Emissions of NH 3 and greenhouse gases from pig houses: Influencing factors and mitigation techniques

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Emissions of NH 3 and greenhouse gases from pig houses: Influencing factors and mitigation techniques François-Xavier PHILIPPE Department of Animal Productions, Faculty of Veterinary Medicine, University of Liège, Belgium Aerial pollutants in pig houses Scientific seminar ILVO, Merelbeke, 23 rd April 2013

Introduction Pork: most consumed meat in the world (38%) By 2050, pig consumption + 40% Livestock 64% of global NH 3 emissions 18% of global GHG emissions (CO 2, N 2 O, CH 4 ) Pig production: 10-15% of livestock related emissions (FAO, 2006 and 2011)

Introduction Pork: most consumed meat in the world (38%) By 2050, pig consumption + 40% Livestock 64% of global NH 3 emissions 18% of global GHG emissions (CO 2, N 2 O, CH 4 ) Pig production: 10-15% of livestock related emissions Meat type Emission intensity (kg CO 2 -Eq/kg carcass) Contribution to anthropogenic emisions Pig 6.1 1.4% Chicken 5.4 0.8% Sheep/goat 21.0 0.6% Beef 49.2 6.4% (FAO, 2006 and 2011)

Climatic conditions Dietary factors

Climatic conditions Ambient temperature Ventilation: Rate, type, location of the fans Effect on pig behaviour Bioclimatic comfort of the pigs

Climatic conditions Slatted floor systems vs. Bedded floor systems

Climatic conditions Slatted floor systems Slat characteristics Slurry emitting surface Slurry removal strategy

Slatted floor systems Slat characteristics Material characteristics (Pedersen et al., 2008)

Slatted floor systems Slat characteristics Slat profile (Hamelin et al., 2010)

Slatted floor systems Slat characteristics Opening size Room 1 (Svennerstedt, 1999)

Slatted floor systems Slurry emitting surface Partly slatted floor system

Slatted floor systems Slurry emitting surface Partly slatted floor system Slatted area 100% 37% NH 3 (g/day.pig) 16.1 9.7 (Sun et al., 2008) Slatted area 50% 25% NH 3 (g/day.pig) 6.4 5.7 (Aarninck et al., 1996)

Slatted floor systems Slurry emitting surface Partly slatted floor system Room 1 Emissions (g/day.pig) Room 1 Fully slatted floor Room 2 Partly slatted floor NH 3 5.57 5.75 N 2 O 0.18 0.21 Room 2 CH 4 4.64 4.77 (Philippe et al., 2012)

Slatted floor systems Slurry emitting surface Partly slatted floor system NH 3 (g/day.pig) Slatted area 100% 50% - Winter 10.1 10.6 - Summer 7.7 13.6 (Guingand and Granier, 2001)

Slatted floor systems Slurry emitting surface Partly slatted floor system Reduction of emissions provided the soiling of the solid floor is prevented

Slatted floor systems Slurry emitting surface Pit designs : Sloped pit walls Manure gutters Pit surface NH 3 emissions Mean Piglets - 67% -35% Sloped pit wall Fattening pigs -28% -28% Manure gutter Gestating sows -64% -43% Manure gutter (Van Zeeland and den Brok, 1998; Steenvoorden et al., 1999; Doorne et al., 2002)

Slatted floor systems Slurry removal strategy

Slatted floor systems Slurry removal strategy Frequent manure removal Removal frequency Effects compared to deep-pit system Reference 1 X/2 week NH 3 : -20% Guingand, 2000 1 X/week NH 3, CH 4, N 2 O: -10% Osada et al., 1998 1 X/week NH 3 : -38%; CH 4 : -19%; N 2 O: X2 Guarino et al., 2003 Provided lower outside temperature than inside or specific manure storage conditions/treatments

Slatted floor systems Slurry removal strategy Pit flushing NH 3 N 2 O NH 3 N 2 O NH 3 N 2 O (Lim et al., 2004; Sommer et al., 2004)

Slatted floor systems Manure gutter Slurry removal strategy Pit flushing (6X/day) Integrated tube (Lagadec et al., 2012)

Slatted floor systems Slurry removal strategy Under slat scraping Ineffective to reduce emissions Faeces and urine spreading over the pit Flat scraper (Predicalo et al., 2007; Kim et al., 2008; Lagadec et al., 2012)

Slatted floor systems Slurry removal strategy Under slat scraping V-shaped scraper Separation of urine from faeces Significant reduction of emissions NH 3 : - 40-50 % N 2 O : - 40 % CH 4 : - 20 % Facilitation of manure handling (Godbout et al., 2006; Lagadec et al., 2012)

Climatic conditions Bedded floor systems

Bedded floor systems Bedded systems vs. Slatted floor systems with bedded systems Reference NH 3 CH 4 N 2 O Kermarrec and Robin (2002) - Kim et al. (2008) - - Philippe et al. (2011) Kavolelis (2006) - - Balsdon et al. (2000) - - Philippe et al. (2007a) Cabaraux et al. (2009)

Bedded floor systems Wide range of rearing techniques Type of substrate: straw, sawdust, woodshaving, Amount of substrate Space allowance Litter management Impact on physico-chemical properties of the litter

Bedded floor systems Type of substrate : Sawdust vs. Straw with sawdust Reference NH 3 CH 4 N 2 O CO 2 -Eq Nicks et al. (2003) 5 batches of 80 weaned piglets - 62 % - 51 % x 3 Nicks et al. (2004) 3 batches of 36 fattening pigs - 11 % - 33 % x 4 Cabaraux et al. (2009) 2 batches of 80 weaned piglets - 10 % - 30 % x 4

Bedded floor systems Amount of substrate Low : 0.5 kg/day.pig High : 1.0 kg/day.pig - 25% - 15% + 60%

Bedded floor systems Litter management Removal strategy Frequent manure removal Straw flow system

Bedded floor systems Litter management Removal strategy Frequent manure removal Straw flow system (Philippe et al., 2007 and 2012)

Bedded floor systems Pen design Combination of bedded, slatted and/or solid floor

Climatic conditions Dietary factors

Climatic conditions Dietary factors Reduced crude protein Dietary fibres + Electrolyte balance Acidifying salts Yucca extracts Zeolites Probiotics

Dietary factors Reduced crude protein N balance (g/day) Crude protein content 20% 15% Reduction N intake 57.3 42.8 25% N-NH 3 6.0 3.1 48% N retention 22.7 22.8 = N excretion 34.7 20.0 42% Faecal N 9.4 8.1 14% Urinary N 25.2 11.9 53% Manure ph 9.08 8.46 7% (O Shea et al., 2009)

Dietary factors Reduced crude protein Crude protein content 15% 12% Reduction NH 3 (g/h.m²) 1.26 0.90 29% N 2 O (ppm) 0.20 0.21 NS CH 4 (ppm) 359 239 NS (Le et al., 2009)

Dietary factors Dietary fibres N balance (g/day) NSP content 12% 18% N intake 51.5 48.6 N-NH 3 5.0 3.9 N retention 23.5 22.1 N excretion 28.1 26.5 Faecal N 7.8 9.7 Urinary N 20.3 16.8 Manure ph 8.95 5.59

Dietary factors Dietary fibres : 18% NSP (STD) vs. 30% NSP (HFD) -50% = +30% (Philippe et al., 2012)

Dietary factors Dietary fibres : Interactions with the floor type - 24% + 34% (Philippe et al., 2012)

Conclusion Numerous techniques to reduce emissions, whatever the floor type BUT contradictions depending on the circumstances and the gas

Conclusion Numerous techniques to reduce emissions, whatever the floor type BUT contradictions depending on the circumstances and the gas Bedded floor : Large range of rearing systems Environment inside the litter Sawdust : NH 3, CH 4, N 2 O Increasing straw supply : NH 3, N 2 O, CH 4

Conclusion Numerous techniques to reduce emissions, whatever the floor type BUT contradictions depending on the circumstances and the gas Bedded floor : Large range of rearing systems Environment inside the litter Sawdust : NH 3, CH 4, N 2 O Increasing straw supply : NH 3, N 2 O, CH 4 Partly slatted floor : Provided prevention of soiled solid floor

Conclusion Numerous techniques to reduce emissions, whatever the floor type BUT contradictions depending on the circumstances and the gas Bedded floor : Large range of rearing systems Environment inside the litter Sawdust : NH 3, CH 4, N 2 O Increasing straw supply : NH 3, N 2 O, CH 4 Partly slatted floor : Provided prevention of soiled solid floor Frequent manure removal : Provided lower outside temperature or treatment + Solid/liquid separation : opportunity for further reductions

Conclusion Numerous techniques to reduce emissions, whatever the floor type BUT contradictions depending on the circumstances and the gas Bedded floor : Large range of rearing systems Environment inside the litter Sawdust : NH 3, CH 4, N 2 O Increasing straw supply : NH 3, N 2 O, CH 4 Partly slatted floor : Provided prevention of soiled solid floor Frequent manure removal : Provided lower outside temperature or treatment + Solid/liquid separation : opportunity for further reductions Dietary factors Crude protein : NH 3 but no effect on GHG Fibres : NH 3 on slatted floor, NH 3 on bedded floor, CH 4 on both

Conclusion Numerous techniques to reduce emissions, whatever the floor type BUT contradictions depending on the circumstances and the gas Bedded floor : Large range of rearing systems Environment inside the litter Sawdust : NH 3, CH 4, N 2 O Increasing straw supply : NH 3, N 2 O, CH 4 Partly slatted floor : Provided prevention of soiled solid floor Frequent manure removal : Provided lower outside temperature or treatment + Solid/liquid separation : opportunity for further reductions Dietary factors Crude protein : NH 3 but no effect on GHG Fibres : NH 3 on slatted floor, NH 3 on bedded floor, CH 4 on both Complete evaluation of the manure management process

Thank you for your attention