leverages circulation and sight line contrasts to spark Glitch Events. Four site-extracted differentials drive its morphogenesis—altering topological depth and porosity to calibrate spatial permeability.
Body key points extract human postures into geometric pose lines. Distributed, rotated, and arrayed along the event framework, these lines expand into 3D furniture prototypes—translating everyday bodily movement into functional, fluid structures.
Merging an art gallery with a public pool, this scheme embeds culture into daily leisure. Porous landscape boundaries interweave water, art, and circulation—letting swimming and viewing overlap to spark spontaneous social encounters.
The landscape transforms as light conditions change throughout the day. At night, the designed colour system becomes more visible, giving the space a distinct visual identity and revealing a different layer of the glitch city experience.