TY - JOUR
T1 - The Firepower Sweep Test
T2 - A novel approach to cookstove laboratory testing
AU - Bilsback, Kelsey R.
AU - Eilenberg, Sarah R.
AU - Good, Nicholas
AU - Heck, Lauren
AU - Johnson, Michael
AU - Kodros, John K.
AU - Lipsky, Eric M.
AU - L'Orange, Christian
AU - Pierce, Jeffrey R.
AU - Robinson, Allen L.
AU - Subramanian, R.
AU - Tryner, Jessica
AU - Wilson, Ander
AU - Volckens, John
N1 - Publisher Copyright:
© 2018 John Wiley & Sons A/S. Published by John Wiley & Sons Ltd
PY - 2018/11
Y1 - 2018/11
N2 - Emissions from solid-fuel cookstoves have been linked to indoor and outdoor air pollution, climate forcing, and human disease. Although task-based laboratory protocols, such as the Water Boiling Test (WBT), overestimate the ability of improved stoves to lower emissions, WBT emissions data are commonly used to benchmark cookstove performance, estimate indoor and outdoor air pollution concentrations, estimate impacts of stove intervention projects, and select stoves for large-scale control trials. Multiple-firepower testing has been proposed as an alternative to the WBT and is the basis for a new standardized protocol (ISO 19867-1:2018); however, data are needed to assess the value of this approach. In this work, we (a) developed a Firepower Sweep Test [FST], (b) compared emissions from the FST, WBT, and in-home cooking, and (c) quantified the relationship between firepower and emissions using correlation analysis and linear model selection. Twenty-three stove-fuel combinations were evaluated. The FST reproduced the range of PM2.5 and CO emissions observed in the field, including high emissions events not typically observed under the WBT. Firepower was modestly correlated with emissions, although the relationship varied between stove-fuel combinations. Our results justify incorporating multiple-firepower testing into laboratory-based protocols but demonstrate that firepower alone cannot explain the observed variability in cookstove emissions.
AB - Emissions from solid-fuel cookstoves have been linked to indoor and outdoor air pollution, climate forcing, and human disease. Although task-based laboratory protocols, such as the Water Boiling Test (WBT), overestimate the ability of improved stoves to lower emissions, WBT emissions data are commonly used to benchmark cookstove performance, estimate indoor and outdoor air pollution concentrations, estimate impacts of stove intervention projects, and select stoves for large-scale control trials. Multiple-firepower testing has been proposed as an alternative to the WBT and is the basis for a new standardized protocol (ISO 19867-1:2018); however, data are needed to assess the value of this approach. In this work, we (a) developed a Firepower Sweep Test [FST], (b) compared emissions from the FST, WBT, and in-home cooking, and (c) quantified the relationship between firepower and emissions using correlation analysis and linear model selection. Twenty-three stove-fuel combinations were evaluated. The FST reproduced the range of PM2.5 and CO emissions observed in the field, including high emissions events not typically observed under the WBT. Firepower was modestly correlated with emissions, although the relationship varied between stove-fuel combinations. Our results justify incorporating multiple-firepower testing into laboratory-based protocols but demonstrate that firepower alone cannot explain the observed variability in cookstove emissions.
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U2 - 10.1111/ina.12497
DO - 10.1111/ina.12497
M3 - Article
C2 - 30099773
AN - SCOPUS:85053491837
SN - 0905-6947
VL - 28
SP - 936
EP - 949
JO - Indoor Air
JF - Indoor Air
IS - 6
ER -