Immunological implications of pregnancy-induced microchimerism

Key Points The benefits of viviparity in placental mammals require dedicated immunological adaptations in mothers and offspring to avert maternal–fetal conflict during pregnancy. Given the dominant role that reproductive fitness has in driving positive refining selection, adaptations that enforce fe...

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Veröffentlicht in:Nature reviews. Immunology 2017-08, Vol.17 (8), p.483-494
Hauptverfasser: Kinder, Jeremy M., Stelzer, Ina A., Arck, Petra C., Way, Sing Sing
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Stelzer, Ina A.
Arck, Petra C.
Way, Sing Sing
description Key Points The benefits of viviparity in placental mammals require dedicated immunological adaptations in mothers and offspring to avert maternal–fetal conflict during pregnancy. Given the dominant role that reproductive fitness has in driving positive refining selection, adaptations that enforce fetal tolerance and promote maternal well-being are likely to be engrained in mammalian reproduction. Expanded systemic immune tolerance occurs in mothers, and allows the widespread seeding and persistence of genetically foreign fetal microchimeric cells in maternal tissues during pregnancy and after parturition. Genetically foreign maternal cells, which express non-inherited maternal antigens, are vertically transferred into offspring during pregnancy. These maternal microchimeric cells persist throughout postnatal development into adulthood, and sustain a persistent immunological tolerance to non-inherited maternal antigens in the offspring. The bidirectional transfer of genetically foreign cells between mothers and their offspring during pregnancy is probably not accidental. Instead, microchimeric cells that express familially relevant traits are purposefully retained to promote genetic fitness by improving the outcome of future pregnancies. Expanded immune tolerance to genetically foreign antigens expressed by microchimeric cells (the 'microchiome') extends how the immunological identity of individuals is defined beyond classical models of binary 'self' versus 'non-self' antigen discrimination to include an expanded repertoire of familially relevant 'extended-self' antigens. Despite a uniform agreement on the existence of microchimeric cells, little is currently known about their cellular identity, molecular phenotype and interactions with the immune system. Further study of the effects of microchimeric cells may not only reveal new approaches for improving the outcomes of pregnancy, but also for developing innovative therapeutic solutions to other immunological problems such as autoimmunity and transplantation. This Review discusses how genetically discordant microchimeric cells transferred between a mother and her offspring during pregnancy have important implications for definitions of immunological identity and tolerance. Immunological identity is traditionally defined by genetically encoded antigens, with equal maternal and paternal contributions as a result of Mendelian inheritance. However, vertically transferred maternal cells also persist in individua
doi_str_mv 10.1038/nri.2017.38
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Given the dominant role that reproductive fitness has in driving positive refining selection, adaptations that enforce fetal tolerance and promote maternal well-being are likely to be engrained in mammalian reproduction. Expanded systemic immune tolerance occurs in mothers, and allows the widespread seeding and persistence of genetically foreign fetal microchimeric cells in maternal tissues during pregnancy and after parturition. Genetically foreign maternal cells, which express non-inherited maternal antigens, are vertically transferred into offspring during pregnancy. These maternal microchimeric cells persist throughout postnatal development into adulthood, and sustain a persistent immunological tolerance to non-inherited maternal antigens in the offspring. The bidirectional transfer of genetically foreign cells between mothers and their offspring during pregnancy is probably not accidental. Instead, microchimeric cells that express familially relevant traits are purposefully retained to promote genetic fitness by improving the outcome of future pregnancies. Expanded immune tolerance to genetically foreign antigens expressed by microchimeric cells (the 'microchiome') extends how the immunological identity of individuals is defined beyond classical models of binary 'self' versus 'non-self' antigen discrimination to include an expanded repertoire of familially relevant 'extended-self' antigens. Despite a uniform agreement on the existence of microchimeric cells, little is currently known about their cellular identity, molecular phenotype and interactions with the immune system. Further study of the effects of microchimeric cells may not only reveal new approaches for improving the outcomes of pregnancy, but also for developing innovative therapeutic solutions to other immunological problems such as autoimmunity and transplantation. This Review discusses how genetically discordant microchimeric cells transferred between a mother and her offspring during pregnancy have important implications for definitions of immunological identity and tolerance. Immunological identity is traditionally defined by genetically encoded antigens, with equal maternal and paternal contributions as a result of Mendelian inheritance. However, vertically transferred maternal cells also persist in individuals at very low levels throughout postnatal development. Reciprocally, mothers are seeded during pregnancy with genetically foreign fetal cells that persist long after parturition. Recent findings suggest that these microchimeric cells expressing non-inherited, familially relevant antigenic traits are not accidental 'souvenirs' of pregnancy, but are purposefully retained within mothers and their offspring to promote genetic fitness by improving the outcome of future pregnancies. 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Immunology</title><addtitle>Nat Rev Immunol</addtitle><addtitle>Nat Rev Immunol</addtitle><description>Key Points The benefits of viviparity in placental mammals require dedicated immunological adaptations in mothers and offspring to avert maternal–fetal conflict during pregnancy. Given the dominant role that reproductive fitness has in driving positive refining selection, adaptations that enforce fetal tolerance and promote maternal well-being are likely to be engrained in mammalian reproduction. Expanded systemic immune tolerance occurs in mothers, and allows the widespread seeding and persistence of genetically foreign fetal microchimeric cells in maternal tissues during pregnancy and after parturition. Genetically foreign maternal cells, which express non-inherited maternal antigens, are vertically transferred into offspring during pregnancy. These maternal microchimeric cells persist throughout postnatal development into adulthood, and sustain a persistent immunological tolerance to non-inherited maternal antigens in the offspring. The bidirectional transfer of genetically foreign cells between mothers and their offspring during pregnancy is probably not accidental. Instead, microchimeric cells that express familially relevant traits are purposefully retained to promote genetic fitness by improving the outcome of future pregnancies. Expanded immune tolerance to genetically foreign antigens expressed by microchimeric cells (the 'microchiome') extends how the immunological identity of individuals is defined beyond classical models of binary 'self' versus 'non-self' antigen discrimination to include an expanded repertoire of familially relevant 'extended-self' antigens. Despite a uniform agreement on the existence of microchimeric cells, little is currently known about their cellular identity, molecular phenotype and interactions with the immune system. Further study of the effects of microchimeric cells may not only reveal new approaches for improving the outcomes of pregnancy, but also for developing innovative therapeutic solutions to other immunological problems such as autoimmunity and transplantation. This Review discusses how genetically discordant microchimeric cells transferred between a mother and her offspring during pregnancy have important implications for definitions of immunological identity and tolerance. Immunological identity is traditionally defined by genetically encoded antigens, with equal maternal and paternal contributions as a result of Mendelian inheritance. However, vertically transferred maternal cells also persist in individuals at very low levels throughout postnatal development. Reciprocally, mothers are seeded during pregnancy with genetically foreign fetal cells that persist long after parturition. Recent findings suggest that these microchimeric cells expressing non-inherited, familially relevant antigenic traits are not accidental 'souvenirs' of pregnancy, but are purposefully retained within mothers and their offspring to promote genetic fitness by improving the outcome of future pregnancies. 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Immunology</jtitle></facets><delivery><delcategory>Remote Search Resource</delcategory><fulltext>fulltext</fulltext></delivery><addata><au>Kinder, Jeremy M.</au><au>Stelzer, Ina A.</au><au>Arck, Petra C.</au><au>Way, Sing Sing</au><format>journal</format><genre>article</genre><ristype>JOUR</ristype><atitle>Immunological implications of pregnancy-induced microchimerism</atitle><jtitle>Nature reviews. Immunology</jtitle><stitle>Nat Rev Immunol</stitle><addtitle>Nat Rev Immunol</addtitle><date>2017-08-01</date><risdate>2017</risdate><volume>17</volume><issue>8</issue><spage>483</spage><epage>494</epage><pages>483-494</pages><issn>1474-1733</issn><eissn>1474-1741</eissn><abstract>Key Points The benefits of viviparity in placental mammals require dedicated immunological adaptations in mothers and offspring to avert maternal–fetal conflict during pregnancy. Given the dominant role that reproductive fitness has in driving positive refining selection, adaptations that enforce fetal tolerance and promote maternal well-being are likely to be engrained in mammalian reproduction. Expanded systemic immune tolerance occurs in mothers, and allows the widespread seeding and persistence of genetically foreign fetal microchimeric cells in maternal tissues during pregnancy and after parturition. Genetically foreign maternal cells, which express non-inherited maternal antigens, are vertically transferred into offspring during pregnancy. These maternal microchimeric cells persist throughout postnatal development into adulthood, and sustain a persistent immunological tolerance to non-inherited maternal antigens in the offspring. The bidirectional transfer of genetically foreign cells between mothers and their offspring during pregnancy is probably not accidental. Instead, microchimeric cells that express familially relevant traits are purposefully retained to promote genetic fitness by improving the outcome of future pregnancies. Expanded immune tolerance to genetically foreign antigens expressed by microchimeric cells (the 'microchiome') extends how the immunological identity of individuals is defined beyond classical models of binary 'self' versus 'non-self' antigen discrimination to include an expanded repertoire of familially relevant 'extended-self' antigens. Despite a uniform agreement on the existence of microchimeric cells, little is currently known about their cellular identity, molecular phenotype and interactions with the immune system. Further study of the effects of microchimeric cells may not only reveal new approaches for improving the outcomes of pregnancy, but also for developing innovative therapeutic solutions to other immunological problems such as autoimmunity and transplantation. 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subjects 631/250/2152/569
631/443/494
Animals
Antigens
Autoimmunity
Biodiversity
Biological activity
Biomedicine
Chimerism
Dosage and administration
Female
Fetus - cytology
Fetus - immunology
Fetuses
Genetic code
Health aspects
Humans
Immune System - cytology
Immune Tolerance
Immunity, Maternally-Acquired
Immunologic Memory
Immunology
Immunosuppressive agents
Maternal-Fetal Exchange
Microchimerism
Offspring
Parturition
Pregnancy
Pregnancy - immunology
Pregnant women
Reproductive fitness
review-article
T-Lymphocytes - immunology
title Immunological implications of pregnancy-induced microchimerism
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