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Holistic biorefinery approach for biogas and hydrogen production: Integration of anaerobic digestion with hydrothermal carbonization and steam gasification

Recently, the integration of biochemical and thermochemical processes is recognized as a promising strategy for the valorization of lignocellulosic biomass into renewable energy production. In this study, different routes for the valorization of hemp hurd for biohydrogen and biomethane production we...

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Published in:Environmental research 2024-04, Vol.247, p.118180-118180, Article 118180
Main Authors: Tugce Daglioglu, S., Peker, M. Eser, Duman, Gozde, Aric, Alpcan, Karagoz, Sadik Can, Ogut, Tuba Ceren, Azbar, Nuri, Yanik, Jale
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container_title Environmental research
container_volume 247
creator Tugce Daglioglu, S.
Peker, M. Eser
Duman, Gozde
Aric, Alpcan
Karagoz, Sadik Can
Ogut, Tuba Ceren
Azbar, Nuri
Yanik, Jale
description Recently, the integration of biochemical and thermochemical processes is recognized as a promising strategy for the valorization of lignocellulosic biomass into renewable energy production. In this study, different routes for the valorization of hemp hurd for biohydrogen and biomethane production were proposed, including anaerobic digestion (AD), hydrothermal carbonization, and steam gasification. AD results revealed that NaOH pre-treatment of hemp hurd improved biomethane production yield by 164%. Comparing hydrochars from raw hemp, digestate derived hydrochars had higher mass yield due to changes in composition during AD as well as high ash content of digestates. It was found that high ash content of digestates originated from inorganic compounds in inoculum that accumulated over hemp hurd during anaerobic digestion process. Among feedstocks (hydrochars and raw hemp hurd), hemp hurd derived hydrochar at 200 °C showed the best performance in terms of H2 yield (1278 mL/g) whereas carbon efficiency reached % 92 in case of digestate derived hydrochar at 200 °C. HTC improved the steam gasification performance of hemp hurd whereas hydrochars from NaOH pretreated digestate yielded lowest hydrogen production due to the high content of inorganics, particularly phosphorus (P) and aluminum (Al). According to BMP test, spent liquor obtained at the lowest HTC temperature (200 °C) exhibited the highest BMP, reaching 213 mL CH4/g COD. Considering the overall gas products of four different routes, it is concluded that HTC as a post-treatment exhibits slightly better performance than HTC as pre-treatment. Although alkali pretreatment enhanced the anaerobic digestion performance, the resulting hydrochars exhibited low gasification activity. [Display omitted] •NaOH pre-treatment of hemp hurd improved biomethane production yield by 164%.•Inorganics in inoculum accumulates over hemp hurd during anaerobic digestion, leading to increase ash content of digestate.•Spent liquor obtained at the lowest HTC temperature (200 °C) exhibited the highest BMP.•Raw hemp hurd derived hydrochar produced the highest H2 yield (1278 mL/g).•HTC as a post-treatment exhibits slightly better performance than HTC as pre-treatment.
doi_str_mv 10.1016/j.envres.2024.118180
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title Holistic biorefinery approach for biogas and hydrogen production: Integration of anaerobic digestion with hydrothermal carbonization and steam gasification
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