Power Electronics and Grid Connection of Offshore Renewable Energy - - PowerPoint PPT Presentation

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Power Electronics and Grid Connection of Offshore Renewable Energy - - PowerPoint PPT Presentation

Power Electronics and Grid Connection of Offshore Renewable Energy Bilbao, 25/06/2019 AREAS OF ACTION WITHIN JRL - ORE 1 2 3 4 POWER ELECTRONIC GRID INTEGRATION DIGITAL MODELS CONTROL STRATEGIES CONVERTERS 5 6 7 8 OFFSHORE RENEWABLE


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Power Electronics and Grid Connection of Offshore Renewable Energy Bilbao, 25/06/2019

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AREAS OF ACTION WITHIN JRL - ORE

DIGITAL MODELS POWER ELECTRONIC CONVERTERS GRID INTEGRATION CONTROL STRATEGIES

5 6 7 8

FLUID DYNAMICS OFFSHORE RENEWABLE ENERGY TECHNOLOGIES TECHNO-ECONOMIC ANALYSIS MATERIALS FOR OFFSHORE RENEWABLE ENERGY

1 2 3 4

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PRESENTATION: WHO WE ARE

UNIDAD DE ENERGÍA/ ENERGY UNIT

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POWER ELECTRONIC CONVERTERS Research line oriented to the design and study of power converters for electric power generation, conversion, storage and transmission:

  • Improvements on the efficiency, control and cooling systems of power converters
  • Implementation of power converters, power modules and drivers with SiC

semiconductors

  • Power electronics solutions for MV energy storage systems and STATCOMs
  • HVDC and MVDC transmission systems
  • Viability of new DC offshore transmission and distribution systems below 50 km

transmission distance

  • Analysis of stability and harmonic propagation in grids with high penetration of

power electronics

  • Virtual synchronous machines
  • Power flow and transient stability analysis
  • Modulation strategies, control algorithms, fault tolerant converters, parallelization
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GRID INTEGRATION Research line focused on the modeling of renewable generation systems and power system studies for integration into the power system:

  • Dynamic user models of renewable and distributed generation, including storage,

with high-level controls for normal and perturbed operation

  • Power system studies (EMT, dynamic and steady state) for evaluating technical

and economic issues due to the interconnection of renewable generation. From detailed evaluation of specific renewable plant project to large system integration studies

  • Integration of models into commercial power system analysis tools
  • Stability studies, resonances and complex interactions in mixed HVDC-HVAC

systems

  • Protection of HVDC and MVDC transmission systems
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DIGITAL MODELS Research line focused on the development of digital models of different components for optimizing commissioning and maintenance tasks:

  • Modeling of components and equipment based on normal-operation data
  • Modeling of components and equipment under fault conditions. Characterizations
  • f the physical degradation of components (cause and effect)
  • Prediction of failures based on real data entries and real conditions of use
  • Prediction of operation against unexpected events
  • Product optimization to extend the useful life, including repairs
  • Improvement of the overall cost efficiency
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INFRASTRUCTURES

APERT LAB GISEL LAB INGRID

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EXAMPLE OF PROJECTS ON COURSE

Offshore Contactless Power transfer Conceptual stage. 2 Master students

  • VIRTUAL. Desarrollo de modelos virtuales para la mejora de la

vida de componentes y bienes de equipo

ELKARTEK 2018 (2 years)

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OFFSHORE CONTACTLESS POWER TRANSFER Fast contactless charging of ferries, river boats, Subsea machinery and Subsea Remote Operated Vehicles (ROV):

  • Design of an inductive coupling device for underwater operation
  • Design of the power converters
  • Small power prototype under development
  • Testing of coils in a water tank
  • Analysis of the influence of misalignments on the efficiency of the power

conversion

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VIRTUAL Development of virtual models for the improvement of the life of components and equipment:

  • WP 1. Physical Models:
  • Modeling of goods and components
  • Virtual sensors
  • Test models oriented to failure analysis
  • WP 2. Forecasting Models:
  • Prognosis techniques
  • Taxonomy level adequacy
  • Concept drift
  • Uncertainty management
  • Data integration/hybridization
  • WP 3. Virtual Commissioning
  • Virtual platform
  • Definition of synthetic data
  • Simulation of synthetic data

Applied to 2 Use Cases:

  • Advanced manufacturing
  • Offshore wind
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VIRTUAL Physical Models:

Taxonomy Failure Modes Cause of Failure

Electrical Componets Generator Power Converter MV Cable Transformer

Datos reales

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VIRTUAL Physical Models:

Taxonomy Failure Modes Cause of Failure

Electrical Componets Generator Power Converter MV Cable Transformer

Wind speed data

Stimation

Rainflow counter

∆, &

Lifetime Characteristic

  • Acumulated

Damage (Palmgren-Miner) Residual Life %

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VIRTUAL Physical Models:

Taxonomy Failure Modes Cause of Failure

Electrical Componets Generator Power Converter MV Cable Transformer

I, Tamb data

Stimation

Performance Failure PCHIP Algorithm Stimated Time to Failure Residual Life %

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Thank you / Eskerrik asko

pablo.eguia@ehu.eus

jrl-ore.com

Contact information: