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- W3026578707 endingPage "106963" @default.
- W3026578707 startingPage "106963" @default.
- W3026578707 abstract "Storage of slurry is an important emission source for ammonia (NH3), nitrous oxide (N2O), methane (CH4), carbon dioxide (CO2) and hydrogen sulfide (H2S) from livestock production. Therefore, this study collected published emission data from stored cattle and pig slurry to determine baseline emission values and emission changes due to slurry treatment and coverage of stores. Emission data were collected from 120 papers yielding 711 records of measurements conducted at farm-, pilot- and laboratory-scale. The emission data reported in a multitude of units were standardized and compiled in a database. Descriptive statistics of the data from untreated slurry stored uncovered revealed a large variability in emissions for all gases. To determine baseline emissions, average values based on a weighting of the emission data according to the season and the duration of the emission measurements were constructed using the data from farm-scale and pilot-scale studies. Baseline emissions for cattle and pig slurry stored uncovered were calculated. When possible, it was further distinguished between storage in tanks without slurry treatment and storage in lagoons which implies solid-liquid separation and biological treatment. The baseline emissions on an area or volume basis are: for NH3: 0.12 g m−2 h-1 and 0.15 g m−2 h-1 for cattle and pig slurry stored in lagoons, and 0.08 g m−2 h-1 and 0.24 g m−2 h-1 for cattle and pig slurry stored in tanks; for N2O: 0.0003 g m−2 h-1 for cattle slurry stored in lagoons, and 0.002 g m−2 h-1 for both slurry types stored in tanks; for CH4: 0.95 g m-3 h-1 and 3.5 g m-3 h-1 for cattle and pig slurry stored in lagoons, and 0.58 g m-3 h-1 and 0.68 g m-3 h-1 for cattle and pig slurry stored in tanks; for CO2: 6.6 g m−2 h-1 and 0.3 g m−2 h-1 for cattle and pig slurry stored in lagoons, and 8.0 g m−2 h-1 for both slurry types stored in tanks; for H2S: 0.04 g m−2 h-1 and 0.01 g m−2 h-1 for cattle and pig slurry stored in lagoons. Related to total ammoniacal nitrogen (TAN), baseline emissions for tanks are 16% and 15% of TAN for cattle and pig slurry, respectively. Emissions of N2O and CH4 relative to nitrogen (N) and volatile solids (VS) are 0.13% of N and 0.10% of N and 2.9% of VS and 4.7% of VS for cattle and pig slurry, respectively. Total greenhouse gas emissions from slurry stores are dominated by CH4. The records on slurry treatment using acidification show a reduction of NH3 and CH4 emissions during storage while an increase occurs for N2O and a minor change for CO2 as compared to untreated slurry. Solid-liquid separation causes higher losses for NH3 and a reduction in CH4, N2O and CO2 emissions. Anaerobically digested slurry shows higher emissions during storage for NH3 while losses tend to be lower for CH4 and little changes occur for N2O and CO2 compared to untreated slurry. All cover types are found to be efficient for emission mitigation of NH3 from stores. The N2O emissions increase in many cases due to coverage. Lower CH4 emissions occur for impermeable covers as compared to uncovered slurry storage while for permeable covers the effect is unclear or emissions tend to increase. Limited and inconsistent data regarding emission changes with covering stores are available for CO2 and H2S. The compiled data provide a basis for improving emission inventories and highlight the need for further research to reduce uncertainty and fill data gaps regarding emissions from slurry storage." @default.
- W3026578707 created "2020-05-29" @default.
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- W3026578707 date "2020-09-01" @default.
- W3026578707 modified "2023-10-16" @default.
- W3026578707 title "Ammonia and greenhouse gas emissions from slurry storage - A review" @default.
- W3026578707 cites W1554686066 @default.
- W3026578707 cites W1566909380 @default.
- W3026578707 cites W1629563117 @default.
- W3026578707 cites W1965717865 @default.
- W3026578707 cites W1965797416 @default.
- W3026578707 cites W1968107933 @default.
- W3026578707 cites W1973507255 @default.
- W3026578707 cites W1974696700 @default.
- W3026578707 cites W1977342222 @default.
- W3026578707 cites W1978866393 @default.
- W3026578707 cites W1983707436 @default.
- W3026578707 cites W1985003575 @default.
- W3026578707 cites W1985341155 @default.
- W3026578707 cites W1986642277 @default.
- W3026578707 cites W1988397451 @default.
- W3026578707 cites W1995110837 @default.
- W3026578707 cites W2000573179 @default.
- W3026578707 cites W2001828507 @default.
- W3026578707 cites W2002547077 @default.
- W3026578707 cites W2003285326 @default.
- W3026578707 cites W2004077004 @default.
- W3026578707 cites W2007309857 @default.
- W3026578707 cites W2016432586 @default.
- W3026578707 cites W2021407579 @default.
- W3026578707 cites W2031178385 @default.
- W3026578707 cites W2032328998 @default.
- W3026578707 cites W2033006276 @default.
- W3026578707 cites W2033139101 @default.
- W3026578707 cites W2033194454 @default.
- W3026578707 cites W2041037704 @default.
- W3026578707 cites W2042667377 @default.
- W3026578707 cites W2060651715 @default.
- W3026578707 cites W2062706622 @default.
- W3026578707 cites W2063175980 @default.
- W3026578707 cites W2064209153 @default.
- W3026578707 cites W2064617461 @default.
- W3026578707 cites W2064717874 @default.
- W3026578707 cites W2065885887 @default.
- W3026578707 cites W2067519985 @default.
- W3026578707 cites W2070539482 @default.
- W3026578707 cites W2072394617 @default.
- W3026578707 cites W2074671120 @default.
- W3026578707 cites W2075836912 @default.
- W3026578707 cites W2076383100 @default.
- W3026578707 cites W2083761612 @default.
- W3026578707 cites W2084014836 @default.
- W3026578707 cites W2114308333 @default.
- W3026578707 cites W2124379079 @default.
- W3026578707 cites W2125991685 @default.
- W3026578707 cites W2126650869 @default.
- W3026578707 cites W2126728600 @default.
- W3026578707 cites W2127266810 @default.
- W3026578707 cites W2131916383 @default.
- W3026578707 cites W2139747777 @default.
- W3026578707 cites W2139991886 @default.
- W3026578707 cites W2140482202 @default.
- W3026578707 cites W2147974840 @default.
- W3026578707 cites W2158619807 @default.
- W3026578707 cites W2330994841 @default.
- W3026578707 cites W2407051206 @default.
- W3026578707 cites W2417033599 @default.
- W3026578707 cites W2417605447 @default.
- W3026578707 cites W2461193301 @default.
- W3026578707 cites W2470385531 @default.
- W3026578707 cites W2529504613 @default.
- W3026578707 cites W2556775209 @default.
- W3026578707 cites W2560299940 @default.
- W3026578707 cites W2574333087 @default.
- W3026578707 cites W2598964026 @default.
- W3026578707 cites W2622715233 @default.
- W3026578707 cites W2622995002 @default.
- W3026578707 cites W2743977792 @default.
- W3026578707 cites W2771433501 @default.
- W3026578707 cites W2776258568 @default.
- W3026578707 cites W2778001565 @default.
- W3026578707 cites W2790225097 @default.
- W3026578707 cites W2792153079 @default.
- W3026578707 cites W2794147555 @default.
- W3026578707 cites W2795401087 @default.
- W3026578707 cites W2901109559 @default.
- W3026578707 cites W2944003377 @default.
- W3026578707 cites W3001653590 @default.
- W3026578707 cites W805154392 @default.
- W3026578707 cites W2828315159 @default.
- W3026578707 doi "https://doi.org/10.1016/j.agee.2020.106963" @default.
- W3026578707 hasPublicationYear "2020" @default.