SYSTEM IDENTIFICATION TOOLS FOR THE STABILIZATION OF THE WASTE-BED TEMPERATURE WITHIN A WASTE-TO-ENERGY PLANT

2011 ◽  
Vol 10 (8) ◽  
pp. 1161-1167
Author(s):  
Adrian Danila
Keyword(s):  
System Identification ◽  
Waste To Energy ◽  
Bed Temperature ◽  
Energy Plant

scholarly journals Performance of an amine-based CO2 capture pilot plant at the Fortum Oslo Varme Waste to Energy plant in Oslo, Norway

2021 ◽  
Vol 106 ◽  
pp. 103242
Author(s):  
Johan Fagerlund ◽  
Ron Zevenhoven ◽  
Jørgen Thomassen ◽  
Marius Tednes ◽  
Farhang Abdollahi ◽  
...  
Keyword(s):  
Co2 Capture ◽  
Pilot Plant ◽  
Waste To Energy ◽  
Energy Plant

Integrated Management of Solid Wastes for New York City

2002 ◽  
Author(s):  
Nickolas J. Themelis
Keyword(s):  
New York ◽  
New York City ◽  
York City ◽  
Power Plants ◽  
Integrated Management ◽  
Solid Wastes ◽  
Waste To Energy ◽  
Advanced Technology ◽  
Municipal Solid Wastes ◽  
Energy Plant

This report presents the results of a study that examined alternatives to landfilling the municipal solid wastes (MSW) of New York City. Detailed characterization of the wastes led to their classification, according to materials properties and inherent value, to “recyclable”, “compostable”, “combustible”, and “landfillable”. The results showed that the present rates of recycling (16.6%) and combustion (12.4%) in New York City can be increased by a) implementing an automated, modern Materials Recovery Facility (MRF) that separates the blue bag stream to “recyclables” and “combustibles”, and b) combusting the non-recyclable materials in a Waste-to-Energy (WTE) facility. Combustion of wastes to produce electricity is environmentally much preferable to landfilling. An advanced technology for combustion is that used in a modern Waste-to-Energy plant (SEMASS, Massachusetts) that processes 0.9 million metric tons of MSW per year, generates a net of 610 kWh per metric ton of MSW, recovers ferrous and non-ferrous metals, and has lower emissions than many coal-fired power plants.

Corrosion of superheater materials in a waste-to-energy plant

2013 ◽  
Vol 105 ◽  
pp. 106-112 ◽  
Author(s):  
Peter Viklund ◽  
Anders Hjörnhede ◽  
Pamela Henderson ◽  
Annika Stålenheim ◽  
Rachel Pettersson
Keyword(s):  
Waste To Energy ◽  
Energy Plant

Noble Gases as Monitoring Tracers in CCS: A Case Study with CO2 from the Waste-to-Energy Plant Klemetsrud, Norway

2021 ◽  
Author(s):  
Ulrich Weber ◽  
Niko Kampman ◽  
Tomas Mikoviny ◽  
Jørgen Thomassen ◽  
Anja Sundal
Keyword(s):  
Noble Gases ◽  
Waste To Energy ◽  
Energy Plant

Improving the Public Acceptance of WTE: Session 8

2007 ◽  
Author(s):  
Peter A. Napoli ◽  
Lindsey Sampson ◽  
Robin Davidov ◽  
Bettina Kamuk
Keyword(s):  
Natural Gas ◽  
Low Cost ◽  
Waste To Energy ◽  
Public Acceptance ◽  
Full Potential ◽  
The Public ◽  
Public Consumption ◽  
Energy Plant ◽  
Consumption Demand

This topic is important because of the growing need for us to produce and supply low cost energy for public consumption. Demand has increased exponentially, and in order to reduce dependence on foreign oil, coal, and natural gas we need to utilize waste to its full potential. Three major waste to energy plant expansions are happening now at Olmstead WTE, Minnesota and at Lee and Hillsborough Counties, in Florida. New “Greenfield” construction is planned at Harford, Carroll, and Fredrick Counties, in Maryland.

Investigation of chloride deposit formation in a 24MWe waste to energy plant

Fuel ◽  
2015 ◽  
Vol 140 ◽  
pp. 317-327 ◽  
Author(s):  
Guanyi Chen ◽  
Nan Zhang ◽  
Wenchao Ma ◽  
Vera Susanne Rotter ◽  
Yu Wang
Keyword(s):  
Waste To Energy ◽  
Deposit Formation ◽  
Energy Plant

scholarly journals DETERMINATION OF PROPERTIES AND ELEMENTAL COMPOSITION OF MUNICIPAL SOLID WASTE IN ORDER TO PROPOSAL OF WASTE-TO-ENERGY PROJECT IN BINH DUONG PROVINCE

2018 ◽  
Vol 54 (2A) ◽  
pp. 56
Author(s):  
Phung Chi Vy
Keyword(s):  
Solid Waste ◽  
Elemental Composition ◽  
Calorific Value ◽  
Dry Weight ◽  
Solid Wastes ◽  
Waste To Energy ◽  
Composition Analysis ◽  
Energy Plant ◽  
Inorganic Components

Domestic solid wastes are classified into 10 samples of 04 groups with different sizes: 2 samples with sizes under and over 120 mm (M1-1, M1-2); 2 samples with sizes under and over 80 mm (M2-1, M2-2); 2 samples with sizes under and over 40 mm (M3-1, M3-2); 4 samples with sizes under 40 mm, 40 to 80 mm, 80 to 120 mm and over 120 mm (M4-1, M4-2, M4-3, M4-4). Results of sorting 10 solid waste samples into food, cloth, wood, plastic, paper, rubber/leather, metal, glass, other organic and inorganic components shown that recycled combustible, non-recycled combustible portions are ranged from 15,46 to 93,90 %, from 5,34 to 80,17 %, respectively. The density of 10 compressed garbage samples is ranged from 525,9 to 2016,7 kg/m3; moisture contents are ranged from 18.03 to 20.92 %. Ash content is ranged from 1.12 to 9.49 % dry weight; Calorific value is ranged from 3164,9 to 5757,0 kcal/kg of garbage. The volume of leached water from 10 kg wet garbage pressed by 250 kg load in 2 days is 300 ml (equivalent to 327,1 g). Results of elemental composition analysis shown that the contents of C, H, N, Cl, S are ranged from 35,00 to 51,96, from 6,01 to 6,23, from 0,41 to 0,88, from 0,44 to 0,56, from 0,14 to 0,84 %, respectively. On this basis, the author have proposed a waste-to-energy plant with capacity of 250 tons of waste/day to generate the electricity with capacity of 17,0 MW/day.

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