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8 MIN READ

Why UK Energy Needs 'Digital Engineers': From AI Experiments to Enterprise Impact

The UK energy sector needs digital engineers to move them from PoC to operationalised AI. Learn how applied AI can help do this.

Many UK energy companies are experimenting with artificial intelligence (AI), from forecasting wind output to automating operational processes. Yet too many initiatives remain stuck in proof-of-concept (PoC) mode.

Demand is rising rapidly. Ofgem has warned that around 140 proposed UK data-centre projects could require roughly 50GW of electricity, exceeding Britain’s current peak demand. Meanwhile, renewable expansion and electrification are increasing pressure on grid infrastructure.

The challenge isn’t building models. It’s operationalising AI at scale in a sector dealing with ageing infrastructure, accelerating electrification, and ambitious decarbonisation targets.

In this environment, applied AI must help energy companies deliver both system resilience and net-zero progress.

What Applied AI Means in the Energy Sector

Applied AI represents the shift from experimentation to execution. In energy, that means:

  • Embedding AI into operational workflows, making it a part of daily decision-making across grid operations, asset management, and retail energy services - not as a standalone tool.
  • Treating AI as a digital engineer where it can augment human expertise by analysing vast operational datasets and recommending actions, from forecasting renewable output to identifying asset failures.
  • AI must be transparent, auditable, and aligned with frameworks such as Ofgem guidance and responsible AI standards, prioritising trust and explainability.
  • Tying AI initiatives to clear operational goals with measurable outcomes such as improving reliability, reducing outages, lowering costs, or accelerating decarbonisation.

“We need to stop thinking about building an AI for a task and start thinking about employing an AI to take on a role - like a junior engineer or analyst,” says Marissa Beaty, Product Consultant at Colibri Digital.

Where Applied AI Is Creating Value Today

Applied AI is already delivering value across the energy value chain.

  • Predictive maintenance: AI detects asset failures before they occur, reducing downtime.
  • Demand forecasting and renewable integration: Improved forecasting helps operators balance supply and demand.
  • Grid planning and infrastructure optimisation: AI-driven modelling supports more efficient infrastructure investment.
  • Distributed energy systems: AI coordinates solar, batteries, and EV charging in decentralised energy networks.
  • Smart buildings and energy efficiency: AI-powered building management systems optimise energy consumption.
“Applied AI is helping utilities move from reactive to predictive operations. It’s anticipating, and at times capable of resolving failures, balancing supply and demand more accurately, and ultimately improving reliability.” says Marissa.

Common Barriers to Scaling AI in Energy

Despite strong interest, many organisations encounter similar barriers when moving from pilot to production.

1. Lack of Value Focus

Many AI proofs of concept explore technical possibilities without defining measurable outcomes. Without clear metrics, such as improved forecasting accuracy or reduced outage minutes, projects struggle to justify further investment.

“The projects that succeed are the ones that start with a clear operational question, not with the algorithm. When energy companies define the metric or inefficiency they want to improve, whether that’s dispatch planning or maintenance scheduling, AI becomes much easier to scale.” explained Marissa Beaty, Product Consultant.

2. Integration and Legacy Infrastructure

Energy systems rely heavily on legacy infrastructure and fragmented operational systems.

Organisations often face integration debt, including:

  • Siloed SCADA platforms
  • Disconnected data sources
  • Manual operational workflows
  • Limited interoperability between legacy and cloud platforms

Without modern data pipelines and integration frameworks, AI models cannot reliably support operational decisions.

Marissa comments: “Most utilities don’t lack data; they lack connected data. The real challenge is integrating operational systems, asset data, and external inputs like weather or market signals so AI models can actually support real-time decisions.”

3. Data and Technical Challenges

AI requires reliable, high-volume operational data. In energy environments, this includes:

  • Sensor data from turbines, substations, and transformers
  • Weather data for renewable forecasting
  • Asset telemetry and IoT streams
  • Trading and market data

Predictive maintenance illustrates the opportunity: AI-driven systems can slash operational costs by up to 30% while boosting equipment availability by 20%. However, integrating these models into operational systems remains complex.

“AI can detect early warning signs in asset performance that engineers would struggle to spot manually. But that only works when the underlying data pipelines and telemetry systems are reliable.” says Marissa. 

4. Governance and Regulatory Expectations

AI deployment in energy is subject to increasing regulatory scrutiny. Ofgem is exploring regulatory frameworks and sandboxes that allow companies to test AI applications safely, while protecting consumers and ensuring system resilience.

Organisations must therefore ensure AI systems are explainable, auditable, monitored for bias and drift, and supported by human oversight.

Marissa says: “Energy companies operate critical national infrastructure. That means AI governance isn’t optional; transparency, monitoring, and human oversight need to be built into the lifecycle from the start.”


Moving from PoC to Production

Turning AI experiments into operational capability requires a structured approach.

Establish Clear Success Metrics

AI initiatives should begin with a defined operational objective, such as:

  • Improving renewable generation forecasts
  • Reducing network losses
  • Lowering unplanned outages
  • Optimising energy storage dispatch

Colibri advocates a proof-of-value approach where we identify the decision AI will support and the measurable improvement it should deliver.

Build Robust Data Foundations

AI is only as strong as the data behind it. Energy organisations need data platforms capable of integrating:

  • Operational SCADA systems
  • Asset telemetry
  • Weather and environmental data
  • Energy market signals
  • Customer consumption data

Strong governance, data lineage, and security controls are essential.

“The organisations getting real value from AI are the ones that invested, or are willing to invest, in modern data platforms first. Without that foundation, even the best models struggle to make an impact.” says Marissa.


Embed Governance from Day One

Trust is critical when deploying AI in critical infrastructure. Adhering to best practices can really support your organisation to nail governance from the very beginning. Best practices include:

  • Documenting models using model cards
  • Establishing responsible AI oversight groups
  • Implementing explainability tools
  • Continuously monitoring models

Operationalise with AI Ops

Scaling AI requires ongoing monitoring and lifecycle management. AI Ops enables organisations to monitor model performance, detect model drift, automatically retrain models, and link AI outputs to operational performance metrics.

“AI systems need to be managed like digital employees - reviewed regularly, retrained when necessary, and retired when they no longer add value,” says Marissa Beaty.

The Colibri Difference

Turning AI from a promising experiment into a practical energy capability requires more than strong algorithms. Colibri’s approach combines engineering rigour, industry expertise, and measurable outcomes.

  • Value-first engagements: We start with business objectives and work backwards to technology.
  • Deep cloud and data expertise:  Our experience in regulated environments ensures governance and scalability.
  • Technology partnerships: Relationships with AWS, Databricks, and other platforms allow us to deploy secure AI platforms quickly.
  • Multidisciplinary teams: Our teams combine data scientists, engineers, and industry specialists.

We don’t deliver AI experiments. We deliver applied AI that moves the needle.

Looking Ahead: The Next 12–18 Months

Several trends will shape the next phase of applied AI in energy.

  1. AI-driven electricity demand growth: The rapid expansion of AI and data centres is increasing pressure on electricity networks.
  2. Grid modernisation becomes critical: Digital twins and predictive analytics will play a major role.
  3. Resource efficiency becomes a priority: Energy and water constraints will accelerate AI-driven optimisation.
  4. Agentic AI workflows emerge: AI systems will increasingly coordinate complex operational processes.
  5. Stronger regulatory oversight: Responsible AI frameworks will shape deployment.

Marissa predicts: “The next phase of AI in energy will be about orchestration. We’ll see AI systems coordinating data, assets, and decisions across the grid rather than operating in isolation.”

Operationalising AI for a Resilient Energy Future 

Applied AI is no longer a future ambition for the energy sector; it’s becoming a baseline capability. The organisations that succeed will combine technical innovation with operational discipline, strong governance, and clear business outcomes.

At Colibri Digital, we help energy organisations move beyond experiments and operationalise AI safely, sustainably, and at scale.

If you’re ready to turn AI into real business value, we’re ready to help. Speak to our team today.