This project investigates Parc del Centre del Poblenou through the lens of Designing for More than Humans. The park, although permeable and vegetated, is spatially structured around human circulation and programmed activity. As a result, human occupation is continuous and dominant, while non-human life remains fragmented and residual.

Through rule-based speculation, the project tests how restructuring circulation, redefining soil conditions, adjusting ground demarcation, and diversifying species distribution could shift the park from diffuse human dominance toward more stable ecological habitats.

Parc del Centre del Poblenou is located adjacent to the busy Avenue Diagonal in the Provençals del Poblenou area and is surrounded by the newer high-rises of the 22@ District. Designed by Jean Nouvel in 2008, the 5.5-hectare park was built on former tram tracks and industrial grounds. The site is bisected by several roads, dividing it into three main sections; however, its architectural language connects these fragmented islands, most notably where the park continues over the road through arching vines that create a sense of spatial continuity. A large perimeter wall covered in bougainvillea encloses parts of the park, punctured by portal-like windows that allow visual access from the outside. Open daily from approximately 8:30 to 19:00–21:00, the park also integrates environmental considerations such as water conservation in times of drought and the incorporation of a waste collection facility. At the same time, the diverse and sometimes complex species mix has been critiqued for making maintenance challenging.

Park entrances inspired by Portal Miralles, an iconic modernist gateway, designed by Antoni Gaudí

There are 14 different types of species throughout the park, totalling 714 trees.





The vegetation in Parc del Centre del Poblenou is a lively mix of species chosen for their adaptability to Barcelona’s Mediterranean climate and urban conditions. While not all are strictly native, many — such as the London plane tree (Platanus × acerifolia) and Tipuana (Tipuana tipu) — are already common in the city’s streets and green spaces and well-adapted to local urban stressors. Platanus × acerifolia is especially prevalent in Barcelona, where it represents one of the most frequently planted shade trees in public areas, valued for its resilience and broad crown. Deciduous and flowering species provide seasonal change, while evergreens like Olive (Olea europaea) and palms such as Canary Island Date Palm (Phoenix canariensis) add year-round structure and fruiting potential. Climbing and flowering plants like Bougainvillea and Podranea ricasoliana contribute dramatic color and vertical greenery, helping to define spaces and attract pollinators

“Potentially invasive” means that it has the rapid ability to spread if not controlled. These trees have many benefits to the climate region.
Biodiversity of trees is heavily segmented and is assigned certain locations
The park is rich in pollinator nectar species and those that provide canopy shading.
The trees are planted on a regimented grid that varies by location, specifically along formal circulation paths.
While canopy cover is high, the substantial permeable surface area presents significant potential to enhance biodiversity through diversified planting and ecological zoning.
The park demonstrates a strong canopy presence (51%), indicating mature vegetative structure and significant microclimatic buffering capacity. However, species dominance patterns suggest uneven ecological resilience.
Human vs Non Human Occupation

A strong circulation axis cuts across the park, allowing it to function partly as a transit corridor rather than a space of prolonged occupation. Although official paved paths structure movement, the lack of clearly defined ecological “no-go” zones invites informal human circulation. Programmed, activity-based spaces such as dog zones, ping pong tables, and basketball courts attract frequent human use, while passive elements like seating remain comparatively underused. As a result, human occupation is continuous and spatially dominant.

Non-human occupation, by contrast, is highly fragmented and confined to residual planted zones. Vegetation exists, but without protected refuge areas or layered habitat structures, ecological life remains exposed to disturbance. Consequently, overlap between human and non-human occupation is minimal, and stable habitat formation is limited within the current design of the park.

Zones were selected where architectural features appeared to influence biodiversity under three distinct spatial conditions. These areas were then analyzed to evaluate how spatial design shapes ecological patterns and affects non-human occupation.

The selected areas were analyzed in relation to existing biodiversity, examining both plant species composition and the presence of human-made elements. The distribution of permeable and impermeable surfaces was evaluated to understand their influence on soil condition, habitat continuity, and patterns of movement. Based on these observations, conclusions were drawn to formulate guidelines aimed at improving ecological restoration, alongside methods to quantify potential ecological recovery over time.

Following the spatial analysis, we used rule-based speculation to reimagine ecological restoration scenarios within the park. The governing rules were extracted from the observed design framework — identifying the park’s intentional logics.

  • Rule 01 – Rigid Grid Alignment – All trees and vegetation align to a strict grid
  • Rule 02 – Monoculture by Zone – Each grid cell contains a dominant single species.
  • Rule 03 – Uncontrolled Circulation through Weak Delineation – Compacted soil extends beyond official paths, allowing informal circulation
  • Rule 04 – Pruned Tree Architecture – Trees are shaped to follow a specific ornamental shape

By selectively modifying Rule 03, which invites uncontrolled circulation through compacted soil extending beyond official paths, alternative scenarios were reimagined to evaluate how restructuring movement could influence ecological recovery across different areas of the park.

The park lacks clear distinction between circulation paths and ecological zones, allowing uncontrolled human movement across compacted soil areas. This weak spatial delineation disrupts habitat continuity, reduces soil permeability, and limits the park’s ecological restoration potential.

For the rule-based speculation, we reimagined how ecology could be restored in this specific area by restructuring circulation, restricting human access, and increasing scrub density. Comparing the original image to the AI-generated edit, the intervention demonstrates a clear shift in ecological intent.

The qualitative benefits for non-human life primarily emerge through the reduction of disturbance. By concentrating circulation and protecting vegetated zones, the park creates more stable habitat conditions, increasing the potential for pollinators and other species to establish continuous life cycles. Improved soil conditions, supported by initial decompaction and root growth, enhance microbial activity and water infiltration, improving the ecological foundation of the park.