Performance analysis of bio-methanol production through bi and tri-reforming processes integrated into a Carnot battery

It is expected that methanol will play a key role in the future as its global demand has been increasing over the years. Moreover, bio-methanol can facilitate the changeover from fossil fuels to renewable energies, ensuring the so-called energy transition, but its production process still relies on conventional sources such as grid energy and methane for the energy supply. In this contest, to allow a more sustainable methanol production, an innovative process scheme is here proposed: a Carnot battery, powered by renewable electricity and providing both electrical and thermal energies, is integrated into a bi-reforming and tri-reforming process for methanol production from biogas. While the chemical process is modelled in Aspen Plus, the Carnot battery and the integration of the system are modelled in MATLAB to evaluate efficiency, total production cost, and carbon dioxide emissions. Results show that even though both integrated systems have a total methanol production cost (300-600 $/tonMeOH) higher compared to the base case study (170-260 $/tonMeOH), the economy remains competitive with the current market. Moreover, the proposed process scheme can reduce the CO 2 emissions up to 84% compared to the non-integrated schemes. A sensitivity analysis is also carried out to find the effect of the main operating parameters on system performance. Overall, it is found that the tri-reforming route has higher efficiencies for methanol production and the integration of an energy storage system like that of Carnot battery allows to have the saving of emissions at a methanol production cost in line with those of the market. • Integration between a bio-methanol plant and a Carnot Battery • Methanol production via bireforming and trireforming processes • The Carnot Battery supplies thermal and electrical energy to the methanol plant • The integrated plant has higher cost but a lower environmental impact • Methanol production cost is always in line with the market

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Publication Details

Journal
Energy
Published
2025-08-20
DOI
https://doi.org/10.1016/j.energy.2025.138104
Citations
1
Primary Topic
Catalysis for Biomass Conversion
Type
article
Field-Weighted Citation Impact
0.67

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article

Performance analysis of bio-methanol production through bi and tri-reforming processes integrated into a Carnot battery

Donato Morea, Grazia Leonzio, Elisa Farinelli, Mariana Marques da Cunha et al.
1 citations
Energy
Catalysis for Biomass Conversion
0.67
article

Performance analysis of bio-methanol production through bi and tri-reforming processes integrated into a Carnot battery

Donato Morea, Grazia Leonzio, Elisa Farinelli, Mariana Marques da Cunha, Mario Petrollese
article en
1 citations

Abstract

It is expected that methanol will play a key role in the future as its global demand has been increasing over the years. Moreover, bio-methanol can facilitate the changeover from fossil fuels to renewable energies, ensuring the so-called energy transition, but its production process still relies on conventional sources such as grid energy and methane for the energy supply. In this contest, to allow a more sustainable methanol production, an innovative process scheme is here proposed: a Carnot battery, powered by renewable electricity and providing both electrical and thermal energies, is integrated into a bi-reforming and tri-reforming process for methanol production from biogas. While the chemical process is modelled in Aspen Plus, the Carnot battery and the integration of the system are modelled in MATLAB to evaluate efficiency, total production cost, and carbon dioxide emissions. Results show that even though both integrated systems have a total methanol production cost (300-600 $/tonMeOH) higher compared to the base case study (170-260 $/tonMeOH), the economy remains competitive with the current market. Moreover, the proposed process scheme can reduce the CO 2 emissions up to 84% compared to the non-integrated schemes. A sensitivity analysis is also carried out to find the effect of the main operating parameters on system performance. Overall, it is found that the tri-reforming route has higher efficiencies for methanol production and the integration of an energy storage system like that of Carnot battery allows to have the saving of emissions at a methanol production cost in line with those of the market. • Integration between a bio-methanol plant and a Carnot Battery • Methanol production via bireforming and trireforming processes • The Carnot Battery supplies thermal and electrical energy to the methanol plant • The integrated plant has higher cost but a lower environmental impact • Methanol production cost is always in line with the market

EnergyVol. 335
University of Cagliari (IT)
European Commission
Openalex Percentile: Top 28%
Catalysis for Biomass Conversion
0.67
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