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Yahyazadeh, A.; Nanda, S.; Dalai, A.K. Methanol as a Biochemical and Bioenergy Carrier. Encyclopedia. Available online: https://encyclopedia.pub/entry/53392 (accessed on 22 December 2024).
Yahyazadeh A, Nanda S, Dalai AK. Methanol as a Biochemical and Bioenergy Carrier. Encyclopedia. Available at: https://encyclopedia.pub/entry/53392. Accessed December 22, 2024.
Yahyazadeh, Arash, Sonil Nanda, Ajay K. Dalai. "Methanol as a Biochemical and Bioenergy Carrier" Encyclopedia, https://encyclopedia.pub/entry/53392 (accessed December 22, 2024).
Yahyazadeh, A., Nanda, S., & Dalai, A.K. (2024, January 03). Methanol as a Biochemical and Bioenergy Carrier. In Encyclopedia. https://encyclopedia.pub/entry/53392
Yahyazadeh, Arash, et al. "Methanol as a Biochemical and Bioenergy Carrier." Encyclopedia. Web. 03 January, 2024.
Methanol as a Biochemical and Bioenergy Carrier
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This entry is adapted from the peer-reviewed paper 10.3390/reactions5010001

There is a growing interest in the production of biofuels and biochemicals from renewable biomass. Biomass in the form of woody and agricultural residues, municipal solid waste and other organic refuse is becoming popular as a feedstock for biofuel and biochemical production through thermochemical and biological routes. Methanol, a widely used industrial chemical, also has clean fuel properties due to its high-octane number, low flammability, low emissions and high engine performance.

biomass methanol techno-economic analysis

1. Introduction

Methanol production has wide applications for electricity generation and hydrogen transportation. In addition, methanol has many applications including dimethyl carbonate and dimethyl ether production [1]. Recently, methanol production from syngas through catalytic Fischer-Tropsch synthesis, which is not fully carbon-neutral, has raised environmental concerns. Production of methanol from biomass generates many benefits such as sustainability and commercial viability [2]. Green methanol can be generated from different bio-based resources and clean technologies including gasification, reforming, stripper-off gas and power-to-liquid (Figure 1). On the other hand, biomethanol refers to green methanol produced from bio-based sources through bioprocesses with the involvement of microorganisms and enzymes. As shown in Figure 1, e-methanol represents green methanol which is produced from CO2 capture as a byproduct of the electrolysis process to generate hydrogen. AlNouss et al. [3] developed the gasification of palm wastes for methanol production and investigated a techno-economic and environmental analysis. The focus of the study is CO2 capture by deploying CaO to maximize methanol production and profit. It is widely acknowledged that fuels derived from biomass resources can reduce CO2 emissions and partially replace fossil fuels. Regarding the economic aspect, the project life, methanol and dimethyl ether prices affected the economic feasibility of the biomass conversion process [4]. In consideration of the current energy consumption trends, efficient utilization of biomass resources has increased in both the industrial and academic sectors. Galusnyak et al. [5] examined a new membrane process design from secondary biomass for biomethanol production. As the results show, the utilization of exhausted olive pomace as a biomass source would enhance the detailed distribution of the global warming potential impact category.
Figure 1. Main pathways for methanol production.
Commonly, methanol, one of the ‘mega’ industrial platform chemicals, is produced from different feedstocks such as natural gas or coal. From Figure 2, the current worldwide methanol production capacity is 198 Mt/year, which is mostly employed for producing formaldehyde and plastics. Methanol is mainly produced from syngas (H2 and CO) via steam reforming of natural gas as well as coal gasification. The coal-to-methanol process significantly increases the energy consumption and CO2 emission to co-produce syngas and hydrogen [6]. The naval industry is also another fast-growing sector to consume methanol. Methanol production is predicted to follow the increasing trend up to 2050 since green methanol is attracting great interest as a sustainable energy carrier [7]. Chen et al. [8] proposed a novel hybrid process of coal gasification and coking to produce methanol. They investigated the effect of the coke gasification reaction and carbon tax on the integrated process economy. According to a detailed techno-economic analysis, the internal rate of return for coal gasification is 22.5% with more economic benefits in comparison with the coal-to-methanol process.
Figure 2. Worldwide production capacity and prediction for methanol in million metric tons (Mt). * Represents predicted production capacity.
The conventional synthesis of methanol is based on the reforming of fossil sources, which has raised environmental issues due to greenhouse gas emissions. Hence, it is important to generate methanol from biomass feedstocks and thermochemical processes. Kasmuri et al. [9] investigated the production of methanol from renewable sources via a thermochemical reaction. The dynamic control system was employed to maintain a high yield of methanol production in pyrolysis.

2. Potential of Methanol as a Renewable Energy Carrier

2.1. Industrial Applications of Methanol

Methanol has a variety of industrial applications in chemical industries, such as supplementing fuel oil, acting as an antifreeze agent in pipelines, and being used as fuel cells. Moreover, methanol is the simplest organic liquid hydrogen carrier and acts as an energy storage system for a variety of portable power applications. In terms of the transportation sector, Table 1 makes a comparison of biodiesel and gasoline (hydrocarbon fuel) in terms of energy density and average octane numbers. Methanol shows a wide range of downstream applications such as the substrate for producing biodiesel through transesterification and organic solvents. As shown in Figure 3 methanol can be suggested as a promising substrate in various sectors such as the generation of fuel, chemicals and light olefins.
Table 1. Summary of energy density and octane number for different alcohols.
Fuel Energy Density (MJ/L) Octane Rating
Methanol (CH3OH) 16 98.65/108.7
Ethanol (C2H5OH) 20 99.5/108.6
Propanol (C3H7OH) 24 108/118
Butanol (C4H10O) 30 97/103
Dimethyl ether (C2H6O) 18.9 -
C8H18 (2,2,4-Trimethylpentane) 33 85–96/90–105
Figure 3. Wide range of applications of methanol in fuel and chemical industries.

2.2. Techno-Economic Analysis of Methanol Production

Table 2 shows a list of some reported thermochemical and biological processes for methanol production.
Table 2. Some reported thermochemical and biological processes of methanol production.
Approach Concluding Remarks Future Prospects Reference
Production of bio-methanol as potential renewable energy Methanol can be produced from additional reactions of decomposed biomass material. Improvement in the electrolysis process and renewable electricity favors methanol synthesis. In gasification and methanol synthesis the separation of gas and solid needs to be considered to reduce the environmental impacts. [10]
Methanol fuel production Methanol production and techno-economic viability are influenced by feedstock characteristics, initial investment, and plant location. Dimethyl ether alongside methanol has a huge potential to be a new generation of fuel source owing to its low calorific value, low density, and low viscosity. [11]
Methanol production from different renewable sources and thermo-economic analysis The thermo-economic analysis considering different scenarios confirm that the best economic results are obtained with hydroelectric source. Considering future methanol selling prices of 500 Є/ton, the economic performances can be further improved via the European financial incentives for biofuel production. [12]
Sustainable production and application of methanol The main advantage of biomass-derived methanol is the eco-friendly aspects of methanol production as a clean fuel. Biomethanol is a future bioproduct for value-added industries due to its diverse applications. This study
In developing countries, producing green methanol as a new renewable energy source by using biomass feedstock leads to economic savings. As stated by Zhang et al. [13] methanol production via steam gasification of lignocellulosic biomass and biochar seems to be the most efficient raw material to produce methanol. The outcome of the techno-economic analysis (TEA) revealed that the internal rate of return obtained in the biochar scenario is higher than using pine biomass at the same plant scales. The authors concluded that methanol produced from waste biomass is unfortunately not commercially competitive with the traditional methods of producing methanol. The detailed distribution of total product costs affected by feedstock at different scales is displayed in Figure 4.
Figure 4. Effects of different feedstocks on the total product costs at various plant scales. TPD represents tons per day.
Choe et al. [14] investigated the production of methanol by considering different landfill gas management pathways. TEA was performed to find out the most reliable process for methanol production from an economic perspective. It was proved that the operating expenditure reduction, particularly hydrogen cost and unit electricity price reduction, must be determined to be economically feasible. Table 3 represents current studies about techno-economic assessment for sustainable methanol production. Ramachandran et al. [15] conducted a TEA on the hybrid steam reforming reaction, which involved the co-utilization of glycerol and natural gas to generate synthesis gas under reforming conditions. The resulting compressed synthesis gas was subsequently converted into green methanol, and the capital cost investment was assessed considering the overall equipment expenses. The study concludes that green methanol is not economically competitive with conventional methanol unless specific measures or corrections are implemented.
Table 3. Literature survey of sustainable production of methanol from different biomass wastes.
Technique Plant Size Feedstock End Product Production Cost Reference
Biomass torrefaction
coupled with gasification		 Processing rate
of 66.4 tons/h		 Bagasse Electricity and /or methanol production The annual production cost was estimated at USD 140 M/y [16]
Sugarcane biorefineries with fossil fuel
co-combustion		 Processing rate of 421,000 t/y Lignocellulose Methanol production of 82,700 t/y and electricity production of 3.5 GWH/y 272.6 USD M/y [17]
Tri-reforming of CH4 integrated with solid oxide fuel cell Annual cost of
USD 277,742 /y		 Methane Methanol production 5.4 USD M/y [18]
Synthetic methanol
production from H2 and CO2		 243 MT/day H2 and 1978 Mt/day CO2 CO2 and H2 feedstocks Methanol production is 1190 Mt/day The minimum fuel selling price of methanol was between USD 0.61/kg and USD 0.64/kg [19]

2.3. Lifecycle Assessment of Methanol

Biofuels are alternatives to fossil fuels and their environmental impacts over the entire production chain are evaluated by lifecycle assessment (LCA). The main objective is to analyze existing LCA studies and highlight key methodological approaches to critically evaluate existing biomass to biofuel pathways. Morales et al. [20] also investigated a consequential LCA of biofuel generation in Denmark considering two cases. The authors concluded that seaweed production was recognized as the most energy-sensitive processing part and the system has the potential for technological development. Mu et al. [21] evaluated a well-to-wheel LCA on algal biofuel production to identify key parameters that determine nutrient use. The authors revealed that most synthetic fertilizer inputs are eventually discharged within wastewater to the environment. LCA of macroalgae cultivation for producing biofuel was studied by Aitken and co-authors [22]. The investigation aims to identify energy conservation and environmental effects of the cultivation and processing of bioethanol production from marine macroalgae and biogas. As the authors point out, the impact of CO2 emission reduction can be limited unless industrial-scale models are used. Sajid et al. [23] investigated biodiesel production from Jatropha oil for damage categories of climate change and ecosystem quality. The authors showed that the production process from Jatropha oil has fewer environmental side effects than that from the waste cooking oil process. Sills et al. [24] quantified the environmental performance of algal biofuels to estimate ranges of expected values of LCA metrics. The ranges of reported LCA impact categories showed that global warming potential values aligned with algal biofuel production together with anaerobic digestion are quite uncertain. Table 4 compares biochemical and thermochemical routes in terms of environmental impacts and economic indicators.
Table 4. Economic and environmental aspects of methanol production via biochemical and thermochemical processes.
Process Environmental Impact Analysis Economic Evaluation Reference
Methanol production from wood biomass Both production processes had a much lower CO2 emission compared to fossil fuel-based methanol production. The rectisol-based acid gas removal unit used for removing sulfur and CO2 from syngas corresponds to 20% of the total investment costs. [25]
Biomethanol production from palm wastes steam gasification The reduction in CO2 using CaO was effective with a slight increase in the total cost of the plant. The total capital cost is approximately USD 120 M. [3]

References

  1. Fózer, D.; Tóth, A.J.; Varbanov, P.S.; Klemeš, J.J.; Mizsey, P. Sustainability Assessment of Biomethanol Production via Hydrothermal Gasification Supported by Artificial Neural Network. J. Clean. Prod. 2021, 318, 128606.
  2. Shahbaz, M.; AlNouss, A.; Ghiat, I.; Mckay, G.; Mackey, H.; Elkhalifa, S.; Al-Ansari, T. A Comprehensive Review of Biomass Based Thermochemical Conversion Technologies Integrated with CO2 Capture and Utilisation within BECCS Networks. Resour. Conserv. Recycl. 2021, 173, 105734.
  3. AlNouss, A.; Shahbaz, M.; Mckay, G.; Al-Ansari, T. Bio-Methanol Production from Palm Wastes Steam Gasification with Application of CaO for CO2 Capture: Techno-Economic-Environmental Analysis. J. Clean. Prod. 2022, 341, 130849.
  4. Im-orb, K.; Arpornwichanop, A. Comparative Techno-Economic Assessment of Bio-Methanol and Bio-DME Production from Oil Palm Residue. Energy Convers. Manag. 2022, 258, 115511.
  5. Galusnyak, S.C.; Petrescu, L.; Chisalita, D.A.; Cormos, C.-C.; Ugolini, M. From Secondary Biomass to Bio-Methanol through CONVERGE Technology: An Environmental Analysis. Energies 2023, 16, 2726.
  6. Xiang, D.; Li, P.; Yuan, X.; Cao, H.; Liu, L.; Liu, Y. Energy Consumption and Greenhouse Gas Emissions of Shale Gas Chemical Looping Reforming Process Integrated with Coal Gasification for Methanol Production. Appl. Therm. Eng. 2021, 193, 116990.
  7. Pio, D.T.; Vilas-Boas, A.C.M.; Rodrigues, N.F.C.; Mendes, A. Carbon Neutral Methanol from Pulp Mills towards Full Energy Decarbonization: An inside Perspective and Critical Review. Green Chem. 2022, 24, 5403–5428.
  8. Chen, J.; Yang, S.; Qian, Y. A Novel Path for Carbon-Rich Resource Utilization with Lower Emission and Higher Efficiency: An Integrated Process of Coal Gasification and Coking to Methanol Production. Energy 2019, 177, 304–318.
  9. Kasmuri, N.H.; Kamarudin, S.K.; Abdullah, S.R.S.; Hasan, H.A.; Som, A.M. Integrated Advanced Nonlinear Neural Network-Simulink Control System for Production of Bio-Methanol from Sugar Cane Bagasse via Pyrolysis. Energy 2019, 168, 261–272.
  10. Shamsul, N.S.; Kamarudin, S.K.; Rahman, N.A.; Kofli, N.T. An Overview on the Production of Bio-Methanol as Potential Renewable Energy. Renew. Sustain. Energy Rev. 2014, 33, 578–588.
  11. Deka, T.J.; Osman, A.I.; Baruah, D.C.; Rooney, D.W. Methanol Fuel Production, Utilization, and Techno-Economy: A Review. Environ. Chem. Lett. 2022, 20, 3525–3554.
  12. Rivarolo, M.; Bellotti, D.; Magistri, L.; Massardo, A.F. Feasibility Study of Methanol Production from Different Renewable Sources and Thermo-Economic Analysis. Int. J. Hydrogen Energy 2016, 41, 2105–2116.
  13. Zhang, Z.; Delcroix, B.; Rezazgui, O.; Mangin, P. Simulation and Techno-Economic Assessment of Bio-Methanol Production from Pine Biomass, Biochar and Pyrolysis Oil. Sustain. Energy Technol. Assess. 2021, 44, 101002.
  14. Choe, C.; Byun, M.; Lee, H.; Lim, H. Techno-Economic and Environmental Assessments for Sustainable Bio-Methanol Production as Landfill Gas Valorization. Waste Manag. 2022, 150, 90–97.
  15. Ramachandran, R.P.B.; Oudenhoven, S.R.G.; Kersten, S.R.A.; van Rossum, G.; van der Ham, A.G.J. Techno-Economic Analysis of Biomethanol Production via Hybrid Steam Reforming of Glycerol with Natural Gas. Energy Fuels 2013, 27, 5962–5974.
  16. Fajimi, L.I.; Chrisostomou, J.; Oboirien, B.O. A Techno-Economic Analysis (TEA) of a Combined Process of Torrefaction and Gasification of Lignocellulose Biomass (Bagasse) for Methanol and Electricity Production. Biomass Convers. Biorefinery 2022, 1–16.
  17. Mandegari, M.; Farzad, S.; Görgens, J.F. A New Insight into Sugarcane Biorefineries with Fossil Fuel Co-Combustion: Techno-Economic Analysis and Life Cycle Assessment. Energy Convers. Manag. 2018, 165, 76–91.
  18. Lim, D.; Lee, B.; Lee, H.; Byun, M.; Lim, H. Projected Cost Analysis of Hybrid Methanol Production from Tri-Reforming of Methane Integrated with Various Water Electrolysis Systems: Technical and Economic Assessment. Renew. Sustain. Energy Rev. 2022, 155, 111876.
  19. Zang, G.; Sun, P.; Elgowainy, A.; Wang, M. Technoeconomic and Life Cycle Analysis of Synthetic Methanol Production from Hydrogen and Industrial Byproduct CO2. Environ. Sci. Technol. 2021, 55, 5248–5257.
  20. Alvarado-Morales, M.; Boldrin, A.; Karakashev, D.B.; Holdt, S.L.; Angelidaki, I.; Astrup, T. Life Cycle Assessment of Biofuel Production from Brown Seaweed in Nordic Conditions. Bioresour. Technol. 2013, 129, 92–99.
  21. Mu, D.; Ruan, R.; Addy, M.; Mack, S.; Chen, P.; Zhou, Y. Life Cycle Assessment and Nutrient Analysis of Various Processing Pathways in Algal Biofuel Production. Bioresour. Technol. 2017, 230, 33–42.
  22. Aitken, D.; Bulboa, C.; Godoy-Faundez, A.; Turrion-Gomez, J.L.; Antizar-Ladislao, B. Life Cycle Assessment of Macroalgae Cultivation and Processing for Biofuel Production. J. Clean. Prod. 2014, 75, 45–56.
  23. Sajid, Z.; Khan, F.; Zhang, Y. Process Simulation and Life Cycle Analysis of Biodiesel Production. Renew. Energy 2016, 85, 945–952.
  24. Sills, D.L.; Paramita, V.; Franke, M.J.; Johnson, M.C.; Akabas, T.M.; Greene, C.H.; Tester, J.W. Quantitative Uncertainty Analysis of Life Cycle Assessment for Algal Biofuel Production. Environ. Sci. Technol. 2013, 47, 687–694.
  25. Yadav, P.; Athanassiadis, D.; Yacout, D.M.M.; Tysklind, M.; Upadhyayula, V.K.K. Environmental Impact and Environmental Cost Assessment of Methanol Production from Wood Biomass. Environ. Pollut. 2020, 265, 114990.
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Subjects: Engineering, Industrial
Contributors MDPI registered users' name will be linked to their SciProfiles pages. To register with us, please refer to https://encyclopedia.pub/register :
Arash Yahyazadeh
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Sonil Nanda
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Ajay K. Dalai
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Update Date: 04 Jan 2024
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