Gas turbines fueled by integrated biomass gasifiers are a promising option for base load electricity generation from a renewable resource. Aeroderivative turbines, which are characterized by high efficiencies at smaller scales, are of special interest because transportation costs for biomass constrain biomass conversion facilities to relatively modest scales. Commercial development activities and major technological issues associated with biomass integrated-gasifier/gas turbine (BIG/GT) combined cycle power generation are reviewed in Part A of this two-part paper. Also, the computational model and the assumptions used to predict the overall performance of alternative BIG/GT cycles are outlined. The model evaluates appropriate value of key parameters (turbomachinery efficiencies, gas turbine cooling flows, steam production in the heat recovery steam generator, etc.) and then carries out energy, mass, and chemical species balances for each plant component, with iterations to insure whole-plant consistency. Part B of the paper presents detailed comparisons of the predicted performance of systems now being proposed for commercial installation in the 25–30 MWe power output range, as well as predictions for advanced combined cycle configurations (including with intercooling) with outputs from 22 to 75 MWe. Finally, an economic assessment is presented, based on preliminary capital cost estimates for BIG/GT combined cycles.
Issue Section:
Gas Turbines: Coal, Biomass, and Alternative Fuels
1.
Anon., 1991, “Technical Information of Mitsubishi Low BTU Gas Firing Gas Turbines,” informational literature, Mitsubishi Heavy Industries, Ltd., Tokyo, Sept.
2.
Anon.
1993
, “Performance Specs
,” Gas Turbine World
, Vol. 13
, July, pp. 24
–30
.3.
Anon., 1994, “Biomass Looks Good for Gasification Process,” Modern Power Systems, Apr., pp. 61–65.
4.
Bahr, D. W., Sabla, P. E., and Vinson, J. W., 1985, “Small Industrial Gas Turbine Combustor Performance With Low BTU Gas Fuel,” ASME Paper No. 85-IGT-125.
5.
Basler, B., and Korosi, A., 1981, “Combustion of Fuels With Low Hydrogen Content in BBC Gas Turbines,” publication No. CH-T 113 423 E, Brown Boveri Company, Baden, Switzerland.
6.
Becker
B.
Schetter
B.
1993
, “Use of LHV Gas in a Gas Turbine
,” Bioresource Tech.
, Vol. 46
, pp. 55
–64
.7.
Blackadder, W. H., Lundberg, H., Rensfelt, E., and Waldheim, L., 1994, “Heat and Power Production Via Gasification in the Range 5–50 MWe,” Advances in Thermochemical Biomass Conversion, by A. V. Bridgwater, ed., Blackie Academic & Professional, London, pp. 449–75.
8.
Bodlund, B., Bergman, J., and Lindman, N., 1993, “Power From Biomass in Sweden,” Proceedings: Strategic Benefits of Biomass and Waste Fuels, Electric Power Research Institute, Palo Alto, CA.
9.
Breault, R., and Morgan, D., 1992, “Design and Economics of Electricity Production From an Indirectly-Heated Biomass Gasifier,” for Battelle Memorial Institute (Columbus, OH) by Tecogen, Inc., Waltham, MA, Oct. 22.
10.
Brown, M. G., Baker, E. G., and Mudge, L. K., 1987, “Evaluation of Processes for Removal of Particulates, Tars, and Oils From Biomass Gasifier Product Gases,” Energy From Biomass and Wastes X, Institute of Gas Technology, Chicago, pp. 655–77.
11.
Carpentieri
A. E.
Larson
E. D.
Woods
J.
1993
, “Future Biomass-Based Power Generation in Northeast Brazil
,” Biomass and Bioenergy
, Vol. 4
(3
), pp. 149
–73
.12.
Chiesa, P., Consonni, S., Lozza, G., and Macchi, E., 1993, “Predicting the Ultimate Performance of Advanced Power Cycles Based on Very High Temperature Gas Turbine Engines,” ASME Paper No. 93-GT-223.
13.
Chiesa
P.
Lozza
G.
Consonni
S.
Macchi
E.
1994
, “An Assessment of the Thermodynamic Performance of Mixed Gas-Steam Cycles. Part B: Water-Injected and HAT Cycles
,” ASME Paper No. 94-GT-424; ASME JOURNAL OF ENGINEERING FOR GAS TURBINES AND POWER
, Vol. 117
, 1995, pp. 499
–508
.14.
Cohn, A., Hay, G. A., and Hollenbacher, R. H., 1993, “The Collaborative Advanced Gas Turbine Program—a Phase I Project Status Report,” Proc. 12th EPRI Gasification Conference, San Francisco, Oct. 27–29.
15.
Consonni, S., 1987, “A Computer Program to Calculate Working Fluid Thermodynamic Properties of Steam-Injected Gas Turbine Cycles,” CEES/Princeton Univ. working paper 87.
16.
Consonni, S., 1992, “Performance Prediction of Gas/Steam Cycles for Power Generation,” Ph.D. Thesis No. 1893-T, Mechanical and Aerospace Engineering Dept., Princeton Univ., Princeton, NJ.
17.
Consonni, S., and Macchi, E., 1988, “Gas Turbine Cycles Performance Evaluation,” Proc. 2nd ASME Cogen-Turbo, Montreaux, Switzerland, pp. 67–77.
18.
Consonni, S., Lozza, G., Macchi, E., Chiesa, P., and Bombarda, P., 1991, “Gas-Turbine-Based Advanced Cycles for Power Generation. Part A: Calculation Model.” Proc. 1991 Yokohama International Gas Turbine Congress, Gas Turbine Society of Japan, Tokyo, pp. 111–201–210.
19.
Donatini, F., 1994, ENEL CRTN, Pisa, Italy, personal communication.
20.
EIA (Energy Information Admin.), 1993, Annual Energy Review 1992, DOE/EIA-0384(92), US Dept. of Energy, Washington, DC, June.
21.
Elliott, T. P., and Booth, R., 1993, Brazilian Biomass Power Demonstration Project, Special Project Brief, Shell International Petroleum Company, London, Sept.
22.
Evans, R. J., Knight, R. A., Onischak, M., and Babu, S. P., 1988, Development of Biomass Gasification to Produce Substitute Fuels, PNL-6518, Battelle Pacific Northwest Lab, Richland, WA.
23.
Feldmann, H. F., Paisley, M. A., Appelbaum, H. R., and Taylor, D. R., 1988, Conversion of Forest Residues to a Methane-Rich Gas in a High-Throughput Gasifier, PNL-6570, Pacific Northwest Laboratory, Richland, WA.
24.
Gardiner, W. C., ed., 1984, Combustion Chemistry, Springer-Verlag, New York.
25.
Grainger
A.
1988
, “Estimating Areas of Degraded Tropical Lands Requiring Replenishment of Forest Cover
,” International Tree Crops Journal
, Vol. 5
, pp. 31
–61
.26.
Hall, D. O., Rosillo-Calle, F., Williams, R. H., and Woods, J., 1993, “Biomass for Energy: Supply Prospects,” in: Renewable Energy: Sources for Fuels and Electricity, T. B. Johansson, H. Kelly, A. K. N. Reddy, and R. H. Williams, eds., Island Press, Washington, DC, pp. 593–651.
27.
Hulkkonen, S., Raiko, M., and Aijala, M., 1991, “New Power Plant Concept for Moist Fuels, IVOSDIG,” ASME Paper No. 91-GT-293.
28.
Hulkkonen, S., Aijala, M., and Raiko, M., 1993, “Development of an Advanced Gasification Process for Moist Fuels,” Proceedings of the 12th Coal Gasification Conference, Electric Power Res. Inst., Palo Alto, CA.
29.
Kelsall, G. J., Smith, M. A., Todd, H., and Burrows, M. J., 1991, “Combustion of LCV Coal Derived Fuel Gas for High Temperature, Low Emissions Gas Turbines in the British Coal Topping Cycle,” ASME Paper No. 91-GT-384.
30.
Knapf, G. H., and Stephens, J. O., 1958, “Gas Turbines for Blast Furnace Blowing,” ASME Paper No. 58-GTP-14.
31.
Kurkela
E.
Stahlberg
P.
Laatikainen
J.
Simell
P.
1993
, “Development of Simplified IGCC Processes for Biofuels: Supporting Gasification Research at VTT
,” Bioresource Technology
, Vol. 46
, pp. 37
–47
.32.
Larson
E. D.
1992
, “Biomass-Gasifier/Gas Turbine Cogeneration in the Pulp and Paper Industry
,” ASME JOURNAL OF ENGINEERING FOR GAS TURBINES AND POWER
, Vol. 114
, pp. 665
–75
.33.
Larson
E. D.
1993
, “Technology for Electricity and Fuels From Biomass
,” Annual Review of Energy and the Environment
, Vol. 18
, pp. 567
–630
.34.
Lau, F. S., Carty, R. H., Onischak, M., and Bain, R. L., 1993, “Development of the IGT Renugas Process,” Proceedings: Strategic Benefits of Biomass and Waste Fuels, Electric Power Research Institute, Palo Alto, CA.
35.
Leonard, G., 1992, General Electric Company, Marine and Industrial Engines Division, Evendale, OH, personal communication.
36.
Leppalahti
J.
1993
, “Formation and Behavior of Nitrogen Compounds in an IGCC Process
,” Bioresources Technol.
, Vol. 46
, pp. 65
–70
.37.
Leppalahti
J.
Simell
P.
Kurkela
E.
1991
, “Catalytic Conversion of Nitrogen Compounds in Gasification Gas
,” Fuel Processing Technology
, Vol. 29
, pp. 43
–56
.38.
Lozza, G., Chiesa, P., and Consonni, S., 1993, “Modelization of Integrated Coal Gasification Combined Cycles” [in Italian]. Proc. VII Meeting on Combined Cycles: Technical and Economic Outlook (Milan, Oct. 1993), pp. 287–312, Pitagora publisher, Bologna, Italy.
39.
Lozza, G., 1990, “Bottoming Steam Cycles for Combined Gas-Steam Power Plants: a Theoretical Estimation of Steam Turbine Performance and Cycle Analysis,” Proc. 1990 ASME Cogen-Turbo, New Orleans, LA, pp. 83–92.
40.
Macchi
E.
Consonni
S.
Lozza
G.
Chiesa
P.
1994
, “An Assessment of the Thermodynamic Performance of Mixed Gas-Steam Cycles, Part A: Intercooled and Steam-Injected Cycles
,” ASME Paper No. 94-GT-423; ASME JOURNAL OF ENGINEERING FOR GAS TURBINES AND POWER
, Vol. 117
, 1995, pp. 489
–498
.41.
Miles, T. R., and Miles, T. R., Jr., 1988, “Reliable Feed Systems for Thermochemical Conversion,” Research in Thermochemical Biomass Conversion, Elsevier Applied Science, London, pp. 1156–69.
42.
MTCI (Manufacturing and Technology Conversion International, Inc.), 1990, Testing of an Advanced Thermochemical Conversion Reactor System, Battelle Pacific Northwest Lab., Richland, WA.
43.
Muyama
A.
Hiura
H.
Morimoto
K.
1984
, “Repowering in Steel Works by Introducing a Blast-Furnace Gas-Firing Gas Turbine
,” ASME JOURNAL OF ENGINEERING FOR GAS TURBINES AND POWER
, Vol. 106
, pp. 806
–811
.44.
Netherlands Scientific Council for Government Policy, 1992, Grounds for Choice: Four Perspectives for the Rural Areas in the European Community, The Hague, The Netherlands.
45.
Neilsen, C., 1994, Marine and Industrial Engines Division, General Electric, Cincinnati, Ohio, personal communication, May.
46.
Overend, R. P., and Bain, R. L., 1993, “The DOE/NREL National Biomass Power Program Gasification Project Updates,” Proceedings of the 12th Coal Gasification Conference, Electric Power Res. Inst., Palo Alto, CA.
47.
Paisley, M. A., and Litt, R. D., 1993, “Hot-Gas Conditioning of Biomass Derived Synthesis Gas,” Proceedings, First Biomass Conference of the Americas, NREL/CP-200-5768, National Renewable Energy Laboratory, Golden, CO, pp. 1133–47.
48.
Paisley, M., 1994, Battelle Columbus Laboratory, personal communication, Columbus, Ohio, Jan.
49.
Palmer, C. A., and Erbes, M. R., 1993, “LM2500 Fired on Low Btu Fuels,” Final report prepared by Enter Software for the Technical Research Center of Finland (Epsoo, Finland), Jan. 28th.
50.
Schmidt, E., 1982, Properties of Water and Steam in SI Units, Springer-Verlag, Berlin.
51.
Shell International Petroleum Company, 1992, “Biofuels in the European Community,” Management Brief, Shell Center, London, May.
52.
Sinclair, A., and Waldheim, L., 1985, “MINO Feasibility Study, Concluding Report,” Studsvik Energiteknik AB, Nykoping, Sweden.
53.
Skog, E., Project Mgr., 1993, Varnamo Demonstration Program, Sydkraft Konsult, personal communication, Malmo, Sweden, Dec.
54.
Solantausta, Y., Kurkela, E., Leppalahti, J., and Sipila, K., 1990, “Combined-Cycle Power Production From Biomass,” presented at the CEC Workshop on Large Scale Electricity Production From Biomass, Florence, Italy, Nov. 22.
55.
Solar Thermal and Biomass Power Division, 1992, “Electricity From Biomass: A Development Strategy,” Office of Solar Energy Conversion, US Department of Energy, DOE/CH10093-I52, Washington, DC, Apr.
56.
Stahl, K., Skog, E., and Lundqvist, R., 1993, “The Biomass IGCC Demonstration Power Plant, Varnamo, Sweden,” Proceedings of the 12th Coal Gasification Conference, Electric Power Res. Inst., Palo Alto, CA.
57.
Stambler, I., 1993, “Next Generation ‘Superfans’ Could Plug Electric Utility Capacity Gaps,” Gas Turbine World, May–June, pp. 46–54.
58.
Stull, D. R., and Prophet, H., Project Directors, 1971, JANAF Thermochemical Tables, 2nd ed., U.S. National Bureau of Standards, Washington D.C.
59.
USDA (US Dept. Agriculture, Soil Conservation Service), 1989, “The 2nd RCA Appraisal: Soil, Water, and Related Resources on Non-Federal Land in the United States—Analysis of Condition and Trends, Washington DC.
60.
Wiant, B. C., Bachovchin, D. M., Carty, R. M., Horazak, D. A., and Ruel, R. H., 1993, “Biomass Gasification Hot Gas Cleanup for Power Generation,” Proceedings of the First Biomass Conference of the Americas, NREL/CP-200-5768, National Renewable Energy Laboratory, Golden, CO, pp. 571–82.
61.
Williams, R. H., 1994, “Roles for Biomass Energy in Sustainable Development,” Industrial Ecology and Global Change, R. H. Socolow et al., eds., Cambridge University Press, Cambridge, United Kingdom.
62.
Williams, R. H., and Larson, E. D., 1993, “Advanced Gasification-Based Biomass Power Generation,” in: Renewable Energy: Sources for Fuels and Electricity, T. B. Johansson, H. Kelly, A. K. N. Reddy, and R. H. Williams, eds., Island Press, Washington, DC, pp. 729–85.
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