Researchers in Oxford University’s Department of Human Anatomy have identified a factor involved in the regeneration of neurons in the central nervous system. The discovery and use of this factor could provide the basis for a reparative treatment for both brain and spinal cord injuries.
Unlike lower vertebrates, mammals have lost the ability to repair damage to the brain and spinal cord. Since peripheral nerves are capable of repair, this is thought to be not so much an intrinsic inability of central nervous system (CNS) tissue to repair itself, but rather an environment in the CNS that is hostile to regeneration. This inhibition of neuronal regeneration is a result of a number of factors including axotomy-induced cell death, a gliotic scar that provides a physical barrier to regeneration as well as an environment that is inhibitory to growth. A number of strategies have been employed in the past to overcome this inhibition, including: blocking apoptosis, stem cell therapy, grafting of peripheral nervous system (PNS) cells and delivery of neurotrophic factors. However, the results of these animal studies have been controversial with regard to their claims of significant functional recovery.
Following a great deal of work on the action of Schwann cell conditioned medium (SCCM), which previous research has shown to support the re-growth of neuronal cells, the Oxford inventors have now identified a factor that is responsible for stimulation of neuronal re-growth and have demonstrated its effectiveness for both peripheral and central nervous system neurons. Use of this factor or its analogues may provide the basis for a reparative treatment for brain and spinal cord injury.
Jennifer Johnson | alfa
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Researchers from the Institute for Quantum Computing (IQC) at the University of Waterloo led the development of a new extensible wiring technique capable of controlling superconducting quantum bits, representing a significant step towards to the realization of a scalable quantum computer.
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