Neural Regeneration Research (Jan 2015)
Phrenic nerve transfer to the musculocutaneous nerve for the repair of brachial plexus injury: electrophysiological characteristics
- Ying Liu,
- Xun-cheng Xu,
- Yi Zou,
- Su-rong Li,
- Bin Zhang,
- Yue Wang
Affiliations
- Ying Liu
- Xun-cheng Xu
- Yi Zou
- Su-rong Li
- Bin Zhang
- Yue Wang
- DOI
- https://doi.org/10.4103/1673-5374.152388
- Journal volume & issue
-
Vol. 10,
no. 2
pp. 328 – 333
Abstract
Phrenic nerve transfer is a major dynamic treatment used to repair brachial plexus root avulsion. We analyzed 72 relevant articles on phrenic nerve transfer to repair injured brachial plexus that were indexed by Science Citation Index. The keywords searched were brachial plexus injury, phrenic nerve, repair, surgery, protection, nerve transfer, and nerve graft. In addition, we performed neurophysiological analysis of the preoperative condition and prognosis of 10 patients undergoing ipsilateral phrenic nerve transfer to the musculocutaneous nerve in our hospital from 2008 to 201 3 and observed the electromyograms of the biceps brachii and motor conduction function of the musculocutaneous nerve. Clinically, approximately 28% of patients had brachial plexus injury combined with phrenic nerve injury, and injured phrenic nerve cannot be used as a nerve graft. After phrenic nerve transfer to the musculocutaneous nerve, the regenerated potentials first appeared at 3 months. Recovery of motor unit action potential occurred 6 months later and became more apparent at 12 months. The percent of patients recovering ′excellent′ and ′good′ muscle strength in the biceps brachii was 80% after 18 months. At 12 months after surgery, motor nerve conduction potential appeared in the musculocutaneous nerve in seven cases. These data suggest that preoperative evaluation of phrenic nerve function may help identify the most appropriate nerve graft in patients with an injured brachial plexus. The functional recovery of a transplanted nerve can be dynamically observed after the surgery.
Keywords
- Alzheimer′s disease
- amyloid-β
- astrocytes
- Ca 2+
- calcilytic
- calcium-sensing receptor
- nitromemantine
- NPS 2143
- α7-nicotinic acetylcholine receptor
- nerve regeneration
- spinal cord injury
- surgical decompression
- tumor necrosis factor α
- cell apoptosis
- neurological function
- neural regeneration
- nerve regeneration
- spinal cord injury
- contusion
- Nogo-A
- axon growth
- immunohistochemistry
- fluorescent quantitative PCR
- neural regeneration
- nerve regeneration
- spinal cord injury
- Schwann cells
- cell transplantation
- edaravone
- motor function
- electrophysiological function
- neural regeneration
- nerve regeneration
- electroacupuncture
- intervertebral disc
- blood circulation
- inflammation
- neuroprotection
- motor function
- neurons
- NSFC grants
- neural regeneration
- nerve regeneration
- astrocytoma
- mice
- immunodeficiency (BALB/c) mice
- Notch
- nestin
- glial fibrillary acidic protein
- CD133
- spinal cord
- brain
- MRI
- neural regeneration
- nerve regeneration
- earthquake
- peripheral nerve injury
- LSUHSC score
- compartment syndrome
- surgery therapy
- physiotherapy
- nerve decompression
- neural regeneration
- nerve regeneration
- brachial plexus injury
- human amniotic epithelial cells
- forepaw function
- stress relaxation
- creep
- viscoelasticity
- neural regeneration
- nerve regeneration
- peripheral nerve injury
- injection injury
- cyclosporine A
- penicillin G potassium
- Wallerian degeneration
- neuroelectrophysiology
- neural regeneration
- nerve regeneration
- Oenanthe javanica extract
- cell proliferation
- neuroblast differentiation
- brain-derived neurotrophic factor
- vascular endothelial growth factor
- rat
- neural regeneration
- nerve regeneration
- middle cerebral artery occlusion
- brain injury
- neurons
- astrocytes
- oligodendrocytes
- neural progenitor cells
- proliferation
- differentiation
- neurogenesis
- neural regeneration
- nerve regeneration
- cerebral ischemia
- point application
- Angong Niuhuang sticker
- brain injury
- neurological functions
- acupuncture
- traditional Chinese medicine
- NSFC grants
- neural regeneration
- nerve regeneration
- acupuncture
- neuroimaging
- resting-state functional magnetic resonance imaging
- Taichong (LR3)
- Taixi (KI3)
- amplitude of low-frequency fluctuation
- Brodmann area 11
- Brodmann area 18
- Brodmann area 19
- Brodmann area 44
- posterior lobe of the cerebellum
- neural regeneration
- nerve regeneration
- functional magnetic resonance imaging
- resting state
- task state
- brain network
- module division
- feature binding
- Fisher′s Z transform
- connectivity
- visual stimuli
- NSFC grants
- neural regeneration
- nerve regeneration
- polysaccharide from Spirulina platensis
- Parkinson′s disease
- MPTP
- dopaminergic neurons
- antioxidation
- neural regeneration
- nerve regeneration
- microRNA-9
- bone marrow mesenchymal stem cells
- differentiation
- neuron-like cells
- autophagy
- neuron specific enolase
- microtubule-associated protein
- LC3
- neural regeneration
- nerve regeneration
- lower limb apraxia
- supplementary motor area
- cerebral infarct
- transcranial magnetic stimulation
- corticospinal tract
- stroke
- neural regeneration
- nerve regeneration
- phrenic nerve
- brachial plexus injury
- nerve transfer
- nerve repair
- musculocutaneous nerve
- nerve function test
- bibliometrics
- neural regeneration