Cristin-resultat-ID: 2055196
Sist endret: 27. oktober 2022, 10:28
NVI-rapporteringsår: 2022
Resultat
Vitenskapelig artikkel
2022

Energetic, environmental and economic assessment of multi-evaporator CO2–NH3 cascade refrigeration system for seafood application

Bidragsytere:
  • Santosh Kumar Saini
  • Mani Sankar Dasgupta
  • Kristina Norne Widell og
  • Souvik Bhattacharyya

Tidsskrift

Journal of Thermal Analysis and Calorimetry
ISSN 1388-6150
e-ISSN 1588-2926
NVI-nivå 1

Om resultatet

Vitenskapelig artikkel
Publiseringsår: 2022
Sider: 1 - 12

Importkilder

Scopus-ID: 2-s2.0-85138700929

Beskrivelse Beskrivelse

Tittel

Energetic, environmental and economic assessment of multi-evaporator CO2–NH3 cascade refrigeration system for seafood application

Sammendrag

Refrigeration plays a vital role in ensuring quality and safety of seafood. In a tropical country like India, the seafood industry has a relatively larger cooling load throughout the supply chain due to higher temperature differences between ambient and chilled seafood. The cooling demands in a seafood processing plant are typically at four different temperature levels. Supply of chilled water at 2 °C, ice at − 5 °C, cold storage maintained at − 25 °C, and a plate or blast freezer at − 40 °C. Commonly, a multi-evaporator multi-stage refrigeration system with refrigerants like R22, R404A, or NH3 are used in India. However, R22 and R404A have harmful effects on the environment due to their high global warming potential. This study proposed an all-natural multi-evaporator CO2–NH3 cascade refrigeration system (CRS). For comparison, the refrigeration demands in a surimi (seafood) processing and storage plant located in Mumbai were utilized. The study revealed that CO2–NH3 CRS has the highest COP and the lowest annual energy consumption followed by conventional NH3 system. CO2–NH3 CRS exhibited 6.2%, 12.3% and 3.2% less energy consumption compared to R22, R404A, and NH3 systems, respectively. Similarly, CO2–NH3 CRS also showed the lowest total equivalent warming impact which is 26.8%, 44.3% and 3.2% less compared to R22, R404A, and NH3 systems, respectively. Furthermore, CO2–NH3 CRS also presented relatively better results in terms of annual cost rate and life cycle cost.

Bidragsytere

Santosh Kumar Saini

  • Tilknyttet:
    Forfatter
    ved Birla Institute of Technology and Science

Mani Sankar Dasgupta

  • Tilknyttet:
    Forfatter
    ved Birla Institute of Technology and Science

Kristina Marianne Norne Widell

Bidragsyterens navn vises på dette resultatet som Kristina Norne Widell
  • Tilknyttet:
    Forfatter
    ved Fiskeri og ny biomarin industri ved SINTEF Ocean

Souvik Bhattacharyya

  • Tilknyttet:
    Forfatter
    ved Birla Institute of Technology and Science
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