Energy Production and Supply: Digitalisation Opportunities
The integration of asset, operational, field work, customer and compliance data from electricity, heat, gas and other energy resource production, trading and supply into a single managed digital chain.
Digital maturity
high
Skaitmenizacijos potencialas
92/100
Biggest challenge
Production and market signals insufficiently converted into joint actions
Biggest opportunity
Integrated technical and commercial energy portfolio management
Competitiveness will be determined by the ability to align safe equipment operation, market opportunities, balancing risk and customer portfolio margin in one decision chain.
Operating model for energy generation and supply
The business covers the production, trading, balancing, supply, metering and settlement of electricity, heat, gas and other energy resources. The economic result is driven by the ability to simultaneously manage the technical constraints of assets, fuel and emission costs, demand and price forecasts, market positions and customer portfolio margin.
Technical and commercial solutions are inseparable
Production regime must account for equipment constraints, fuel and emission costs, and market value.
Time and data version are critical
Forecast, transaction, actual measurement and correction must be compared based on the information available at that time.
Portfolio margin is driven by exceptions
Balancing, metering, contract and invoice corrections can obscure the true product or customer result.
Market and technology context
In 2026, energy sector digitalisation is driven particularly by variable generation, electrification, storage, demand flexibility and the need to simultaneously optimise technical reliability, market position, balancing and emissions costs.
Variable generation and flexibility needsMore frequent forecast updates and storage increase the importance of technical and commercial coordination.
Price, fuel and emissions cost fluctuationsProduction regimes must be evaluated against full economic impact, not technical efficiency alone.
Smart metering and more flexible customer productsHigher data frequency enables more precise management but increases the need for exception and quality control.
Typical business process
01
Demand, generation and price forecasting
Forecasts are prepared based on weather, customer consumption, asset availability, fuel and market data.
02
Production and market planning
Technical constraints, contractual commitments, market positions and risk limits are aligned.
03
Real-time management and balancing
Deviations, asset condition, network conditions and required corrective actions are monitored.
04
Metering and data quality control
Meter readings, versions, calculated quantities and exceptions are managed.
05
Settlement and customer service
Contract and tariff formulae are applied, invoices are issued and corrections are reviewed.
06
Plan–actual and portfolio margin analysis
Deviations are attributed to technical, forecasting, market, metering or contractual causes.
Digital maturity pathway
0
Separate technical and commercial management
Production is managed via SCADA, trading and forecasting in other systems, and overall performance is reconciled through reports.
1
Digitalised core processes
Production plans, market transactions, metering and billing are managed in systems, but exceptions and root causes are often checked manually.
2
Integrated generation and market plan
Demand, generation, fuel, price, emissions and equipment availability forecasts form a single planning cycle.
3
Closed plan–actual–settlement cycle
Market position, actual generation, balancing outcome, metering and financial impact are linked to a specific portfolio asset or customer.
4
Data-driven generation and supply portfolio Typical current situationSiektina
In key portfolios, forecasts, technical availability, market positions, balancing outcomes, metering and financial impact are linked in a single decision chain, but coverage and model control are not yet uniform across all products.
5
Adaptive real-time energy portfolio
Validated decisions are partially automated, and model quality, risk limits and human intervention are continuously monitored.
Key finding
Energy generation and supply digitalisation must connect technical availability, forecasts, market positions, balancing actions, metering and the final financial result.
The greatest value arises from creating a closed plan–actual–settlement cycle for one portfolio, rather than improving each team's models separately.
Related digitalisation topics
Energy forecasting and balancing analyticsGeneration portfolio optimisationEnergy metering and settlement automation
Problemos
Most common digitalisation challenges
Issues arise between technical availability, forecasts, market actions, balancing, metering and final financial results.
Production and market signals insufficiently converted into joint actions
Critical
SCADA events, asset availability, demand and price forecasts, market positions and balancing deviations reach different workplaces.
Consequences
Technical and commercial teams respond separately, so the economically best action for the entire portfolio is not always chosen.
Production, demand and market forecasts are managed separately
Critical
Weather, plant availability, fuel, customer consumption, market price, balancing and grid constraint forecasts are prepared in different systems and teams.
Consequences
Balancing costs increase, sub-optimal production regimes, inaccurate market positions and lost trading opportunities.
Production regimes are insufficiently optimised according to full economic impact
Critical
Plant efficiency, start-up and shut-down costs, fuel prices, emissions, heat demand, maintenance risk and market prices are evaluated separately.
Consequences
Production is carried out in a technically safe manner, but not always economically optimal at the entire portfolio level.
Supply portfolio, metering and settlement exceptions are managed manually
Critical
Contracts, products, pricing formulae, meter data, forecasts, balancing costs and invoice corrections pass through several systems.
Consequences
Invoice and margin discrepancies, customer disputes and manual month-end closing costs increase.
Asset and technical data fragmented across systems
High
Power plants, boilers, cogeneration units, storage facilities, trading portfolios and customer metering points are identified differently in production, trading, maintenance, ERP and customer systems.
Consequences
Difficult to link failure, work, cost, risk and investment need to a specific physical asset.
Production asset maintenance insufficiently linked to planned operating regimes
High
Condition signals, load, efficiency, failure history, parts availability and market plan are assessed separately.
Consequences
Maintenance is performed at suboptimal times or future downtime and market revenue risk is insufficiently assessed.
Field work and contractors at production sites coordinated separately
High
Work windows, disconnections, safety, technical documentation, competencies, materials, contractors and test evidence are planned in different systems.
Consequences
Planned outages lengthen, unproductive site visits increase and contractor performance quality becomes harder to manage.
Production asset and portfolio investments evaluated using separate models
High
Asset condition, efficiency, fuel and emissions costs, market scenarios, storage alternatives and capital requirements are analysed separately.
Consequences
Difficult to compare maintenance, modernisation, storage, new production and commercial flexibility against overall portfolio value.
Compliance, safety and environmental data are collected at the time of reporting
Medium
Production, fuel, emissions, load, balancing, metering, contract and customer data are reconciled from different systems only before reporting, settlement or audit.
Consequences
Report preparation is lengthy, data origin is difficult to trace, and discrepancies are noticed too late.
Opportunities
Greatest digital opportunities
Single portfolio plan–actual–settlementVery high impactConnect forecast, technical availability, market position, actual generation or demand, balancing result and financial impact for a single generation or supply portfolio.Lower balancing costs
Metering, product and settlement automationVery high impactConnect contract and pricing rules, meter data, calculations, exceptions, invoices and margin.More accurate invoices and portfolio economics
Generation and supply portfolio optimisationVery high impactOptimise equipment operating modes, fuel and emissions costs, trading positions, storage and contractual commitments.Higher margin and efficiency
Generation equipment condition and maintenance managementVery high impactAlign load, efficiency, failures, maintenance, parts, planned operating modes and outage value.Fewer outages and better asset economics
Unified generation asset and energy portfolio data foundationVery high impactConnect SCADA, asset condition, generation plans, fuel, emissions, market positions, metering and financial data.Reliable decisions and less data reconciliation
Generation site work and contractor coordinationHigh impactConnect work windows, isolations, safety, competencies, materials, contractors, testing and evidence.Lower work costs
Emissions, market and supply compliance controlVery high impactLink fuel and emissions data, market actions, metering, contract exceptions, incidents and mandatory reports.Lower regulatory risk
Production, storage and portfolio investment planningVery high impactCompare asset modernisation, storage, flexibility, new production and market scenarios by total economic impact.More accurate capital investments
Biggest opportunity
Integrated technical and commercial energy portfolio management
The greatest opportunity is to connect demand, generation and price forecasts, real-time equipment status, fuel and emissions data, market positions, balancing actions and customer portfolio in a single decision chain.
Lower balancing costs
Higher generation margin
More accurate market decisions
Fewer invoice corrections
Clear portfolio profitability structure
Potential business impact
Balancing costsMore accurate and frequently updated forecasts reduce deviations and the cost of corrections.
Generation marginOperating modes are assessed together with fuel, emissions, start-up, maintenance and market costs.
Asset reliabilityCondition signals and generation schedules are linked to maintenance risk and downtime cost.
Trading outcomeTechnical availability and market scenarios are visible in a single decision workspace.
Settlement accuracyContracts, metering versions, tariffs and corrections are managed traceably.
Customer portfolio valueMargin is visible by product, customer and balancing impact.
Sprendimai
How to solve these problems
Solution directions linked to specific business area problems they address.
Problema
Production and market signals are insufficiently converted into joint actions
→
Sprendimo kryptis
Generation and market plan versus actuals platform
Integrates production, demand, price, fuel and technical availability forecasts with market positions, actuals, balancing and margin outcomes.
Problema
Production, demand and market forecasts are managed separately
Balancing costs increase, sub-optimal production regimes, inaccurate market positions and lost trading opportunities.
→
Sprendimo kryptis
Generation and market plan versus actuals platform
Integrates production, demand, price, fuel and technical availability forecasts with market positions, actuals, balancing and margin outcomes.
Problema
Production modes are insufficiently optimised according to total economic impact
→
Sprendimo kryptis
Generation and market plan versus actuals platform
Integrates production, demand, price, fuel and technical availability forecasts with market positions, actuals, balancing and margin outcomes.
Problema
Asset and technical data are fragmented across systems
→
Sprendimo kryptis
Production asset and maintenance system
Integrates asset hierarchy, technical availability, condition signals, failures, maintenance work and planned production modes.
Problema
Production equipment maintenance is insufficiently linked to planned modes
→
Sprendimo kryptis
Production asset and maintenance system
Integrates asset hierarchy, technical availability, condition signals, failures, maintenance work and planned production modes.
Problema
Production site field work and contractors are coordinated separately
→
Sprendimo kryptis
Production site work and contractor platform
Manages work preparation, crews, contractors, materials, safety conditions, proof of performance and impact on production plan.
Recommended digital solutions
Solutions must connect technical availability, forecasts, market actions, balancing, metering and portfolio margin.
Generation and market plan versus actuals platform
Integrates production, demand, price, fuel and technical availability forecasts with market positions, actuals, balancing and margin outcomes.
Production asset and maintenance system
Integrates asset hierarchy, technical availability, condition signals, failures, maintenance work and planned production modes.
Production site work and contractor platform
Manages work preparation, crews, contractors, materials, safety conditions, proof of performance and impact on production plan.
Metering, product and settlement platform
Manages metering versions, product and contract formulae, balancing costs, exceptions, corrections, invoices and portfolio margin.
Investment, emissions and compliance data platform
Integrates asset and portfolio investment scenarios, emissions data, safety and regulatory evidence.
Is the organisation ready to begin?
Investment justified
Production, demand and price forecasts are prepared in different systems
Balancing outcome causes are determined manually after the fact
Technical availability does not always reach the trading team in time
Metering and contract exceptions delay month-end closing
True margin by product or customer unclear
Reikia atsargumo
No unified time and measurement version management
Technical constraints are not formalised
Direct automatic OT control expected in the first version
Rules for different portfolios not separated
Recommended first version
A single production or supply portfolio plan–actual–settlement connecting forecast, technical availability, market position, balancing outcome and financial impact.
Single version of forecasts and plans
Demand, production, prices, availability, fuel and emissions on a single time scale.
Technical and market scenario comparison
Solutions assessed by technical constraints, balancing and expected margin.
Plan versus actual analysis
Actual production, market transactions and deviations assigned to specific causes.
Decision and approval history
Records who, when and based on what data took action.
Kam pirmiausiaProduction planner · Dispatcher · Trading or portfolio manager · Risk analyst · Finance or settlement specialist
What not to include in the first versionAll energy types and market portfolios · Direct automated equipment control · Complete replacement of customer billing system · Optimisation of all storage and flexibility strategies
Investment priorities
Connect plan, actuals and settlement for a single portfolioSelect a single generation or supply portfolio and link forecast, technical availability, market action, actuals, balancing outcome and financial impact.
Generation and market plan versus actualsSee technical and financial causes of deviations.
Balancing and risk workstationManage actions, constraints, approvals and outcomes.
Metering and settlement exceptionsAutomate control of corrections and contract formulae.
Storage and portfolio optimisationScale only after establishing reliable model quality monitoring.
Key implementation conditions
All data must be comparable on the same time scale
Forecast, market transaction, SCADA actual, meter version and invoice must have clear timestamps and correction history.
Technical constraints must be above economic optimisation
The model cannot propose a mode that violates safety, emissions, equipment or contractual limits.
Forecast and model versions must be preserved
Decisions should be evaluated against the forecast available at the time, not against subsequently updated data.
OT and market automation must be separated
An analytical model may suggest an action, but direct control must have a separate safety architecture and approval rules.
Margin must be visible down to product and customer level
The impact of balancing, measurement corrections and pricing must not be lost in the overall portfolio result.
Recommended implementation sequence
01
Single portfolio solution chain analysis
Select a single production or supply portfolio and link forecast, plan, market action, actual and financial result.
Data and systems map
Time and identifier rules
Solution responsibilities
Initial forecast and margin KPIs
02
Foundation for plans and actuals
Align production, demand, pricing, fuel, emissions, availability and measurement data on a single time scale.
Automate management of measurement corrections, pricing formulae, balancing costs and invoice exceptions.
Measurement quality rules
Contract formulae
Exception queue
Margin and adjustment reports
05
Storage and portfolio optimisation
After establishing a stable foundation, expand optimisation of production regimes, storage, flexibility and market solutions.
Optimisation model pilot
Model quality monitoring
Scenario analysis
Boundaries of automation and human control
Change measurement KPIs
Production or demand forecast absolute error% or MWh
Measure forecast quality and its impact on decisions.
Balancing costs€ per MWh
Evaluate the performance of forecasts, portfolio and operational actions.
Equipment Technical Availability%
Measure production asset reliability.
Costs of non-optimised or forced regimes€
Assess the impact of technical constraints and solutions on margin.
Proportion of measurement exceptions%
Monitor meter and billing data quality.
Proportion of invoice corrections%
Measure the reliability of contracts, tariffs and integrations.
Margin by product or customer segment€ or %
Assess the true economics of the procurement portfolio.
Key risks
Optimisation model ignores technical constraintAn economically attractive mode may be unsuitable due to equipment, emissions or heat supply constraints.Kaip suvaldyti Implement technical and safety limits as mandatory conditions and test edge cases.
Forecasts are evaluated against subsequently updated informationA misleading picture of model accuracy and decision quality is created.Kaip suvaldyti Store each forecast version, creation time and data available at that time.
Market and OT integration increases cyber riskBusiness systems gain excessive access to the critical environment.Kaip suvaldyti Use segregated data flows, the principle of least privilege and independent security architecture review.
Unvalidated contract formulae are automatedAn incorrect exception or measurement version can affect invoices at scale.Kaip suvaldyti Version formulae, test retrospectively and approve critical corrections using the four-eyes principle.
The first version covers the entire production and supply portfolioDifferent products, markets and technologies greatly expand the ruleset.Kaip suvaldyti Start with one portfolio, one decision cycle and clear financial KPIs.
Inovacijos
Advanced digital innovations
AI and optimisation models can improve forecasts and portfolio decisions, but technical constraints, model version and human control must be clear.
Market expansion3
AI for forecasting equipment condition and production modes
Highly urgent
Analyses load, efficiency, vibration, temperature, failures, fuel and market conditions.
How it is applied Recommendations are evaluated based on technical constraints, expected downtime and economic impact across the entire portfolio.
What value can be created
Earlier fault detection
Reduced losses and downtime
What is needed for this to work
Contextual sensor data
Failure and maintenance history
Model quality monitoring
Human approval
Medium-termCommercial solutions are available
AI for production and trading portfolio optimisation
Highly urgent
Models align demand, prices, equipment constraints, start-up costs, fuel and emissions prices, and storage states.
How it is applied The system proposes portfolio scenarios, whilst the dispatcher and trading team approve actions according to technical and risk constraints.
What value can be created
Lower balancing and fuel costs
Higher trading margin
What is needed for this to work
Reliable forecasts
Equipment constraints model
Market and contract data
Actions audit
Medium-termCommercial solutions are available
Drones and thermal imaging for production asset inspections
Relevant
Supports inspection of boilers, chimneys, pipelines, tanks, roofs and other hard-to-reach assets.
How it is applied Defects are linked to asset objects, maintenance history and planned work priorities.
What value can be created
Greater inspection coverage
Lower employee safety risk
What is needed for this to work
Asset geographical data
Standardised image capture
Defect taxonomy
EAM integration
Short-term perspectiveCommercial solutions are available
Early stage1
Digital twin of generation assets
Highly urgent
Combines the technical structure of assets, regimes, fuel and emission data, maintenance and planned changes.
How it is applied Used to evaluate scenarios for specific unit regimes, maintenance and investments, not just for visualisation.
What value can be created
More accurate investment and maintenance planning
Faster incident impact assessment
What is needed for this to work
Reliable asset hierarchy
GIS and real-time data
Calibrated model
Version management
Long-term perspectiveApplied in practice
D.U.K.
Frequently asked questions
Which process is best to start with for energy generation or supply digitalisation?
It is best to select one portfolio and one decision cycle where financial impact is clearly visible. This may be generation and market plan–actual, balancing cost analysis or measurement and billing exceptions management.
Do more forecasts automatically mean a better result?
No. What matters is the forecast version, the moment it was created, the data used and the specific decision it drove. The model must be evaluated not only by statistical error, but also by balancing or margin impact.
How to separate technical loss from market loss?
Technical availability, SCADA actual, fuel or weather conditions, network constraints, market transactions and balancing result need to be linked on a single time scale. Only then can a deviation be reliably attributed to a specific cause.
When is it worth automating generation or storage regimes?
Only when technical and safety limits are formalised, data flows are reliable, the model has been tested retrospectively and it is clear when a human must take control. An analytical recommendation and direct OT control are solutions with different risk levels.
How to reduce the number of invoice and metering corrections?
Contract formula, meter version, calculated quantity, balancing costs and correction must be managed in a single traceable chain. An exception is worth detecting before invoice issuance, not after receiving a customer complaint.
How to assess return on investment for such a solution?