Plant-Based Seafood Analogs

There is a growing global need to shift from animal- towards plant-based diets. The main motivations are environmental/sustainability-, human health- and animal welfare concerns. The aim is to replace traditional animal-based food with various alternatives, predominantly plant-based analogs. The ele...

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Bibliographic Details
Main Authors: Meital Kazir, Yoav D. Livney
Format: Article
Language:English
Published: MDPI AG 2021-03-01
Series:Molecules
Subjects:
Online Access:https://www.mdpi.com/1420-3049/26/6/1559
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spelling doaj-d99a158b8ffa42b29442ef66fd482a982021-03-13T00:02:37ZengMDPI AGMolecules1420-30492021-03-01261559155910.3390/molecules26061559Plant-Based Seafood AnalogsMeital Kazir0Yoav D. Livney1Faculty of Biotechnology and Food Engineering, Technion—Israel Institute of Technology, Haifa 3200003, IsraelFaculty of Biotechnology and Food Engineering, Technion—Israel Institute of Technology, Haifa 3200003, IsraelThere is a growing global need to shift from animal- towards plant-based diets. The main motivations are environmental/sustainability-, human health- and animal welfare concerns. The aim is to replace traditional animal-based food with various alternatives, predominantly plant-based analogs. The elevated consumption of fish and seafood, leads to negative impacts on the ecosystem, due to dwindling biodiversity, environmental damage and fish diseases related to large-scale marine farming, and increased intake of toxic substances, particularly heavy metals, which accumulate in fish due to water pollution. While these facts lead to increased awareness and rising dietary shifts towards vegetarian and vegan lifestyles, still the majority of seafood consumers seek traditional products. This encourages the development of plant-based analogs for fish and seafood, mimicking the texture and sensorial properties of fish-meat, seafood, or processed fish products. Mimicking the internal structure and texture of fish or seafood requires simulating their nanometric fibrous-gel structure. Common techniques of structuring plant-based proteins into such textures include hydrospinning, electrospinning, extrusion, and 3D printing. The conditions required in each technique, the physicochemical and functional properties of the proteins, along with the use of other non-protein functional ingredients are reviewed. Trends and possible future developments are discussed.https://www.mdpi.com/1420-3049/26/6/1559fishseafoodanalogsplant-basedproteinstexture
collection DOAJ
language English
format Article
sources DOAJ
author Meital Kazir
Yoav D. Livney
spellingShingle Meital Kazir
Yoav D. Livney
Plant-Based Seafood Analogs
Molecules
fish
seafood
analogs
plant-based
proteins
texture
author_facet Meital Kazir
Yoav D. Livney
author_sort Meital Kazir
title Plant-Based Seafood Analogs
title_short Plant-Based Seafood Analogs
title_full Plant-Based Seafood Analogs
title_fullStr Plant-Based Seafood Analogs
title_full_unstemmed Plant-Based Seafood Analogs
title_sort plant-based seafood analogs
publisher MDPI AG
series Molecules
issn 1420-3049
publishDate 2021-03-01
description There is a growing global need to shift from animal- towards plant-based diets. The main motivations are environmental/sustainability-, human health- and animal welfare concerns. The aim is to replace traditional animal-based food with various alternatives, predominantly plant-based analogs. The elevated consumption of fish and seafood, leads to negative impacts on the ecosystem, due to dwindling biodiversity, environmental damage and fish diseases related to large-scale marine farming, and increased intake of toxic substances, particularly heavy metals, which accumulate in fish due to water pollution. While these facts lead to increased awareness and rising dietary shifts towards vegetarian and vegan lifestyles, still the majority of seafood consumers seek traditional products. This encourages the development of plant-based analogs for fish and seafood, mimicking the texture and sensorial properties of fish-meat, seafood, or processed fish products. Mimicking the internal structure and texture of fish or seafood requires simulating their nanometric fibrous-gel structure. Common techniques of structuring plant-based proteins into such textures include hydrospinning, electrospinning, extrusion, and 3D printing. The conditions required in each technique, the physicochemical and functional properties of the proteins, along with the use of other non-protein functional ingredients are reviewed. Trends and possible future developments are discussed.
topic fish
seafood
analogs
plant-based
proteins
texture
url https://www.mdpi.com/1420-3049/26/6/1559
work_keys_str_mv AT meitalkazir plantbasedseafoodanalogs
AT yoavdlivney plantbasedseafoodanalogs
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