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Historical and contemporary aspects of maternal immunity in swine

Published online by Cambridge University Press:  10 November 2017

Korakrit Poonsuk Open the ORCID record for Korakrit Poonsuk [Opens in a new window]  and
Jeff Zimmerman
Korakrit Poonsuk*
Affiliation:
Department of Veterinary Diagnostic and Production Animal Medicine, College of Veterinary Medicine, Iowa State University, Ames, Iowa 50011, USA
Jeff Zimmerman
Affiliation:
Department of Veterinary Diagnostic and Production Animal Medicine, College of Veterinary Medicine, Iowa State University, Ames, Iowa 50011, USA
*
*Corresponding author. E-mail: [email protected]
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Abstract

Maternal immunity plays a pivotal role in swine health and production because piglets are born agammaglobulinemic and with limited cell-mediated immunity, i.e. few peripheral lymphoid cells, immature lymphoid tissues, and no effector and memory T-lymphocytes. Swine do not become fully immunologically competent until about 4 weeks of age, which means that their compromised ability to respond to infectious agents during the first month of life must be supplemented by maternal immune components: (1) circulating antibodies derived from colostrum; (2) mucosal antibodies from colostrum and milk; and (3) immune cells provided in mammary secretions. Because maternal immunity is highly effective at protecting piglets against specific pathogens, strengthening sow herd immunity against certain diseases through exposure or vaccination is a useful management tool for ameliorating clinical effects in piglets and delaying infection until the piglets’ immune system is better prepared to respond. In this review, we discuss the anatomy and physiology of lactation, the immune functions of components provided to neonatal swine in mammary secretion, the importance of maternal immunity in the prevention and control of significant pathogens.

Keywords

swinelactogenic immunitylactationmammogenesislactogenesis
Type
Review Article
Information
Animal Health Research Reviews , Volume 19 , Issue 1 , June 2018 , pp. 31 - 45
Copyright
Copyright © Cambridge University Press 2017 

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References

Ainsworth, L and Ryan, KJ (1966). Steroid hormone transformations by endocrine organs from pregnant mammals I. Estrogen biosynthesis by mammalian placental preparations in vitro. Endocrinology 79: 875–883.Google Scholar
Algers, B, Rojanasthien, S and Uvnäs-Moberg, K (1990). The relationship between teat stimulation oxytocin release and grunting rate in the sow during nursing. Applied Animal Behaviour Science 26: 267–276.Google Scholar
Amoroso, EC (1961). The placenta and fetal membranes. British Medical Bulletin 17: 3–28.Google Scholar
Antonis, AF, Bruschke, CJ, Rueda, P, Maranga, L, Casal, JI, Vela, C, Luuk, AT, Belt, PB, Weerdmeester, K, Carrondo, MJ and Langeveld, JP (2006). A novel recombinant virus-like particle vaccine for prevention of porcine parvovirus-induced reproductive failure. Vaccine 24: 5481–5490.Google Scholar
Askaa, J, Bloch, B, Bertelsen, G and Rasmussen, KO (1983). Rotavirus associated diarrhoea in nursing piglets and detection of antibody against rotavirus in colostrum milk and serum. Nordisk Veterinaermedicin 35: 441–447.Google Scholar
Baekbo, P, Christensen, J and Henriksen, S (1994). Attempts to induce colostral immunity against Isospora suis infections in piglets: oral vaccination of sows. In: 13th International Pig Veterinary Society Congress. Bangkok, Thailand, pp. 26–30 Jun 1994.Google Scholar
Bagnell, CA, Zhang, Q, Ohleth, K, Connor, ML, Downey, BR, Tsang, BK and Ainsworth, L (1993). Developmental expression of the relaxin gene in the porcine corpus luteum. Journal of Molecular Endocrinology 10: 87–97.Google Scholar
Baker, JA (1946). Serial passage of hog cholera virus in rabbits. Proceedings of the Society for Experimental Biology and Medicine 63: 183–187.Google Scholar
Bandrick, M, Pieters, M, Pijoan, C, Baidoo, SK and Molitor, TW (2011). Effect of cross-fostering on transfer of maternal immunity to Mycoplasma hyopneumoniae to piglets. Veterinary Record 168: 100.Google Scholar
Bauriedel, WR, Hoerlein, AB, Picken, JC Jr and Underkofler, LA (1954). Selection of diet from studies of vitamin B12 depletion using unsuckled baby pigs. Journal of Agricultural and Food Chemistry 2: 468–472.Google Scholar
Bay, WW, Doyle, LP and Hutchinigs, L (1953). Transmissible gastroenteritis of swine; a study of immunity. Journal of the American Veterinary Medical Association 122: 200–202.Google Scholar
Bazer, FW and Thatcher, WW (1977). Theory of maternal recognition of pregnancy in swine based on estrogen controlled endocrine versus exocrine secretion of prostaglandin F2α by the uterine endometrium. Prostaglandins 14: 397–401.Google Scholar
Berends, BR, Smeets, JFM, Harbers, AHM, Van Knapen, F and Snijders, JMA (1991). Investigations with enzyme-linked immunosorbent assays for Trichinella spiralis and Toxoplasma gondii in the Dutch ‘integrated quality control for finishing pigs’ research project. Veterinary Quarterly 13: 190–198.Google Scholar
Bertasoli, BM, Santos, AC, Paula, RS, Barbosa, AS, Silva, GAB and Jorge, EC (2015). Swine placenta and placentation Brazilian. Journal of Biological Sciences 2: 199–207.Google Scholar
Bianchi, AT, Scholten, JW, Moonen-Leusen, BH and Boersma, WJ (1999). Development of the natural response of immunoglobulin secreting cells in the pig as a function of organ age and housing. Developmental and Comparative Immunology 23: 511–520.Google Scholar
Blanco, I, Galina-Pantoja, L, Oliveira, S, Pijoan, C, Sanchez, C and Canals, A (2004). Comparison between Haemophilus parasuis infection in colostrums-deprived and sow-reared piglets. Veterinary Microbiology 103: 21–27.Google Scholar
Blecha, F (2001). Immunomodulators for prevention and treatment of infectious diseases in food-producing animals. Veterinary Clinics of North America: Food Animal Practice 17: 621–633.Google Scholar
Bohl, EH and Saif, LJ (1975). Passive immunity in transmissible gastroenteritis of swine: immunoglobulin characteristics of antibodies in milk after inoculating virus by different routes. Infection and Immunity 11: 23–32.Google Scholar
Bohl, EH, Gupta, RK, McCloskey, LW and Saif, L (1972a). Immunology of transmissible gastroenteritis. Journal of the American Veterinary Medical Association 160: 543–549.Google Scholar
Bohl, EH, Gupta, RK, Olquin, MV and Saif, LJ (1972b). Antibody responses in serum colostrum and milk of swine after infection or vaccination with transmissible gastroenteritis virus. Infection and Immunity 6: 289–301.Google Scholar
Bollinger, O (1877). Über menschen-und Thierpocken über den ursprung der Kuhpocken und über intrauterine vaccination. Innere Medizin 42: 40S.Google Scholar
Bourne, FJ and Curtis, J (1973). The transfer of immunoglobulins IgG IgA and IgM from serum to colostrum and milk in the sow. Immunology 24: 157.Google Scholar
Boutinaud, M and Jammes, H (2002). Potential uses of milk epithelial cells: a review. Reproduction Nutrition Development 42: 133–147.Google Scholar
Bradley, PA, Bourne, FJ and Brown, PJ (1976). The respiratory tract immune system in the pig: i. Distribution of immunoglobulin-containing cells in the respiratory tract mucosa. Veterinary Pathology 13: 81–89.Google Scholar
Brambell, FWR (1970). The Transmission of Passive Immunity from Mother to Young. North Holland Research Monographs Frontiers of Biology, 18.Google Scholar
Brandtzaeg, P (1981). Transport models for secretory IgA and secretory IgM. Clinical and Experimental Immunology 44: 221–232.Google Scholar
Brandtzaeg, P (2010). The mucosal immune system and its integration with the mammary glands. The Journal of Pediatrics 156: S8–S15.Google Scholar
Brieger, L and Ehrlich, P (1892). Über die Übertragung von immunitat durch milch. Deutsche Medizinische Wochenschrift 18: 393–394.Google Scholar
Burckhardt, AE (1879). Title not available. Deutsches Archiv für Klinische Medizin 24: 506–509.Google Scholar
Bush, JF and Beer, AE (1979). Analysis of complement receptors on B-lymphocytes in human milk. American Journal of Obstetrics and Gynecology 133: 708–712.Google Scholar
Bush, LJ and Staley, TE (1980). Absorption of colostral immunoglobulins in newborn calves. Journal of Dairy Science 63: 672–680.Google Scholar
Butler, JE (1998). Immunoglobulin diversity B-cell and antibody repertoire development in large farm animals. Revue Scientifique Et Technique 17: 43–70.Google Scholar
Cepica, A and Derbyshire, JB (1984). Antibody-dependent and spontaneous cell-mediated cytotoxicity against transmissible gastroenteritis virus infected cells by lymphocytes from sows fetuses and neonatal piglets. Canadian Journal of Comparative Medicine 48: 258.Google Scholar
Chae, C (2012). Commercial porcine circovirus type 2 vaccines: efficacy and clinical application. The Veterinary Journal 194: 151–157.Google Scholar
Chamberlain, AG, Perry, GC and Jones, RE (1965). Effect of trypsin inhibitor isolated from sows’ colostrum on the absorption of γ-globulin by piglets. Nature 207: 429–429.Google Scholar
Chamley, WA, Buckmaster, JM, Cerini, ME, Cumming, IA, Goding, JR, Obst, JM, Williams, A and Winfield, C (1973). Changes in the levels of progesterone corticosteroids estrone estradiol-17 beta luteinizing hormone and prolactin in the peripheral plasma of the ewe during late pregnancy and at parturition. Biology of Reproduction 9: 30–35.Google Scholar
Chase, CCL and Lunney, JK (2012). Immune system. In: Zimmerman, JJ, Karriker, LA, Ramirez, A, Schwartz, KJ and Stevenson, GW (eds) Diseases of Swine, 10th edn. West Sussex, UK: Wiley-Blackwell, pp. 227–250.Google Scholar
Chauveau, A (1880). Du renforcement de l'immunite des moutons algeriens a l'egard du sang de rate par les inoculations preventives. Comptes rendus de l'Académie des sciences (Paris) 91: 148–151.Google Scholar
Chung, WB, Lin, MW, Chang, WF, Hsu, M and Yang, PC (1997). Persistence of porcine reproductive and respiratory syndrome virus in intensive farrow-to-finish pig herds. Canadian Journal of Veterinary Research 61: 292–298.Google Scholar
Clement, T, Singrey, A, Lawson, S, Okda, F, Nelson, J, Diel, D, Nelson, EA and Christopher-Hennings, J (2016). Measurement of neutralizing antibodies against porcine epidemic diarrhea virus in sow serum colostrum and milk samples and in piglet serum samples after feedback. Journal of Swine Health and Production 24: 147–153.Google Scholar
Conner, JD (1952). Agriculture food and drugs. In: Administrative Law Bulletin. Washington: Government Printing Office, pp. 93–100.Google Scholar
Cromwell, GL, Stahly, TS, Edgerton, LA, Monegue, HJ, Burnell, TW, Schenck, BC and Schricker, BR (1992). Recombinant porcine somatotropin for sows during late gestation and throughout lactation. Journal of Animal Science 70: 1404–1416.Google Scholar
Curtis, J and Bourne, FJ (1971). Immunoglobulin quantitation in sow serum colostrum and milk and the serum of young pigs. Biochimica et Biophysica Acta (BBA) – Protein Structure 236: 319–332.Google Scholar
Damm, BI, Friggens, NC, Nielsen, J, Ingvartsen, KL and Pedersen, LJ (2002). Factors affecting the transfer of porcine parvovirus antibodies from sow to piglets. Journal of Veterinary Medicine Series A 49: 487–495.Google Scholar
Danielsen, M, Thymann, T, Jensen, BB, Jensen, ON, Sangild, PT and Bendixen, E (2006). Proteome profiles of mucosal immunoglobulin uptake in inflamed porcine gut. Proteomics 6: 6588–6596.Google Scholar
De Groot, N, Kuik-Romeijn, V, Lee, SH and De Boer, HA (2000). Increased immunoglobulin A levels in milk by over-expressing the murine polymeric immunoglobulin receptor gene in the mammary gland epithelial cells of transgenic mice. Immunology 101: 218–224.Google Scholar
De Schweinitz, EA and Dorset, M (1903). New facts concerning the etiology of hog cholera. In: 20th Report of the US Bureau of Animal Industry. Washington: Government Printing Office, pp. 157–162.Google Scholar
Diego, R, Lanza, I, Carvajal, A, Rubio, P and Cármenes, P (1995). Serpulina hyodysenteriae challenge of fattening pigs vaccinated with an adjuvanted bivalent bacterin against swine dysentery. Vaccine 13: 663–667.Google Scholar
Dorland, WAN (1900). Dorland's Illustrated Medical Dictionary (Vol. 121, No. D73).Google Scholar
Dorset, M, Bolton, BM and McBryde, CN (1904). The Etiology of hog Cholera 21st Report of the US Bureau of Animal Industry. Washington: Govt. Print. Off., pp. 138–158.Google Scholar
Dorset, M, McBryde, CN and Niles, WB (1908). Further experiments concerning the production of immunity from hog cholera. In: Dorset, M (ed.) US Dept of Agriculture Bureau of Animal Industry Bulletin, Vol. 102. Washington: Government Printing Office.Google Scholar
Dubreuil, P, Couture, Y, Pelletier, G, Petitclerc, D, Delorme, L, Lapierre, H, Gaudreau, P, Morisset, J and Brazeau, P (1990). Effect of long-term administration of porcine growth hormone-releasing factor and (or). thyrotropin-releasing factor on growth hormone prolactin and thyroxine concentrations in growing pigs. Journal of Animal Science 68: 95–107.Google Scholar
Dunne, HW (1958) Hog cholera. In: Dunne, HW (ed.) Diseases of Swine. Ames IA: The Iowa State College Press. pp. 111–144.Google Scholar
Edington, A (1897). Preventive inoculation for rinderpest. British Medical Journal 2: 1758–1759.Google Scholar
Ehrlich, P (1892). Über immunität durch vererbung und Säugung. Medical Microbiology and Immunology 12: 183–203.Google Scholar
Elahi, S, Buchanan, RM, Babiuk, LA and Gerdts, V (2006). Maternal immunity provides protection against pertussis in newborn piglets. Infection and Immunity 74: 2619–2627.Google Scholar
Ellendorff, F, Forsling, ML and Poulain, DA (1982). The milk ejection reflex in the pig. The Journal of Physiology 333: 577–594.Google Scholar
Evans, PA, Newby, TJ, Stokes, CR and Bourne, FJ (1982). A study of cells in the mammary secretions of sows. Veterinary Immunology and Immunopathology 3: 515–527.Google Scholar
Famulener, LW (1912). On the transmission of immunity from mother to offspring: a study upon serum hemolysins in goats [with discussion]. The Journal of Infectious Diseases 10: 332–368.Google Scholar
Farmer, C (2001). The role of prolactin for mammogenesis and galactopoiesis in swine. Livestock Production Science 70: 105–113.Google Scholar
Farmer, C, Robert, S and Rushen, J (1998). Bromocriptine given orally to periparturient of lactating sows inhibits milk production. Journal of Animal Science 76: 750–757.Google Scholar
Farmer, C, Sorensen, MT and Petitclerc, D (2000). Inhibition of prolactin in the last trimester of gestation decreases mammary gland development in gilts. Journal of Animal Science 78: 1303–1309.Google Scholar
Farmer, C, Fisette, K, Robert, S, Quesnel, H and Laforest, JP (2004). Use of recorded nursing grunts during lactation in two breeds of sows II effects on sow performance and mammary development. Canadian Journal of Animal Science 84: 581–587.Google Scholar
Fish, NA and Kingscote, B (1973). Protection of gilts against leptospirosis by use of a live vaccine. The Canadian Veterinary Journal 14: 106–112.Google Scholar
Franczak, A and Kotwica, G (2008). Secretion of estradiol-17β by porcine endometrium and myometrium during early pregnancy and luteolysis. Theriogenology 69: 283–289.Google Scholar
Fraser, D (1980). A review of the behavioural mechanism of milk ejection of the domestic pig. Applied Animal Ethology 6: 247–255.Google Scholar
Freeman, ME, Kanyicska, B, Lerant, A and Nagy, G (2000). Prolactin: structure function and regulation of secretion. Physiological Reviews 80: 1523–1631.Google Scholar
Friedberger and Frohner (1908). Hayes Veterinary Pathology, 6th edn. Chicago: WT Keener and Co.Google Scholar
Grosser, O (1909). Vergleichende Anatomie und Entwicklungsgeschichte der Eihäute und der Placenta mit besonderer Berücksichtigung des Menschen. Wien: Wilhelm Braumüller.Google Scholar
Haesebrouck, F, Pasmans, F, Chiers, K, Maes, D, Ducatelle, R and Decostere, A (2004). Efficacy of vaccines against bacterial diseases in swine: what can we expect? Veterinary Microbiology 100: 255–268.Google Scholar
Hammer, DK and Mossmann, H (1978). The importance of membrane receptors in the transfer of immunoglobulins from plasma to the colostrum. Annales de Recherches Veterinaires 9: 229–234.Google Scholar
Hancock, JT, Salisbury, V, Ovejero-Boglione, MC, Cherry, R, Hoare, C, Eisenthal, R and Harrison, R (2002). Antimicrobial properties of milk: dependence on presence of xanthine oxidase and nitrite. Antimicrobial Agents and Chemotherapy 46: 3308–3310.Google Scholar
Hanson, LÅ and Berggård, I (1962). An immunological comparison of immunoglobulins from human blood serum urine and milk using diffusion-in-gel methods. Clinica Chimica Acta 7: 828–834.Google Scholar
Hanson, RP and Karlstad, L (1958). Further studies on enzootic vesicular stomatitis. In: Beran, GW (ed.) Handbook of Zoonoses: Viral Zoonoses, 2nd edn. Boca Raton: CRC Press, pp. 300–307.Google Scholar
Harkins, M, Boyd, RD and Bauman, DE (1989). Effect of recombinant porcine somatotropin on lactational performance and metabolite patterns in sows and growth of nursing pigs. Journal of Animal Science 67: 1997–2008.Google Scholar
Harms, PA, Sorden, SD, Halbur, PG, Bolin, SR, Lager, KM, Morozov, I and Paul, PS (2001). Experimental reproduction of severe disease in CD/CD pigs concurrently infected with type and respiratory syndrome virus. Veterinary Pathology 38: 528–539.Google Scholar
Hartmann, PE, Atwood, CS, Cox, DB and Daly, SE (1995). Endocrine and autocrine strategies for the control of lactation in women and sows. In: Wilde, CJ, Peaker, M and Knight, CH (eds) Intercellular Signalling in the Mammary Gland. New York: Springer, pp. 203–225.Google Scholar
Hartmann, PE and Holmes, MA (1989). Sow lactation. In: Manipulating Pig Production II, pp. 72–97.Google Scholar
Hartmann, PE, Smith, NA, Thompson, MJ, Wakeford, CM and Arthur, PG (1997). The lactation cycle in the sow: physiological and management contradictions. Livestock Production Science 50: 75–87.Google Scholar
Hartmann, PE, Whitely, JL and Willcox, DL (1984). Lactose in plasma during lactogenesis, established lactation and weaning in sows. The Journal of Physiology 347: 453–463.Google Scholar
Hoerlein, AB (1957). The influence of colostrum on antibody response in baby pigs. The Journal of Immunology 78: 112–117.Google Scholar
Hurley, WL, Doane, RM, O'Day-Bowman, MB, Winn, RJ, Mojonnier, LE and Sherwood, OD (1991). Effect of relaxin on mammary development in ovariectomized pregnant gilts. Endocrinology 128: 1285–1290.Google Scholar
Hurley, WL and Grieve, RCJ (1988). Total and differential cell counts and N-acetyl-β-D-glucosaminidase activity in sow milk during lactation. Veterinary Research Communications 12: 149–153.Google Scholar
Hurley, WL and Theil, PK (2011). Perspectives on immunoglobulins in colostrum and milk. Nutrients 3: 442–474.Google Scholar
Isaacson, RE, Dean, EA, Morgan, RL and Moon, HW (1980). Immunization of suckling pigs against enterotoxigenic Escherichia coli-induced diarrheal disease by vaccinating dams with purified K99 or 987P pili: antibody production in response to vaccination. Infection and Immunity 29: 824–826.Google Scholar
Jensen, AR, Elnif, J, Burrin, DG and Sangild, PT (2001). Development of intestinal immunoglobulin absorption and enzyme activities in neonatal pigs is diet dependent. The Journal of Nutrition 131: 3259–3265.Google Scholar
Jensen, PT (1978). Trypsin inhibitor in sow colostrum and its function. Annales de Recherches Veterinaires 9: 225–228.Google Scholar
Ji, F, Hurley, WL and Kim, SW (2006). Characterization of mammary gland development in pregnant gilts. Journal of Animal Science 84: 579–587.Google Scholar
Jung, K and Saif, LJ (2015). Porcine epidemic diarrhea virus infection: Etiology, epidemiology, pathogenesis and immunoprophylaxis. The Veterinary Journal 204: 134–143.Google Scholar
Jungersen, G (2002). Immunity and immune responses to Ascaris suum in pigs. In: Holland, CV and Kennedy, MW (eds) The Geohelminths: Ascaris, Trichuris and Hookworm. New York: Kluwer Academic Publishers, pp. 105–124.Google Scholar
Kendall, JZ, Richards, GE and Li-Chen, NS (1983). Effect of haloperidol suckling oxytocin and hand milking on plasma relaxin and prolactin concentrations in cyclic and lactating pigs. Journal of Reproduction and Fertility 69: 271–277.Google Scholar
Kensinger, RS, Collier, RJ and Bazer, FW (1986a). Ultrastructural changes in porcine mammary tissue during lactogenesis. Journal of Anatomy 145: 49–59.Google Scholar
Kensinger, RS, Collier, RJ and Bazer, FW (1986b). Effect of number of conceptuses on maternal mammary development during pregnancy in the pig. Domestic Animal Endocrinology 3: 237–245.Google Scholar
Kensinger, RS, Collier, RJ, Bazer, FW and Kraeling, RR (1986c). Effect of number of conceptuses on maternal hormone concentrations in the pig. Journal of Animal Science 62: 1666–1674.Google Scholar
Killian, DB, Garverick, HA and Day, BN (1973). Peripheral plasma progesterone and corticoid levels at parturition in the sow. Journal of Animal Science 37: 1371–1375.Google Scholar
King, RH, Campbell, RG, Smits, RJ, Morley, WC, Ronnfeldt, K, Butler, K and Dunshea, FR (2000). Interrelationships between dietary lysine sex and porcine somatotropin administration on growth performance and protein deposition in pigs between 80 and 120 kg live weight. Journal of Animal Science 78: 2639–2651.Google Scholar
King, RH, Mullan, BP, Dunshea, FR and Dove, H (1997). The influence of piglet body weight on milk production of sows. Livestock Production Science 47: 169–174.Google Scholar
Kitching, RP and Salt, JS (1995). The interference by maternally-derived antibody with active immunization of farm animals against foot-and-mouth disease. British Veterinary Journal 151: 379–389.Google Scholar
Kitikoon, P, Nilubol, D, Erickson, BJ, Janke, BH, Hoover, TC, Sornsen, SA and Thacker, EL (2006). The immune response and maternal antibody interference to a heterologous H1N1 swine influenza virus infection following vaccination. Veterinary Immunology and Immunopathology 112: 117–128.Google Scholar
Klobasa, F, Werhahn, E and Butler, JE (1987). Composition of sow milk during lactation. Journal of Animal Science 64: 1458–1466.Google Scholar
Klopfenstein, C, Farmer, C and Martineau, GP (2006). Diseases of the mammary glands and lactation problems. In: Straw, BE, Zimmerman, JJ, D'Allaire, S and Taylor, DJ (eds) Diseases of Swine, 9th edn. Ames IA: Iowa State Univrsity Press, pp. 833–860.Google Scholar
Knight, JW (1994). Aspects of placental estrogen synthesis in the pig. Experimental and Clinical Endocrinology and Diabetes 102: 175–184.Google Scholar
Kohl, S and Loo, LS (1980). Ontogeny of murine cellular cytotoxicity to herpes simplex virus-infected cells. Infection and Immunity 30: 847–850.Google Scholar
Kopinski, JS, Blaney, BJ, Downing, JA, McVeigh, JF and Murray, SA (2007). Feeding sorghum ergot (Claviceps africana) to sows before farrowing inhibits milk production. Australian Veterinary Journal 85: 169–176.Google Scholar
Koprowski, H, James, TR and Cox, HR (1946). Propagation of hog cholera virus in rabbits. Proceedings of the Society for Experimental Biology and Medicine 63: 178–183.Google Scholar
Kraeling, RR, Barb, CR and Rampacek, GB (1992). Prolactin and luteinizing hormone secretion in the pregnant pig. Journal of Animal Science 70: 3521–3527.Google Scholar
Kumura, H, Sone, T, Shimazaki, KI and Kobayashi, E (2000). Sequence analysis of porcine polymeric immunoglobulin receptor from mammary epithelial cells present in colostrum. Journal of Dairy Research 67: 631–636.Google Scholar
Kunitz, M (1947). Crystalline soybean trypsin inhibitor. The Journal of General Physiology 30: 291–310.Google Scholar
Labroue, F, Caugant, A, Ligonesche, B and Gaudré, D (2001). Etude de l’évolution des tétines d'apparence douteuse chez la cochette au cours de sa carrière. Journees De La Recherche Porcine En France 33: 143–150.Google Scholar
Ladnyi, ID (1964). Transplacental transmission of antitoxic immunity to tetanus. Bulletin of Experimental Biology and Medicine 57: 465–467.Google Scholar
Langel, SN, Paim, FC, Lager, KM, Vlasova, AN and Saif, LJ (2016). Lactogenic immunity and vaccines for porcine epidemic diarrhea virus (PEDV): historical and current concepts. Virus Research 226: 93–107.Google Scholar
Lapointe, L, D'Allaire, S, Lacouture, S and Gottschalk, M (2001). Serologic profile of a cohort of pigs and antibody response to an autogenous vaccine for Actinobacillus suis. Veterinary Research 32: 175–183.Google Scholar
Le Jan, C (1993). Secretory component and IgA expression by epithelial cells in sow mammary gland and mammary secretions. Research in Veterinary Science 55: 265–270.Google Scholar
Le Jan, C (1994). A study by flow cytometry of lymphocytes in sow colostrum. Research in Veterinary Science 57: 300–304.Google Scholar
Le Jan, C (1996). Cellular components of mammary secretions and neonatal immunity: a review. Veterinary Research 27: 403–417.Google Scholar
Leary, HL and Lecce, JG (1976). Uptake of macromolecules by enterocytes on transposed and isolated piglet small intestine. The Journal of Nutrition 106: 419–427.Google Scholar
Lee, CS, McCauley, I and Hartman, PE (1983). Light and electron microscopy of cells in pig colostrum milk and involution secretion. Cells Tissues Organs 117: 270–280.Google Scholar
Leiser, R and Kaufmann, P (1994). Placental structure: in a comparative aspect. Experimental and Clinical Endocrinology and Diabetes 102: 122–134.Google Scholar
Lindsay, DS, Blagburn, BL and Dubey, JP (1999). Coccidia and other protozoa. In: Straw, BE, D'Allaire, S, Mengeling, WL and Taylor, DJ (eds) Diseases of Swine, 8th edn. Ames IA: Iowa State University Press, pp. 655–667.Google Scholar
Longo, LD and Reynolds, LP (2009). Some historical aspects of understanding placental development structure and function. International Journal of Developmental Biology 54: 237–255.Google Scholar
Maeda, K and Frohman, LA (1978). Dissociation of systemic and central effects of neurotensin on the secretion of growth hormone prolactin and thyrotropin. Endocrinology 103: 1903–1909.Google Scholar
Maes, D, Verdonck, M, Deluyker, H and de Kruif, A (1996). Enzootic pneumonia in pigs. Veterinary Quarterly 18: 104–109.Google Scholar
Magnusson, U (1999). Longitudinal study of lymphocyte subsets and major histocompatibility complex-class II expressing cells in mammary glands of sows. American Journal of Veterinary Research 60: 546–548.Google Scholar
Magnusson, U, Rodriguez-Martinez, H and Einarsson, S (1991). A simple rapid method for differential cell counts in porcine mammary secretions. The Veterinary Record 129: 485–490.Google Scholar
Manthei, CA, Amerault, TE and Goode, ER (1958). Comparative efficacy of trypticase-soy and veal infusion broths for isolating Brucella abortus from the blood of cattle. Bulletin of the World Health Organization 19: 203.Google Scholar
Manthei, CA, Mingle, CK and Carter, RW (1952). Brucella suis infection in suckling and weanling pigs. Journal of the American Veterinary Medical Association 121: 456–464.Google Scholar
Martineau, GP, Farmer, C and Peltoniemi, O (2012). Mammary system. In: Zimmerman, JJ, Karriker, LA, Ramirez, A, Schwartz, KJ and Stevenson, GW (eds) Diseases of Swine, 10th edn. West Sussex, UK: Wiley-Blackwell, pp. 270–293.Google Scholar
McArthur, CL (1919). Transmissibility of immunity from mother to offspring in hog cholera. Journal of Infectious Diseases 24: 45–50.Google Scholar
McBryde, CN and Cole, CG (1936). Crystal violet vaccine for the prevention of hog cholera. JAVMA 89: 652–663.Google Scholar
McKeown, NE, Opriessnig, T, Thomas, P, Guenette, DK, Elvinger, F, Fenaux, M, Halbur, PG and Meng, XJ (2005). Effects of porcine circovirus type 2 (PCV2) maternal antibodies on experimental infection of piglets with PCV2. Clinical and Diagnostic Laboratory Immunology 12: 1347–1351.Google Scholar
McKhann, CF and Chu, FT (1933). Antibodies in placental extracts. The Journal of Infectious Diseases 52: 268–277.Google Scholar
McManaman, JL and Neville, MC (2003). Mammary physiology and milk secretion. Advanced Drug Delivery Reviews 55: 629–641.Google Scholar
Meng, XJ (2000). Heterogeneity of porcine reproductive and respiratory syndrome virus: implications for current vaccine efficacy and future vaccine development. Veterinary Microbiology 74: 309–329.Google Scholar
Merchant, IA (1940). Veterinary Bacteriology. Ames IA: The Iowa State College Press.Google Scholar
Mettenleiter, TC, Klupp, BG, Weiland, F and Visser, N (1994). Characterization of a quadruple glycoprotein-deleted pseudorabies virus mutant for use as a biologically safe live virus vaccine. Journal of General Virology 75: 1723–1733.Google Scholar
Miles, MC (2004). Investigation of Lipopolysaccharide Binding Protein in the Bovine Mammary Gland (Doctoral dissertation, University of Waikato).Google Scholar
Millar, BD, Chappel, RJ, Adler, B, Driesen, SJ and Jones, RT (1987). Effect of maternal vaccination on the susceptibility of growing pigs to leptospiral infection. Veterinary Microbiology 15: 79–87.Google Scholar
Moog, F (1979). Endocrine influences on the functional differentiation of the small intestine. Journal of Animal Science 49: 239–249.Google Scholar
Morris, CR, Gardner, IA, Hietala, SK, Carpenter, TE, Anderson, RJ and Parker, KM (1994). Persistence of passively acquired antibodies to Mycoplasma hyopneumoniae in a swine herd. Preventive Veterinary Medicine 21: 29–41.Google Scholar
Murata, H and Namioka, S (1977). The duration of colostral immunoglobulin uptake by the epithelium of the small intestine of neonatal piglets. Journal of Comparative Pathology 87: 431–439.Google Scholar
Nair, MP, Schwartz, SA, Slade, HB, Johnson, MZ, Quebbeman, JF and Beer, AE (1985). Comparison of the cellular cytotoxic activities of colostral lymphocytes and maternal peripheral blood lymphocytes. Journal of Reproductive Immunology 7: 199–213.Google Scholar
Nejsum, P, Thamsborg, SM, Petersen, HH, Kringel, H, Fredholm, M and Roepstorff, A (2009). Population dynamics of Trichuris suis in trickle-infected pigs. Parasitology 136: 691–697.Google Scholar
Neville, MC, McFadden, TB and Forsyth, I (2002). Hormonal regulation of mammary differentiation and milk secretion. Journal of Mammary Gland Biology and Neoplasia 7: 49–66.Google Scholar
Newby, TJ, Stokes, CR and Bourne, FJ (1982). Immunological activities of milk. Veterinary Immunology and Immunopathology 3: 67–94.Google Scholar
Oliveira, S, Galina, L, Blanco, I, Canals, A and Pijoan, C (2003). Naturally-farrowed artificially-reared pigs as an alternative model for experimental infection by Haemophilus parasuisI. Canadian Journal of Veterinary Research 67: 146–150.Google Scholar
Oliveira, S, Pijoan, C and Morrison, R (2004). Evaluation of Haemophilus parasuis control in the nursery using vaccination and controlled exposure. Journal of Swine Health and Production 12: 123–128.Google Scholar
Opriessnig, T, Hoffman, LJ, Harris, DL, Gaul, SB and Halbur, PG (2004). Erysipelothrix rhusiopathiae: genetic characterization of midwest US isolates and live commercial vaccines using pulsed-field gel electrophoresis. Journal of Veterinary Diagnostic Investigation 16: 101–107.Google Scholar
Opsteegh, M, Swart, A, Fonville, M, Dekkers, L and Van Der Giessen, J (2011). Age-related Toxoplasma gondii seroprevalence in Dutch wild boar inconsistent with lifelong persistence of antibodies. PLoS ONE 6(1): pe16240.Google Scholar
Otten, MA and van Egmond, M (2004). The Fc receptor for IgA (FcαRI CD89). Immunology Letters 92: 23–31.Google Scholar
Özkaragöz, F, Rudloff, HB, Rajaraman, S, Mushtaha, AA, Schmalstieg, FC and Goldman, AS (1988). The motility of human milk macrophages in collagen gels. Pediatric Research 23: 449–452.Google Scholar
Pácha, J (2000). Development of intestinal transport function in mammals. Physiological Reviews 80: 1633–1667.Google Scholar
Parrino, J and Graham, BS (2006). Smallpox vaccines: past present and future. Journal of Allergy and Clinical Immunology 118: 1320–1326.Google Scholar
Poonsuk, K, Giménez-Lirola, LG, Zhang, J, Arruda, P, Chen, Q, da Silva Carrion, LC, Magtoto, R, Pineyro, P, Sarmento, L, Wang, C, Sun, Y, Madson, D, Johnson, J, Yoon, KJ and Zimmerman, J (2016a). Does circulating antibody play a role in the protection of piglets against porcine epidemic diarrhea virus? PLoS ONE 11: e0153041.Google Scholar
Poonsuk, K, Zhang, J, Chen, Q, Gonzalez, W, da Silva Carrion, LC, Sun, Y, Ji, J, Wang, C, Main, R, Zimmerman, J and Giménez-Lirola, L (2016b). Quantifying the effect of lactogenic antibody on porcine epidemic diarrhea virus infection in neonatal piglets. Veterinary Microbiology 197: 83–92.Google Scholar
Porter, P (1969). Transfer of immunoglobulins IgG, IgA and IgM to lacteal secretions in the parturient sow and their absorption by the neonatal piglet. Biochimica et Biophysica Acta (BBA).-Protein Structure 181: 381–392.Google Scholar
Porter, P, Coley, J and Gani, M (1988). Immunochemical criteria for successful matching of monoclonal antibodies to immunoassays of peptide hormones for assessment of pregnancy and ovulation. Progress in Clinical and Biological Research 285: 181–200.Google Scholar
Riber, U, Heegaard, PM, Cordes, H, Ståhl, M, Jensen, TK and Jungersen, G (2015). Vaccination of pigs with attenuated Lawsonia intracellularis induced acute phase protein responses and primed cell-mediated immunity without reduction in bacterial shedding after challenge. Vaccine 33: 156–162.Google Scholar
Rooke, JA and Bland, IM (2002). The acquisition of passive immunity in the new-born piglet. Livestock Production Science 78: 13–23.Google Scholar
Roopenian, DC and Akilesh, S (2007). Fcrn: the neonatal Fc receptor comes of age. Nature Reviews Immunology 7: 715–725.Google Scholar
Rosato, R, Jammes, H, Belair, L, Puissant, C, Kraehenbuhl, JP and Djiane, J (1995). Polymeric-Ig receptor gene expression in rabbit mammary gland during pregnancy and lactation: evolution and hormonal regulation. Molecular and Cellular Endocrinology 110: 81–87.Google Scholar
Ruiz, AR, Utrera, V and Pijoan, C (2003). Effect of Mycoplasma hyopneumoniae sow vaccination on piglet colonization at weaning. Journal of Swine Health and Production 11: 131–135.Google Scholar
Saif, LJ (1990). A review of evidence implicating bovine coronavirus in the etiology of winter dysentery in cows: an enigma resolved? The Cornell Veterinarian 80: 303–311.Google Scholar
Saif, LJ (1999). Enteric viral infections of pigs and strategies for induction of mucosal immunity. Advances in Veterinary Medicine 41: 429–446.Google Scholar
Saif, LJ and Sestak, K (2006). Transmissible gastroenteritis and porcine respiratory coronaviruses. In: Straw, BE, Zimmerman, JJ, D'Allaire, S and Taylor, DJ (eds) Diseases of Swine, 9th edn. Ames IA: Iowa State Univrsity Press, pp. 489–508.Google Scholar
Saif, LJ, Bohl, EH and Gupta, RK (1972). Isolation of porcine immunoglobulins and determination of the immunoglobulin classes of transmissible gastroenteritis viral antibodies. Infection and Immunity 6: 600–609.Google Scholar
Saif, LJ, Pensaert, MB, Sestak, K, Yeo, SG and Jung, K (2012). Coronaviruses. In: Zimmerman, JJ, Karriker, LA, Ramirez, A, Schwartz, KJ and Stevenson, GW (eds) Diseases of Swine, 10th edn. West Sussex, UK: Wiley-Blackwell, pp. 501–524.Google Scholar
Salmon, H, Berri, M, Gerdts, V and Meurens, F (2009). Humoral and cellular factors of maternal immunity in swine. Developmental and Comparative Immunology 33: 384–393.Google Scholar
Salt, JS, Barnett, PV, Dani, P and Williams, L (1998). Emergency vaccination of pigs against foot-and-mouth disease: protection against disease and reduction in contact transmission. Vaccine 16: 746–754.Google Scholar
Sanchez, L, Calvo, M and Brock, JH (1992). Biological role of lactoferrin. Archives of Disease in Childhood 67: 657.Google Scholar
Scherer, WF, Moyer, JT and Izumi, T (1959). Immunologic studies of Japanese encephalitis virus in Japan, V. Maternal antibodies antibody responses and viremia following infection of swine. The Journal of Immunology 83: 620–626.Google Scholar
Schnulle, PM and Hurley, WL (2003). Sequence and expression of the FcRn in the porcine mammary gland. Veterinary Immunology and Immunopathology 91: 227–231.Google Scholar
Schollenberger, A, Degorski, A, Frymus, T and Schollenberger, A (1986). Cells of sow mammary secretions. Transboundary and Emerging Diseases 33: 31–38.Google Scholar
Sestak, K, Lanza, I, Park, SK, Weilnau, PA and Saif, LJ (1996). Contribution of passive immunity to porcine respiratory coronavirus to protection against transmissible gastroenteritis virus challenge exposure in suckling pigs. American Journal of Veterinary Research 57: 664–671.Google Scholar
Silverstein, AM (1989). Theories of acquired immunity. In: Silverstein, AM (ed.) A History of Immunology. Cambridge, MA: Academic Press, pp. 1–23.Google Scholar
Simpson-Morgan, MW and Smeaton, TC (1972). Transfer of antibodies by neonates and adults. Advances in Veterinary Science and Comparative Medicine 16: 355–386.Google Scholar
Sinkora, M and Butler, JE (2009). The ontogeny of the porcine immune system. Developmental and Comparative Immunology 33: 273–283.Google Scholar
Skidmore, DI (1927). Animal disease prevention through biologic products. In: Crawford, NA (ed.) Yearbook of Agriculture. Washington: Government Printing Office. pp. 96–98.Google Scholar
Smith, HV and Herbert, IV (1976). The passive transfer of humoral immunity from sows infected with Hyostrongylus rubidus (Hassal and Stiles 1892) the red stomach worm to their offspring and its significance in the conferring of protective immunity. Immunology 30: 213–219.Google Scholar
Smith, MW and Jarvis, LG (1978). Growth and cell replacement in the new-born pig intestine. Proceedings of the Royal Society of London B: Biological Sciences 203: 69–89.Google Scholar
Smith, T (1905). Degrees of susceptibility to diphtheria toxin among Guinea-pigs transmission from parents to offspring. Journal of Medical Research 13: 341–348.Google Scholar
Smith, T (1907). The degree and duration of passive immunity to diphtheria toxin transmitted by immunized female Guinea-pigs to their immediate offspring. Journal of Medical Research 16: 359–379.Google Scholar
Smith, T (1909). Active immunity produced by so called balanced or neutral mixtures of diphtheria toxin and antitoxin. The Journal of Experimental Medicine 11: 241–256.Google Scholar
Sørensen, MT, Sejrsen, K and Purup, S (2002). Mammary gland development in gilts. Livestock Production Science 75: 143–148.Google Scholar
Speer, VC, Brown, H, Quinn, L and Catron, DV (1959). The cessation of antibody absorption in the young pig. The Journal of Immunology 83: 632–634.Google Scholar
Spencer, TE and Bazer, FW (2004). Conceptus signals for establishment and maintenance of pregnancy. Reproductive Biology and Endocrinology 2: 49.Google Scholar
Sprong, RC, Hulstein, MF and Van der Meer, R (2001). Bactericidal activities of milk lipids. Antimicrobial Agents and Chemotherapy 45: 1298–1301.Google Scholar
Swanson, K, Gorodetsky, S, Good, L, Davis, S, Musgrave, D, Stelwagen, K, Farr, V and Molenaar, A (2004). Expression of a β-defensin mRNA lingual antimicrobial peptide in bovine mammary epithelial tissue is induced by mastitis. Infection and Immunity 72: 7311–7314.Google Scholar
Talker, SC, Käser, T, Reutner, K, Sedlak, C, Mair, KH, Koinig, H, Graage, R, Viehmann, M, Klingler, E, Ladinig, A and Ritzmann, M (2013). Phenotypic maturation of porcine NK-and T-cell subsets. Developmental and Comparative Immunology 40: 51–68.Google Scholar
Ten Broeck, C and Bauer, JH (1923). Studies on the relation of tetanus bacilli in the digestive tract to tetanus antitoxin in the blood. The Journal of Experimental Medicine 37: 479–489.Google Scholar
Tielen, MJ, van Exsel, AC, Brus, DH and Truijen, WT (1981). Aujeszky's disease: serological responsiveness after vaccination of 6–10-week-old piglets with maternal antibody (author's transl). Tijdschrift voor Diergeneeskunde 106: 739–747.Google Scholar
Tiselius, A (1937). Electrophoresis of serum globulin: electrophoretic analysis of normal and immune sera. Biochemical Journal 31: 1464.Google Scholar
Torremorell, M (1997). Vaccination against Streptococcus suis: effect on nursery mortality. Journal of Swine Health and Production 5: 139–143.Google Scholar
Tuboly, S and Bernath, S (2002). Intestinal absorption of colostral lymphoid cells in newborn animals. Advances in Experimental Medicine and Biology 503: 107–114.Google Scholar
Tuboly, S, Bernath, S, Glavits, R and Medveczky, I (1988). Intestinal absorption of colostral lymphoid cells in newborn piglets. Veterinary Immunology and Immunopathology 20: 75–85.Google Scholar
Tucker, HA (2000). Neuroendocrine regulation of lactation and milk ejection. In: Conn, PM and Freeman, ME (eds) Neuroendocrinology in Physiology and Medicine. New York: Springer, pp. 163–180.Google Scholar
Turner, W (1872). Observations on the structure of the human placenta. Journal of Anatomy and Physiology 7: 20–133.Google Scholar
Vaillancourt, JP, Martineau, GP, Lariviere, S, Higgins, R and Mittal, KR (1988). Serological follow-up in breeding herds infected with Actinobacillus pleuropneumoniae serotype 1 using the tube agglutination test with 2-mercaptoethanol. Preventive Veterinary Medicine 6: 263–274.Google Scholar
Vandeputte, J, Too, HL, Ng, FK, Chen, C, Chai, KK and Liao, GA (2001). Adsorption of colostral antibodies against classical swine fever persistence of maternal antibodies and effect on response to vaccination in baby pigs. American Journal of Veterinary Research 62: 1805–1811.Google Scholar
Vigre, H, Ersbøll, AK and Sørensen, V (2003). Decay of acquired colostral antibodies to Actinobacillus pleuropneumoniae in pigs. Journal of Veterinary Medicine Series B 50: 430–435.Google Scholar
Von Behring, E and Kitasato, S (1890a). Untersuchungen über das Zustandekommen der diphtherie-immunität bei thieren. Deutsche Medizinische Wochenschrift 16: 1145–1148.Google Scholar
Von Behring, E and Kitasato, S (1890b). Ueber das Zustandekommen der Diphtherie-immunität und der tetanus-immunität bei thieren. Deutsche Medizinische Wochenschrift 16: 1113.Google Scholar
Ward, LA, Rich, ED and Besser, TE (1996). Role of maternally derived circulating antibodies in protection of neonatal swine against porcine group A rotavirus. Journal of Infectious Diseases 174: 276–282.Google Scholar
Watson, DL (1980). Immunological functions of the mammary gland and its secretion – comparative review. Australian Journal of Biological Sciences 33: 403–422.Google Scholar
Weigel, RM, Lehman, JR, Herr, L and Hahn, EC (1995). Field trial to evaluate immunogenicity of a glycoprotein I (gE)-deleted pseudorabies virus vaccine after its administration in the presence of maternal antibodies. American Journal of Veterinary Research 56: 1155–1162.Google Scholar
Wieler, LH, Ilieff, A, Herbst, W, Bauer, C, Vieler, E, Bauerfeind, R, Failing, K, Klös, H, Wengert, D, Baljer, G and Zahner, H (2001). Prevalence of enteropathogens in suckling and weaned piglets with diarrhoea in southern Germany. Journal of Veterinary Medicine Series B 48: 151–159.Google Scholar
Wilcock, BP (1979). Experimental Klebsiella and Salmonella infection in neonatal swine. Canadian Journal of Comparative Medicine 43: 200–206.Google Scholar
Williams, PP (1993). Immunomodulating effects of intestinal absorbed maternal colostral leukocytes by neonatal pigs. Canadian Journal of Veterinary Research 57: 1–8.Google Scholar
Wilson, AD, Stokes, CR and Bourne, FJ (1989). Effect of age on absorption and immune responses to weaning or introduction of novel dietary antigens in pigs. Research in Veterinary Science 46: 180–186.Google Scholar
Wood, RL (1999). Erysipelas. In: Straw, BE, D'Allaire, S, Mengeling, ML and Taylor, DJ (eds.) Diseases of Swine, 8th ed. Ames: Iowa State University Press, pp. 419–430.Google Scholar
Wuryastuti, H, Stowe, HD, Bull, RW and Miller, ER (1993). Effects of vitamin E and selenium on immune responses of peripheral blood colostrum and milk leukocytes of sows. Journal of Animal Science 71: 2464–2472.Google Scholar
Zhai, S, Yue, C, Wei, Z, Long, J, Ran, D, Lin, T, Deng, Y, Huang, L, Sun, L, Zheng, H and Gao, F (2010). High prevalence of a novel porcine bocavirus in weanling piglets with respiratory tract symptoms in China. Archives of Virology 155: 1313–1317.Google Scholar
Zintl, A, Neville, D, Maguire, D, Fanning, S, Mulcahy, G, Smith, HV and De Waal, T (2007). Prevalence of Cryptosporidium species in intensively farmed pigs in Ireland. Parasitology 134: 1575–1582.Google Scholar