How living heritage, ecological intelligence, local materials and digital knowledge can create places that belong to both people and planet

SEO title: Biocultural Architecture: Designing Cities with Memory
Meta description: Biocultural architecture connects biodiversity, cultural heritage, local materials, traditional knowledge, circularity and digital technology to create regenerative places rooted in identity.
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Primary keyword: biocultural architecture
Secondary keywords: regenerative architecture, vernacular architecture, cultural heritage BIM, adaptive reuse, circular buildings, place-based design, biocultural heritage
Suggested category: Architecture / Culture / Regenerative Design
Suggested reading time: 22–26 minutes

Introduction: A Sustainable Building Can Still Belong Nowhere

Architecture has become increasingly capable of measuring environmental performance.

Design teams can calculate operational energy, embodied carbon, thermal comfort, daylight, water use and material quantities. Building information models can coordinate thousands of components. Digital twins can monitor assets after completion. Product passports can record technical and environmental data.

These developments are essential.

Yet a building can perform well according to conventional sustainability indicators and still feel profoundly disconnected from its place.

It can use low-carbon materials while erasing an existing community.

It can achieve excellent energy performance while ignoring the landscape that surrounds it.

It can install biodiversity features without understanding the ecological relationships that once shaped the site.

It can imitate vernacular forms while excluding the people whose culture produced them.

It can preserve an old façade while destroying the activities, craftsmanship and social memory that gave the building meaning.

It can be efficient, certified and technically advanced—and still belong nowhere.

This reveals a limit in the prevailing sustainability discourse.

Environmental performance is necessary, but it is not sufficient.

A genuinely regenerative building should not merely reduce damage. It should strengthen the relationships between:

people and place;
culture and ecology;
past and future;
materials and landscapes;
knowledge and practice;
buildings and communities;
and human settlement and other forms of life.

This is the field of biocultural architecture.

Biocultural architecture begins from a simple but far-reaching proposition:

Biological diversity and cultural diversity are not separate systems. They have developed together through the ways people inhabit, cultivate, build, repair, name and understand their environments.

Architecture participates in that relationship.

Buildings influence which materials are valued, which crafts survive, how land is treated, which species can coexist with human settlement and whether people continue to recognise themselves in the places around them.

The cities of the future therefore face a deeper challenge than becoming smart or carbon-neutral.

They must learn how to change without becoming culturally empty.

They must become capable of innovation without forgetting where they came from.

1. Sustainability Has Often Been Detached from Place

Modern sustainability practice has developed powerful methods for measuring environmental impacts.

Whole-life carbon assessment, lifecycle analysis, energy simulation and circularity metrics allow professionals to compare alternatives more systematically.

In March 2026, the European Commission published new guidance promoting lifecycle approaches to decarbonising buildings—from design and material supply through operation, renovation and eventual demolition.

This represents important progress.

A building’s environmental impact cannot be understood by examining operational energy alone. It must include:

extraction;
production;
transport;
construction;
maintenance;
replacement;
adaptation;
demolition;
reuse;
and disposal.

However, lifecycle assessment normally focuses on impacts that can be quantified.

It may tell us how many kilograms of carbon dioxide equivalent are associated with a material.

It does not automatically tell us:

whether the material supports local livelihoods;
whether the knowledge required to maintain it still exists;
whether harvesting practices strengthen or damage an ecosystem;
whether its appearance carries cultural meaning;
whether it was selected with community participation;
or whether the building contributes to cultural continuity.

These questions are not less important because they are difficult to express as a single number.

They require another dimension of analysis.

Biocultural architecture does not reject environmental measurement.

It expands the meaning of environmental performance.

It asks not only:

How much environmental harm does this building produce?

It also asks:

What ecological and cultural relationships does this building preserve, restore or create?

2. What Biocultural Architecture Means

The term biocultural describes the interdependence between biological life and cultural life.

Landscapes are rarely shaped exclusively by either nature or people.

They emerge through long interactions involving:

climate;
geology;
species;
agriculture;
settlement;
craft;
language;
ritual;
food;
trade;
governance;
and collective memory.

A coastal landscape contains ecological systems, but it may also contain generations of knowledge about boats, weather, fish, drying, storage, harbours and settlement patterns.

A mountain landscape contains geological and biological systems, but it may also contain grazing practices, seasonal routes, material traditions and cultural meanings.

An urban neighbourhood contains buildings and infrastructure, but it also contains stories, relationships, informal economies, patterns of care and places where communities recognise themselves.

Biocultural architecture treats these relationships as design information.

It aims to create or transform buildings in ways that:

respond to local ecosystems and climate;
preserve meaningful cultural continuity;
support living skills and crafts;
use materials responsibly;
strengthen social participation;
enable future adaptation;
and leave useful knowledge for the next generation.

It is not a historical style.

It does not require buildings to look old.

It is a method of understanding place deeply enough that innovation becomes rooted rather than imported blindly.

A biocultural building may use advanced timber engineering, robotics, artificial intelligence, digital fabrication and sensor systems.

The relevant question is not whether the technology is modern.

The question is whether the technology strengthens or weakens the relationships that sustain the place.

3. Vernacular Architecture as Distributed Research

Vernacular architecture is sometimes dismissed as primitive construction or romanticised as an automatically sustainable alternative to modern building.

Both views are misleading.

Traditional buildings were not always comfortable, equitable, healthy or environmentally benign.

Some depended on social hierarchies, difficult labour, resource scarcity or practices that cannot simply be revived.

Vernacular knowledge should therefore not be copied uncritically.

But neither should it be ignored.

Vernacular buildings often represent centuries of distributed experimentation.

People learned through repeated experience:

how roofs should respond to rain, snow and wind;
where settlements should be located;
how to orient openings;
which materials could tolerate local moisture conditions;
how structures could be repaired with available tools;
how heat could be retained or released;
how water could be collected and guided;
and how buildings could support patterns of work, family and community life.

UNESCO has increasingly emphasised that traditional knowledge, historic urban forms, building methods and resource-management practices can offer tested lessons for contemporary climate resilience.

The value of vernacular knowledge lies not primarily in its appearance.

It lies in its reasoning.

A shallow approach copies:

roof angles;
ornaments;
colours;
façade rhythms;
and decorative references.

A deeper approach investigates:

why the form developed;
which environmental pressure it addressed;
which materials and skills made it possible;
how it was maintained;
how social life shaped its organisation;
and which principles remain useful under contemporary conditions.

Biocultural architecture translates these principles rather than merely reproducing old shapes.

4. Eight Dimensions of Biocultural Architecture

Dimension 1: Landscape and ecological relationships

A conventional project often begins with the cadastral boundary.

Biocultural architecture begins with the wider landscape.

The project should understand:

watersheds;
groundwater;
soil;
geological conditions;
vegetation;
wildlife movement;
prevailing winds;
solar exposure;
seasonal variation;
historical land uses;
food systems;
and relationships with neighbouring communities.

A building is never ecologically confined to its plot.

Its materials come from elsewhere.

Its water flows downstream.

Its light affects surrounding species.

Its energy demand influences infrastructure.

Its occupants generate transport and waste.

Its foundations alter soil and hydrology.

Its landscaping may either connect or fragment habitats.

The EU Nature Restoration Regulation establishes binding targets for restoring degraded ecosystems and recognises restoration as a means of strengthening climate resilience and reducing disaster risk.

Architecture must therefore move beyond the idea of adding isolated green features.

A green roof can be useful, but biodiversity cannot be reduced to a checklist of decorative vegetation.

Ecological design should ask:

Which species and habitats are characteristic of this place?
Which ecological connections have been interrupted?
Can the project restore soil, water or habitat continuity?
Are selected species locally appropriate?
Who will maintain them?
How will the ecosystem change over decades?
Can human use and ecological function reinforce one another?

The aim is not to create an imitation of untouched nature.

Cities and settlements are already human-influenced ecosystems.

The aim is to design them as places where more forms of life can flourish.

Dimension 2: Climate intelligence

Climate-responsive architecture begins with the physical realities of place.

These include:

temperature;
humidity;
precipitation;
wind;
solar radiation;
seasonal daylight;
flooding;
fire;
snow;
storms;
and future climate projections.

Before mechanical systems became dominant, building form was often closely connected to these realities.

Courtyards, roof overhangs, thermal mass, compact forms, raised floors, ventilated roofs, shutters and seasonal rooms developed in response to specific climatic conditions.

These strategies can inform modern design, but they must be tested against contemporary requirements and future climate scenarios.

The objective is not to eliminate technology.

It is to avoid using technology to compensate for fundamentally inappropriate form.

A well-oriented, sheltered and materially coherent building usually requires less technical correction than one designed without regard to climate.

Biocultural climate design therefore combines:

traditional observation;
building physics;
climatic datasets;
simulation;
local experience;
and monitoring after occupation.

Traditional knowledge should become a source of hypotheses.

Engineering should test and adapt those hypotheses.

Operational data should show whether they work.

Dimension 3: Materials and local ecological metabolism

Materials connect buildings to landscapes.

Stone connects a building to geology and quarrying.

Timber connects it to forests, forestry practices and biological growth cycles.

Clay connects it to soil, water and firing energy.

Metals connect it to mining, industrial processing and global supply chains.

A material is therefore never only a technical product.

It is part of an ecological and economic system.

Biocultural material selection considers:

origin;
renewability;
extraction impacts;
labour conditions;
local availability;
transport;
toxicity;
carbon;
durability;
repairability;
cultural significance;
and end-of-life pathways.

Local materials are not automatically sustainable.

An ecologically damaging local quarry does not become acceptable merely because it is nearby.

A global product may sometimes have better documented performance or lower total impact.

The relevant goal is not absolute localisation.

It is responsible material relationship.

The project should understand where its materials come from, who produces them and what happens to the landscapes and communities involved.

The revised EU Construction Products Regulation establishes a future construction digital product-passport system designed to improve product traceability and interoperability with BIM. The regulation requires relevant passport information to use open, interoperable formats and seeks to prevent vendor lock-in.

This can make technical and environmental information more accessible.

But biocultural architecture requires an additional layer.

A product passport may describe:

declared performance;
chemical composition;
environmental indicators;
manufacturer;
and instructions.

A biocultural record should also be able to describe:

geographical origin;
associated craft;
landscape impact;
repair traditions;
cultural use;
conditions for ethical sourcing;
and whether the material supports local ecological stewardship.

This transforms traceability from a compliance instrument into a relationship map.

Dimension 4: Living heritage and craftsmanship

Heritage is often treated as a collection of protected objects.

But much heritage exists as knowledge in motion.

It lives in:

hands;
tools;
language;
techniques;
maintenance practices;
songs;
stories;
seasonal routines;
and relationships between masters and learners.

A historic timber building cannot be preserved indefinitely if nobody knows how its joints work.

A lime-plastered wall cannot be maintained if every repair uses an incompatible material.

A cultural landscape cannot survive if the practices that formed it disappear.

Biocultural architecture therefore treats craftsmanship as infrastructure.

A project should ask:

Which skills does the building require?
Do those skills exist locally?
Can the project create apprenticeships?
Can experienced practitioners participate in design?
Can repairs be performed without dependence on rare proprietary systems?
Can knowledge be documented without removing it from the community that holds it?

UNESCO’s 2026 recognition of vernacular-architecture revitalisation in Vanuatu emphasised traditional building knowledge as a foundation for climate resilience after destructive cyclones.

The lesson is broader than one building tradition.

When a craft disappears, society loses:

a maintenance capability;
a climate adaptation strategy;
a vocabulary for understanding materials;
and part of its cultural identity.

Preserving a building while allowing its associated knowledge to vanish produces a museum object.

Biocultural conservation seeks living continuity.

Dimension 5: Adaptive reuse and embodied memory

Existing buildings contain more than embodied carbon.

They contain embodied memory.

Their fabric records:

construction methods;
economic history;
adaptations;
changing lifestyles;
periods of prosperity and hardship;
individual craftsmanship;
and the collective decisions of previous generations.

Demolition destroys both material value and knowledge.

This does not mean that every building must be preserved unchanged.

Some structures are unsafe, harmful, deeply dysfunctional or incapable of reasonable adaptation.

But demolition should be a considered conclusion—not the automatic starting point of redevelopment.

The European Commission’s current whole-life decarbonisation direction increasingly prioritises renovation, repurposing and conversion as alternatives to unnecessary demolition and new construction.

The New European Bauhaus also encourages repair-led adaptive reuse as a means of reducing environmental impact while preserving cultural value.

Adaptive reuse should operate at several levels.

Material continuity

Retain useful structures and components.

Spatial continuity

Preserve meaningful relationships between rooms, streets, courtyards and landscapes.

Functional continuity

Allow valued activities to remain where possible.

Social continuity

Avoid transforming a culturally significant place into an exclusive environment that displaces the people who gave it meaning.

Narrative continuity

Make change legible without pretending that the building has never evolved.

A successful transformation does not freeze time.

It allows the next chapter to be written without erasing the previous ones.

Dimension 6: Identity, belonging and cultural continuity

Architecture helps people understand where they are.

Materials, scale, sound, smell, light, routes, thresholds and public spaces contribute to a sense of recognition.

When development replaces these qualities with generic forms, places may become economically active but culturally thin.

This is not an argument for stylistic uniformity.

Communities are not static.

Migration, technology, climate and new generations continually reshape identity.

The objective is therefore not to preserve one authorised image of the past.

It is to create space for cultural continuity and cultural evolution.

Design teams should investigate:

Which places hold collective meaning?
Which everyday activities need space?
Which stories are absent from official heritage narratives?
Who feels welcome?
Who has historically been excluded?
How can new residents contribute to local identity?
Which changes are experienced as renewal, and which as erasure?

The New European Bauhaus is increasingly positioning participation, inclusion, affordability and high-quality design as integrated parts of the European built-environment transition. In May 2026, the Council encouraged EU countries to integrate these principles into national policy and funding.

Participation, however, must be more than consultation after the main decisions have been made.

Communities should be able to influence:

project objectives;
heritage interpretation;
public-space priorities;
material choices;
access;
uses;
and long-term governance.

People are not merely users of place.

They are knowledge holders and co-authors.

Dimension 7: More-than-human habitation

Most buildings are designed almost entirely around human requirements.

Other forms of life appear later as landscaping, mitigation or decoration.

Biocultural architecture starts from the understanding that buildings participate in multispecies environments.

Roofs can provide habitat.

Walls can support nesting.

Drainage systems can create or destroy aquatic conditions.

Lighting can disrupt nocturnal species.

Glazing can injure birds.

Landscaping can feed pollinators or provide almost no ecological value.

Maintenance regimes can support seasonal cycles or suppress them.

Designing for more-than-human habitation does not mean allowing every species unrestricted access to every building.

Health, hygiene, safety and structural performance still matter.

It means identifying where coexistence is possible and desirable.

A project may include:

habitat-connected roofs;
bird-safe glazing;
insect-friendly planting;
dark ecological corridors;
permeable surfaces;
rain gardens;
native vegetation;
deadwood habitats;
integrated nesting features;
and water systems designed as ecological infrastructure.

These interventions should be linked to actual ecological strategies.

A bee hotel placed beside an ecologically barren development is not regenerative design.

Habitat must include:

food;
water;
shelter;
movement;
seasonal continuity;
and appropriate maintenance.

The building becomes not an object placed in nature, but a participant in a living system.

Dimension 8: Digital memory and knowledge stewardship

Digital technology can either flatten cultural complexity or help preserve it.

A conventional building model typically records geometry, materials and technical properties.

A biocultural digital model can also connect:

oral histories;
craft demonstrations;
archaeological information;
biodiversity data;
historic maps;
community narratives;
material origins;
maintenance traditions;
photographs;
climate risks;
and records of transformation.

The European Commission is funding new heritage-data environments that combine BIM, GIS, archaeological information, photorealistic models and community narratives. The POLYHEDRA project, for example, explicitly treats heritage as both material and social rather than as a purely physical object.

This points towards a new form of digital twin.

A conventional digital twin may ask:

What is happening to the physical asset?

A biocultural twin also asks:

What does the asset mean, which knowledge sustains it and whose voices shape its interpretation?

Digital heritage systems must still be governed carefully.

Communities should retain control over sensitive cultural knowledge.

Not every tradition, location or narrative should become globally accessible.

Documentation must not become extraction.

The system should record:

who contributed information;
who may access it;
whether consent was given;
how interpretations differ;
and whether the knowledge can be reused commercially.

Digital memory must support cultural agency—not appropriate it.

5. Preservation Is Not the Same as Continuity

A building can be physically preserved while losing its cultural function.

A fishing harbour can become a picturesque restaurant district after the working harbour disappears.

A farm can retain its buildings while the relationship between land, animals, seasons and community is broken.

A religious building can be restored perfectly while becoming inaccessible to the people who value it.

A traditional house can become a luxury object with no connection to the social life that shaped it.

This is the difference between object preservation and living continuity.

Object preservation focuses on physical fabric.

Living continuity considers:

use;
skills;
stories;
access;
community;
maintenance;
ecology;
and evolving meaning.

The strongest heritage strategies combine both.

Bryggen in Bergen illustrates the importance of continuity in methods and urban structure. UNESCO notes that rebuilding after repeated fires followed established property patterns, plans and wooden building traditions, preserving the characteristic narrow urban structure.

The lesson is not that Bryggen should remain unchanged.

It is that continuity can reside in:

patterns;
techniques;
relationships;
and processes of repair.

Authenticity is not always the absence of change.

Sometimes it is the way change is carried out.

6. Energy Renovation Without Cultural Destruction

Europe faces an enormous renovation challenge.

Existing buildings must become more energy-efficient, climate-resilient and accessible.

But standardised renovation packages can damage buildings that behave differently from contemporary construction.

Older buildings may use:

vapour-open assemblies;
hygroscopic materials;
naturally ventilated cavities;
lime-based mortars;
traditional timber structures;
and moisture-management principles unfamiliar to modern contractors.

Replacing these systems without understanding them can create:

trapped moisture;
decay;
mould;
loss of original fabric;
thermal bridging;
and poor indoor conditions.

Riksantikvaren stresses that protected and older buildings can often be made more energy-efficient without destroying their character, provided interventions begin with an understanding of how the building works and avoid measures likely to cause moisture or rot damage.

A biocultural renovation sequence should therefore prioritise:

Understanding the building.
Repairing defects and stopping unnecessary deterioration.
Improving operation and user practices.
Reducing uncontrolled air leakage carefully.
Improving windows through repair, seals or secondary glazing.
Optimising heating and controls.
Adding insulation only where technically and culturally appropriate.
Integrating renewable energy sensitively.
Monitoring performance after intervention.
Preserving access to repair and future adaptation.

Riksantikvaren’s guidance also connects the continued use of existing buildings with both emission reduction and protection of cultural environments.

The correct solution is not always the one with the greatest theoretical energy reduction.

It is the one that achieves durable improvement without transferring risk into the building fabric or destroying the qualities that make the building worth keeping.

7. The Biocultural Building Passport

Digital product passports will provide increasingly structured information about construction products.

Digital building logbooks can preserve lifecycle documentation.

Renovation passports can provide staged improvement plans.

A biocultural building passport would connect these technical systems with ecological and cultural knowledge.

It would not replace statutory documentation.

It would create an additional layer of meaning and stewardship.

Section 1: Place

landscape type;
watershed;
geology;
climate exposure;
ecological corridors;
historical land use;
and relevant cultural landscapes.

Section 2: Cultural significance

heritage values;
community associations;
stories;
former uses;
symbolic meanings;
and underrepresented narratives.

Section 3: Material origins

source regions;
manufacturers;
craft processes;
recycled or reused content;
ecological extraction conditions;
and cultural significance.

Section 4: Building knowledge

structural principles;
building-physics behaviour;
repair methods;
maintenance cycles;
compatible materials;
and known vulnerabilities.

Section 5: Living skills

relevant crafts;
practitioners;
training resources;
apprenticeships;
and knowledge-transfer needs.

Section 6: Biodiversity

existing habitats;
species observations;
ecological functions;
seasonal conditions;
and maintenance responsibilities.

Section 7: Community participation

contributors;
consultation history;
decisions influenced by participation;
access arrangements;
and governance structures.

Section 8: Adaptation history

alterations;
reasons for change;
retained elements;
removed elements;
performance consequences;
and lessons learned.

Section 9: Future stewardship

recommended maintenance;
climate-adaptation measures;
repair priorities;
potential future uses;
disassembly information;
and material-recovery opportunities.

The passport would make the building’s relationships visible.

It would enable a future owner, designer or community to understand not only what the building is made of, but why it matters and how it should be cared for.

8. A Biocultural Design Process

Step 1: Read the territory before drawing the building

Map the site at several scales:

building plot;
neighbourhood;
landscape;
watershed;
material region;
and cultural territory.

Identify ecological and cultural connections before defining the programme.

Step 2: Establish a knowledge council

Bring together:

residents;
landowners;
local authorities;
architects;
engineers;
craftspeople;
ecologists;
historians;
artists;
facility managers;
and relevant cultural knowledge holders.

This group should influence the brief, not merely respond to a finished concept.

Step 3: Identify what must continue

Determine which relationships, activities, places, materials, views, routes and stories should survive transformation.

Continuity may be more important than preserving every physical element.

Step 4: Establish ecological baselines

Document:

soil;
water;
habitat;
species;
vegetation;
microclimate;
and ecosystem fragmentation.

Define measurable restoration goals.

Step 5: Map material and skill ecosystems

Identify:

available materials;
reuse stocks;
local manufacturers;
repair capabilities;
traditional crafts;
skills shortages;
and training opportunities.

Step 6: Generate alternatives

Develop options that include:

retention;
repair;
partial transformation;
adaptive reuse;
extension;
reversible intervention;
and, where necessary, selective replacement.

Compare more than cost and carbon.

Evaluate cultural continuity, ecological effect and local capability.

Step 7: Prototype with people

Use:

physical models;
mock-ups;
full-scale details;
temporary installations;
digital simulations;
and community workshops.

Prototypes make consequences easier to understand than abstract consultation documents.

Step 8: Build knowledge transfer into procurement

Contracts should specify:

apprenticeships;
documentation;
repair demonstrations;
open data;
material traceability;
and collaboration with local practitioners.

Step 9: Commission the relationships

At handover, verify not only equipment but also:

maintenance competence;
biodiversity management;
community access;
knowledge records;
governance;
and the ability to update the building passport.

Step 10: Continue learning

Monitor:

energy;
moisture;
comfort;
biodiversity;
material performance;
social use;
and community experience.

The project is not complete when construction ends.

It becomes a long-term stewardship process.

9. Avoiding the Misuse of Culture

Biocultural design carries ethical risks.

Culture can be commercialised, simplified or extracted.

Developers may use traditional patterns as branding while ignoring the rights and needs of the communities involved.

Indigenous or local knowledge may be documented and published without proper consent.

Craft may be celebrated aesthetically while practitioners remain poorly paid.

Heritage may be used to justify exclusion, social control or resistance to necessary change.

Several safeguards are therefore essential.

Consent

Knowledge holders should understand how their contributions will be used.

Attribution

Contributors and communities should be recognised appropriately.

Benefit sharing

Commercial value generated from cultural knowledge should not flow exclusively to outside developers or platforms.

Access control

Sensitive information should not automatically become open data.

Plurality

Communities contain multiple perspectives.

One organisation or spokesperson should not be assumed to represent everyone.

Right to evolve

Culture must not be frozen into a tourist-friendly historical image.

Rights before aesthetics

In Indigenous and traditional territories, architecture must engage with land, participation and governance rights—not merely borrow visual motifs.

Respectful biocultural architecture does not ask:

How can we use this culture in our project?

It asks:

How can the project support the people, relationships and living systems through which this culture continues?

10. Norway as a Biocultural Architecture Laboratory

Norway possesses exceptional conditions for advancing biocultural architecture.

Its landscapes contain strong relationships between:

climate;
settlement;
agriculture;
fishing;
forestry;
transport;
hydrology;
and material traditions.

Norwegian building history offers extensive knowledge of:

timber;
stone;
turf;
ventilation;
rain protection;
snow;
compact settlement;
coastal exposure;
seasonal use;
repair;
and material economy.

Norway also has:

advanced BIM competence;
strong engineering institutions;
public-sector digitalisation;
established heritage authorities;
high-quality environmental data;
and traditions of municipal and community participation.

These capabilities can be brought together.

Rural communities

Biocultural development can connect:

farm buildings;
food production;
local materials;
landscape management;
small-scale enterprise;
housing;
and cultural tourism.

Coastal settlements

Projects can integrate:

sea-level adaptation;
fisheries heritage;
working harbours;
marine ecology;
reuse of existing buildings;
and new forms of blue economy.

Industrial heritage

Former industrial sites can be transformed without erasing labour history, material infrastructure or regional identity.

Urban neighbourhoods

Cities can preserve fine-grained local identity while introducing:

affordable housing;
biodiversity;
climate adaptation;
mixed use;
circular renovation;
and community services.

Sápmi

Projects affecting Sámi landscapes and communities require rights-based participation and respect for living relationships between culture, land, livelihood and seasonal movement.

Sámi knowledge should never be treated as a decorative design library.

The project must begin with the people whose rights and culture are involved.

Norway can become a leading laboratory not by creating one national architectural style, but by developing a rigorous process for designing from the distinct ecological and cultural intelligence of each place.

11. From Smart Cities to Remembering Cities

The smart-city model has often focused on sensors, optimisation, automation and data platforms.

These technologies can improve:

mobility;
energy;
maintenance;
public services;
and environmental monitoring.

But a city can become technically smart while becoming historically forgetful.

A remembering city uses technology to preserve and activate knowledge.

Its digital infrastructure may connect:

cultural maps;
oral histories;
biodiversity observations;
historic building records;
public-space use;
material inventories;
archaeological data;
and future climate scenarios.

Artificial intelligence can help:

identify patterns;
retrieve relevant history;
translate archives;
detect ecological change;
document craft processes;
and simulate adaptation options.

But AI should not become the author of local identity.

Its role is to help communities access, connect and interpret knowledge.

The legitimacy of that knowledge must remain grounded in:

sources;
contributors;
rights;
professional evaluation;
and lived experience.

A city remembers when its decisions can explain:

what existed;
what was changed;
why it was changed;
who participated;
what was lost;
what was retained;
and what future generations should know.

12. Terratek and the Biocultural Intelligence Layer

Terratek can extend Construction Intelligence beyond technical compliance and building performance.

A Biocultural Intelligence Layer could connect:

BIM;
GIS;
cultural heritage data;
ecological surveys;
product passports;
lifecycle assessment;
community narratives;
craft knowledge;
climate risk;
and building logbooks.

Place intelligence

Mapping landscape, hydrology, climate, land use, ecology and cultural context before design decisions are made.

Heritage intelligence

Connecting physical elements with significance, historical development, narratives and conservation requirements.

Material intelligence

Recording technical performance alongside geographical origin, repair methods, ecological impacts and reuse pathways.

Craft intelligence

Documenting techniques, practitioners, tools, training needs and compatible maintenance methods.

Participation intelligence

Creating traceable records showing:

who participated;
which issues were raised;
how decisions changed;
and which questions remain unresolved.

Biodiversity intelligence

Connecting building elements and landscape interventions to habitat objectives, species requirements and maintenance plans.

Lifecycle intelligence

Tracking how cultural, ecological and technical performance changes through design, construction, operation and renovation.

AI-supported stewardship

Helping users retrieve evidence, identify knowledge gaps, compare interventions and prepare long-term care plans.

This would position Terratek not merely as a system that understands buildings.

It would become a platform that understands buildings in relation to place.

SustainArc could develop the regenerative design and assessment methodology.

Jarlhalla could communicate the broader cultural and societal philosophy.

SamfunnsBro could connect local knowledge holders, mentors, craftspeople, communities and project opportunities.

Together, they could create a complete ecosystem:

Terratek structures the intelligence.
SustainArc develops regenerative solutions.
SamfunnsBro connects people and knowledge.
Jarlhalla builds the public vision.

13. A European Biocultural Architecture Roadmap

Phase 1: Recognise biocultural value — 2026–2027

Public clients and planning authorities should begin requiring projects to document:

cultural context;
ecological context;
existing skills;
local material systems;
and community knowledge.

The objective is to make these conditions visible before design begins.

Phase 2: Develop common assessment methods — 2027–2028

Create a biocultural assessment framework compatible with:

Level(s);
lifecycle assessment;
biodiversity planning;
building logbooks;
heritage impact assessment;
and digital product passports.

The framework should combine quantitative indicators with structured qualitative evaluation.

Phase 3: Establish regional living laboratories — 2028–2030

Pilot the approach in:

rural settlements;
coastal communities;
historic urban districts;
industrial heritage;
social housing;
and climate-vulnerable landscapes.

Each laboratory should combine design, construction, research, training and community participation.

Phase 4: Build the European biocultural knowledge commons — 2029–2031

Develop a federated digital environment containing:

case studies;
open technical details;
craft documentation;
climate adaptation strategies;
biodiversity solutions;
material knowledge;
and governance templates.

Communities must retain control over culturally sensitive information.

Phase 5: Integrate biocultural performance into procurement — 2030–2032

Public procurement should reward projects that demonstrate:

adaptive reuse;
ecological restoration;
cultural continuity;
local skills development;
participatory governance;
repairability;
and long-term stewardship.

Architecture would then be evaluated not only by what is built, but by what relationships the project strengthens.

14. Ten Principles for Biocultural Architecture

1. Begin with relationships

A building is part of ecological, cultural, material and social systems.

2. Repair before replacing

Existing fabric contains carbon, knowledge and memory.

3. Learn from tradition without copying blindly

Investigate the reasoning behind vernacular forms.

4. Treat craft as infrastructure

Skills are necessary for maintenance, adaptation and cultural continuity.

5. Design for other forms of life

Human settlement should support wider ecological systems.

6. Let communities influence real decisions

Participation should affect objectives, resources and governance.

7. Keep knowledge connected to its holders

Documentation must respect consent, attribution and access rights.

8. Combine measurement with meaning

Carbon, energy and biodiversity indicators are essential but cannot represent every value.

9. Use technology to deepen place

Digital tools should reveal relationships rather than create generic solutions.

10. Leave knowledge for the next generation

Every project should improve society’s ability to understand, repair and transform the place in the future.

Conclusion: The Future Needs Roots

The cities of the future will need advanced technology.

They will need artificial intelligence, digital twins, renewable-energy systems, adaptable buildings, low-carbon materials and sophisticated environmental modelling.

But technology alone cannot tell us what a place should become.

It cannot decide which memories deserve continuity.

It cannot replace the knowledge held in human hands.

It cannot create belonging through optimisation.

It cannot restore trust merely by producing more data.

Architecture becomes meaningful when technical capability enters a relationship with place.

Biocultural architecture provides that relationship.

It recognises that landscapes contain memory.

It understands that materials connect buildings to ecological systems.

It treats craftsmanship as a living form of intelligence.

It values existing buildings as reservoirs of carbon, labour and cultural experience.

It invites communities to become co-authors.

It provides room for other species.

It uses digital technology to preserve context rather than remove it.

It accepts that culture changes, but insists that change should not require amnesia.

The regenerative city will therefore not be a technologically perfected object dropped into the landscape.

It will be a living agreement between:

ecology and settlement;
heritage and innovation;
local identity and global cooperation;
human need and more-than-human life;
measurable performance and cultural meaning;
and the generations who built before us and those who will inherit what we build next.

A society without memory repeats its mistakes.

A city without memory becomes interchangeable.

A building without memory becomes disposable.

The architecture of the future must do more than minimise its footprint.

It must know where it stands.

It must understand what it inherits.

And it must leave the place richer—in knowledge, life, beauty and belonging—than it found it.

Biocultural Architecture: Why the Cities of the Future Must Remember Where They Come From