Insights into thymic aging and regeneration

The deterioration of the immune system with progressive aging is believed to contribute to morbidity and mortality in elderly humans due to the increased incidence of infection, autoimmunity, and cancer. Dysregulation of T‐cell function is thought to play a critical part in these processes. One of t...

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Published inImmunological reviews Vol. 205; no. 1; pp. 72 - 93
Main Authors Taub, Dennis D., Longo, Dan L.
Format Journal Article
LanguageEnglish
Published Oxford, UK; Malden, USA Munksgaard International Publishers 01.06.2005
Subjects
Online AccessGet full text
ISSN0105-2896
1600-065X
DOI10.1111/j.0105-2896.2005.00275.x

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Abstract The deterioration of the immune system with progressive aging is believed to contribute to morbidity and mortality in elderly humans due to the increased incidence of infection, autoimmunity, and cancer. Dysregulation of T‐cell function is thought to play a critical part in these processes. One of the consequences of an aging immune system is the process termed thymic involution, where the thymus undergoes a progressive reduction in size due to profound changes in its anatomy associated with loss of thymic epithelial cells and a decrease in thymopoiesis. This decline in the output of newly developed T cells results in diminished numbers of circulating naïve T cells and impaired cell‐mediated immunity. A number of theories have been forwarded to explain this ‘thymic menopause’ including the possible loss of thymic progenitors or epithelial cells, a diminished capacity to rearrange T‐cell receptor genes and alterations in the production of growth factors and hormones. Although to date no interventions fully restore thymic function in the aging host, systemic administration of various cytokines and hormones or bone marrow transplantation have resulted in increased thymic activity and T‐cell output with age. In this review, we shall examine the current literature on thymic involution and discuss several interventional strategies currently being explored to restore thymic function in elderly subjects.
AbstractList The deterioration of the immune system with progressive aging is believed to contribute to morbidity and mortality in elderly humans due to the increased incidence of infection, autoimmunity, and cancer. Dysregulation of T- cell function is thought to play a critical part in these processes. One of the consequences of an aging immune system is the process termed thymic involution, where the thymus undergoes a progressive reduction in size due to profound changes in its anatomy associated with loss of thymic epithelial cells and a decrease in thymopoiesis. This decline in the output of newly developed T cells results in diminished numbers of circulating naive T cells and impaired cell- mediated immunity. A number of theories have been forwarded to explain this 'thymic menopause' including the possible loss of thymic progenitors or epithelial cells, a diminished capacity to rearrange T-cell receptor genes and alterations in the production of growth factors and hormones. Although to date no interventions fully restore thymic function in the aging host, systemic administration of various cytokines and hormones or bone marrow transplantation have resulted in increased thymic activity and T-cell output with age. In this review, we shall examine the current literature on thymic involution and discuss several interventional strategies currently being explored to restore thymic function in elderly subjects.
The deterioration of the immune system with progressive aging is believed to contribute to morbidity and mortality in elderly humans due to the increased incidence of infection, autoimmunity, and cancer. Dysregulation of T-cell function is thought to play a critical part in these processes. One of the consequences of an aging immune system is the process termed thymic involution, where the thymus undergoes a progressive reduction in size due to profound changes in its anatomy associated with loss of thymic epithelial cells and a decrease in thymopoiesis. This decline in the output of newly developed T cells results in diminished numbers of circulating naive T cells and impaired cell-mediated immunity. A number of theories have been forwarded to explain this 'thymic menopause' including the possible loss of thymic progenitors or epithelial cells, a diminished capacity to rearrange T-cell receptor genes and alterations in the production of growth factors and hormones. Although to date no interventions fully restore thymic function in the aging host, systemic administration of various cytokines and hormones or bone marrow transplantation have resulted in increased thymic activity and T-cell output with age. In this review, we shall examine the current literature on thymic involution and discuss several interventional strategies currently being explored to restore thymic function in elderly subjects.The deterioration of the immune system with progressive aging is believed to contribute to morbidity and mortality in elderly humans due to the increased incidence of infection, autoimmunity, and cancer. Dysregulation of T-cell function is thought to play a critical part in these processes. One of the consequences of an aging immune system is the process termed thymic involution, where the thymus undergoes a progressive reduction in size due to profound changes in its anatomy associated with loss of thymic epithelial cells and a decrease in thymopoiesis. This decline in the output of newly developed T cells results in diminished numbers of circulating naive T cells and impaired cell-mediated immunity. A number of theories have been forwarded to explain this 'thymic menopause' including the possible loss of thymic progenitors or epithelial cells, a diminished capacity to rearrange T-cell receptor genes and alterations in the production of growth factors and hormones. Although to date no interventions fully restore thymic function in the aging host, systemic administration of various cytokines and hormones or bone marrow transplantation have resulted in increased thymic activity and T-cell output with age. In this review, we shall examine the current literature on thymic involution and discuss several interventional strategies currently being explored to restore thymic function in elderly subjects.
The deterioration of the immune system with progressive aging is believed to contribute to morbidity and mortality in elderly humans due to the increased incidence of infection, autoimmunity, and cancer. Dysregulation of T‐cell function is thought to play a critical part in these processes. One of the consequences of an aging immune system is the process termed thymic involution, where the thymus undergoes a progressive reduction in size due to profound changes in its anatomy associated with loss of thymic epithelial cells and a decrease in thymopoiesis. This decline in the output of newly developed T cells results in diminished numbers of circulating naïve T cells and impaired cell‐mediated immunity. A number of theories have been forwarded to explain this ‘thymic menopause’ including the possible loss of thymic progenitors or epithelial cells, a diminished capacity to rearrange T‐cell receptor genes and alterations in the production of growth factors and hormones. Although to date no interventions fully restore thymic function in the aging host, systemic administration of various cytokines and hormones or bone marrow transplantation have resulted in increased thymic activity and T‐cell output with age. In this review, we shall examine the current literature on thymic involution and discuss several interventional strategies currently being explored to restore thymic function in elderly subjects.
Author Longo, Dan L.
Taub, Dennis D.
Author_xml – sequence: 1
  givenname: Dennis D.
  surname: Taub
  fullname: Taub, Dennis D.
  organization: Laboratory of Immunology, National Institute on Aging, National Institutes of Health, Baltimore, MD, USA
– sequence: 2
  givenname: Dan L.
  surname: Longo
  fullname: Longo, Dan L.
  email: longod@grc.nia.nih.gov
  organization: Laboratory of Immunology, National Institute on Aging, National Institutes of Health, Baltimore, MD, USA
BackLink https://www.ncbi.nlm.nih.gov/pubmed/15882346$$D View this record in MEDLINE/PubMed
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1997; 278
2002; 16
1997; 158
1991; 18
2002; 14
2004; 20
2002; 18
2002; 19
1986; 75
1997; 272
2004; 8
2002; 13
2004; 24
2002; 99
1999; 285
2004; 4
1996; 381
1999; 163
2001; 49
2004; 1
1996; 383
1985; 22
1998; 396
2003; 278
2001; 47
1989; 47
1992; 6
1998; 16
1998; 18
2000; 18
1990; 45
1987; 40
1986; 83
2002; 143
2000; 12
1981; 158
1986; 100
2004; 173
2000; 96
2003; 295A
1998; 840
1997; 390
1994; 70
1981; 76
1994; 75
2004; 1019
1993; 48
1997; 179
2001; 166
2004; 145
1996; 17
1986; 110
1999; 190
2000; 114
2000; 115
2000; 68
2002; 8
1992; 148
1993; 41
1992; 149
2003; 35
2002; 2
1999; 21
1999; 103
1998; 139
1992; 38
2001; 22
1995; 1
1999; 104
2003; 33
1995; 7
2003; 109
1997; 160
1997; 32
1989; 125
2004; 59
2002; 123
2003; 58A
2003; 24
1994; 13
1996; 111
1999; 31
1994; 15
1992; 22
1998; 76
2003; 21
2001; 32
1998; 8
1997; 80
1993; 67
1991; 57
1987; 70
1986; 33
1991; 52
1997; 89
2000; 7
2000; 2
1992; 14
1995; 332
1999; 84
1981; 44
1990; 261
1997; 90
2001; 212
1997; 95
1976; 152
1997; 11
1991; 46
1984; 16
1997; 96
1994; 180
1997; 15
2002; 189
1999; 11
2003; 4
1999; 10
2000; 164
1999; 96
1998; 52
1996; 24
1992; 89
1998; 53
2001; 97
1993; 178
2001; 98
2002; 38
1998; 28
2002; 37
1995; 16
1995; 15
1995; 13
2000; 21
1997; 69
2002; 32
2000; 20
1999; 140
1993; 261
2004
2003
1993; 268
1999; 6
1991; 9
2003; 134
2001; 125
1994; 40
1987; 18
1993; 14
2004; 11
1995; 82
2004; 114
2000; 301
2000; 31
2003; 68
1999; 274
1996; 275
1996; 273
1998; 187
1980; 284
2003; 62
2001; 79
1996; 157
1996; 156
2003; 63
1995; 182
2003; 144
2001; 235
1995; 181
e_1_2_11_70_2
e_1_2_11_182_2
e_1_2_11_186_2
e_1_2_11_55_2
e_1_2_11_78_2
e_1_2_11_13_2
Louria DB (e_1_2_11_3_2) 1993; 48
e_1_2_11_51_2
e_1_2_11_32_2
e_1_2_11_74_2
e_1_2_11_102_2
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Snippet The deterioration of the immune system with progressive aging is believed to contribute to morbidity and mortality in elderly humans due to the increased...
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SubjectTerms Adipocytes - cytology
Adipocytes - metabolism
Aging - immunology
Aging - pathology
Animals
Gene Expression Profiling
Humans
Regeneration - drug effects
T-Lymphocytes - cytology
T-Lymphocytes - immunology
Thymus Gland - cytology
Thymus Gland - growth & development
Thymus Gland - immunology
Thymus Gland - pathology
Title Insights into thymic aging and regeneration
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https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fj.0105-2896.2005.00275.x
https://www.ncbi.nlm.nih.gov/pubmed/15882346
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https://www.proquest.com/docview/67812952
Volume 205
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