Abstract
Thermodynamic and economic feasibility of substituting producer gas for natural gas in a distributed generation platform, located in a car manufacturing factory, is performed. The distributed generation platform is capable of producing both power and heat demand of the factory with the use of biomass gasification. A comprehensive software program is developed in C# programming language, to simulate biomass gasification in an efficient and user-friendly manner. Considered gasification model is realistic with considering representative tar composition in the producer gas. The result of gasification simulation is verified through an experimental setup. The experimental setup is utilized to calibrate the simulation results with the use of appropriate modeling coefficients to get a closer agreement between the simulation and the experimental testing. It is concluded that multiplying equilibrium constants (K1 and K2) by 0.7 yields the best agreement between the simulation results and experimental values. It is also concluded that the gross total efficiency is 11.8% higher and the net total efficiency is 10.7% higher in the producer gas-fueled configuration than the natural gas-fueled configuration. The reasons for higher efficiencies in the producer gas-fueled configuration are mainly the type of the fuel used and the heat integration of the system. The sensitivity analysis shows that increasing the biomass moisture content will decrease CO relative composition and will increase H2 and CH4 relative compositions in the producer gas. Also, biomass fuels with greater levels of moisture content not only increase the required inlet feed to the system but also increase the level of CO2 emission to the atmosphere. Approximately 4,468,300 m3 of natural gas per year can be saved using the proposed system and the period of return of the project is 6.1 years.
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Abbreviations
- ACS:
-
Annualized cost of system
- CGE:
-
Cold gas efficiency
- CRF:
-
Capital recovery factor
- FOM:
-
Fixed operating and maintenance cost ($/kW-year)
- GA:
-
Genetic algorithm
- GHG:
-
Green house gases
- HHE:
-
High heating value
- HRSG:
-
Heat recovery steam generator
- LCOP:
-
Levelized cost of product
- LHV:
-
Lower heating value
- LP:
-
Low pressure
- NAB:
-
Net annual benefit
- OFC:
-
Operating flow cost
- POR:
-
Period of return
- PSP:
-
Power sale price (cent/kWh)
- RMS:
-
Root mean square
- SI:
-
Spark ignition
- SOPC:
-
Summation of product cost
- HSP:
-
Heat sale price (cent/kWh)
- NPV:
-
Net present value
- AHRSG :
-
Heat recovery steam generator area (m2)
- Ahx :
-
Heat exchanger area (m2)
- avai:
-
Availability
- b:
-
Nominal interest rate (%)
- CAP:
-
Total capital cost (M$)
- CB :
-
Equipment cost with capacity QB (base capacity)
- CE :
-
Equipment cost with capacity Q
- Cp :
-
Specific heat capacity at constant pressure (kJ/kg)
- E:
-
Energy (kJ)
- FA:
-
Filter area (m2)
- \(G^{0}_{T,i}\) :
-
Gibbs free energy (kJ/kmol)
- H:
-
Enthalpy (kJ)
- h:
-
Specific enthalpy (kJ/kg)
- HP:
-
High pressure
- HR:
-
Heat rate (MJ/kWh)
- \(\overline{h}\) :
-
Molar enthalpy (kJ/kmol)
- \(h^{0}_{f}\) :
-
Enthalpy of formation (kJ/kmol)
- i:
-
The mole of sulfide dioxide (per mole of biomass)
- i:
-
Interest rate
- j:
-
The mole of carbon monoxide (per mole of biomass)
- K:
-
The ratio of the specific heat capacity at constant; pressure to the specific heat capacity at constant volume
- K:
-
Equilibrium constant
- \(\dot{m}\) :
-
Mass flow rate (kg/s)
- Ma :
-
Air molecular weight (kg/kmol)
- Mf :
-
Fuel molecular weight (kg/kmol)
- Q:
-
Mass flow rate (kg/s)
- Qin :
-
Heat input to the gasifying process (preheating)
- Qout :
-
Heat output of the gasifying process (heat loss)
- \(\dot{Q}\) :
-
The time rate of heat (kJ/s)
- react:
-
Reaction reactants
- Ru :
-
Universal constant of ideal gases
- s:
-
The mole of carbon dioxide (per mole of biomass)
- T:
-
Temperature (°C)
- t:
-
The mole of hydrogen (per mole of biomass)
- u:
-
The mole of methane (per mole of biomass)
- v:
-
The mole of water (per mole of biomass)
- w:
-
Water molar fraction in biomass
- \(\dot{W}\) :
-
The time rate of work or power (kJ/s)
- X:
-
Salt concentration
- x:
-
Ambient air molar composition
- y:
-
The mole of nitrogen (per mole of biomass)
- z:
-
The mole of oxygen (per mole of biomass)
- a:
-
Air
- av:
-
Average
- base:
-
Base case
- cw:
-
Cooling water
- d:
-
Distillate
- db:
-
Dry base
- f:
-
Feed
- f:
-
Fuel
- m:
-
H atoms substitution formula
- p:
-
Product
- p:
-
O atoms substitution formula
- pg:
-
Producer gas
- pu:
-
Pump
- q:
-
N atoms substitution formula
- r:
-
S atoms substitution formula
- ηsp :
-
Pump isentropic efficiency (%)
- ηmp :
-
Pump mechanical efficiency (%)
- ηep :
-
Motor efficiency (%)
- ΔT:
-
The temperature drop per stage (°C)
- ΔP:
-
Differential pressure (kPa)
- \(\lambda\) :
-
Latent heat (kJ/kg)
References
Agency IE.: Good practice guidelines. Bioenergy project development and biomass supply (2007)
Basu, P.: Combustion and Gasification in Fluidized Beds. CRC Press, Boca Raton (2006)
Boerrigter, H., Rauch, R.: Review of applications of gases from biomass gasification, p. 20. Kolen en Milieuonderzoek, ECN Biomassa (2006)
Pang, Y., Shen, S., Chen, Y.: High temperature steam gasification of corn straw pellets in downdraft gasifier: preparation of hydrogen-rich gas. Waste Biomass Valoriz. 10, 1333–1341 (2019)
Rodrigues, S., Almeida, A., Ribeiro, A., Neto, P., Ramalho, E., Pilão, R.: Gasification of cork wastes in a fluidized bed reactor. Waste Biomass Valoriz. 1–9 (2018)
Samolada, M.C., Zabaniotou, A.A.: Comparative assessment of municipal sewage sludge incineration, gasification and pyrolysis for a sustainable sludge-to-energy management in Greece. Waste Manag. 34, 411–420 (2014)
Prasad, L.: Experimental study on gasification of jatropha shells in a downdraft open top gasifier. Waste Biomass Valoriz. 6, 117–122 (2015)
Monir, M.U., Aziz, A.A., Kristanti, R.A., Yousuf, A.: Syngas production from co-gasification of forest residue and charcoal in a pilot scale downdraft reactor. Waste Biomass Valoriz. 1–17 (2018)
Madadian, E., Lefsrud, M., Lee, C.P., Roy, Y., Orsat, V.: Gasification of pelletized woody biomass using a downdraft reactor and impact of material bridging. J. Energy Eng. 142, 04016001 (2016)
La Villetta, M., Costa, M., Massarotti, N.: Modelling approaches to biomass gasification: a review with emphasis on the stoichiometric method. Renew. Sustain. Energy Rev. 74, 71–88 (2017)
Nguyen, T.D.B., Seo, M.W., Lim, Y.-I., Song, B.-H., Kim, S.-D.: CFD simulation with experiments in a dual circulating fluidized bed gasifier. Comput. Chem. Eng. 36, 48–56 (2012)
Sommariva, S., Grana, R., Maffei, T., Pierucci, S., Ranzi, E.: A kinetic approach to the mathematical model of fixed bed gasifiers. Comput. Chem. Eng. 35, 928–935 (2011)
Wang, M., Liu, G., Hui, C.W.: Optimization of IGCC gasification unit based on the novel simplified equilibrium model. Clean Technol. Environ. Policy 20, 259–269 (2018)
Gambarotta, A., Morini, M., Zubani, A.: A non-stoichiometric equilibrium model for the simulation of the biomass gasification process. Appl. Energy 227, 119–127 (2018)
Lin, X., Wang, F., Chi, Y., Huang, Q., Yan, J.: Thermodynamic Equilibrium Analysis on Limitation of Moisture and Ash for Optimal Air Gasification of Municipal Solid Waste. Waste Biomass Valoriz. 9, 327–333 (2018)
Costaa, M., La Villetta, M., Massarottia, N.: Optimal tuning of a thermo-chemical equilibrium model for downdraft biomass gasifiers. Chem. Eng. 43 (2015)
Mendiburu, A.Z., Carvalho Jr., J.A., Coronado, C.J.: Thermochemical equilibrium modeling of biomass downdraft gasifier: stoichiometric models. Energy 66, 189–201 (2014)
Simone, M., Barontini, F., Nicolella, C., Tognotti, L.: Assessment of syngas composition variability in a pilot-scale downdraft biomass gasifier by an extended equilibrium model. Biores. Technol. 140, 43–52 (2013)
Antonopoulos, I.-S., Karagiannidis, A., Gkouletsos, A., Perkoulidis, G.: Modelling of a downdraft gasifier fed by agricultural residues. Waste Manag. 32, 710–718 (2012)
Azzone, E., Morini, M., Pinelli, M.: Development of an equilibrium model for the simulation of thermochemical gasification and application to agricultural residues. Renew. Energy 46, 248–254 (2012)
Barman, N.S., Ghosh, S., De, S.: Gasification of biomass in a fixed bed downdraft gasifier–A realistic model including tar. Biores. Technol. 107, 505–511 (2012)
Huang, H.-J., Ramaswamy, S.: Modeling biomass gasification using thermodynamic equilibrium approach. Appl. Biochem. Biotechnol. 154, 14–25 (2009)
Sharma, A.K.: Equilibrium modeling of global reduction reactions for a downdraft (biomass) gasifier. Energy Convers. Manag. 49, 832–842 (2008)
Gao, N., Li, A.: Modeling and simulation of combined pyrolysis and reduction zone for a downdraft biomass gasifier. Energy Convers. Manag. 49, 3483–3490 (2008)
Jarungthammachote, S., Dutta, A.: Thermodynamic equilibrium model and second law analysis of a downdraft waste gasifier. Energy 32, 1660–1669 (2007)
Melgar, A., Pérez, J.F., Laget, H., Horillo, A.: Thermochemical equilibrium modelling of a gasifying process. Energy Convers. Manag. 48, 59–67 (2007)
Babu, B.V., Sheth, P.N.: Modeling and simulation of reduction zone of downdraft biomass gasifier: effect of char reactivity factor. Energy Convers. Manag. 47, 2602–2611 (2006)
Zainal, Z., Ali, R., Lean, C., Seetharamu, K.: Prediction of performance of a downdraft gasifier using equilibrium modeling for different biomass materials. Energy Convers. Manag. 42, 1499–1515 (2001)
Loha, C., Chatterjee, P.K., Chattopadhyay, H.: Performance of fluidized bed steam gasification of biomass–modeling and experiment. Energy Convers. Manag. 52, 1583–1588 (2011)
Schuster, G., Löffler, G., Weigl, K., Hofbauer, H.: Biomass steam gasification–an extensive parametric modeling study. Biores. Technol. 77, 71–79 (2001)
Tinaut, F.V., Melgar, A., Pérez, J.F., Horrillo, A.: Effect of biomass particle size and air superficial velocity on the gasification process in a downdraft fixed bed gasifier. An experimental and modelling study. Fuel Process. Technol. 89, 1076–1089 (2008)
Segurado, R., Pereira, S., Correia, D., Costa, M.: Techno-economic analysis of a trigeneration system based on biomass gasification. Renew. Sustain. Energy Rev. 103, 501–514 (2019)
Ozbas, E.E., Aksu, D., Ongen, A., Aydin, M.A., Ozcan, H.K.: Hydrogen production via biomass gasification, and modeling by supervised machine learning algorithms. Int. J. Hydrog. Energy 44(32), 17260–17268 (2019)
Yang, K., Zhu, N., Ding, Y., Chang, C., Yuan, T.: Thermoeconomic analysis of an integrated combined cooling heating and power system with biomass gasification. Energy Convers. Manag. 171, 671–682 (2018)
Rahimi, M., Hamedi, M.H., Amidpour, M.: Thermodynamic simulation and economic modeling and optimization of a multi generation system partially fed with synthetic gas from gasification plant. Gas Process. 5, 49–68 (2017)
Aitken, M.L., Loughlin, D.H., Dodder, R.S., Yelverton, W.H.: Economic and environmental evaluation of coal-and-biomass-to-liquids-and-electricity plants equipped with carbon capture and storage. Clean Technol. Environ. Policy 18, 573–581 (2016)
Athari, H., Soltani, S., Bölükbaşi, A., Rosen, M.A., Morosuk, T.: Comparative exergoeconomic analyses of the integration of biomass gasification and a gas turbine power plant with and without fogging inlet cooling. Renew. Energy 76, 394–400 (2015)
El-Emam, R.S., Dincer, I.: Thermal modeling and efficiency assessment of an integrated biomass gasification and solid oxide fuel cell system. Int. J. Hydrog. Energy 40, 7694–7706 (2015)
Puig-Arnavat, M., Bruno, J.C., Coronas, A.: Modeling of trigeneration configurations based on biomass gasification and comparison of performance. Appl. Energy 114, 845–856 (2014)
Wang, J.-J., Xu, Z.-L., Jin, H.-G., Shi, G.-H., Fu, C., Yang, K.: Design optimization and analysis of a biomass gasification based BCHP system: a case study in Harbin, China. Renew. Energy 71, 572–583 (2014)
Prando, D., Patuzzi, F., Pernigotto, G., Gasparella, A., Baratieri, M.: Biomass gasification systems for residential application: an integrated simulation approach. Appl. Therm. Eng. 71, 152–160 (2014)
Vera, D., de Mena, B., Jurado, F., Schories, G.: Study of a downdraft gasifier and gas engine fueled with olive oil industry wastes. Appl. Therm. Eng. 51, 119–129 (2013)
Ahrenfeldt, J., Thomsen, T.P., Henriksen, U., Clausen, L.R.: Biomass gasification cogeneration—a review of state of the art technology and near future perspectives. Appl. Therm. Eng. 50, 1407–1417 (2013)
Font Palma, C., Martin, A.D.: Model based evaluation of six energy integration schemes applied to a small-scale gasification process for power generation. Biomass Bioenerg. 54, 201–210 (2013)
Pellegrini, L.F., de Oliveira, J.S., Burbano, J.C.: Supercritical steam cycles and biomass integrated gasification combined cycles for sugarcane mills. Energy 35, 1172–1180 (2010)
Rentizelas, A., Karellas, S., Kakaras, E., Tatsiopoulos, I.: Comparative techno-economic analysis of ORC and gasification for bioenergy applications. Energy Convers. Manag. 50, 674–681 (2009)
Bianchi, M., Cherubini, F., De Pascale, A., Peretto, A., Elmegaard, B.: Cogeneration from poultry industry wastes: indirectly fired gas turbine application. Energy 31, 1417–1436 (2006)
Sridhar, G., Paul, P., Mukunda, H.: Zero-dimensional modelling of a producer gas-based reciprocating engine. Proc. Inst. Mech. Eng. Part A J. Power Energy 220, 923–931 (2006)
Murphy, J.D., McKeogh, E.: Technical, economic and environmental analysis of energy production from municipal solid waste. Renew. Energy 29, 1043–1057 (2004)
Arbon, I.: Worldwide use of biomass in power generation and combined heat and power schemes. Proc. Inst. Mech. Eng. Part A J. Power Energy 216, 41–57 (2002)
Shuying, L., Guocai, W., DeLaquil, P.: Biomass gasification for combined heat and power in Jilin province, People’s Republic of China. Energy Sustain. Dev. 5, 47–53 (2001)
Larson, E.D., Williams, R.H., Leal, M.R.L.: A review of biomass integrated-gasifier/gas turbine combined cycle technology and its application in sugarcane industries, with an analysis for Cuba. Energy Sustain. Dev. 5, 54–76 (2001)
Warren, A., El-Halwagi, M.: An economic study for the co-generation of liquid fuel and hydrogen from coal and municipal solid waste. Fuel Process. Technol. 49, 157–166 (1996)
Gustavsson, L.: Biomass and district-heating systems. Renew. Energy 5, 838–840 (1994)
La Villetta, M., Costa, M., Cirillo, D., Massarotti, N., Vanoli, L.: Performance analysis of a biomass powered micro-cogeneration system based on gasification and syngas conversion in a reciprocating engine. Energy Convers. Manag. 175, 33–48 (2018)
Sridhar, G., Paul, P.J., Mukunda, H.S.: Biomass derived producer gas as a reciprocating engine fuel—an experimental analysis. Biomass Bioenerg. 21, 61–72 (2001)
Pérez, N.P., Machin, E.B., Pedroso, D.T., Roberts, J.J., Antunes, J.S., Silveira, J.L.: Biomass gasification for combined heat and power generation in the Cuban context: Energetic and economic analysis. Appl. Therm. Eng. 90, 1–12 (2015)
Chang, C.T., Costa, M., La Villetta, M., Macaluso, A., Piazzullo, D., Vanoli, L.: Thermo-economic analyses of a Taiwanese combined CHP system fuelled with syngas from rice husk gasification. Energy 167, 766–780 (2019)
Rahimi, M., Hamedi, M., Amidpour, M.: Thermodynamic and economic evaluation of a novel configuration for sustainable production of power and freshwater based on biomass gasification. Energy Syst. 1–46 (2019)
Prando, D., Patuzzi, F., Baggio, P., Baratieri, M.: CHP gasification systems fed by torrefied biomass: assessment of the energy performance. Waste Biomass Valoriz. 5, 147–155 (2014)
Madadian, E., Amiri, L., Lefsrud, M.: Thermodynamic analysis of wood pellet gasification in a downdraft reactor for advanced biofuel production. Waste Biomass Valoriz. 1–12 (2019)
Technical Specification of MTU AE 20V4000 motor
Iran SCo. Energy and water cost report (2018)
Salimi, M., Amidpour, M.: Modeling, simulation, parametric study and economic assessment of reciprocating internal combustion engine integrated with multi-effect desalination unit. Energy Convers. Manag. 138, 299–311 (2017)
Meratizaman, M., Monadizadeh, S., Amidpour, M.: Introduction of an efficient small-scale freshwater-power generation cycle (SOFC–GT–MED), simulation, parametric study and economic assessment. Desalination 351, 43–58 (2014)
Bejan, A.T.G., Moran, M.: Thermal Design and Optimization. Wiley, New York (1996)
Statistical report on availibility of agricultural products in Iran. Ministry of Agriculture (2010)
Ranzi, E., Dente, M., Goldaniga, A., Bozzano, G., Faravelli, T.: Lumping procedures in detailed kinetic modeling of gasification, pyrolysis, partial oxidation and combustion of hydrocarbon mixtures. Prog. Energy Combust. Sci. 27, 99–139 (2001)
Rodrigues, R., Secchi, A.R., Marcílio, N.R., Godinho, M.: Modeling of biomass gasification applied to a combined gasifier-combustor unit: equilibrium and kinetic approaches. Comput. Aided Chem. Eng. 27, 657–662 (2009)
Yamazaki, T., Kozu, H., Yamagata, S., Murao, N., Ohta, S., Shiya, S., et al.: Effect of superficial velocity on tar from downdraft gasification of biomass. Energy Fuels 19, 1186–1191 (2005)
Basu, P.: Biomass Gasification and Pyrolysis: Practical Design and Theory. Academic Press, Cambridge (2010)
Çengel, Y.A., Boles, M.A.: Thermodynamics: An Engineering Approach. McGraw-Hill, New York (2002)
Chase, M.: NIST—JANAF Thermochemical Tables (Journal of Physical and Chemical Reference Data Monograph No. 9). American Institute of Physics, College Park (1998)
Heywood, J.B.: Internal Combustion Engine Fundamentals. McGraw-Hill, New York (1988)
Kalina, J.: Integrated biomass gasification combined cycle distributed generation plant with reciprocating gas engine and ORC. Appl. Therm. Eng. 31, 2829–2840 (2011)
Sonntag, R.E., Borgnakke, C., Van Wylen, G.J., Van Wyk, S.: Fundamentals of Thermodynamics. Wiley, New York (1998)
Yassin, L., Lettieri, P., Simons, S.J.R., Germanà, A.: Techno-economic performance of energy-from-waste fluidized bed combustion and gasification processes in the UK context. Chem. Eng. J. 146, 315–327 (2009)
Bridgwater, A.V., Toft, A.J., Brammer, J.G.: A techno-economic comparison of power production by biomass fast pyrolysis with gasification and combustion. Renew. Sustain. Energy Rev. 6, 181–246 (2002)
Sayyaadi, H., Mehrabipour, R.: Efficiency enhancement of a gas turbine cycle using an optimized tubular recuperative heat exchanger. Energy 38, 362–375 (2012)
Kalina, J., Skorek, J.: CHP plants for distributed generation-equipment sizing and system performance evaluation. In: Proceeding of ECOS. Berlin, Germany (2002)
Carapellucci, R., Giordano, L.: A comparison between exergetic and economic criteria for optimizing the heat recovery steam generators of gas-steam power plants. Energy 58, 458–472 (2013)
Smith, R.: Chemical Process Design and Integration. Wiley, New York (2005)
Ghorbani, B., Mehrpooya, M., Hamedi, M.-H., Amidpour, M.: Exergoeconomic analysis of integrated natural gas liquids (NGL) and liquefied natural gas (LNG) processes. Appl. Therm. Eng. 113, 1483–1495 (2017)
Statistics Published by Central Bank of the Islamic Republic of Iran
Ngan, M.S., Tan, C.W.: Assessment of economic viability for PV/wind/diesel hybrid energy system in southern Peninsular Malaysia. Renew. Sustain. Energy Rev. 16, 634–647 (2012)
Channiwala, S., Parikh, P.: A unified correlation for estimating HHV of solid, liquid and gaseous fuels. Fuel 81, 1051–1063 (2002)
Jayah, T., Aye, L., Fuller, R.J., Stewart, D.: Computer simulation of a downdraft wood gasifier for tea drying. Biomass Bioenerg. 25, 459–469 (2003)
Bomprezzi, L., Pierpaoli, P., Raffaelli, R.: The heating value of gas obtained from biomass gasification: a new method for its calculation or prediction. Proc. Inst. Mech. Eng. Part A J. Power Energy 216, 447–452 (2002)
Altafini, C.R., Wander, P.R., Barreto, R.M.: Prediction of the working parameters of a wood waste gasifier through an equilibrium model. Energy Convers. Manag. 44, 2763–2777 (2003)
Srinivas, T., Gupta, A., Reddy, B.: Thermodynamic equilibrium model and exergy analysis of a biomass gasifier. J. Energy Res. Technol. 131, 031801 (2009)
Loha, C., Gu, S., De Wilde, J., Mahanta, P., Chatterjee, P.K.: Advances in mathematical modeling of fluidized bed gasification. Renew. Sustain. Energy Rev. 40, 688–715 (2014)
Čuček, L., Martín, M., Grossmann, I.E., Kravanja, Z.: Energy, water and process technologies integration for the simultaneous production of ethanol and food from the entire corn plant. Comput. Chem. Eng. 35, 1547–1557 (2011)
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Rahimi, M.J., Hamedi, M.H., Amidpour, M. et al. Technoeconomic Evaluation of a Gasification Plant: Modeling, Experiment and Software Development. Waste Biomass Valor 11, 6815–6840 (2020). https://doi.org/10.1007/s12649-019-00925-1
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DOI: https://doi.org/10.1007/s12649-019-00925-1