TY - JOUR
T1 - Integrated study through LCA, ELCC analysis and air quality modelling related to the adoption of high efficiency small scale pellet boilers
AU - Chiesa, Maria
AU - Monteleone, Beatrice
AU - Venuta, Maria Luisa
AU - Maffeis, G.
AU - Greco, S.
AU - Cherubini, A.
AU - Schmidl, C.
AU - Finco, Angelo
AU - Gerosa, Giacomo Alessandro
AU - Ballarin Denti, Antonio Angelo
PY - 2016
Y1 - 2016
N2 - This study focuses on the environmental impact assessment of three different high efficiency residential pellet boilers manufactured by an Austrian company. A Life Cycle Analysis (LCA) and an Environmental Life Cycle Costing (ELCC) analysis were performed, along with air quality modelling simulations for two EU case studies to evaluate CO, PM10, SO2, NO2 concentration reductions due to the substitution of the innovative boilers in place of obsolete and non environmentally compliant biomass boilers.
The SimaPro software (v. 8.05.13, Recipe Midpoint Method) was used for the LCA and ELCC analysis while CALPUFF (v. 6.42) was used for air quality simulations.
Boilers emission and efficiency factors operating in real life conditions were used as input data for all environmental impact assessment analysis. Results showed an interesting reduction of both the environmental impact and pellet consumption cost (linked to the highest monetary value in the ELCC analysis) associated to the most innovative boiler model among the three envisaged. Furthermore, it emerged that air quality could be improved in the short term (2020) with the substitution of obsolete and end of life biomass boilers with high efficiency pellet boilers in EU areas where biomass is the main source of residential heating. A potential reduction of local CO, SO2 and PM10 concentrations from 9% to 23% depending on the pollutant and on the specific case study considered is found for the short term scenario (2020) with respect to the baseline scenario (2010). No significant differences in air quality were evidenced for NO2 concentrations.
AB - This study focuses on the environmental impact assessment of three different high efficiency residential pellet boilers manufactured by an Austrian company. A Life Cycle Analysis (LCA) and an Environmental Life Cycle Costing (ELCC) analysis were performed, along with air quality modelling simulations for two EU case studies to evaluate CO, PM10, SO2, NO2 concentration reductions due to the substitution of the innovative boilers in place of obsolete and non environmentally compliant biomass boilers.
The SimaPro software (v. 8.05.13, Recipe Midpoint Method) was used for the LCA and ELCC analysis while CALPUFF (v. 6.42) was used for air quality simulations.
Boilers emission and efficiency factors operating in real life conditions were used as input data for all environmental impact assessment analysis. Results showed an interesting reduction of both the environmental impact and pellet consumption cost (linked to the highest monetary value in the ELCC analysis) associated to the most innovative boiler model among the three envisaged. Furthermore, it emerged that air quality could be improved in the short term (2020) with the substitution of obsolete and end of life biomass boilers with high efficiency pellet boilers in EU areas where biomass is the main source of residential heating. A potential reduction of local CO, SO2 and PM10 concentrations from 9% to 23% depending on the pollutant and on the specific case study considered is found for the short term scenario (2020) with respect to the baseline scenario (2010). No significant differences in air quality were evidenced for NO2 concentrations.
KW - Air quality modelling
KW - ELCC analysis
KW - High efficiency
KW - LCA
KW - Low emissions
KW - Small scale pellet boilers
KW - Air quality modelling
KW - ELCC analysis
KW - High efficiency
KW - LCA
KW - Low emissions
KW - Small scale pellet boilers
UR - http://hdl.handle.net/10807/79136
UR - http://www.sciencedirect.com/science/article/pii/s0961953416301337
U2 - 10.1016/j.biombioe.2016.04.019
DO - 10.1016/j.biombioe.2016.04.019
M3 - Article
SN - 0961-9534
VL - 2016
SP - 262
EP - 272
JO - BIOMASS & BIOENERGY
JF - BIOMASS & BIOENERGY
ER -