Analysis of energy return on investment of dry anaerobic digestion for low water alperujo with oxidative, thermal and alkaline pretreatments

Anaerobic digestion processes for biogas generation using alperujo have been the subject of intensive studies suggesting that phenolic compounds act as microbial inhibitors in anaerobic digestion. Pretreatments are needed to reduce the effects of phenolic compounds and improve biogas production, esp...

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Published inWater and environment journal : WEJ Vol. 38; no. 2; pp. 247 - 258
Main Authors Gil, Rocio M., Groff, Maria Carla, Kuchen, Benjamín, Gil, Daiana G., Fernández, Maria Cecilia, Vazquez, Fabio
Format Journal Article
LanguageEnglish
Published London Wiley Subscription Services, Inc 01.05.2024
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Abstract Anaerobic digestion processes for biogas generation using alperujo have been the subject of intensive studies suggesting that phenolic compounds act as microbial inhibitors in anaerobic digestion. Pretreatments are needed to reduce the effects of phenolic compounds and improve biogas production, especially for dry anaerobic digestion. However, industrial‐scale implementation of these pretreatments is challenging, and it is unclear whether the improvement in biogas production justifies the energy expended on pretreatment. This study examines the energy analysis of dry anaerobic digestion and three alternative pretreatments: alkaline, oxidative and thermal. Results indicate that thermal pretreatment at 80°C with added water reduces phenolic compounds in alperujo by 35.4%. Meanwhile, pretreated with hydrogen peroxide in alkaline medium had the highest methane productivity (205 mL CH4/gVS). Even so, thermal pretreatment was only one with an energy return on investment greater than 1, signifying the necessity for energy analysis to ensure the viability of pretreatment processes. Highlights Three pretreatments were evaluated to improve biogas production. Thermal pretreatment offers top phenolic compounds reduction in alperujo digestion. Oxidative pretreatment increased methane productivity by 36%. Dry anaerobic digestion shows promise for alperujo biogas production. Energy return on investment index determines thermal pretreatment efficiency and viability. The study focuses on enhancing biogas production from alperujo in anaerobic digestion, where phenolic compounds are a major obstacle, requiring pretreatments like alkaline, oxidative, and thermal methods to improve efficiency. This study shows that pretreated with hydrogen peroxide in alkaline medium had the highest methane productivity. However, only thermal pretreatment at 80°C demonstrates an energy return on investment greater than 1, highlighting the importance of energy analysis in validating pretreatment processes for industrial application.
AbstractList Anaerobic digestion processes for biogas generation using alperujo have been the subject of intensive studies suggesting that phenolic compounds act as microbial inhibitors in anaerobic digestion. Pretreatments are needed to reduce the effects of phenolic compounds and improve biogas production, especially for dry anaerobic digestion. However, industrial‐scale implementation of these pretreatments is challenging, and it is unclear whether the improvement in biogas production justifies the energy expended on pretreatment. This study examines the energy analysis of dry anaerobic digestion and three alternative pretreatments: alkaline, oxidative and thermal. Results indicate that thermal pretreatment at 80°C with added water reduces phenolic compounds in alperujo by 35.4%. Meanwhile, pretreated with hydrogen peroxide in alkaline medium had the highest methane productivity (205 mL CH₄/gVS). Even so, thermal pretreatment was only one with an energy return on investment greater than 1, signifying the necessity for energy analysis to ensure the viability of pretreatment processes.
Anaerobic digestion processes for biogas generation using alperujo have been the subject of intensive studies suggesting that phenolic compounds act as microbial inhibitors in anaerobic digestion. Pretreatments are needed to reduce the effects of phenolic compounds and improve biogas production, especially for dry anaerobic digestion. However, industrial‐scale implementation of these pretreatments is challenging, and it is unclear whether the improvement in biogas production justifies the energy expended on pretreatment. This study examines the energy analysis of dry anaerobic digestion and three alternative pretreatments: alkaline, oxidative and thermal. Results indicate that thermal pretreatment at 80°C with added water reduces phenolic compounds in alperujo by 35.4%. Meanwhile, pretreated with hydrogen peroxide in alkaline medium had the highest methane productivity (205 mL CH4/gVS). Even so, thermal pretreatment was only one with an energy return on investment greater than 1, signifying the necessity for energy analysis to ensure the viability of pretreatment processes.
Anaerobic digestion processes for biogas generation using alperujo have been the subject of intensive studies suggesting that phenolic compounds act as microbial inhibitors in anaerobic digestion. Pretreatments are needed to reduce the effects of phenolic compounds and improve biogas production, especially for dry anaerobic digestion. However, industrial‐scale implementation of these pretreatments is challenging, and it is unclear whether the improvement in biogas production justifies the energy expended on pretreatment. This study examines the energy analysis of dry anaerobic digestion and three alternative pretreatments: alkaline, oxidative and thermal. Results indicate that thermal pretreatment at 80°C with added water reduces phenolic compounds in alperujo by 35.4% . Meanwhile, pretreated with hydrogen peroxide in alkaline medium had the highest methane productivity ( 205 mL CH 4 /g VS ). Even so, thermal pretreatment was only one with an energy return on investment greater than 1 , signifying the necessity for energy analysis to ensure the viability of pretreatment processes. Three pretreatments were evaluated to improve biogas production. Thermal pretreatment offers top phenolic compounds reduction in alperujo digestion. Oxidative pretreatment increased methane productivity by 36% . Dry anaerobic digestion shows promise for alperujo biogas production. Energy return on investment index determines thermal pretreatment efficiency and viability.
Anaerobic digestion processes for biogas generation using alperujo have been the subject of intensive studies suggesting that phenolic compounds act as microbial inhibitors in anaerobic digestion. Pretreatments are needed to reduce the effects of phenolic compounds and improve biogas production, especially for dry anaerobic digestion. However, industrial‐scale implementation of these pretreatments is challenging, and it is unclear whether the improvement in biogas production justifies the energy expended on pretreatment. This study examines the energy analysis of dry anaerobic digestion and three alternative pretreatments: alkaline, oxidative and thermal. Results indicate that thermal pretreatment at 80°C with added water reduces phenolic compounds in alperujo by 35.4%. Meanwhile, pretreated with hydrogen peroxide in alkaline medium had the highest methane productivity (205 mL CH4/gVS). Even so, thermal pretreatment was only one with an energy return on investment greater than 1, signifying the necessity for energy analysis to ensure the viability of pretreatment processes. Highlights Three pretreatments were evaluated to improve biogas production. Thermal pretreatment offers top phenolic compounds reduction in alperujo digestion. Oxidative pretreatment increased methane productivity by 36%. Dry anaerobic digestion shows promise for alperujo biogas production. Energy return on investment index determines thermal pretreatment efficiency and viability. The study focuses on enhancing biogas production from alperujo in anaerobic digestion, where phenolic compounds are a major obstacle, requiring pretreatments like alkaline, oxidative, and thermal methods to improve efficiency. This study shows that pretreated with hydrogen peroxide in alkaline medium had the highest methane productivity. However, only thermal pretreatment at 80°C demonstrates an energy return on investment greater than 1, highlighting the importance of energy analysis in validating pretreatment processes for industrial application.
Author Groff, Maria Carla
Gil, Rocio M.
Vazquez, Fabio
Fernández, Maria Cecilia
Gil, Daiana G.
Kuchen, Benjamín
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Snippet Anaerobic digestion processes for biogas generation using alperujo have been the subject of intensive studies suggesting that phenolic compounds act as...
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wiley
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SubjectTerms alperujo
Anaerobic digestion
Anaerobic microorganisms
Anaerobic processes
Anaerobic treatment
Biogas
Digestion
dry anaerobic digestion
Energy
environment
EROI
gas production (biological)
green methane
Hydrogen peroxide
Investment
Methane
Microorganisms
Phenolic compounds
Phenols
Pretreatment
pretreatments
Productivity
Return on investment
viability
water
Title Analysis of energy return on investment of dry anaerobic digestion for low water alperujo with oxidative, thermal and alkaline pretreatments
URI https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fwej.12914
https://www.proquest.com/docview/3049518414
https://www.proquest.com/docview/3153563887
Volume 38
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