Main factors affecting climate change, acidification and eutrophication in MSW management systems

The continuous increasing of solid waste generation worldwide calls for management strategies to support environmental sustainability. Life Cycle Assessment (LCA) is a decision-support tool for quantifying environmental impacts of systems (product systems). Among the most important and discussed out...

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Main Authors: Lombardi, Lidia, Cipriano, Luca, Carnevale, Ennio, Havukainen, Jouni, Liikanen, Miia, Hupponen, Mari, Horttanainen, Mika
Format: Text
Language:unknown
Published: ECI Digital Archives 2016
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Online Access:https://dc.engconfintl.org/lca_waste/32
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author Lombardi, Lidia
Cipriano, Luca
Carnevale, Ennio
Havukainen, Jouni
Liikanen, Miia
Hupponen, Mari
Horttanainen, Mika
author_facet Lombardi, Lidia
Cipriano, Luca
Carnevale, Ennio
Havukainen, Jouni
Liikanen, Miia
Hupponen, Mari
Horttanainen, Mika
author_sort Lombardi, Lidia
collection Engineering Conferences International: ECI Digital Archives
description The continuous increasing of solid waste generation worldwide calls for management strategies to support environmental sustainability. Life Cycle Assessment (LCA) is a decision-support tool for quantifying environmental impacts of systems (product systems). Among the most important and discussed output-based impact categories of waste management, there are: global warming potential (GWP), acidification potential (AP) and eutrophication potential (EP). The aim of this work is to identify which are the most important factors in the Municipal Solid Waste (MSW) management affecting to GWP, AP and EP and what kind of conditions in the operating environment are essentials to these factors. After a review of available literature on this topic (more than thirthy rarther recent papers were analyzed in details even if the reference list is not reported here for length constraints), the work was concentrated at evaluating two rather different study cases: i) the territory belonging to the province of Siena in the south of Tuscany region (Italy) and ii) the territory of South Karelia, the region in the southern Finland on the border with Russia. The total amount of MSW generated in the province of Siena in 2013 was 163 823 t, of which 94 963 t are residual waste, which is processed in a mechanical and biological treatment (MBT) plant. Dry fraction from MBT is sent for waste-to-energy (WtE), while humid fraction is landfilled after aerobic biological stabilization. Source separated wastes (about 45%) are refined locally by mechanical treatment and sent away for material recovery, in particular the organic fraction is processed locally for compost production. Concerning South Karelia region, the total amount of MSW generated in 2013 was 75 280 t, of which 22 500 t are residual waste. Separate collection is reserved for recoverable materials (cardboard, glass, metal, and paper) as well as for biodegradable waste. Residual urban waste is partly disposed to landfill and partly burned into WtE plant. Landfilling has been the only ...
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spelling fteci:oai:dc.engconfintl.org:lca_waste-1031 2025-01-16T22:50:35+00:00 Main factors affecting climate change, acidification and eutrophication in MSW management systems Lombardi, Lidia Cipriano, Luca Carnevale, Ennio Havukainen, Jouni Liikanen, Miia Hupponen, Mari Horttanainen, Mika 2016-06-07T07:00:00Z https://dc.engconfintl.org/lca_waste/32 unknown ECI Digital Archives https://dc.engconfintl.org/lca_waste/32 Life Cycle Assessment and Other Assessment Tools for Waste Management and Resource Optimization MSW management waste-to-energy landfill mechanical treatment residual waste Engineering text 2016 fteci 2022-12-27T14:47:16Z The continuous increasing of solid waste generation worldwide calls for management strategies to support environmental sustainability. Life Cycle Assessment (LCA) is a decision-support tool for quantifying environmental impacts of systems (product systems). Among the most important and discussed output-based impact categories of waste management, there are: global warming potential (GWP), acidification potential (AP) and eutrophication potential (EP). The aim of this work is to identify which are the most important factors in the Municipal Solid Waste (MSW) management affecting to GWP, AP and EP and what kind of conditions in the operating environment are essentials to these factors. After a review of available literature on this topic (more than thirthy rarther recent papers were analyzed in details even if the reference list is not reported here for length constraints), the work was concentrated at evaluating two rather different study cases: i) the territory belonging to the province of Siena in the south of Tuscany region (Italy) and ii) the territory of South Karelia, the region in the southern Finland on the border with Russia. The total amount of MSW generated in the province of Siena in 2013 was 163 823 t, of which 94 963 t are residual waste, which is processed in a mechanical and biological treatment (MBT) plant. Dry fraction from MBT is sent for waste-to-energy (WtE), while humid fraction is landfilled after aerobic biological stabilization. Source separated wastes (about 45%) are refined locally by mechanical treatment and sent away for material recovery, in particular the organic fraction is processed locally for compost production. Concerning South Karelia region, the total amount of MSW generated in 2013 was 75 280 t, of which 22 500 t are residual waste. Separate collection is reserved for recoverable materials (cardboard, glass, metal, and paper) as well as for biodegradable waste. Residual urban waste is partly disposed to landfill and partly burned into WtE plant. Landfilling has been the only ... Text karelia* karelia* Engineering Conferences International: ECI Digital Archives
spellingShingle MSW management
waste-to-energy
landfill
mechanical treatment
residual waste
Engineering
Lombardi, Lidia
Cipriano, Luca
Carnevale, Ennio
Havukainen, Jouni
Liikanen, Miia
Hupponen, Mari
Horttanainen, Mika
Main factors affecting climate change, acidification and eutrophication in MSW management systems
title Main factors affecting climate change, acidification and eutrophication in MSW management systems
title_full Main factors affecting climate change, acidification and eutrophication in MSW management systems
title_fullStr Main factors affecting climate change, acidification and eutrophication in MSW management systems
title_full_unstemmed Main factors affecting climate change, acidification and eutrophication in MSW management systems
title_short Main factors affecting climate change, acidification and eutrophication in MSW management systems
title_sort main factors affecting climate change, acidification and eutrophication in msw management systems
topic MSW management
waste-to-energy
landfill
mechanical treatment
residual waste
Engineering
topic_facet MSW management
waste-to-energy
landfill
mechanical treatment
residual waste
Engineering
url https://dc.engconfintl.org/lca_waste/32