06391 Integrated gasification combined cycle in Italy

06391 Integrated gasification combined cycle in Italy

11 Process heating, power and incineration (energy applications in industryl 95106390 Integrated energy optlmlzatlon model for a cogeneratlon based ...

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Process heating, power and incineration (energy applications in industryl

95106390 Integrated energy optlmlzatlon model for a cogeneratlon based energy aupply aystem In the process Industry Arva$~~an,A. et al., Electrical Power & Energy Systems, 1995, 17, (4), Most of the continuous process industries generate electricity by cogeneration using the heat energy required for the process. Electricity is also purchased from external sources such as the grid and generated by internal sources such as diesel gensets. This leads to the de&Ion problem of determining the economically optimum energy-mix during short and long term oeriods. Also it is imoortant to evaluate the various technologies that can ‘unprove the energy sipply system. The paper resents a mixe;l integer (O1) linear programming model to tackle the ago ve decision problem.and presents a case study on the application of the model. It is shown that the model provides the methods for determining the optimal strategies that _ minim&e the overall cost of energy for the process industry. Integrated gaslflcetlon combined cycle In Italy ss/O6391 Taberelli, D. Pet Review, Oct. 1995, 49, (585), 456-457. The author discusses the three Integrated Gasification_ *Combined Cycle (IGCC) projects under study in Italy, where each is at a different stage. All are planned to be constructed in refineries and to use heavy fuel oil as feedstock. Italy has suddenly become the cutting-edge of advanced technology in refineries as far as residue disposal is concerned. The projects represent an attempt by the refineries to enter into the fastest growing and most profitable energy business of the future - electricity. 95/06392 Micro-cogeneretlon: Gas sector’s latest weapon Raaijen, W. Gas (Nerherlands), Sep. 1995, ll:, (9), 28-33. (In Flemish) Low-energy natural gas equipment is an interestmg trump up the gas sector’s sleeve. After all, energy saving is a major social objective. And an objective that in many cases can be served by replacing electrical apparatus with natural gas equipment. The brightest prospect that companies such as Gasunie and Gastec have, however, is even more ambitious. It is about micro-generation, or the power plant at home. In addition to producing hot water for central heating-and tapping purposes, electricity is-generated on site. Within a few years the first micro-cogeneration systems will be put on the market. _ 95106393

New diesel engines target Asian market

Modern Power Systems, Aug. 1995, 15, (8), 77, 79, 81, 83.

The L 32/40 in-line engine was presented to the international press in 1993. Now two years later in a continuing effort to meeting the growing demands of the exulodinn Asian markets. MAN B&W has introduced the V-version of this erigine aTongwith a new’dual fuel version which is described in the article. Power productlon In coal gasification combined 95106394 cycle Systems with Integrated oxygen production Res. D&l., 1995, 371, 225-227. Describes electric power production in a coal gasification combined cycle system in which the coal is gasified with oxygen and steam to produce combustible synthesis gas containing primarily hydrogen and carbon monoxide. The Power Systems Development Feclllty at Wil95/06395 eonvilla, Alabama Len anbach, J. R. and Pinkstbn, T. E. Prepr. Pap.-Am. Chem. kc., Div. Fue B Chem.. 1995. 40. (21. 323-328.

Describes the de&n of the Power Systems Development Facility (PSDF). The system consists of a number of pilot-scale test facilities at a single site to reduce the overall capital and dperating cost compared to individual stand-alone facilities. Some of to its discussed include the advanced gasifier, the advanced pressured flu1.d!Ized-bed combustion system, the topping combustor/gaa turbine, particle filters, the fuel cell, current status of the PSDF, and schedule. Predictions of the full and part load performance of 95106396 an sir-blown fluldlzed b d gaslflcatlon combined cycle Davison, J. E. and Soothill, % D. Proc. Inst. Mech. Eng., IMechE Con&, UK, 1994, (7), 79-86. Presents the results of work carried out by the British Coal Research Establishment and European Gas Turbines to evaluate the overall performance of an air-blown fluidized bed coal gasification combined cycle. 95106397

Probeblllstlc outage analysis of a combined-cycle power plant Kirchsteiger, C. et OZ., Power Engineering J., Jun. 1995, 9, (3). 137-141. Discusses using the classical method of fault tree analysis to determine the various reliability, availability and maintainability related characteristics of a characteristics of a characteristics of a package-engineered gas-fuelled combined-cycle power plant.

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Fuel end Energy Abs,tracts November 1995

95/06396 Flevlew of aerothermally Induced vlbratlons In gas turbine englnes Najjar, Y. S. Energy & Environment, 1995, 4, (2), 143-154. High or changing vibration amplitude patterns III turbomachines are signs of Impendin failure or a machines deterioration. If properly diagnosed, this information can helo imorove oerformance. reliabditv: reduce maintenance cost; and avoid seiioud outages. Vibrations could ba caused by structural or aerodynamic excitations, in addition to combustion pulsations. Methods of decreasing vibrations are mentioned, where selection of proper materials plays an important role. These areas are reviewed briefly in this work. 95106399 Simulation of comblnsd cycle power plants uslng the ASPEN PLUS shell Ong’iro, A. 0. el al., Heal Recovery Syst CHP, 1995, 15, (2). 105-113. Describes the development of a computer simulation model in ASPEN PLUS shell to simulate the performance of IGCC (Integrated gasification combined cycle) and IGHAT (integrated gasification humid 811turbines) cycle power plants. The model was used to study the effects of design and performance parameters on the efficiency and emissions from IGCC And IGHAT cycles. 95/06400 Tanjung Prlok forestalls power shortages Modern Power Systems, Aug. 1995, 15, (8), 69, 71, 73-74. An 1180 MW Combined cycle power plant in Jakarta, Indonesia which began operation at the beginning of this year, is one of a series ordered by national utility PLN to meet rapidly increasing electricity demand. The plant, which is now claimed to be one of the biggest combined cycle plants m South East Asia, took just 35 months to budd. 95/06401 Vermont Yankee to share experlencs of BWR turbins retroflt Nuclear Engng. Int., Oct. 1995, 40, (495), p. 35. Reports that Vermont Yankee have successfully undertaken a formidable task to retrofit two low-pressure turbine sections with new steam paths, without increasing the duration of a planned six-week refuelling and maintenance outage.

11 PROCESS HEATING, POWER AND INCINERATION Energy Applications in Industry 95106402 Advent Cement System - Closing the gap between process and business control Krings, L. ABE Review, 1995, (6), 22-31. The Advant Cement System creates additional value for cement producers through a combination of production know-how and advanced automation technology. The result is improved product quality and more efficient use of human resources, plus long-term benefits that include a secured initial investment. Although recess control equipment is fast becoming a com.P erences exist in the Investment and life cvcle costs. moditv. sinnificant chf depenhingon the degree of vertical integration achieved in the EIM pyramid. The Advant Cement System, with its strong vertical integration, offers clear benefits over the automation system’s life cycle. 95106403 Augmenting the heat transfer by turbulatlng plane channel flows In the low range of the Reynolds number Tonkonogii, Y. er al., J. of Enhanced Heat Transfer, 1995, 2, (3), 239-249. The authors represent an experimental study of fluid dynamic and heat transfer behaviour in plane channels at Re below 2000. The experimental study considered diffcient turbulators as a means of augmenting’the fluidwall heat transfer. It included flat grid or fins placed in mid-channel, corrugated nets and cylinders in distant in-line and staggered arrangements. 95106404 Concentration of saline produced water from coalbed methane gas welis In a multiple-effect evaporator uslng waste heat from the gas compressor and compressor drive engine Sadler, L. Y. and George, 0. Desalination, 1995, 101, (2), 169-176. The pa er discusses the use of heat of compression from the gas compressor anB waste heat from the diesel compressor drive engine in a tripleeffect feed forward evaporator as a means of concentrating saline produced water to facilitate its disposal. The saline water, trapped in deeply buried coal seams, must be contmuously pumped from coal-bed natural gas wells, so that the gas can desorb from the coal amd make its way to the wellbore. Approximately 47% of the energy in the fuel supplied to the compressor drive engine was utilized by the evaporator for the base case. When the approach temperature in all evaporator heat exchangers was specified to be 5.55 K (as a limiting case), the eva orator system could handle a produced water-to-produced gas ratio of 1.4s kg/m’.