Javier Iñigo Labairu

Mr. Javier Iñigo Labairu

German Aerospace Center, Cologne, North Rhine-Westphalia, Germany
orcid

Research Focus & Metrics

Academic Career Length

5Years (2022-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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27 September 2022 in Energies
Verified
Journal Article
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JLJavier Iñigo Labairu
Javier Iñigo Labairu
JDJürgen Dersch
Jürgen Dersch
LSLuca Schomaker
Luca Schomaker
Photovoltaic (PV) - concentrated solar power (CSP) hybrid power plants are an attractive option for supplying cheap and dispatchable solar electricity. Hybridization options for both technologies were investigated, combining their benefits by a deeper integration. Simulations of the different systems were performed for seven different sites by varying their design parameters to obtain the optimal configurations under certain boundary conditions. A techno-economic analysis was performed using the levelized cost of electricity (LCOE) and nighttime electricity fraction as variables for the representation. Hybrid power plants were compared to pure CSP plants, PV-battery plants, and PV plants with an electric resistance heater (ERH), thermal energy storage (TES), and power block (PB). Future cost projections were also considered.

3 May 2022 in Energies
Verified
Journal Article
Open access
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José M. CardemilJosé M. Cardemil
José M. Cardemil
ICIgnacio Calderón-Vásquez
Ignacio Calderón-Vásquez
APAlan Pino
Alan Pino
ASAllan Ricardo Starke
Allan Ricardo Starke
IWIan Wolde
Ian Wolde
Rodrigo EscobarRodrigo Escobar
Rodrigo Escobar
Industrial energy accounts for a large percentage of global consumption and, thus, it is a target for decarbonization by renewable and in particular solar energy adoption. Low uncertainty simulation tools can reduce the financial risk of solar projects, fostering the transition to a sustainable energy system. Several simulation tools are readily available to developers; differences exist in the format of input data and complexity of physical and numerical models. These tools can provide a variety of results from technical to financial and sensitivity analysis, often producing significant differences in yield assessment and uncertainty levels. IEA SHC Task 64/SolarPACES Task IV—Subtask C aims to address the lack of standard simulation tools for Solar Heating of Industrial Processes (SHIP) plants. This article describes the collaborative work developed by the researchers participating in the task. The identification and classification of several currently available simulation tools are performed on the basis of their capabilities and simulation approaches. A case study of solar heat supply to a copper mining operation is defined, allowing a comparison of the results produced by equivalent simulation tools. The proposed methodology identifies the main sources of differences among the simulation tools, the assessment of the deviation considering a series of statistical metrics for different time scales, and identifies their limitations and bias. The effects of physical characteristics of SHIP plants and different simulation approaches are discussed and quantified. The obtained results allow us to develop a basic guideline for a standardized yield assessment procedure with known uncertainties. Creating this common framework could partially reduce the risk perceived by the finance industry regarding SHIP systems.

29 May 2024 in Energies
Verified
Journal Article
Open access
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JLJavier Iñigo Labairu
Javier Iñigo Labairu
JDJürgen Dersch
Jürgen Dersch
THTobias Hirsch
Tobias Hirsch
SGStefano Giuliano
Stefano Giuliano
MLMatthias Loevenich
Matthias Loevenich
DCDiego Córdoba
Diego Córdoba
Concentrated solar power (CSP)—photovoltaic (PV) hybrid power plants allow for the generation of cheap electrical energy with a high capacity factor (CF). A deep integration of both technologies offers synergies, using parts of the PV generated electricity for heating the thermal storage tank of the CSP unit. Such configurations have been previously studied for systems coupled by an electric resistance heater (ERH). In this work, the coupling of a CSP and a PV plant using a heat pump (HP) was analyzed due to the higher efficiency of heat pumps. The heat pump is used as a booster to lift the salt temperature in the storage system from 383 to 565 °C in order to reach higher turbine efficiency. A techno-economic analysis of the system was performed using the levelized cost of electricity (LCOE), the capacity factor and nighttime electricity fraction as variables for the representation. The CSP–PV hybrid with a booster heat pump was compared with other technologies such as a CSP–PV hybrid plant coupled by an electric heater, a standalone parabolic trough plant (PT), a photovoltaic system with battery storage (PV–BESS), and a PV thermal power plant (PVTP) consisting of a PV plant with an electric heater, thermal energy storage (TES) and a power block (PB).

1 January 2023 in AIP Conference Proceedings
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Conference Paper
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JDJürgen Dersch
Jürgen Dersch
JLJavier Iñigo Labairu
Javier Iñigo Labairu
LSLuca Schomaker
Luca Schomaker
MSMartin Schlecht
Martin Schlecht
LPLukas Pfundmaier
Lukas Pfundmaier
FZFelix Zimmermann
Felix Zimmermann
PV-CSP hybrid power plants have been proposed since several years and the first ones are currently planned or under construction. They can offer the combination