Standardising Peer-to-Peer Energy Trading: Opentunity Leads the Way with New CENELEC Agreement

OPENTUNITY is proud to announce significant progress in its contribution to European standardisation. As a primary promoter, the project is spearheading the CENELEC Workshop Agreement (CWA) titled “Impact of P2P trading at distribution grid level,” a critical step toward harmonising decentralised energy markets across the continent.

A Collaborative Effort for European Standardisation

Launched in 2025, this CWA is the result of a strategic collaboration between two major Horizon Europe projects: OPENTUNITY and FEDECOM. A CWA serves as a formal standardisation deliverable that reflects a consensus between the individuals and organisations responsible for its development. By drawing on the collective outcomes of these projects, the agreement aims to establish a common framework for the implementation of peer-to-peer (P2P) energy trading.

Defining the Framework for P2P Implementation

The agreement is designed to be a comprehensive guide for the energy sector. It focuses on several technical and operational pillars necessary for successful P2P integration at the distribution level, including:

  • Use Cases and Requirements: Identifying specific scenarios for P2P trading and the necessary data exchange and interoperability standards.
  • Grid Observability: Addressing how decentralised trading impacts the monitoring and management of distribution grids.
  • Validation Approaches: Establishing KPI-based methods to measure the performance and impact of these schemes.

This CWA will provide essential implementation guidance for a wide range of stakeholders, including Distribution System Operators (DSOs), energy community coordinators, and technology providers such as aggregators and IT integrators.

The Path to Official Publication: Public Engagement

Following the development of a mature draft based on contributor consensus, the document is currently undergoing formal approval by Workshop participants. Once endorsed, the project will enter a vital Public Commenting phase.

This phase allows any interested party to review the text and submit feedback, ensuring the document meets the highest standards of transparency, openness, and technical quality. Engaging a wider pool of stakeholders is considered a highly beneficial step in refining the final agreement.

Building the Foundation for Future Standards

After the public review, the Workshop will assess all comments to finalise the text for official publication as a CENELEC Workshop Agreement. This document will not only provide a consensual reference for immediate use but will also serve as the foundational roadmap for future European Standards (EN) and Technical Specifications (TS).

By leading this initiative, OPENTUNITY continues to ensure that the innovations developed within the project contribute to a more integrated, standardised, and efficient European energy landscape.


ICCS-NTUA Presents Advanced Transformer Monitoring Research at ISGT Europe 2025 in Malta

From October 20 to 23, 2025, the ICCS-NTUA team successfully represented the Opentunity project at the IEEE Innovative Smart Grid Technologies (ISGT) Europe 2025 conference in Malta. Organized by IEEE PES, FIR.MT, and the IEEE Malta section, this prestigious forum brought together leading experts from the scientific community and the energy industry to explore the latest innovations in smart grid reliability.

Addressing Critical Infrastructure Risks

Power transformers are the backbone of the grid, but their failure can lead to cascading outages and significant financial losses.

Traditional monitoring methods are often reactive or rely on expensive,

 specialized sensors. To address this, the research presented by ICCS-NTUA, titled "Data Driven Model Agnostic Methodology for Transformers Top Oil Anomaly Detection," proposes a proactive, predictive maintenance approach.

The core of the study is a methodology that detects anomalies in top-oil temperature, a primary indicator of a transformer's health. Unlike complex physical models, this approach is "model-agnostic," meaning it can be applied across different types of equipment using only minimal, standard measurements: load current, ambient temperature, and top-oil temperature.

Innovative Methodology and Real-World Validation

The research combines Deep Neural Networks (DNN) with Statistical Process Control (SPC). The process involves:

  • Predictive Modeling: A machine learning model is trained on historical data to predict the expected top-oil temperature under normal conditions.
  • Anomaly Detection: By comparing real-time measurements against these predictions, the system uses SPC control charts to identify deviations that signify potential faults, such as cooling pump failures or insulation degradation.

The effectiveness of this tool was validated using data from two real-world autotransformers currently operating in the Greek Transmission System. The results showed a high predictive accuracy, with R² values exceeding 0.98. Crucially, the methodology successfully identified anomalies that correlated with significant deviations in bushing capacitance, a clear diagnostic indicator of a developing issue.

Impact and Reception

The presentation was highly valued by attendees, who particularly praised the quality and accessibility of the dataset used for the research. The technical session also sparked a productive debate regarding the algorithm's ability to distinguish between noise and real-world operational anomalies, highlighting the relevance of this work for future industrial applications.

By utilizing data already available via standard SCADA systems, this Opentunity-funded research provides grid operators with a cost-effective early warning system, enabling them to make informed maintenance decisions before a critical failure occurs.

Read the Full Paper

For a detailed look at the technical implementation, mathematical models, and complete case study results, you can access the full publication here:

Download Link: Data Driven Model Agnostic Methodology for Transformers Top Oil Anomaly Detection


OPENTUNITY Advances Smart Energy Management with NILM Pilot Testing

Bringing appliance-level insights to users

The OPENTUNITY project has recently started testing its Non-Intrusive Load Monitoring (NILM) module with participants across its pilot sites.

Users can now access the application and monitor the energy consumption of individual appliances in their homes or buildings, without the need for additional hardware.

From static labels to real performance

Early feedback highlights the app’s user-friendly design and the value of its dynamic energy label certification. This feature allows users to compare the real-time performance of their appliances with the static labels provided by manufacturers, helping to identify inefficiencies or potential malfunctions.

By making energy consumption more transparent, the tool supports more informed decisions and encourages more efficient use of energy.

Scaling up at European level

Beyond the pilot phase, OPENTUNITY is already extending the impact of this solution. The NILM module is being integrated into the Common European Reference Framework (CERF), developed within the Digital Europe project ECLIPSE. This framework aims to define a common architecture for Home Energy Management Systems across the EU, paving the way for large-scale adoption.

Towards smarter energy use

This milestone highlights OPENTUNITY’s focus on user-centric innovation and its role in bridging advanced research with real-world applications. As testing continues, further feedback will help refine the tool and strengthen its contribution to smarter, more efficient energy systems.


Enhancing Grid Reliability with OPENTUNITY’s Long-Term Asset Management Tool

Electricity networks are becoming increasingly dependent on digital field devices whose performance must be assessed over the full span of their service life. Among these assets, smart meters are particularly important, as their degradation can compromise data availability, increase maintenance effort, and ultimately affect the quality of grid operation.

Traditional asset replacement strategies, typically based on age or fixed maintenance intervals, are often too general to reflect the real condition and risk profile of such equipment. As grids become more digitalised, there is a growing need for more accurate and data-driven approaches to asset management.

A data-driven solution within OPENTUNITY

To address this need, ICCS has developed, within the OPENTUNITY project, a Long-Term Asset Management Tool focused on the reliability assessment of smart meters.

The solution leverages historical data from Advanced Metering Infrastructure

 systems to model how assets age under real operating conditions. Based on this information, it estimates the probability of failure for different meter populations, providing system operators with a more realistic understanding of asset behaviour over time.

A key outcome of this analysis is the generation of End-of-Life curves for different types of smart meters. These curves help operators identify when specific models are expected to enter higher-risk phases, supporting more informed and timely decision-making.

From population trends to individual risk detection

In addition to long-term statistical analysis, the tool incorporates machine learning techniques applied to operational measurements. This allows the identification of individual devices that may present an increased risk of failure, even if they are not yet part of a broader trend.

By combining population-level insights with device-specific analysis, the tool enables early detection of potential issues and helps prevent failures before they become widespread.

Supporting decision-making through an intuitive interface

The Long-Term Asset Management Tool is supported by a user-friendly interface designed to facilitate its integration into daily operations. Through this platform, users can upload meter and substation data, review key performance indicators, and explore reliability trends across their asset base.

Operators can also compare the performance of different meter models, estimate expected failures over selected time horizons, and identify critical devices that require priority attention. The inclusion of geographic visualisation further supports this process, offering a clearer view of how risks are distributed across the network.

Towards proactive and efficient maintenance strategies

By linking statistical reliability analysis with data-driven risk detection, the tool provides utilities with a solid basis for medium- and long-term planning. It supports a transition from reactive maintenance practices to a more proactive and targeted approach, where decisions are based on actual asset condition rather than predefined schedules.

This shift enables better allocation of maintenance resources, reduces operational costs, and improves the overall reliability of the digital infrastructure that underpins modern power systems.

Strengthening the foundations of future power systems

As electricity networks continue to evolve, ensuring the reliability of digital assets such as smart meters becomes increasingly critical. The Long-Term Asset Management Tool developed within OPENTUNITY represents an important step in this direction, providing system operators with the tools they need to manage complexity and enhance grid resilience.


Bridging TSO-DSO Operations: The OPENTUNITY Greek Pilot Featured in VITO European Report

A recently published report by VITO for the European Commission, titled "Specification and design criteria for Local Flexibility Markets," has cast a spotlight on the innovative work being conducted within the OPENTUNITY project.

Specifically, the report features an in-depth look at the Greek Pilot, highlighting a successful interview and collaboration between the Greek TSO (IPTO), the market platform provider (NODESTM), and VITO researchers.

This recognition underscores OPENTUNITY’s role in "opening" the electricity ecosystem to multiple actors to create real decarbonization opportunities.

A Vision for TSO-DSO Coordination

The Greek Pilot, situated in the Mesogia area and interconnected islands such as Kea, Andros, and Tinos, is a cornerstone of the OPENTUNITY project. Its primary objective is to increase the digitization of both the DSO (HEDNO) and TSO (IPTO) while establishing critical synergies between them.

According to the VITO analysis, the Greek demo is one of the few initiatives in Europe moving toward a "Common Market" model.

In this setup:

  • Both the TSO and DSO have access to the same flexibility assets connected at the distribution level.
  • The market handles both congestion management and balancing services.
  • Coordination is enhanced through a Federated Data Space Infrastructure, ensuring efficient and cybersecure data sharing.

Innovation in Action: The NODESTM Platform

The report details how the Greek Pilot utilizes the NODESTM market platform to facilitate these interactions.

By employing products like ShortFlexTM, the pilot allows for the activation of flexibility near real-time (2 hours ahead of delivery) to solve grid issues at boundaries where voltage is transformed from 150kV to 20kV.

This technical setup is designed to manage peaks at substations serving thousands of residential and commercial buildings, proving that small-scale consumer flexibility can support high-level grid stability.

Why This Matters for Europe

VITO’s report identifies the OPENTUNITY Greek demo as a key example of how to navigate the complexities of the upcoming Network Code on Demand Response (NC DR).

By testing these coordination mechanisms in real-world conditions, OPENTUNITY is providing the European energy sector with a blueprint for:

  1. Interoperability: Ensuring different software modules and actors can "talk" to each other.
  2. Market Efficiency: Minimizing procurement costs while maximizing the use of renewable energy.
  3. Active Consumers: Reducing energy costs for citizens who contribute their flexibility to the grid.

Looking Ahead

As OPENTUNITY continues its journey, the insights shared in the VITO report will help refine the project’s 12 core innovations.

The collaboration between HEDNO, IPTO, NODESTM, and VITO serves as a powerful reminder that the transition to a climate-neutral economy by 2050 requires not just new technology, but new ways for energy actors to work together.

📥 To explore the full VITO report and learn more about the Greek Pilot’s market design, visit our Library section: VITO – Specification and design criteria for local flexibility markets


Synchronizing Europe’s Power System: How OPENTUNITY Aligns with ENTSO-E’s Federated Digital Twin Vision

The digital transformation of the European electricity grid has reached a pivotal milestone. ENTSO-E recently published a landmark report advocating for a federated approach to Digital Twins for the European power system. This strategy aims to accelerate the "Twin Transition"—digital and green—by creating dynamic virtual representations of the grid that are updated in real-time.

For OPENTUNITY, this report is more than just a policy document; it is a validation of our core mission. Our project has been actively developing the exact technologies—federated data architectures, interoperable grid models, and TSO-DSO coordination mechanisms—that the ENTSO-E report identifies as essential for a resilient energy future.

What is a Federated Digital Twin?

A Digital Twin is a dynamic virtual representation of a physical process or system. However, the European grid is too complex for a single, monolithic model. Instead, ENTSO-E proposes a federated approach: a network of interconnected digital twins managed by different Transmission System Operators (TSOs) and Distribution System Operators (DSOs) that can "talk" to one another across borders and organizational silos.

How OPENTUNITY is Leading the Implementation

The ENTSO-E report recommends several key actions that are already at the heart of OPENTUNITY’s 12 innovations.

1. A Foundation of Federated Data (FDEI)

The report highlights the need for secure, interoperable ecosystems. OPENTUNITY has successfully designed and implemented the Federated Data Exchange Infrastructure (FDEI). This architecture ensures:

  • Data Sovereignty: Participants maintain full control over their own data while sharing it securely.
  • Trust Services: Utilizing Self-Sovereign Identity (SSI) and Decentralized Identifiers (DIDs) to verify participants without centralized bottlenecks.

2. Standardized Ontologies and Gaia-X Alignment

ENTSO-E calls for a greater harmonization of open standards and common ontologies. OPENTUNITY is fully aligned with these requirements:

  • Gaia-X Integration: Our Federated Catalogue uses the Gaia-X Trust Framework Ontology as its "lingua franca," ensuring that different energy actors understand each other's data and service offerings natively.
  • CIM/CGMES Compliance: For grid topology, OPENTUNITY utilizes the Common Information Model (CIM), which ENTSO-E identifies as mandatory for grid model exchange at the European level.

3. Realizing TSO-DSO Coordination

The report is explicitly directed at TSOs and DSOs, urging them to build interoperable systems. The OPENTUNITY Greek Pilot serves as a real-world laboratory for this vision, bringing together HEDNO (DSO) and IPTO (TSO) to evaluate common coordination mechanisms and secure flexibility activation across different grid levels.

4. Advanced Asset Management and Lifecycle Models

ENTSO-E recommends models aligned with the lifecycle of assets. OPENTUNITY’s advanced asset management modules provide:

  • Long-Term Reliability: Predicting the end-of-life for digital infrastructure like smart meters using machine learning.
  • Short-Term Resiliency: Real-time monitoring and anomaly detection for critical assets like high-power transformers to prevent failures before they occur.

The Path Forward: A Scalable and Sovereign Grid

The alignment between ENTSO-E’s strategic vision and OPENTUNITY’s technical deliverables proves that the "federated" approach is the most viable path for Europe’s energy transition. By breaking down data silos and ensuring interoperability-by-design, we are not just building software; we are building the digital backbone of a decarbonized society.

Want to dive deeper into the technical architecture of our federated ecosystem?

📥 Download our latest public reports on the OPENTUNITY website:


Flexibility Markets

Flexibility Markets Need Coordination: How OPENTUNITY Is Bridging TSO–DSO Operations

Flexibility is rapidly becoming one of the most powerful tools available to system operators to manage congestion, optimise grid capacity and support the large-scale integration of renewable energy. However, as flexibility markets grow and mature across Europe, one critical challenge has become increasingly evident: flexibility activation without proper coordination between Transmission System Operators (TSOs) and Distribution System Operators (DSOs) can compromise grid security instead of improving it.

Within the EU-funded OPENTUNITY project, partners are addressing this challenge head-on by developing and validating practical solutions that enable coordinated, market-based flexibility procurement across grid levels.

The Coordination Challenge Behind Flexibility Markets

Historically, TSOs and DSOs have operated within clearly separated technical and organisational boundaries. Today, with a rising number of flexible assets connected at distribution level, these boundaries are becoming blurred.

Uncoordinated flexibility procurement may lead to:

  • Conflicting activations across transmission and distribution networks.
  • Local congestion being shifted rather than resolved.
  • Increased operational uncertainty for system operators.

To fully unlock the potential of flexibility, coordination must be embedded directly into market processes, supported by shared data, aligned operational rules and real-time communication.

OPENTUNITY’s Approach: Coordination by Design

A core ambition of OPENTUNITY is to demonstrate how secure, interoperable and coordinated flexibility markets can be implemented in real-world conditions. One concrete outcome of this work is the Market Coordination Module, developed by NODES in close collaboration with the Greek DSO HEDNO and the Greek TSO IPTO, developing the OPENTUNITY Greek pilot site.

Rather than treating coordination as an external or manual process, the module integrates it directly into the flexibility trading environment, ensuring that system-level constraints are considered throughout the entire procurement cycle.

Key Features Supporting Secure Operations

The Market Coordination Module introduces several capabilities that are essential for coordinated grid operation:

  • A central coordination role, enabling oversight of market activities and supporting system-level decision-making.
  • Dynamic grid node thresholds, allowing capacity limits to reflect real-time grid conditions.
  • A traffic-light signalling mechanism, providing immediate visibility of potential or actual constraint violations.
  • Real-time operator-to-operator communication, facilitating fast, transparent collaboration between TSOs and DSOs.

Together, these functionalities create a shared operational framework where flexibility can be activated safely and efficiently.

Real-World Validation Through OPENTUNITY Pilots

In OPENTUNITY, these coordination mechanisms are being tested in practice. In Greece, HEDNO and IPTO are jointly using the Market Coordination Module to procure flexibility for congestion management and balancing services within a common market environment.

This pilot allows the consortium to assess how coordinated market-based solutions can:

  • Improve system security.
  • Enhance transparency between system operators.
  • Enable more efficient use of distributed flexibility.

The same coordination concept has also proven transferable beyond OPENTUNITY, with applications in Finland, reinforcing the scalability and robustness of the approach.

Building the Foundations for Europe’s Future Flexibility Markets

By embedding coordination into flexibility markets, OPENTUNITY contributes to a future where:

  • Market-based solutions and grid security go hand in hand.
  • TSOs and DSOs collaborate through shared digital tools.
  • Flexibility can scale without increasing operational risk.

These developments are a key step toward a more resilient, efficient and integrated European energy system, one where flexibility supports both system needs and market innovation.


AI Innovation from OPENTUNITY Takes the Stage at ENLIT 2025

At ENLIT Europe 2025, OPENTUNITY once again demonstrated its commitment to shaping the future of smart grid innovation. This year, the spotlight was on the work of Elektro Ljubljana, whose contribution showcased how artificial intelligence can dramatically improve reliability and performance in low-voltage distribution networks, an area where fault detection remains notoriously challenging.

The presentation, delivered by Dr. Klemen Nagode during the session “AI in Practice – Part 2”, offered an insightful look at a rapidly evolving field where data, algorithms, and operational expertise converge to strengthen tomorrow’s electricity distribution systems.

Bringing AI Into the Heart of Low-Voltage Operations

Unlike transmission grids, low-voltage networks are vast, complex, and traditionally less monitored, making it difficult for operators to quickly identify emerging issues. Faults such as bad neutral contacts, voltage anomalies, or early signs of component degradation often remain invisible until they escalate into service interruptions.

To tackle this, Elektro Ljubljana developed an AI-based anomaly detection system designed to uncover these hidden issues early on. The solution analyses a rich blend of data sources, smart meters, protection relays, historical fault records, and state estimators, to detect patterns that signal abnormal behaviour.

Behind the scenes, the team carried out extensive feature engineering, model training, and data validation, using advanced machine learning techniques such as weighted K-nearest neighbors with optimised parameters. The result is a system capable of identifying subtle anomalies with remarkable speed, supporting predictive maintenance and reducing operational uncertainty.

How OPENTUNITY Strengthens This Work

The development does not stand alone, it is actively supported by several tools created within the OPENTUNITY project. Among them:

  • Fuse-burn detection modules offering early indicators of device or line distress
  • Real-Time Thermal Rating (RTTR), enabling dynamic monitoring of conductor temperature and loading
  • Failure forecasting tools, combining short-term and long-term risk modelling
  • Advanced asset management systems, providing a structured view of network conditions

These components bring additional layers of insight to the anomaly detection framework, helping enrich datasets, refine machine learning models, and improve the robustness of the overall solution. This illustrates OPENTUNITY’s mission: to build interoperable, complementary tools that elevate grid management through digital intelligence.

A Human–Machine Partnership

One of the strongest points highlighted in the session was the importance of collaboration with field maintenance teams. Real-world verification of model predictions, by technicians working directly on the network, provided essential feedback, allowing the algorithms to evolve beyond theoretical accuracy and into practical, operational usefulness.

This iterative loop between AI systems and human expertise created a powerful validation mechanism, ensuring that the tool performs reliably in diverse, real-life scenarios.

Why This Matters for the Future of Grid Operations

This work marks an important step forward for European distribution system operators. By combining AI, operational data, and domain expertise, the approach significantly improves fault detection capabilities in low-voltage networks, historically one of the most difficult areas to monitor.

It also demonstrates the potential of the solutions being developed in OPENTUNITY: tools that are not only innovative but also applicable, scalable, and designed to support day-to-day decision making.

Download the Presentation

Interested in the technical details?

👉 Download the full ENLIT 2025 presentation slides here:

Robust AI-Based Anomaly Detection for Enhanced Performance in Low-Voltage Distribution Networks. – Opentunity


OPENTUNITY Participates in the Energy Nexus Cluster Internal Workshop in Bilbao

On 17 November 2025, OPENTUNITY took part in the Energy Nexus Cluster Internal Workshop, a technical and highly collaborative event held in Bilbao (Spain) and hosted by Tecnalia. The workshop brought together representatives from several EU-funded, energy-related research and innovation projects, creating a unique forum to deepen discussions, exchange expertise, and explore shared challenges across the sector.

A Collaborative Space for Knowledge Exchange

The objective of the workshop was clear:

to connect experts from the scientific community and industry, enabling cross-project learning and joint reflection on today’s most pressing topics in the energy transition.

Participants engaged in dynamic sessions where insights from ongoing European projects were openly shared. The workshop’s structure encouraged not only the presentation of technical results but also active dialogue and debate, fostering a space where problems could be examined collectively and solutions co-created.

OPENTUNITY’s Contribution: Insights Through Presentation

ETRA, representing OPENTUNITY, contributed to the workshop through a dedicated presentation, offering an overview of the project’s approach, challenges, and ongoing achievements. The audience, composed of researchers, technology experts, and industry representatives, showed strong interest in OPENTUNITY’s work on grid flexibility, digitalisation tools, and AI-enabled solutions.

The relevance of the workshop topics to OPENTUNITY’s scope made the exchanges particularly valuable, feeding reflection on interoperability, scalability, and the practical deployment of innovative technologies.

Main Takeaways and Conclusions

One of the workshop’s defining features was its high level of participation and interaction. Rather than a sequence of monologues, the event evolved into a genuine knowledge-sharing forum, where each presentation sparked discussions, questions, and real collaborative thinking.

Key conclusions include:

  • The event confirmed the importance of cross-project dialogue to align approaches and accelerate innovation.
  • Discussions directly addressed themes crucial for OPENTUNITY, including digital tools for grid management, flexibility markets, and AI-driven optimisation.
  • The workshop environment strengthened connections with other EU energy projects, opening doors for future synergies and cooperation opportunities.

Driving Innovation Together

The Energy Nexus Cluster Internal Workshop once again demonstrated the value of bringing together diverse actors working toward Europe’s clean energy objectives. For OPENTUNITY, it was an excellent opportunity not only to present ongoing progress but also to gather insights that will help shape the project’s next steps.

Through active participation and knowledge-sharing, OPENTUNITY continues to contribute to a more interconnected, innovative, and resilient European energy ecosystem.


OPENTUNITY at enlit 2025

OPENTUNITY Showcasing AI-Driven Innovations at Enlit Europe 2025

The OPENTUNITY project took part in Enlit Europe 2025, held from 18 to 20 November in Bilbao, Spain, joining one of the most important annual gatherings for the European energy community. As a leading event connecting policy-makers, DSOs, TSOs, researchers, technology providers, and innovators, Enlit offered the perfect stage for OPENTUNITY to present its progress and exchange insights with key stakeholders shaping the future of the energy transition.

Positioned in the EU Projects Zone, OPENTUNITY engaged with visitors at stand 5.F30–S02, sharing updates on the project’s technological developments, pilot activities, and the role of flexibility in enabling a more resilient and citizen-centric energy system.

Why Enlit Matters for OPENTUNITY

Participation in Enlit Europe is not merely a visibility exercise,it is a strategic opportunity to:

  • show tangible progress on the technologies developed within the project,
  • align with European policy priorities around digitalisation, flexibility and consumer empowerment,
  • strengthen synergies with other EU-funded initiatives,
  • and gather feedback from practitioners, system operators and industry leaders.

With the project entering its final operational phase, Enlit provided an ideal moment to demonstrate how the solutions developed over the past years are now being deployed and tested across Europe.

What OPENTUNITY Showcased at Enlit

At the stand, partners presented the 13 innovative technologies currently being integrated and demonstrated across the project’s four pilot sites in Spain, Switzerland, Slovenia, and Greece. These innovations revolve around:

Visitors were able to explore how these technologies contribute to a more flexible, reliable, and consumer-engaged electricity system, one capable of addressing the growing complexity of distributed renewable generation, electrification, and variable demand patterns.

OPENTUNITY in the Enlit Conference Programme

In addition to the exhibition stand, OPENTUNITY was also featured in the conference sessions. The project delivered a presentation summarising its current status, innovations and expected impact, highlighting the following themes:

1. Physics-Informed Neural Networks for State Estimation

OPENTUNITY showed how AI models enriched with physical grid constraints can address traditional observability gaps, providing DSOs with more accurate, real-time insight into grid conditions.

2. Real-Time Topology Detection

The project demonstrated how physics-informed AI can identify unreported topology changes, an essential capability for maintaining reliable grid models and enhancing operational safety.

3. NILM for Enhanced Prosumer Engagement

The session explored how NILM algorithms can disaggregate consumption from smart meter data without additional hardware, enabling prosumers to understand their usage patterns and optimise behaviour.

4. Multi-Country Pilots Testing 13 Technologies

The presentation highlighted the uniqueness of OPENTUNITY’s four pilot environments—urban, rural, industrial and community-based—which together create a robust testbed for validating AI tools and flexible market architectures.

Key Takeaways Shared at Enlit

The session concluded with several key messages:

  • AI-driven state estimation significantly enhances DSO capabilities by combining machine learning with power system physics.
  • Topology detection powered by neural networks allows operators to correct grid records in real time.
  • NILM provides scalable prosumer-level intelligence without requiring additional hardware, unlocking new services and engagement models.
  • Diverse, multi-country pilot testing is fundamental to ensuring the scalability and robustness of new energy innovations.

Looking Ahead

With development completed and demonstration activities underway, OPENTUNITY is entering a decisive stage. The feedback and interactions generated at Enlit Europe 2025 strengthen the consortium’s ambition to deliver solutions that are not only technologically advanced, but also operationally relevant and aligned with Europe’s evolving energy landscape.

As the project moves towards 2026, the focus remains clear: deploy, validate, and pave the way for large-scale adoption of smart, AI-enabled flexibility and grid-management tools across Europe.


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