AI at Volue: Building Trusted & Responsible Autonomy in Energy Operations

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Who we are and why we think responsible AI for energy operations matters 

At Volue, our mission is to power those who power the world. 

We were only formally christened 'Volue' in 2020, but our roots stretch back to the early days of Europe's power market liberalisation in the 1990s. Over the years we’ve evolved – continuously, consciously – to ensure we always provide our customers with the tools required for excellence in energy operations across changing market conditions.

This evolution is deliberate: our mission is the end and the technology we build is the means. Thanks to this, and the trust our customers place in us, today we can say that:

  • ~20% of Europe's power production is optimized through our software, including ~10% of Europe’s fast-growing BESS capacity
  • >30% of European intraday trading volumes are executed through our systems
  • >500,000 kilometres of power lines are documented, planned, and maintained through our solutions

There are 3 key changes facing our energy system.

Electricity's share of EU final energy use has been stuck at ~20% for a decade. The EU Commission’s target is 32% by 2030; hitting this means adding more electrification in six years than Europe managed in the previous three decades, driven by data centres, EVs, heat pumps and new types of demand which are also serving to transform the system to multi-directional, vs unidirectional as it has been since its late 19th century inception.

In 2025, wind and solar generated more of the EU's electricity than fossil fuels for the first time, while Europe's installed battery capacity passed 100 GWh, a tenfold increase since 2021.

Generative AI combined with available data and modern IT applications, will reimagine the art of the possible for energy operations, bringing into focus a future where one intelligence layer sees what today sits in silos — sensors, SCADA, grid data, forecasts, markets — and acts in real time: connection requests handled in hours rather than years, flexibility bid before the window closes.

These changes result in extraordinary opportunity and extraordinary pressure: on our energy system, on the people who operate it, and ultimately on everyone who depends on it. In light of our mission, we want to set out, publicly, what we believe is a realistic and responsible pathway for AI in energy operations. 

We believe this is the critical moment for such a discussion given: 

AI adoption is happening, but unevenly

  • Across our industry we have observed a very wide spectrum of adoption, from traders, DSOs and utilities with no AI adoption on security grounds, to those running isolated pilots within teams, to those industrialising AI inside governed workflows at scale
  • If AI is to be a force for dynamic and competitive energy markets, its benefits must be broadly delivered
  • AI Adoption, measured as % of users with chatbot access, is no longer the right measure. What matters is how far AI reaches into operational workflows, and whether it uncovers tangible business impact 

The bottleneck has moved from model capability to reliable implementation

  • Regardless of whether we have reached what the AI labs define as AGI, today's models can do many tasks that would materially improve how the energy system runs
  • Moving from pilot to production at scale is difficult. Production needs guardrails that hold under real operating conditions, certainty that an agent will stay in its workflow and value that shows up in the P&L
  • From our customer conversations over the past few months, there are clear patterns in the challenges for industrialising AI in energy:

    • Security & sovereignty: Where does the model run? Who can see the data and what exactly can they see?
    • Integration: home-grown systems built before APIs, undocumented interfaces, and data that must be moved by hand before anything can be automated.
    • Reliability: How to securely encase a very capable – but, by default, probabilistic – model inside deterministic, bounded workflows

Three archetypes we are seeing amongst customers

CAUTIOUS BY DEFAULT

Minimal adoption

  • At most, using chat interfaces from preexisting products

  • Generally, no clear route to approve new AI initiative; or there are meaningful blockers around sovereignty and privacy

  • Interest but no urgency; work is mostly carrying on as before

SCALING USE CASES

Clear ROI, concentrated in development

  • Best-in-class tools approved; coding agents are where value lands

  • A few PoCs elsewhere in the business; active use of AI features within products

  • An AI council pushes, but no systematic program to make the business AI-native

INDUSTRIALIZING AI

Transformative impact at scale

  • Executive sponsorship and a governed route from pilot to production

  • Routine tasks automated systematically, with measured cost and revenue impact

  • AI embedded in customer, trading and asset workflows, with scoped autonomy

Every energy operator can broadly map themselves into these buckets. The question is not which column you are in, but how fast you can safely move right.

Our principles for bringing AI to energy operations

There are many excellent responsible AI statements out there, many of which we agree with - particularly that fairness, transparency, accountability, privacy are paramount. 
However, we wanted to build on this, sharing our perspective on the five principles for responsible AI in energy operations, where the stakes are too high to experiment with black boxes on live operations. 
This is a sneak peak into our thinking, ahead of a set of new product launches coming in time for E-World next February.

1. Critical infrastructure needs deterministic control boundaries

  • Critical decisions and operations should not be handed to probabilistic large language models without the right control boundaries in place
  • Regardless of how good LLMs have become, they are probabilistic by default: ask the same question twice and you can get two answers, and making them repeatable takes significant engineering effort. The deeper issue, though, is calibration: models do not reliably know when they are wrong, which is the root of hallucination and overconfidence. No amount of testing rules out the edge case where the model does something nobody intended; this is why clear boundaries and controls are critical
  • Whilst not every process in energy operations has to be deterministic what must be both deterministic and independently enforceable, are the control boundaries around execution, for example a traditional LLM analyses and proposes, while separate layers validate, authorise, execute and protect
  • Critically, though, our deterministic systems cannot be static. Coding agents let us improve them faster than at any point in Volue's history, and where a newer technique proves itself, in forecasting for example, we adopt it

2. Autonomy is earned through time and solid evidence

  • Unbounded AI is the sorcerer's apprentice — tireless, literal, flooding the room before anyone notices
  • The answer to this challenge is not less ambition; it is agents put to work in clearly bounded ways
  • To scale in production, agentic workflows should move through defined stages: observe, recommend, execute under supervision, execute within bounds. Shadow operation and human verification at each stage build the evidence; time spent in a stage, on its own, proves nothing
  • Oversight should also be uncertainty-aware. A control layer that holds calibrated beliefs about how reliable each agent is, and updates them with every human review, can decide when to proceed, when to check and when to escalate. Recent research argues this is where probabilistic reasoning belongs: in the orchestration, not the model
  • Intelligence and authority are different things. An AI agent can have sophisticated reasoning and optimisation capability without any authority to execute an operational action; the execution and protection layers around it may have far less intelligence but far more authority over the physical system. More intelligence should never automatically mean more authority
  • The decision to remove a person from the loop should follow three things: the consequence and reversibility of the action, the strength of the control environment around it, and the maturity of the organisation operating it
  • Bounded does not necessarily mean small. An agent within clear limits can work every hour and every market window without a person watching each step.

3. Auditability has to be built in by design

  • Every action that touches operations leaves a tamper-evident record with full decision lineage: the model and version used, the data and context it saw, the checks applied, the authority behind the action and the resulting outcome, regardless of whether the action was taken by a person or an agent
  • We’re building this because we believe it’s the right infrastructure to enable our customers to move faster and be more competitive: a system that produces its own evidence can be extended without re-auditing everything around it, and it answers a regulator's question with a query rather than a project. Compliance done this way is a competitive edge, not an overhead.
  • The EU AI Act will require this record-keeping of high-risk systems from December 2027. NIS2 and REMIT II already ask our customers for the same evidence. Building it in now means neither we nor they retrofit it later.

4. Sovereignty is critical, but it’s a spectrum

  • Sovereignty is important but can be abstract
  • In energy operations we think what matters is retaining control, resilience and credible choice across the technology stack: control over data, identities, models, critical operations and decision rights; regulatory compliance; continuity if a service becomes unavailable; and a credible exit path if conditions change
  • Open standards, common semantics, interoperable interfaces, portable workloads and exchangeable AI models are strategic controls, not technical niceties; rather like TCP/IP: its strength is not that every component is identical, but that a common standard lets different systems and vendors interoperate
  • From our experience and conversations with customers, we see four main “dials” for control:

    • Where the system runs
    • Whose law governs access
    • Whether the model can be changed (e.g., for LLMs, open weights let you adapt the model to your own operational data while that data stays in house, which is where sovereignty and performance line up rather than trade off) 
    • Whether anyone outside can switch it off (e.g., a proprietary API can be withdrawn by a provider or its government)
  • We recognise that our customers sit at different points on that spectrum. Some want everything inside their own perimeter; others accept a US hyperscaler on EU soil
  • Whilst you can tune each dial separately, the settings have to work as a whole. This is thinking we do actively, alongside our customers, to suit their needs and requirements
  • Sovereignty should also be risk-based in the business context. A workload with no direct impact on production, safety or system stability does not need the same controls as SCADA, virtual power plant control or autonomous market and grid actions. The objective is not to localise everything for the sake of doing so, but to ensure that critical capabilities remain governable, portable and recoverable

5. Outcomes trump tokens

  • We have moved past the era of AI adoption as the most important measure: usage figures say nothing about whether an operation is safer, cheaper or more effective
  • What matters is AI’s impact on the numbers that your business runs on: forecast accuracy, trading performance, reliability, stability
  • Technology suppliers will create the most value where they put tokens to work most efficiently
  • Across our AI product strategy our target is maximum business impact for the least compute; stay tuned to see more from us on this over the coming weeks and months