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Project cooperationUpdated on 13 March 2025

Sustainability assessment and Techno-economic feasibility studies

Félix Marín

Head of Development and Technology Transfer at IMDEA Energy

Móstoles, Spain

About

Sustainability assessment studies of energy systems

Performance of advanced studies to assess and benchmark the sustainability of a specific energy system in terms of technical, economic, environmental and social indicators using life-cycle approaches (alone or in combination with other methodologies).

Advanced sustainability assessment of energy systems from a life-cycle perspective, which can include:

  • Environmental life cycle assessment (estimation of carbon footprints, energy footprints, etc.).

  • Life cycle costing (including estimation of external costs).

  • Eco-efficiency assessment according to ISO 14045:2012.

  • Social life cycle assessment of products.

  • Life cycle sustainability assessment, and potential use of multi-criteria decision analysis tools.

Advantages and Innovations

  • Use of state-of-the-art approaches to sustainability assessment of energy systems.

  • Availability of original life-cycle models and calculation tools.

  • Vast background in life cycle assessment of energy systems, which may allow benchmarking studies.

Techno-economic feasibility studies of energy systems

Performance of advanced studies to assess the feasibility of a specific energy system under technical and economic aspects using process simulation and optimisation, and techno-economic analysis tools. Advanced studies on the techno-economic feasibility of energy systems, which can include:

  • Economic feasibility analysis (estimation of production costs, net present value, etc.).

  • Thermodynamic analysis (exergy analysis).

  • Process simulation using well-established software solutions and tailor-made, own simulation models.

Advantages and Innovations

  • Use of advanced tools for techno-economic feasibility assessment.

  • Availability of original models and calculation tools.

  • Vast background in techno-economic assessment of energy systems, which may allow benchmarking studies.

Stage

  • Looking for Consortium / Coordinator
  • Looking for Partners

Topic

  • Construction and Demolition Waste (CDW) Circularity,
  • Circular energy integration: valorising local waste streams for industrial efficiency
  • Electric Vehicles (EV) Batteries Recycling and Reuse
  • Enhancing Digitalisation in Circular Economy Processes

Type

  • Project Management
  • Prototype development
  • Testing the product/application

Similar opportunities

  • Expertise

    Advanced sustainability assessment for circular economy solutions

    • ENERGY
    • ENVIROMENT
    • ELECTRIC VEHICLE (EV) BATTERIES RECYCLING, REUSE
    • CONSTRUCTION AND DEMOLITION WASTE (CDW) CIRCULARITY
    • CIRCULAR ENERGY INTEGRATION: VALORISING LOCAL WASTE STREAMS FOR INDUSTRIAL EFFICIENCY

    Mario Martín-Gamboa

    Senior Research Fellow 'Cesar Nombela' at Universidad Rey Juan Carlos

    Madrid, Spain

  • Project cooperation

    Second Life Power

    • Project Idea
    • Prototype development
    • Electric Vehicles (EV) Batteries Recycling and Reuse

    Christopher Rosenkranz

    Head of Mechanical Engineering at Microvast GmbH

    Ludwigsfelde, Germany

  • Service

    Turn-key engineering, equipment manufacturing, technology implementation

    • Consulting
    • Development
    • Manufacturing
    • ENHANCING DIGITALIZATION IN CIRCULAR ECONOMY PROCESSES
    • CIRCULAR ENERGY INTEGRATION: VALORISING LOCAL WASTE STREAMS FOR INDUSTRIAL EFFICIENCY

    Tetiana Landar

    Project coordinator at Techinservice

    Kyiv, Ukraine