Lactic acid fermentation of food waste as storage method prior to biohydrogen production: Effect of storage temperature on biohydrogen potential and microbial communities

This study aims to investigate the impact of utilizing lactic acid fermentation (LAF) as storage method of food waste (FW) prior to dark fermentation (DF). LAF of FW was carried out in batches at six temperatures (4 �C, 10 �C, 23 �C, 35 �C, 45 �C, and 55 �C) for 15 days followed by biological hydrog...

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Main Authors: Roslan E., Magdalena J.A., Mohamed H., Akhiar A., Shamsuddin A.H., Carrere H., Trably E.
Other Authors: 57189299886
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Published: Elsevier Ltd 2024
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spelling my.uniten.dspace-341722024-10-14T11:18:16Z Lactic acid fermentation of food waste as storage method prior to biohydrogen production: Effect of storage temperature on biohydrogen potential and microbial communities Roslan E. Magdalena J.A. Mohamed H. Akhiar A. Shamsuddin A.H. Carrere H. Trably E. 57189299886 57201977815 57136356100 57192410921 35779071900 7003438084 6506445171 Biohydrogen Dark fermentation Energy Lactic acid fermentation Mixed culture Fermentation Food Hydrogen Lactic Acid Microbiota Refuse Disposal Temperature Bacteriology Food storage Hydrogen production Hydrogen storage Lactic acid Metabolites alcohol hydrogen lactic acid Bio-hydrogen Bio-hydrogen production Biological hydrogen Dark fermentation Energy Food waste Lactic acid bacteria Lactic acid fermentation Mixed cultures Storage temperatures bacterium fermentation food waste microbial community temperature gradient Article Bacillus Clostridium controlled study fermentative hydrogen production food storage food waste lactic acid bacterium lactic acid fermentation Lactobacillus Lactococcus microbial community nonhuman storage temperature Streptococcus fermentation food metabolism microflora temperature waste disposal Fermentation This study aims to investigate the impact of utilizing lactic acid fermentation (LAF) as storage method of food waste (FW) prior to dark fermentation (DF). LAF of FW was carried out in batches at six temperatures (4 �C, 10 �C, 23 �C, 35 �C, 45 �C, and 55 �C) for 15 days followed by biological hydrogen potential (BHP) tests. Different storage temperatures resulted in different metabolites distribution, with either lactate or ethanol being dominant (159.2 � 20.6 mM and 234.4 � 38.2 mM respectively), but no negative impact on BHP (averaging at 94.6 � 25.1 mL/gVS). Maximum hydrogen production rate for stored FW improved by at least 57%. Microbial analysis showed dominance of lactic acid bacteria (LAB) namely Lactobacillus sp., Lactococcus sp., Weisella sp., Streptococcus sp. and Bacillus sp. after LAF. Clostridium sp. emerged after DF, co-existing with LAB. Coupling LAF as a storage method was demonstrated as a novel strategy of FW management for DF, for a wide range of temperatures. � 2023 Elsevier Ltd Final 2024-10-14T03:18:16Z 2024-10-14T03:18:16Z 2023 Article 10.1016/j.biortech.2023.128985 2-s2.0-85151819906 https://www.scopus.com/inward/record.uri?eid=2-s2.0-85151819906&doi=10.1016%2fj.biortech.2023.128985&partnerID=40&md5=4d982278d64a67353d00d72918ade7ba https://irepository.uniten.edu.my/handle/123456789/34172 378 128985 All Open Access Green Open Access Elsevier Ltd Scopus
institution Universiti Tenaga Nasional
building UNITEN Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Tenaga Nasional
content_source UNITEN Institutional Repository
url_provider http://dspace.uniten.edu.my/
topic Biohydrogen
Dark fermentation
Energy
Lactic acid fermentation
Mixed culture
Fermentation
Food
Hydrogen
Lactic Acid
Microbiota
Refuse Disposal
Temperature
Bacteriology
Food storage
Hydrogen production
Hydrogen storage
Lactic acid
Metabolites
alcohol
hydrogen
lactic acid
Bio-hydrogen
Bio-hydrogen production
Biological hydrogen
Dark fermentation
Energy
Food waste
Lactic acid bacteria
Lactic acid fermentation
Mixed cultures
Storage temperatures
bacterium
fermentation
food waste
microbial community
temperature gradient
Article
Bacillus
Clostridium
controlled study
fermentative hydrogen production
food storage
food waste
lactic acid bacterium
lactic acid fermentation
Lactobacillus
Lactococcus
microbial community
nonhuman
storage temperature
Streptococcus
fermentation
food
metabolism
microflora
temperature
waste disposal
Fermentation
spellingShingle Biohydrogen
Dark fermentation
Energy
Lactic acid fermentation
Mixed culture
Fermentation
Food
Hydrogen
Lactic Acid
Microbiota
Refuse Disposal
Temperature
Bacteriology
Food storage
Hydrogen production
Hydrogen storage
Lactic acid
Metabolites
alcohol
hydrogen
lactic acid
Bio-hydrogen
Bio-hydrogen production
Biological hydrogen
Dark fermentation
Energy
Food waste
Lactic acid bacteria
Lactic acid fermentation
Mixed cultures
Storage temperatures
bacterium
fermentation
food waste
microbial community
temperature gradient
Article
Bacillus
Clostridium
controlled study
fermentative hydrogen production
food storage
food waste
lactic acid bacterium
lactic acid fermentation
Lactobacillus
Lactococcus
microbial community
nonhuman
storage temperature
Streptococcus
fermentation
food
metabolism
microflora
temperature
waste disposal
Fermentation
Roslan E.
Magdalena J.A.
Mohamed H.
Akhiar A.
Shamsuddin A.H.
Carrere H.
Trably E.
Lactic acid fermentation of food waste as storage method prior to biohydrogen production: Effect of storage temperature on biohydrogen potential and microbial communities
description This study aims to investigate the impact of utilizing lactic acid fermentation (LAF) as storage method of food waste (FW) prior to dark fermentation (DF). LAF of FW was carried out in batches at six temperatures (4 �C, 10 �C, 23 �C, 35 �C, 45 �C, and 55 �C) for 15 days followed by biological hydrogen potential (BHP) tests. Different storage temperatures resulted in different metabolites distribution, with either lactate or ethanol being dominant (159.2 � 20.6 mM and 234.4 � 38.2 mM respectively), but no negative impact on BHP (averaging at 94.6 � 25.1 mL/gVS). Maximum hydrogen production rate for stored FW improved by at least 57%. Microbial analysis showed dominance of lactic acid bacteria (LAB) namely Lactobacillus sp., Lactococcus sp., Weisella sp., Streptococcus sp. and Bacillus sp. after LAF. Clostridium sp. emerged after DF, co-existing with LAB. Coupling LAF as a storage method was demonstrated as a novel strategy of FW management for DF, for a wide range of temperatures. � 2023 Elsevier Ltd
author2 57189299886
author_facet 57189299886
Roslan E.
Magdalena J.A.
Mohamed H.
Akhiar A.
Shamsuddin A.H.
Carrere H.
Trably E.
format Article
author Roslan E.
Magdalena J.A.
Mohamed H.
Akhiar A.
Shamsuddin A.H.
Carrere H.
Trably E.
author_sort Roslan E.
title Lactic acid fermentation of food waste as storage method prior to biohydrogen production: Effect of storage temperature on biohydrogen potential and microbial communities
title_short Lactic acid fermentation of food waste as storage method prior to biohydrogen production: Effect of storage temperature on biohydrogen potential and microbial communities
title_full Lactic acid fermentation of food waste as storage method prior to biohydrogen production: Effect of storage temperature on biohydrogen potential and microbial communities
title_fullStr Lactic acid fermentation of food waste as storage method prior to biohydrogen production: Effect of storage temperature on biohydrogen potential and microbial communities
title_full_unstemmed Lactic acid fermentation of food waste as storage method prior to biohydrogen production: Effect of storage temperature on biohydrogen potential and microbial communities
title_sort lactic acid fermentation of food waste as storage method prior to biohydrogen production: effect of storage temperature on biohydrogen potential and microbial communities
publisher Elsevier Ltd
publishDate 2024
_version_ 1814060066351874048
score 13.214268