Skip to content

Value creation & funding

A critical barrier to LDT sustainability is the limited articulation of the value LDTs generate. Without clear value propositions and mechanisms to capture value across stakeholders, long-term sustainability stays uncertain — and in public–private contexts, value tends to stay opaque because stakeholders approach it from different perspectives.

This page sets out how value is created and captured in smart communities, and the funding models available to sustain open-source LDT initiatives.


Dimensions of value creation

Smart community literature consistently treats value creation as multi-dimensional and ecosystem-based — involving economic, social, environmental and governance outcomes rather than single-sector or single-actor gains. This aligns with the triple bottom line: people, planet, profit.

One key distinction runs through the whole strategy.

  • Business (private) value

    Market creation, innovation, efficiency gains and revenue capture — often enabled by digital platforms, open data and new service models.

    Emphasises tangible returns for firms or investors: profits, reduced costs, new products or services. Service providers and utilities can monetise data or services and build new business opportunities by participating in data ecosystems.

  • Public (social) value

    Rooted in public administration theory, focusing on collective benefits: quality of life, equity, sustainability, democratic participation and the legitimacy of governance.

    Encompasses economic prosperity as experienced by the community, plus outcomes like social cohesion, improved services and reduced social problems.

Stakeholders operate across several value dimensions at once — business and public value, short- and long-term, direct and indirect outcomes. The strategy asks them to align these rather than optimise for one.

Diagram showing business value and social or public value overlapping, crossed by a short-term to long-term axis and a direct versus indirect outcomes axis

Business and public value are interrelated

A smart street-lighting network may yield citywide energy savings (business value for the operator) and improved public safety and lower emissions (public value). Stakeholders operate across multiple value dimensions simultaneously, and the strategy calls on them to align these dimensions rather than optimise for a single outcome.


Value capture

Value capture is "the process of securing financial or non-financial returns from value creation" — addressing how benefits are recognised and who benefits.

  • In business value contexts: who can monetise, and through which mechanisms.
  • In public value contexts: how societal benefits are articulated through justifiable metrics, and reinvested into broader policy goals.

For LDT ecosystems this is particularly complex, because benefits created and costs incurred are not always equally distributed — especially across different time scales or value dimensions. Without appropriate capture mechanisms, stakeholders lack incentives to keep contributing.

The central sustainability challenge

A successful ecosystem aligns individual incentives with collective outcomes, balancing cooperation (value creation) against competition (value capture). Diversified funding models require a clear understanding of how costs and benefits distribute across stakeholders, in order to address misaligned incentives.

Collective benefits of ecosystem-based collaboration, per Data Spaces Support Centre guidance:

Benefit Effect
Efficiency gains Reduced economic transaction costs through standardised interfaces and lower integration effort, especially across sectors
Improved collaboration Easier collaboration between data providers and consumers, improving interoperability
Sovereignty & control Owners retain control over access and usage conditions, enhancing trust and avoiding lock-in

Opportunities specific data-sharing use cases open up:

  • Cost sharing — participants share data to meet shared requirements (compliance, process efficiency, transparency), so every member saves money and time.
  • Joint innovation — innovation only realisable by ecosystem members working together, where no single member holds all the necessary data or resources.
  • Combined forces — members team up to prevent a small number of dominant market players from emerging.

In practice, authorities may set up contracts with performance-based clauses (investment in exchange for service delivery guarantees), or establish shared governance boards and joint living labs to co-design solutions with public agencies, businesses and citizens.


Funding models for open-source initiatives

LDT4SSC recommends deploying open-source software — it helps integrate heterogeneous data sources, supports interoperable platforms, and enables continuous collaboration. Municipalities are more likely to avoid vendor lock-in and keep components adaptable.

No single optimal model

Successful strategies typically combine multiple funding mechanisms — blended funding such as public–private partnerships, or research grants plus sponsorship — with matching governance arrangements. The key is matching the model to the local context.

Model Features Advantages Drawbacks Fit for communities
Government-led public funding Developed or maintained by government grants or budgets Stable, large-scale funding; aligns with public interest; no licence fees Subject to political cycles and budget cuts; may underfund community-building Ideal for core digital infrastructure. Best for large cities or consortia that can tap national/EU funds
Municipal consortium / co-funding Multiple cities pool resources via consortia or inter-municipal agreements Cost-sharing; economies of scale; peer support Coordination overhead; slow consensus; risk of free-riders Works when cities face similar needs. Examples: Signalen (NL), eVaka (FI)
Service contracts / paid support Companies or consultants hired to develop or maintain Professional support ensures reliability; suppliers assume some cost Can introduce lock-in to the service provider Common where in-house dev staff is lacking. Contracts must require code release
Nonprofit foundations / trusts An independent entity hosts the project Neutral governance; stable brand; can receive donations and grants Foundation overhead; needs ongoing funding and engagement Suitable for large cross-jurisdiction projects
Platform cooperatives Multi-stakeholder co-op owns the project, users as members Democratic governance; aligns incentives of users and maintainers Organisational complexity; relies on members' willingness; still nascent Good for communities of practice. Example: LocalGov Drupal (UK)
Volunteer / community-driven Relies on unpaid contributions Low direct cost; fosters civic engagement High burnout risk; uneven support Small-scale or experimental projects. Fragile alone — should be augmented
Hybrid models Any mix of the above Diversified risk; combines community trust with funding More complex to manage; potential conflicts of interest Often the most realistic for large initiatives

Open source as digital infrastructure

Communities should budget for maintenance like any public good, while fostering a community around it. This requires long-term investment, clear governance, and an ecosystem approach balancing public oversight with community participation.

Known obstacles include outdated procurement laws, unclear licence rules and staff skill gaps — requiring legal enablers such as embedding open-licence requirements into tenders, and investment in building internal talent.


Validation, certification & standardisation

Validation, certification and standardisation are interconnected enablers of trust, procurement readiness and scalable uptake:

  • Standards provide the criteria against which services are validated;
  • Validation produces the evidence on which certification rests;
  • Certification signals to procurers and regulators that a service meets recognised expectations.

Together they form a valorisation strategy — an investment that strengthens the market position of services, the credibility of the private partners developing them, and the procurement confidence of the authorities deploying them.

Validation proportional to maturity and risk

Not all components or stages need the same rigour. Validation depth maps onto the LDT4SSC Methodology phases:

Phase Validation focus
EXPLORE (Ideation) Lighter: feasibility checks and architectural assumptions
VALIDATE (Specifications) Technical and functional requirements; data governance, interoperability, legal constraints
DEFINE (Prototyping) Concrete solutions tested with real data and representative users
IMPLEMENT (Deployment) Governance robustness, explainability and regulatory compliance

ISO/IEC 30186:2025 (Digital Twin maturity model) reinforces this staged logic with internationally recognised assessment indicators.

The standardisation landscape. LDT services sit at the intersection of several streams: ISO/IEC JTC 1/SC 41 for core digital-twin standards; ETSI ISG CIM for NGSI-LD, with Smart Data Models forming the semantic interoperability base; OGC and ISO/TC 211 for geospatial and 3D layers (CityGML, SensorThings API, 3D Tiles), with buildingSMART's IFC 4.3 bridging BIM; IDSA and the Eclipse Dataspace Protocol for trusted data exchange. At European level, CEN-CENELEC JTC 21 produces harmonised AI Act standards, while CEN/TC 465 is the most plausible home for elevating LDT4SSC outputs into European standardisation.

Testing and Experimentation Facilities (TEFs). Under the Digital Europe Programme, TEFs are large-scale reference environments for testing AI-enabled technologies in realistic settings. They generate structured validation artefacts — performance benchmarks, interoperability logs, scenario evaluations — reusable in certification submissions and procurement evaluations.

CitCom.ai — the TEF for cities and communities

Of the four sectoral TEFs, CitCom.ai focuses on trustworthy AI services for cities, communities and citizens. Co-funded by the Digital Europe Programme and Member States (€40 million, 2023–2027), it runs 15 experimentation sites across 10 European countries in three thematic super-nodes:

  • POWER — energy (Denmark, Sweden, Finland)
  • MOVE — mobility (Belgium, Netherlands, France, Luxembourg)
  • CONNECT — cross-sector citizen-facing infrastructure (Spain, Italy, Poland)

Services span application creation and validation, community engagement, compliance and ethics assistance, physical and virtual facility access, and scope definition — catalogued in the CitCom.ai services marketplace.

Diagram of the CitCom.ai TEF model, showing services, common infrastructure and site facilities feeding experiments, with AI innovators on the supply side and cities and communities on the demand side, linked by the CitCom validation label

Ecosystem diagnostics Strategic priorities