Publication | Open Access
Young adult donor bone marrow infusions into female mice postpone age-related reproductive failure and improve offspring survival
62
Citations
38
References
2008
Year
FertilityReproductive HealthImmunologyGynecologyCell Replacement TherapyStem Cell DeliveryFemale Reproductive FunctionOvarian AgingBone Marrow FailureFemale InfertilityStem Cell MobilizationStem Cell TransplantationHematologyBone MarrowReproductive MedicinePublic HealthCell TransplantationInfertilityProductive AgingEndocrinologyCell BiologyHuman ReproductionDevelopmental BiologyOogenesisCellular SenescenceMedicineFemale Reproductive Axis
The female reproductive axis is the first major organ system of the body to fail with advancing age. In addition to a permanent cessation of fertile potential, the loss of cyclic ovarian function in humans heralds the onset of menopause, which in turn underlies the emergence of a diverse spectrum of health issues in aging women. Recently, it was reported that bone marrow (BM) transplantation (BMT) into adult female mice conditioned a week earlier with highly cytotoxic drugs rescues ovarian function and fertility. Herein we show in mice receiving no prior conditioning regimen that once-monthly infusions of BM-derived cells retrieved from young adult female donors bearing an enhanced green fluorescent protein (EGFP) transgene sustain the fertile potential of aging wild-type females long past their time of normal reproductive senescence. The fertility-promoting effects of female donor BM are observed regardless whether the infusions are initiated in young adult or middle-aged females. Although the mechanism by which BM infusions benefit the reproductive performance of aging females remains to be elucidated, the absence of EGFP-expressing offspring suggests that it does not depend on development of mature eggs derived from germline-committed cells in the donor marrow. However, donor BM-derived somatic cells accumulate in the recipients, indicating efficient donor cell engraftment without prior conditioning. These findings provide a strong impetus to further explore development of adult stem cell-based technologies to safely extend function of the female reproductive axis into advanced age without the need for toxic pre-conditioning protocols routinely used in other models of stem cell delivery.
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