B Cell Strategies of Ag Recognition in a Stratified Immune System

  • Belen de Andrés
  • Ana R. Sánchez-Archidona
  • Isabel Cortegano
  • Natalia Serrano
  • Sharmili Jagtap
  • María-Luisa Gaspar
  • Miguel-Angel Rodríguez Marcos


From the old good times in which pioneering immunologists were simply specialised in either T or B lymphocytes, to the current lymphoid complexities that powerful quantitative technologies have revealed, the adaptive immune system  has become a highly complicated subject of study. Also, as a part of the hematopoietic system, the lymphoid tissue is constituted by cells that undergo great turnover rates, with continuous renewal during an individual’s lifespan, extending from immature, bone marrow-derived precursors up to the final exhaustion of highly-differentiated cells. To exert their functions, B and T lymphocytes first need to recognise small molecular epitopes, through their highly diverse clonotypic receptors, with different degrees of specificity (the result of combinatorial gene rearrangements, with inexact joining ends). But lymphocytes also bear an evolutionary history that “informs” them about those more or less efficient receptor choices that previously influenced the survival of the species. Those cellular adjustments that were previously successful have remained preserved and are therefore preferentially exploited by the immune system (IS). Subsequently, immune strategies to “see” the antigenic world (self or foreign, harmless or dangerous) are balanced between an unrestricted openness to novelty (which has been named the promethean character of the IS [1]) and the evolutionary preservation of cellular activities and receptors that have already been tested and demonstrated their utility. In the following pages, we try to provide a few insights regarding when and where those functional polarisations are at work, with a special focus on B lymphocytes. We will leave out the differentiation steps and genetic programmes leading to the production of mature B lymphocytes, except in those selected cases when they may provide relevant information.


Plasma Cell Germinal Centre Class Switch Recombination Coelomic Cavity Homeostatic Proliferation 
These keywords were added by machine and not by the authors. This process is experimental and the keywords may be updated as the learning algorithm improves.


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This work was supported by grants SAF2007-65265, ISCIII05/2007, SAL0304-2006, BFU2006-14390/BMC, PI 08/0685, SAF 2009:12596, Fundación Mutua Madrileña and CSD2007-00015. The Centro de Biología Molecular receives institutional funding from Fundación Ramón Areces.


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Copyright information

© Springer Science+Business Media, LLC 2011

Authors and Affiliations

  • Belen de Andrés
    • 1
  • Ana R. Sánchez-Archidona
  • Isabel Cortegano
  • Natalia Serrano
  • Sharmili Jagtap
  • María-Luisa Gaspar
  • Miguel-Angel Rodríguez Marcos
  1. 1.Centro Nacional de MicrobiologíaISCIIIMadridSpain

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