This edition doesn't have a description yet. Can you add one? Previews available in: English. Add another edition? Includes bibliographies and index. Previously published as: Combustion engineering : a reference book on fuel burning and steam generation.
Copy and paste this code into your Wikipedia page. Need help? Combustion, fossil power systems Joseph G. Singer, editor. Donate this book to the Internet Archive library. If you own this book, you can mail it to our address below. Not in Library. Energy calculations IV. The emission data in marketing process, and the use, reuse and maintenance of the Table 2 was determined based on JIS code method [10]. Goal Definition and Scoping rate of air inlet, MFA is mass flow rate of fly ash, MBA is mass Goal Definition and Scoping is the first phase of LCA, flow rate of bottom ash, MRW is mass flow rate of raw water, which is used for defining the objectives of the study and the MWE is mass flow rate of water evaporation and MWD is mass system boundaries for providing environmental information flow rate of water discharge.
The difference in material input [8]. The goal for this study is to conduct a comparative LCA and output works out to 3.
Energy and material balances are conducted to evaluate the efficiency and check the data consistency. As rice husk is considered as a waste of rice production, the system boundary includes only energy generation and transportation of rice husk to the plant Fig.
Rice cultivation and production are not included in the system boundary. Power plant construction is also excluded from the system boundary as its life is quite large and hence its contribution to power production will be relatively small. Functional unit, which is the basis of comparison, is 1 MWh of electricity. Inventory Analysis The data in Table 1 show that the main elemental components of rice husk are carbon and oxygen, and there is Inventory Analysis is the identification and quantification little nitrogen and sulphur content.
Carbon emission from transportation is 0. About 1. Sankey diagram of rice husk energy production can be used for describing the losses at every sub process of rice Carbon closure of the system is illustrated as Fig.
The husk energy production. The equation of Sankey diagram flows that cross the system boundaries indicate carbon inflows calculation is Eq. Carbon content in rice husk is 4, Rice husk is transported from rice mill to the power plant in trucks. The recycled energy is the energy content in air inlet and feed water, which are heated by the flue gas before releasing to the stack.
Loss at boiler includes heat loss in flue gas, fly ash, bottom ash, radiation loss, water blow down discharge loss. At the steam turbine, there is loss during conversion of thermal energy to mechanical energy and mechanical energy to electricity along with the waste heat during condensation.
The calculation of overall Ws energy balance is based on the law of conservation of energy. The difference in input unaccounted losses. Thus, the combustion efficiency of percentage is 2. The result of efficiency [12, 13] and turbine efficiency [14] can be used for turbine efficiency calculation is Table 5 shows the results of environmental impact potentials comparison between rice husk power plant and the TABLE IV average value of conventional power plants in Thailand.
Not available. Interpretation 0. The difference of carbon Table 4 presents the selected impact potentials of total air balance is 1. Transportation has significant minor variations in rice husk characteristics and averaging of investment cost since rice husk has very low density.
The rice measurements. Carbon closure is Thus, about 1. This information can be power plant. The long distance of rice husk transportation to used for improvement of the power plant efficiency by the plant site can contribute global warming potential up to 56 identifying the source and amount of losses.
To improve the but its contribution to acidification and photo-oxidant power plant efficiency one way suggested is to install heat formation is not significant 1.
The difference of energy balance is 2. To which may be due to loss in pipes and tubes. However, it will reach husk before combustion. Boiler efficiency and turbine global warming potential of conventional power plants only at efficiency are in the standard range of reference.
However, if very long transportation distances which will never occur in the efficiencies can be improved the production efficiency will practice because the cost of transportation will be too high. Transportation has The impact assessment results show that the impact of no significant contribution to acidification and photochemical global warming potential of rice husk energy Sulphur and nitrogen power plant, transportation has significant effect on global contents in rice husk are low when compared with coal and warming and transportation cost.
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