BACKGROUND: Severe traumatic brain injury (TBI) in children is associated with substantial long-term morbidity and mortality. Currently, there are no successful neuroprotective/neuroreparative treatments for TBI. Numerous preclinical studies suggest that bone marrow-derived mononuclear cells (BMMNCs), their derivative cells (marrow stromal cells), or similar cells (umbilical cord blood cells) offer neuroprotection. OBJECTIVE: To determine whether autologous BMMNCs are a safe treatment for severe TBI in children. METHODS: Ten children aged 5 to 14 years with a postresuscitation Glasgow Coma Scale of 5 to 8 were treated with 6×10 autologous BMMNCs/kg body weight delivered intravenously within 48 hours after TBI. To determine the safety of the procedure, systemic and cerebral hemodynamics were monitored during bone marrow harvest; infusion-related toxicity was determined by pediatric logistic organ dysfunction (PELOD) scores, hepatic enzymes, Murray lung injury scores, and renal function. Conventional magnetic resonance imaging (cMRI) data were obtained at 1 and 6 months postinjury, as were neuropsychological and functional outcome measures. RESULTS: All patients survived. There were no episodes of harvest-related depression of systemic or cerebral hemodynamics. There was no detectable infusion-related toxicity as determined by PELOD score, hepatic enzymes, Murray lung injury scores, or renal function. cMRI imaging comparing gray matter, white matter, and CSF volumes showed no reduction from 1 to 6 months postinjury. Dichotomized Glasgow Outcome Score at 6 months showed 70% with good outcomes and 30% with moderate to severe disability. CONCLUSION: Bone marrow harvest and intravenous mononuclear cell infusion as treatment for severe TBI in children is logistically feasible and safe.
BACKGROUND: Severe traumatic brain injury (TBI) in children is associated with substantial long-term morbidity and mortality. Currently, there are no successful neuroprotective/neuroreparative treatments for TBI. Numerous preclinical studies suggest that bone marrow-derived mononuclear cells (BMMNCs), their derivative cells (marrow stromal cells), or similar cells (umbilical cord blood cells) offer neuroprotection. OBJECTIVE: To determine whether autologous BMMNCs are a safe treatment for severe TBI in children. METHODS: Ten children aged 5 to 14 years with a postresuscitation Glasgow Coma Scale of 5 to 8 were treated with 6×10 autologous BMMNCs/kg body weight delivered intravenously within 48 hours after TBI. To determine the safety of the procedure, systemic and cerebral hemodynamics were monitored during bone marrow harvest; infusion-related toxicity was determined by pediatric logistic organ dysfunction (PELOD) scores, hepatic enzymes, Murray lung injury scores, and renal function. Conventional magnetic resonance imaging (cMRI) data were obtained at 1 and 6 months postinjury, as were neuropsychological and functional outcome measures. RESULTS: All patients survived. There were no episodes of harvest-related depression of systemic or cerebral hemodynamics. There was no detectable infusion-related toxicity as determined by PELOD score, hepatic enzymes, Murray lung injury scores, or renal function. cMRI imaging comparing gray matter, white matter, and CSF volumes showed no reduction from 1 to 6 months postinjury. Dichotomized Glasgow Outcome Score at 6 months showed 70% with good outcomes and 30% with moderate to severe disability. CONCLUSION: Bone marrow harvest and intravenous mononuclear cell infusion as treatment for severe TBI in children is logistically feasible and safe.
Authors: Deborah Wood; Robin Wesselschmidt; Peiman Hematti; Adrian P Gee; Cliona Rooney; Leslie Silberstein; Myriam Armant; Larry Couture; John E Wagner; David H McKenna; Derek Hei; Traci Heath Mondoro; Lisbeth Welniak; Robert Lindblad Journal: Clin Transl Sci Date: 2014-03-21 Impact factor: 4.689
Authors: Miguel F Diaz; Abishek B Vaidya; Siobahn M Evans; Hyun J Lee; Benjamin M Aertker; Alexander J Alexander; Katherine M Price; Joyce A Ozuna; George P Liao; Kevin R Aroom; Hasen Xue; Liang Gu; Rui Omichi; Supinder Bedi; Scott D Olson; Charles S Cox; Pamela L Wenzel Journal: Stem Cells Date: 2017-03-05 Impact factor: 6.277
Authors: George P Liao; Matthew T Harting; Robert A Hetz; Peter A Walker; Shinil K Shah; Christopher J Corkins; Travis G Hughes; Fernando Jimenez; Steven C Kosmach; Mary-Clare Day; KuoJen Tsao; Dean A Lee; Laura L Worth; James E Baumgartner; Charles S Cox Journal: Pediatr Crit Care Med Date: 2015-03 Impact factor: 3.624
Authors: Peter A Walker; Matthew T Harting; Shinil K Shah; Mary-Clare Day; Ramy El Khoury; Sean I Savitz; James Baumgartner; Charles S Cox Journal: Stem Cells Int Date: 2010-07-20 Impact factor: 5.443
Authors: Shenandoah Robinson; Jacqueline B Berglass; Jesse L Denson; Justin Berkner; Christopher V Anstine; Jesse L Winer; Jessie R Maxwell; Jianhua Qiu; Yirong Yang; Laurel O Sillerud; William P Meehan; Rebekah Mannix; Lauren L Jantzie Journal: J Neurosci Res Date: 2016-07-25 Impact factor: 4.164
Authors: Supinder S Bedi; Robert Hetz; Chelsea Thomas; Philippa Smith; Alex B Olsen; Stephen Williams; Hasen Xue; Kevin Aroom; Karen Uray; Jason Hamilton; Robert W Mays; Charles S Cox Journal: Stem Cells Transl Med Date: 2013-11-04 Impact factor: 6.940