Mastitis in sows current knowledge and opinions

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Institute of Agricultural and Nutritional Sciences (IANS) Animal Hygiene and Reproduction in Farm Animals Martin-Luther-University Halle-Wittenberg Mastitis in sows current knowledge and opinions Regine Preißler and Nicole Kemper Institute of Agricultural and Nutritional Sciences (IANS), Martin-Luther-University Halle-Wittenberg, Germany 62nd Annual Meeting of the European Federation of Animal Science EAAP 2011, Stavanger, Norway The importance of animal production for foód supply, food quality and environment

OUTLINE introduction synonyms et cetera clinical and economic importance gemma -project material und methods results and discussion summary

INTRODUCTION physiological conditions in lactation tubulo-alveolar gland with secretory lobules 2 teat channels 2 glandular systems 24-26 milk ejections/ day 10-20 seconds of milk ejektion < 10 minutes /day milk available

INTRODUCTION milk yield today: larger litter sizes increase in milk yield per day 1970/1980ies ~ 5-7 kg (Elsley 1971, Noblet&Etienne 1986) 1990ies ~ 10 kg (Sauber et al. 1996, King&Eason 1998) relatively higher increase in piglets ~9 ~12-14 milk amount per piglet decreases healthy sows with sufficient milk production

INTRODUCTION mastitis in sows major problem in postparturient sows 12-48 h post partum since 1960 described worldwide

SYNONYMS synonyms under discussion for mastitis in sows: Agalactia toxemica, A. complex, A. post partum (Ringarp 1960, Penny 1970, Hermansson et al. 1978 ) Coliform Mastitis (CM) (Bertschinger & Pohlenz 1980) Farrowing Fever (Halgaard et al. 1983) Lactation Failure (LF) (Elmore & Martin 1986) Mastitis-Metritis-Agalactia (MMA) (Tharp & Amstutz 1958, Smith 1965) Periparturient Hypogalactia Syndrome (PHS) (Smith 1992) Postpartum Dysgalactia Syndrome (PDS) (Klopfenstein 1999) Puerperal Septicaemia and Toxaemia (Bostedt et al. 1998, Heinritzi & Hagn 1999) MMA PDS

SYNONYMS synonyms under discussion for mastitis in sows: Agalactia toxemica, A. complex, A. post partum (Ringarp 1960, Penny 1970, Hermansson et al. 1978 ) Coliform Mastitis (CM) (Bertschinger & Pohlenz 1980) Farrowing Fever (Halgaard et al. 1983) Lactation Failure (LF) (Elmore & Martin 1986) Mastitis-Metritis-Agalactia (MMA) (Tharp & Amstutz 1958, Smith 1965) Periparturient Hypogalactia Syndrome (PHS) (Smith 1992) Postpartum Dysgalactia Syndrome (PDS) (Klopfenstein 1999) Puerperal Septicaemia and Toxaemia (Bostedt et al. 1998, Heinritzi & Hagn 1999) Lactation failure (Dysgalactia, Hypogalactia, Agalactia) >> Mastitis >> Metritis

PATHOPHYSIOLOGY Endotoxins Obstipation fever (T > 39.5 C) loss of appetite Endometritis Cystitis Mastitis Prolactin milk yield dysgalactia

PATHOPHYSIOLOGY Endotoxins Obstipation fever (T > 39.5 C) loss of appetite Endometritis Cystitis Mastitis (Bertschinger et al.) Prolactin coliform mastitis

DIAGNOSIS clinical changes sow - reduced milk production (dysgalactia, hypogalactia, agalactia) - modified milk composition - disturbed general condition - fever - ventral position piglets - intake of colostrum - lower weight gain - starving, restlessness, lethargy - intake of other fluids - secondary infections

DIAGNOSIS differences between clinical and subclinical mastitis simple classification concerning clinical signs and bacteriological results: mastitis yes clinical signs no bacteriological results + clinical mastitis subclinical mastitis or latent infection - unspecific mastitis healthy

DIAGNOSIS When is a sow positive for mastitis? Diagnostic pattern for sows mammary glands (Wendt, Bostedt et al. 1994) diagnosis clinical signs phvalue cells (Mio/ml) bacteriological analysis healthy lactating no < 6,8 < 2,5 negative healthy atrophic no > 7,0 > 6,5 negative bacterial no < 6,8 < 2,5 positive colonisation latent infection no > 7,0 > 6,5 positive subclinical mastitis no > 7,0 > 10,0 neg/pos clinical mastitis yes > 7,0 > 10,0 pos/neg Wegmann, 1985: >5 Mio cells/ml and >70% neutrophils

DIAGNOSIS alternative subclinical changes somatic cell count >5x10 6 cells/ml (Bertschinger& Bühlmann 1990) >10x10 6 cells/ml (Persson et al. 1996) ph-value milk >6,7 (Waldmann & Wendt 2001) milk composition in praxi Lactose, difficult to Protein, establish! Na + acute phase proteins cytokines Haptoglobin, α1-acid-glycoprotein IL-1ß, IL-6, IL-8, TNFα (Gooneratne et al. 1982; Zhu et al. 2007; Mirko & Bilkei 2004)

DIAGNOSIS milking a sow only directly post partum without Oxytocin injection 2-3 days p.p. 20 I.U. i.m. later on 40-60 I.U. i.m. milk ejection 5-10 minutes after injection for 10 minutes 3-4 ml in praxi difficult to establish!

DIAGNOSIS immediate diagnosis on herd level daily temperature-control in the first three days postpartum + clinical alterations on teats and glands (reddening, swelling, hardening etc.) + noticeable behavioural changes in sows and/or piglets

DIAGNOSIS economical importance sow decreased performance conception failure reduced litter size abortions reduced milk yield and milk quality piglets increased death rate runt piglets crushed piglets intake of colostrum lower weight gain

PREVALENCE prevalence in literature (1960-2010) 3.7% Sweden (Ringarp 1960) 5.5-10.3% Sweden (Bäckström 1973) 13.1% (-19.8%) Missouri, USA (Threlfall & Martin 1973) 6.9% (1.1-37.2%) Illinois, USA (Bäckström et al. 1984) 16.5-18.5% Norway (Lingaas & Ronningen 1991) 25% Denmark (Berg et al. 2001) 38.4% Germany (Krieter & Presuhn 2009) 6.5% (1-15%) Belgium (Papadopoulos et al. 2010) problem herds with prevalences up to 80-100% (Glock 1983, Martin et al. 1974, Waldmann & Wendt 2004)

PREVALENCE prevalence in literature (1960-2010) 3.7% Sweden (Ringarp 1960) 5.5-10.3% Sweden (Bäckström 1973) 13.1% (-19.8%) Missouri, USA (Threlfall & Martin 1973) 6.9% (1.1-37.2%) Illinois, USA (Bäckström et al. 1984) 16.5-18.5% Norway (Lingaas & Ronningen 1991) 25% Denmark (Berg et al. 2001) 38.4% Germany (Krieter & Presuhn 2009) 6.5% (1-15%) Belgium (Papadopoulos et al. 2010) prevalence due to improvement of husbandry, feeding and prophylactic treatment

INFLUENCING FACTORS water intake food intake husbandry pen climate pathogens hormone level immune defense partus induction mycotoxins mastitis : immune defense birth assistance milk withdrawal infection pressure genetics birth duration

INFLUENCING FACTORS pathogens Escherichia coli Strep. dysgalactiae Staph. aureus environmental factors husbandry hygiene feeding sow factors parity number partus condition genetic variation

TREATMENT pathogens prebiotics antibiotics environmental factors husbandry hygiene feeding sow factors NSAIDs oxytocin

TREATMENT Future aspects medicamental treatment is not a long-term solution Methods of choice 1st approach: improve farm management (hygiene, feeding, husbandry) 2nd approach: breeding and genetic improvement 3rd approach: medicamental treatment

gemma FUGATOplus: gemma structural and functional analysis of the genetic variation of the MMA-syndrome 2007-2011 2011- Nicole Kemper, Jens Wolfmüller Imke Gerjets, Regine Preißler Kiel Danilo Bardehle, Regine Preißler, Nicole Kemper, Jörg Lehmann MLU Halle-Wittenberg

gemma structural and functional analysis of the genetic variation of the MMA-syndrome gemma phenotype - bacteriological analysis - Escherichia coli genotype - genome-wide association - candidate genes phenotypic variation genetic variation

gemma pathogens environment host parity number partus induction (y/n) birth assistance (y/n) genetic variation

MATERIAL AND METHODS familybased Case-Control-Design 12-48 h post partum fever: Temp > 39.5 C affected sow + clinical investigation mammary glands piglets unaffected half- or fullsibs n = 1.028 n = 973

MATERIAL AND METHODS bacteriological analysis of milk samples (Gerjets et al., 2011) genotyping using the PorcineSNP60 BeadChip from Illumina statistical analysis (R, GenABEL, Plink, Haploview, )

total number of sows RESULTS 140 120 100 80 60 40 20 0 PDS-unaffected PDS-affected. 36.8 37.2 37.6 38 38.4 38.8 39.2 39.6 40 40.4 40.8 41.2 41.6 rectal temperature in C Absolute frequency of PDS-affected and PDS-unaffected sows in relation to rectal temperature 16.6% of affected sows had rectal temperatures (T) < 39.5 C 28.8% of affected sows had T > 40.0 C

RESULTS Gerjets et al., 2011 PDS+ sows (n=1028) PDS- sows (n=973) no significant differences in bacteria spectrum

RESULTS Gerjets et al., 2011 PDS=1 (n=1024) PDS=0 (n=970) no pathogen * 188 147 335 (16.8%) all pathogenes * 6 5 11 (0.5%) only STREP 1 25 16 41 (2.1%) STREP + SA 2 6 1 7 (0.3%) only COLIFORM 3 619 597 1.216 (61.0%) only SA 25 16 41 (2.1%) STREP + COLIFORM 134 174 308 (15.4%) COLIFORM + SA 21 14 35 (1.8%) 1024 970 1994 (100%) * pathogen.. STREP+COLIFORM+SA 1 STREP: Streptococcus dysgalactiae and/or Streptococcus agalactiae, 2 SA: Staphylococcus aureus, 3 COLIFORM: all Coliforms (especially Escherichia coli)

RESULTS Gerjets et al., 2011 prevalence of Escherichia coli virulence factors herds A, B, C, D, E neg: PDS- sows pos: PDS+ sows

RESULTS Gerjets et al., 2011 Prevalence of virulenceassociated genes in E. coli-isolates of healthy and diseased sows no specific CM-strain, if conditions are unfavorable, any strain could cause CM (Gerjets, Traulsen, Reiners & Kemper 2011, Veterinary Microbiology)

RESULTS The characteristic microbe of a disease might be a symptom instead of a cause. (G.B. Shaw in The Doctor s Dilemma, cited by Ringarp 1960) genetic predisposition (Ringarp 1960, Hildenbrand 1983, Awad-Masalmeh et al. 1990) heritability estimates: - h² = 0.1-0.2 (Lingaas et al. 1991) - h² = 0.02-0.06 (Berg et al. 2001) - h² = 0.13 (Krieter & Presuhn 2009) - h² = 0.09 (gemma)

second principal component RESULTS LW L x LW L LW x LW_D L x L_D Landrace (L) Large White (LW) L_Duroc (L_D) LW_Duroc (LW_D) first principal component

-log 10 (p) RESULTS 17 principal components + birth assistance chromosomes

-log 10 (p) RESULTS SSC17: MAF=0.39, OR=0.62 (1.61) OXT, GNRH2 haptoglobin QTL, IFN-γ/IL-10 ratio QTL chromosomes

-log 10 (p) RESULTS SSC15: MAF=0.08, OR=0.35 (2.86) unsure annotation! NRP2 body temperature QTL, chromosomes

-log 10 (p) RESULTS SSC13: MAF=0.23, OR=0.55 (1.82) PRICKLE2 age at puberty QTL, ovulation rate QTL, nonfunctional nipples QTL chromosomes

DISCUSSION association with several QTLs (body temperature QTL, age at puberty QTL, ovulation rate QTL, nonfunctional nipples QTL, haptoglobin QTL, IFN-γ/IL-10 ratio QTL) multiple genes involved (e.g. SSC13, SSC15, SSC17) different pathomechanisms: neurohormonal processes and networks immune system interactions (Haptoglobin, IFN-γ/IL- 10 ratio) replication and confirmation study in process

DISCUSSION possible reasons for positive bacteriological results in clinical unaffected sows only bacterial colonisation emerging subclinical mastitis in sows contamination via teat canal (two to three milk cisterns) resistance due to genetic variation resistance due to unknown factors requires further clinical and experimental studies...

SUMMARY sow piglets - dysgalactia - mastitis - fever (>39.5 C) antibiotics and antiphlogistics - intake colostrum apathia, diarrhea, death milk substitute prevalence subclinical cases

SUMMARY food intake husbandry pen climate water intake pathogens???? hormone level immune defense partus induction mycotoxins birth assistance milk withdrawal genetics multifactorial disease

SUMMARY main results from gemma up to now no significant differences in pathogen spectrum >60% only coliform mastitis, >18% mastitis without pathogen described in literature, >13% Strep-coliform mastitis, 2,5% Staph. aureus mastitis, 2,1% Staph. aureus- coliform significant correlation between birth assistance and CM genomewide moderate significant genetic variations moderate genetic risks (OR) ranging from 0,3 to 2,2 heritability 9% replication and confirmation study is under planning

SUMMARY New insights - special recommendations diagnosis: 12-48 h p.p. >39.5 C + clinical examination careful recording and documentation on herd level immediate, adequate and specific treatment hygiene - hygiene - hygiene special emphasis on healthy piglets ( restaurant-hypothesis ) holistic approach with long-term measures plan ahead (feeding, housing, breeding )

Institute of Agricultural and Nutritional Sciences (IANS) Animal Hygiene and Reproduction in Farm Animals Martin-Luther-University Halle-Wittenberg Mastitis in sows current knowledge and opinions Regine Preißler and Nicole Kemper Thanks for your attention! Special thanks to all colleagues and collaborating affiliations.