Empowering CO2 Eco‐Refrigeration With Colossal Breathing‐Caloric‐Like Effects in MOF‐508b

Author:

Gelpi María1ORCID,García‐Ben Javier1ORCID,Rodríguez‐Hermida Sabina2ORCID,López‐Beceiro Jorge3ORCID,Artiaga Ramón3ORCID,Baaliña Álvaro4ORCID,Romero‐Gómez Manuel4ORCID,Romero‐Gómez Javier4ORCID,Zaragoza Sonia5ORCID,Salgado‐Beceiro Jorge6ORCID,Walker Julian7ORCID,McMonagle Charles James8ORCID,Castro‐García Socorro1ORCID,Sánchez‐Andújar Manuel1ORCID,Señarís‐Rodríguez María Antonia1ORCID,Bermúdez‐García Juan Manuel1ORCID

Affiliation:

1. QuiMolMat Group Department of Chemistry Faculty of Science and Centro Interdisciplinar de Química e Bioloxía (CICA) University of A Coruna Zapateira A Coruña 15071 Spain

2. Research Support Services University of A Coruna A Coruña 15071 Spain

3. CITENI‐Proterm Group Ferrol Industrial Campus Campus de Esteiro University of A Coruna Ferrol 15403 Spain

4. Energy Engineering Research Group Department of Nautical Sciences and Marine Engineering (ETSNM) University Institute of Maritime Studies University of A Coruna Paseo de Ronda, 51 A Coruña 15011 Spain

5. CITENI, Ferrol Industrial Campus University of A Coruna Ferrol A Coruña 15403 Spain

6. SINTEF Energy Research Trondheim 7034 Norway

7. Department of Materials Science and Engineering Norwegian University of Science and Technology Trondheim 7491 Norway

8. Swiss–Norwegian Beamlines European Synchrotron Radiation Facility Grenoble 38043 France

Abstract

AbstractToday, ≈20% of the electric consumption is devoted to refrigeration; while, ≈50% of the final energy is dedicated to heating applications. In this scenario, many cooling devices and heat‐pumps are transitioning toward the use of CO2 as an eco‐friendly refrigerant, favoring carbon circular economy. Nevertheless, CO2 still has some limitations, such as large operating pressures (70–150 bar) and a critical point at 31 °C, which compromises efficiency and increases technological complexity. Very recently, an innovative breathing‐caloric mechanism in the MIL‐53(Al) compound is reported, which implies gas adsorption under CO2 pressurization boosted by structural transitions and which overcomes the limitations of stand‐alone CO2. Here, the breathing‐caloric‐like effects of MOF‐508b are reported, surpassing by 40% those of MIL‐53(Al). Moreover, the first thermometry device operating at room temperature and under the application of only 26 bar of CO2 is presented. Under those conditions, this material presents values of ΔT ≈ 30 K, reaching heating temperatures of 56 °C and cooling temperatures of −10 °C, which are already useful for space heating, air‐conditioning, food refrigeration, and freezing applications.

Funder

Xunta de Galicia

Ministerio de Ciencia e Innovación

Publisher

Wiley

Subject

Mechanical Engineering,Mechanics of Materials,General Materials Science

Reference47 articles.

1. Policy Support for Heating and Cooling Decarbonization European Commission 2022.https://data.europa.eu/doi/10.2833/977806(accessed: November 2023).

2. United Nations Sustainable Development Goals https://sdgs.un.org/goals(accessed: November 2023).

3. D.Coulomb J. L.Dupont A.Pichard inThe Role of Refrigeration in the Global Economy 29th Note on Refrigeration Technologies International Institute of Refrigeration 2015.

4. Renewables 2019: Analysis Forecast to 2024 International Energy Agency https://www.iea.org/reports/renewables‐2019(accessed: November 2023).

5. Modeling global residential sector energy demand for heating and air conditioning in the context of climate change

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