Estimation of Green House Gas Emission from Indian Coal Based Thermal Power Plant

Ghodke, Satyashree

doi:10.9790/3021-0204591597

Cited by 9 publications

(5 citation statements)

References 3 publications

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“…Also specimens are tested for non-destructive tests to find out compressive strength characteristics [16][17][18]. Fine and Coarse Aggregate: Natural sand confirming to codal provisions of 3rd zone and the maximum size is limited to 12.5mm H2o and Chemical Admixture: Potable water and Conplast SP-430 was used [19,20].…”

Section: Methodsmentioning

confidence: 99%

Strength Properties of HVFA Concrete by using Fly Ash and Silica Fume

2019

IJITEE

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Concrete is the most generally utilized development material on the planet. Fly Ash use is a worldwide intuition as its expansion to bond solid supplements for strong concrete. At that point the high volume fly debris has been utilized in numerous elevated structures, modern structures, water text style structures, solid streets and moved compacted solid dams. Expansion of silica smoke and Super plasticizer to high volume fly debris solid found to expand the quality properties. Fly debris improves the nature of solid, prompting the expanded assistance life of solid structures. Cements having a lot of fly debris (generally from half) are named as high-volume fly debris (HVFA) concrete. Silica smolder, which is seen as more receptive than the fly debris and it fundamentally, improves the quality of cement. In the present examination, an endeavor is made to contemplate the impact of compressive quality of high volume fly debris concrete with differing extent of silica smoke and fly debris. Concrete is supplanted by fly debris and silica rage 50 to 80% and 0 to 15% by weight individually. The compressive quality advancement of silica smolder altered high-volume fly debris blends drenched in water up to 7 to 45 days is accounted for. As the water content is low in high volume fly debris concrete, the draining is low and regularly insignificant. Setting time is minimal longer than that of traditional cement. This is a result of low concrete substance, low pace of response and high substance of super plasticizer. The examination uncovered that by keeping up a consistent measurements of superior super plasticizer alongside fly debris and silica seethe, it is conceivable to keep up an ideal droop esteem for example functionality, along these lines fulfilling the vast majority of the cutting edge basic applications. Additionally the confined impact of silica seethe on the high volume fly debris concrete with a water bond proportion of 0.40 as been examined. The outcomes show that there is a momentous increment in the compressive quality of cement on substitution of bond by silica smoke and fly debris and furthermore acquired 10% substitution of silica seethe by bond on high volume fly debris solid invigorates higher compressive in the present examination.

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Section: Methodsmentioning

confidence: 99%

Strength Properties of HVFA Concrete by using Fly Ash and Silica Fume

2019

IJITEE

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“…Prompt NOx -Brief NOx is shaped from atomic nitrogen noticeable all around consolidating with fuel in fuel-rich conditions which exist, somewhat, in all ignition. Brief NOx represents under 5 percent of the complete NOx emanations [19][20][21][22].…”

Section: Formation Of Noxmentioning

confidence: 99%

NOx Emission Reduction in Flue Gas of Coal Fired Thermal Power Station and its Control Measures by Secondary Measures

2019

IJITEE

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The ever increasing demand for power is mostly met out by electricity produced with the available resources. One such source where generation of power is by making use of the fossil fuel such as coal. Thermal generation using coal accounts for 69% of the total power produced in India. Flue Gases emitted from coal fired thermal stations consists of CO2,(Carbon-di-oxide),SOx (Oxides of Sulphur), NOx (Oxides of Nitrogen), PM (Particulate matter) along with carbonaceous material, soot and Fly ash. These gaseous pollutants are considered as environmental burden which ultimately results in smog formation, formation of acid rain, eutrophication and global warming which has to be controlled and regulated within the permissible limits as stipulated by MOEF &CC (Ministry of Environmental Forest and Climate Change). This project describes about the analysis of reduction of NOx Emission in Flue Gas of Coal fired thermal stations and the measures to control the NOx emission within the permissible limits for the new thermal power plants by treating the flue gas emitted from the stack. The secondary measure to reduce the NOx emission is achieved by treating the flue gas with urea or ammonia which bring about 90% NOx emission reduction. The application of Low Nox Burner with Over Fire Air Technology along with Selective Catalytic Reduction in the new thermal power plant reduce the emission of NOx to a considerable extent and to meet the norms

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“…On the basis of the collected statistical data, during its first year of work, the direct injection to the grid of the PV system is about 8 MWh/day, which represents the saving of 4.74 equivalent tonnes of coal/day from a coal based thermal power plant. The production of electricity from the proposed solar PV plant will reduce the CO 2 emission of 8.73 tonnes/day, as well as other polluting gases and particles if it replaces a coal-based thermal power plant [19]. Considering the results presented in this work, we can project that the installation of PV systems in roofs of ISM campus buildings mean that in the next 10 years thousand tonnes of CO 2 would not be emitted to the atmosphere, due to the saving of thousand tonnes of coal used nowadays to produce electricity.…”

Section: Analysis Of Meteorological Parameters For Ism Campusmentioning

confidence: 99%

Technical mapping of solar PV for ISM‐an approach toward green campus

Chakraborty

Sadhu

Pal

2015

Energy Science & Engineering

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This paper aims toward the first step for green campus approach for Indian School of Mines (ISM) campus. Comparative study of the performances for nine different commercialized solar panels made of Maxeon Cell Technology, HIT (Heterojunction with Intrinsic Thin layer), monocrystalline silicon (Mono C-Si), polycrystalline silicon (Poly C-Si), Micromorph, SCHOTT, amorphous silicon (a-Si), CIGS, CdTe technologies in the environmental condition of ISM are presented in this paper. This system suggests to supply the daytime electricity demand of ISM campus as well as efficient use of the huge roof areas of different buildings to setting up the photovoltaic plant. This system ensures a daily mean reduction of 8 MWh electricity consumption from grid. The outcome of this study is that a superior performance is noted for modules made of amorphous silicon technology under the typical temperature variant and dry environmental condition of ISM campus.

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Estimation of Green House Gas Emission from Indian Coal Based Thermal Power Plant

Cited by 9 publications

References 3 publications

Strength Properties of HVFA Concrete by using Fly Ash and Silica Fume

Strength Properties of HVFA Concrete by using Fly Ash and Silica Fume

NOx Emission Reduction in Flue Gas of Coal Fired Thermal Power Station and its Control Measures by Secondary Measures

Technical mapping of solar PV for ISM‐an approach toward green campus

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