Bone marrow transplantation improves motor activity in a mouse model of ataxia

Ataxias are locomotor disorders that can have an origin both neural and muscular, although both impairments are related. Unfortunately, ataxia has no cure, and the current therapies are aimed at motor re‐education or muscular reinforcement. Nevertheless, cell therapy is becoming a promising approach...

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Veröffentlicht in:Journal of tissue engineering and regenerative medicine 2018-04, Vol.12 (4), p.e1950-e1961
Hauptverfasser: Díaz, David, Piquer‐Gil, Marina, Recio, Javier Sánchez, Martínez‐Losa, María Magdalena, Alonso, José Ramón, Weruaga, Eduardo, Álvarez‐Dolado, Manuel
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container_end_page e1961
container_issue 4
container_start_page e1950
container_title Journal of tissue engineering and regenerative medicine
container_volume 12
creator Díaz, David
Piquer‐Gil, Marina
Recio, Javier Sánchez
Martínez‐Losa, María Magdalena
Alonso, José Ramón
Weruaga, Eduardo
Álvarez‐Dolado, Manuel
description Ataxias are locomotor disorders that can have an origin both neural and muscular, although both impairments are related. Unfortunately, ataxia has no cure, and the current therapies are aimed at motor re‐education or muscular reinforcement. Nevertheless, cell therapy is becoming a promising approach to deal with incurable neural diseases, including neuromuscular ataxias. Here, we have used a model of ataxia, the Purkinje Cell Degeneration (PCD) mutant mouse, to study the effect of healthy (wild‐type) bone marrow transplantation on the restoration of defective mobility. Bone marrow transplants (from both mutant and healthy donors) were performed in wild‐type and PCD mice. Then, a wide battery of behavioural tests was employed to determine possible motor amelioration in mutants. Finally, cerebellum, spinal cord, and muscle were analysed to study the integration of the transplant‐derived cells and the origin of the behavioural changes. Our results demonstrated that the transplant of wild‐type bone marrow restores the mobility of PCD mice, increasing their capabilities of movement (52–100% of recovery), exploration (20–71% of recovery), speed (35% of recovery), and motor coordination (25% of recovery). Surprisingly, our results showed that bone marrow transplant notably improves the skeletal muscle structure, which is severely damaged in the mutants, rather than ameliorating the central nervous system. Although a multimodal effect of the transplant is not discarded, muscular improvements appear to be the basis of this motor recovery. Furthermore, the results from our study indicate that bone marrow stem cell therapy can be a safe and effective alternative for dealing with movement disorders such as ataxias.
doi_str_mv 10.1002/term.2626
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Unfortunately, ataxia has no cure, and the current therapies are aimed at motor re‐education or muscular reinforcement. Nevertheless, cell therapy is becoming a promising approach to deal with incurable neural diseases, including neuromuscular ataxias. Here, we have used a model of ataxia, the Purkinje Cell Degeneration (PCD) mutant mouse, to study the effect of healthy (wild‐type) bone marrow transplantation on the restoration of defective mobility. Bone marrow transplants (from both mutant and healthy donors) were performed in wild‐type and PCD mice. Then, a wide battery of behavioural tests was employed to determine possible motor amelioration in mutants. Finally, cerebellum, spinal cord, and muscle were analysed to study the integration of the transplant‐derived cells and the origin of the behavioural changes. Our results demonstrated that the transplant of wild‐type bone marrow restores the mobility of PCD mice, increasing their capabilities of movement (52–100% of recovery), exploration (20–71% of recovery), speed (35% of recovery), and motor coordination (25% of recovery). Surprisingly, our results showed that bone marrow transplant notably improves the skeletal muscle structure, which is severely damaged in the mutants, rather than ameliorating the central nervous system. Although a multimodal effect of the transplant is not discarded, muscular improvements appear to be the basis of this motor recovery. 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Our results demonstrated that the transplant of wild‐type bone marrow restores the mobility of PCD mice, increasing their capabilities of movement (52–100% of recovery), exploration (20–71% of recovery), speed (35% of recovery), and motor coordination (25% of recovery). Surprisingly, our results showed that bone marrow transplant notably improves the skeletal muscle structure, which is severely damaged in the mutants, rather than ameliorating the central nervous system. Although a multimodal effect of the transplant is not discarded, muscular improvements appear to be the basis of this motor recovery. 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source Wiley Online Library Journals Frontfile Complete
subjects Ataxia
Bone marrow
Bone marrow transplantation
Central nervous system
Cerebellum
Degeneration
Disorders
Exploration
Mice
Mobility
Motor activity
Movement disorders
muscle
Muscles
Mutants
PCD mouse
Recovery
Regenerative medicine
Restoration
Rodents
Skeletal muscle
Spinal cord
Stem cell transplantation
Stem cells
Structural damage
Therapy
Tissue engineering
Transplantation
Transplants
Transplants & implants
title Bone marrow transplantation improves motor activity in a mouse model of ataxia
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