R&D project

AleaBattery project

Project co-financed within the framework of the European Funds

Co-funded by the European Union
Spanish Ministry of Finance. European Funds
Spanish Ministry of Science, Innovation and Universities. CDTI Innovación

Europa se siente

Advanced solution for the simulation and optimisation of battery energy storage systems

AleaBattery is an R&D project developed by AleaSoft to analyse the viability of battery storage systems, both stand-alone and hybridised with renewable generation.

Renewables · Battery · Hourly simulation · Financial analysis

  • Analysis
  • IRR
  • Payback
Conceptual representation, not based on real data

The project

What need does the project address?

The growing penetration of variable renewable generation is increasing the need for flexibility in European electricity systems.

In this context, battery energy storage plays an increasingly relevant role, but its development requires tools capable of jointly analysing its operation, degradation, profitability and long-term evolution.

Before the development of AleaBattery, the tools available in the AleaSoft ecosystem did not specifically address the hourly simulation of battery operation, the optimisation of charging and discharging strategies, usage-related degradation, hybrid configurations or the specific financial assessment of these assets.

AleaBattery's response

AleaBattery is being developed to close this technological gap through a specific environment for the analysis of storage systems.

The solution combines long-term hourly simulation, operational optimisation, degradation, hybrid configurations, economic and financial analysis and automatic report generation.

Objectives

What are the objectives of AleaBattery?

The project combines experimental development, energy modelling, optimisation and economic and financial analysis.

  1. Hourly simulation

    Analyse the operation of storage systems based on hourly simulations of long-term market prices, with horizons of up to 30 years.

  2. Optimisation

    Define dynamic charging and discharging strategies that take into account market signals and physical constraints.

  3. Degradation

    Incorporate cycles, depth of discharge, ageing and the state of health of the battery.

  4. Hybridisation and sizing

    Analyse hybrid configurations with renewable generation and optimise the sizing of the battery according to the characteristics of the facility and the operation and market scenarios.

  5. Financial analysis

    Calculate the IRR and payback of the projects, both at project level and at the level of the investor's equity, and carry out sensitivity analyses and stress scenarios.

  6. Scalable architecture

    Develop a modular and interoperable architecture for deployment in different markets.

  7. Automatic reports

    Generate customisable reports aimed at financing processes.

  8. Real-world validation

    Compare configurations and scenarios and validate the solution with real data from European markets.

Key information

The project in figures

  • €305,797.21 Planned investment for the development of the project
  • €259,927.63 Grant requested from CDTI
  • 12 months Planned execution period
  • 30 years Time horizon of the simulations
  • 8 Specialised professionals initially involved in the development
  • 2 New data scientists planned to strengthen the technical capabilities
  • Europe Scope of application: European electricity markets
  • TRL 6–7 Technology readiness level expected in the final phase

The change

What change does AleaBattery introduce?

The innovation consists of integrating into a single environment specific capabilities that were previously not available for the comprehensive analysis of batteries.

Previous situation

  • No specific hourly simulation for batteries.
  • No dynamic charging and discharging optimisation.
  • No specific degradation modelling.
  • No complete analysis of hybrid configurations.
  • No specific financial assessment of these assets.

Capabilities developed

  • Long-term hourly simulation.
  • Technical and economic optimisation of the operation.
  • Modelling of degradation and useful life.
  • Hybridisation with renewables and sizing.
  • Financial assessment and multi-scenario analysis.
  • Automated report generation.

Results

What milestones does the project include?

The project is structured in four main phases, from the functional design to the pre-operational validation and the preparation for scaling.

  1. Phase 1

    Functional design

    Definition of functional specifications, preliminary technical design and list of simulation scenarios and target project types.

  2. Phase 2

    Development of the core

    Development of the simulation engine, prepared to process a large set of hourly price simulations with horizons of up to 30 years, together with optimisation algorithms, degradation models and technical and economic analysis components.

  3. Phase 3

    Validation and integration

    Validation in controlled environments, generation of an integrated beta version, technical and economic validation report and preliminary user documentation.

  4. Phase 4

    Pre-operational validation, internal transfer and preparation for scaling

    Consolidation of results, validation with internal users and experts, stabilisation of the interface, documentation, training, tests with real cases and preparation of a roadmap for future technology transfer.

  • 12 Planned deliverables
  • 4 Main phases
  • 30 years Maximum simulation horizon
  • TRL 6–7 Expected technology readiness level

Impact

What impact does the project generate?

The impact is structured in three dimensions: technological, socioeconomic and contribution to the energy transition.

  • Technological impact

    AleaBattery extends AleaSoft's technological capabilities to the specific analysis of storage systems, integrating operation, optimisation, degradation, hybridisation and financial analysis in a single solution.

  • Socioeconomic impact

    The project strengthens the internal capabilities in modelling, data science, software engineering and electricity market analysis, and involves the mobilisation of own resources and new technical capabilities.

  • Energy transition

    AleaBattery facilitates the analysis and optimisation of storage systems, a key technology for the flexibility of the electricity system and the integration of renewable generation.

Scope of impact

The project has a European scope, both because of its focus on European electricity markets and because of its application to storage projects in different countries and regulatory contexts.

AleaBattery R&D project

Europa se siente

Co-funded by the European Union
Spanish Ministry of Finance. European Funds
Spanish Ministry of Science, Innovation and Universities. CDTI Innovación

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