2004
DOI: 10.1046/j.0818-9641.2004.01229.x
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Some Scaling Principles for the Immune System

Abstract: Summary Using recent progress in biological scaling, we explore the way in which the immune system of an animal scales with its mass ( M ). It is shown that the number of cells in a single clone of B cells should scale as M and that the B-cell repertoire scales as ln ( cM ), where c is a constant. The time that a B cell needs to circulate once through the organism is shown to scale as M 1/4 ln ( cM ). It is suggested that the scaling of other cell populations in the immune system could be derived from these sc… Show more

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Cited by 64 publications
(92 citation statements)
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“…Cells of the immune system have privileged metabolism [22], i.e. they have access to more metabolic energy than other cells adjusted for body size.…”
Section: Privileged Role Of the Immune Systemmentioning
confidence: 99%
“…Cells of the immune system have privileged metabolism [22], i.e. they have access to more metabolic energy than other cells adjusted for body size.…”
Section: Privileged Role Of the Immune Systemmentioning
confidence: 99%
“…Our work is based on the evolution of a multi-strain model of HIV-1 dynamics, first appearing in (Sguanci et al, 2007), which takes into account the models developed by Perelson and his followers (Chao et al, 2004;Ho et al, 1995;Perelson et al, 1996;Wiegel and Perelson, 2004). These models are well presented and take specific biological reality into account.…”
Section: The Deterministic Modelmentioning
confidence: 99%
“…The use of computational system biology models in immunology has been very successful and has represented an insightful and essential complement to in-vivo and in-vitro experimental design and interpretation. Indeed computational system biology models of HIV dynamics have proven valuable in understanding the mechanisms of many of the observed features of the progression of the HIV infection, see for example (Celada and Seiden, 1996;Chao et al, 2004;De Boer and Perelson, 1995;Ho et al, 1995;Perelson et al, 1996;Wei et al, 1995;Wiegel and Perelson, 2004;Wodarz and Nowak, 2002).…”
Section: Introductionmentioning
confidence: 99%
“…Other properties such as the lifespan of an animal or the number of certain cell types have also been found to depend on body size (Peters, 1983;Schmidt-Nielsen, 1984;Calder, 1996;Savage et al, 2007). In host-pathogen systems, the following three aspects could underlie allometric scaling laws (Wiegel and Perelson, 2004;Cable et al, 2007;Banerjee and Moses, 2010). First, the metabolic rate will affect the rate at which cells synthesize DNA and proteins and could therefore influence the replication rate of viruses.…”
mentioning
confidence: 99%
“…In the case of T cell responses, Wiegel and Perelson (2004) derived some general principles on how the number of naive T cells scales with body size. Lymphocyte trafficking, i.e., the circulation of T cells through blood, tissues and the lymphatic system in order to recognize antigen and eliminate virus-infected cells, has also been suggested to underlie general scaling laws (Perelson and Wiegel, 2009).…”
mentioning
confidence: 99%