Migration and atmospheric emission of landfill gas
Migration and atmospheric emission of landfill gas
Gas generation due primarily to microbial decomposition is an inevitable consequence of the practice of solid waste disposal in landfills. Subsequent gas migration within the landfill and its potential emission to the atmosphere are dependent on the pressure and concentration gradients of the gas inside the landfill as well as many factors related to transport properties of the gas itself (viscosity, diffusivity) and the physical characteristics of the waste (permeability, moisture content, porosity). Temperature plays an important role in defining the gas movement because it strongly influences the gas transport properties as well as biochemical processes controlling gas production within the landfill. This paper presents a one-dimensional numerical gas flow model which predicts the time development of the pressure and gas concentration profiles, and the time variation of the total gas emission from landfills. The model accounts for effects of temperature variations with time on gas transport properties and biochemical processes. It was used to simulate gas emission data from the Mountain View Controlled Landfill Project, California.
309-327
El-Fadel, Mustasem
9cc1a1ff-433d-48f9-bcdb-ee3f957cd25a
Findikakis, Angelos N.
68609cd0-e3fd-4fbc-9ef3-aa2319243742
Leckie, James O.
e14a6eab-5c06-47fc-96d0-05e8aa41fc0d
10 April 1995
El-Fadel, Mustasem
9cc1a1ff-433d-48f9-bcdb-ee3f957cd25a
Findikakis, Angelos N.
68609cd0-e3fd-4fbc-9ef3-aa2319243742
Leckie, James O.
e14a6eab-5c06-47fc-96d0-05e8aa41fc0d
El-Fadel, Mustasem, Findikakis, Angelos N. and Leckie, James O.
(1995)
Migration and atmospheric emission of landfill gas.
Hazardous Waste & Hazardous Materials, 12 (4), .
(doi:10.1089/hwm.1995.12.309).
Abstract
Gas generation due primarily to microbial decomposition is an inevitable consequence of the practice of solid waste disposal in landfills. Subsequent gas migration within the landfill and its potential emission to the atmosphere are dependent on the pressure and concentration gradients of the gas inside the landfill as well as many factors related to transport properties of the gas itself (viscosity, diffusivity) and the physical characteristics of the waste (permeability, moisture content, porosity). Temperature plays an important role in defining the gas movement because it strongly influences the gas transport properties as well as biochemical processes controlling gas production within the landfill. This paper presents a one-dimensional numerical gas flow model which predicts the time development of the pressure and gas concentration profiles, and the time variation of the total gas emission from landfills. The model accounts for effects of temperature variations with time on gas transport properties and biochemical processes. It was used to simulate gas emission data from the Mountain View Controlled Landfill Project, California.
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Published date: 10 April 1995
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Local EPrints ID: 74376
URI: http://eprints.soton.ac.uk/id/eprint/74376
ISSN: 0882-5696
PURE UUID: f4f97990-2563-4ee4-b493-b9bbf663727b
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Date deposited: 11 Mar 2010
Last modified: 13 Mar 2024 22:33
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Author:
Mustasem El-Fadel
Author:
Angelos N. Findikakis
Author:
James O. Leckie
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