1.Lumbar burner and stinger syndrome in an elderly athlete
Veronika WEGENER ; Axel STÄBLER ; Volkmar JANSSON ; Christof BIRKENMAIER ; Bernd WEGENER
The Korean Journal of Pain 2018;31(1):54-57
		                        		
		                        			
		                        			Burner or stinger syndrome is a rare sports injury caused by direct or indirect trauma during high-speed or contact sports mainly in young athletes. It affects peripheral nerves, plexus trunks or spinal nerve roots, causing paralysis, paresthesia and pain. We report the case of a 57-year-old male athlete suffering from burner syndrome related to a lumbar nerve root. He presented with prolonged pain and partial paralysis of the right leg after a skewed landing during the long jump. He was initially misdiagnosed since the first magnet resonance imaging was normal whereas electromyography showed denervation. The insurance company refused to pay damage claims. Partial recovery was achieved by pain medication and physiotherapy. Burner syndrome is an injury of physically active individuals of any age and may appear in the cervical and lumbar area. MRI may be normal due to the lack of complete nerve transection, but electromyography typically shows pathologic results.
		                        		
		                        		
		                        		
		                        			Aged
		                        			;
		                        		
		                        			Athletes
		                        			;
		                        		
		                        			Athletic Injuries
		                        			;
		                        		
		                        			Denervation
		                        			;
		                        		
		                        			Electromyography
		                        			;
		                        		
		                        			Humans
		                        			;
		                        		
		                        			Insurance
		                        			;
		                        		
		                        			Leg
		                        			;
		                        		
		                        			Lumbar Vertebrae
		                        			;
		                        		
		                        			Magnetic Resonance Imaging
		                        			;
		                        		
		                        			Male
		                        			;
		                        		
		                        			Middle Aged
		                        			;
		                        		
		                        			Neuralgia
		                        			;
		                        		
		                        			Paralysis
		                        			;
		                        		
		                        			Paresthesia
		                        			;
		                        		
		                        			Peripheral Nerves
		                        			;
		                        		
		                        			Spinal Nerve Roots
		                        			;
		                        		
		                        			Spine
		                        			;
		                        		
		                        			Sports
		                        			
		                        		
		                        	
2.Vascular Endothelial Growth Factor Enhances Axonal Outgrowth in Organotypic Spinal Cord Slices via Vascular Endothelial Growth Factor Receptor 1 and 2.
Hwan Woo PARK ; Hyo Jin JEON ; Mi Sook CHANG
Tissue Engineering and Regenerative Medicine 2016;13(5):601-609
		                        		
		                        			
		                        			Enhancing adult nerve regeneration is a potential therapeutic strategy for treating spinal cord injury. Vascular endothelial growth factor (VEGF) is a major contributor to angiogenesis, which can reduce the spinal cord injury by inhibiting the inflammation and improve recovery after spinal cord injury. We have previously demonstrated that exogenous VEGF has neurotrophic effects on injured spinal nerves in organotypic spinal cord slice cultures. However, the mechanisms underlying the neurite growth by exogenous VEGF remain to be explored in spinal cord. In this study, we found out that exogenous VEGF mediated axonal outgrowth through VEGF receptor 1 (VEGFR1) and VEGFR2, both of which were expressed on organotypic spinal cord slices. Although VEGFR1 and VEGFR2 were constitutively expressed in some cells of control spinal cord slices, VEGF treatment upregulated expression of VEGFR1 and VEGFR2. Both VEGFR1 and VEGFR2 were expressed in neuronal cells as well as glial cells of organotypic spinal cord slices. We also observed that VEGF-induced axonal outgrowth was attenuated by a specific mitogen-activated protein kinase (MAPK) inhibitor PD98059 and a specific phosphoinositide 3-kinase (PI3K) inhibitor wortmannin. Thus, these findings suggest that these MAPK and PI3K pathways have important roles in regulating VEGF-induced axonal outgrowth in the postnatal spinal cord.
		                        		
		                        		
		                        		
		                        			Adult
		                        			;
		                        		
		                        			Axons*
		                        			;
		                        		
		                        			Humans
		                        			;
		                        		
		                        			Inflammation
		                        			;
		                        		
		                        			Nerve Regeneration
		                        			;
		                        		
		                        			Neurites
		                        			;
		                        		
		                        			Neuroglia
		                        			;
		                        		
		                        			Neurons
		                        			;
		                        		
		                        			Protein Kinases
		                        			;
		                        		
		                        			Receptors, Vascular Endothelial Growth Factor*
		                        			;
		                        		
		                        			Spinal Cord Injuries
		                        			;
		                        		
		                        			Spinal Cord*
		                        			;
		                        		
		                        			Spinal Nerves
		                        			;
		                        		
		                        			Vascular Endothelial Growth Factor A*
		                        			;
		                        		
		                        			Vascular Endothelial Growth Factor Receptor-1*
		                        			
		                        		
		                        	
3.Spinal Gap Junction Channels in Neuropathic Pain.
Young Hoon JEON ; Dong Ho YOUN
The Korean Journal of Pain 2015;28(4):231-235
		                        		
		                        			
		                        			Damage to peripheral nerves or the spinal cord is often accompanied by neuropathic pain, which is a complex, chronic pain state. Increasing evidence indicates that alterations in the expression and activity of gap junction channels in the spinal cord are involved in the development of neuropathic pain. Thus, this review briefly summarizes evidence that regulation of the expression, coupling, and activity of spinal gap junction channels modulates pain signals in neuropathic pain states induced by peripheral nerve or spinal cord injury. We particularly focus on connexin 43 and pannexin 1 because their regulation vastly attenuates symptoms of neuropathic pain. We hope that the study of gap junction channels eventually leads to the development of a suitable treatment tool for patients with neuropathic pain.
		                        		
		                        		
		                        		
		                        			Chronic Pain
		                        			;
		                        		
		                        			Connexin 43
		                        			;
		                        		
		                        			Gap Junctions*
		                        			;
		                        		
		                        			Hope
		                        			;
		                        		
		                        			Humans
		                        			;
		                        		
		                        			Neuralgia*
		                        			;
		                        		
		                        			Neuroglia
		                        			;
		                        		
		                        			Peripheral Nerves
		                        			;
		                        		
		                        			Spinal Cord
		                        			;
		                        		
		                        			Spinal Cord Injuries
		                        			
		                        		
		                        	
4.TWIK-Related Spinal Cord K+ Channel Expression Is Increased in the Spinal Dorsal Horn after Spinal Nerve Ligation.
Hee Youn HWANG ; Enji ZHANG ; Sangil PARK ; Woosuk CHUNG ; Sunyeul LEE ; Dong Woon KIM ; Youngkwon KO ; Wonhyung LEE
Yonsei Medical Journal 2015;56(5):1307-1315
		                        		
		                        			
		                        			PURPOSE: The TWIK-related spinal cord K+ channel (TRESK) has recently been discovered and plays an important role in nociceptor excitability in the pain pathway. Because there have been no reports on the TRESK expression or its function in the dorsal horn of the spinal cord in neuropathic pain, we analyzed TRESK expression in the spinal dorsal horn in a spinal nerve ligation (SNL) model. MATERIALS AND METHODS: We established a SNL mouse model by using the L5-6 spinal nerves ligation. We used real-time polymerase chain reaction and immunohistochemistry to investigate TRESK expression in the dorsal horn and L5 dorsal rot ganglion (DRG). RESULTS: The SNL group showed significantly higher expression of TRESK in the ipsilateral dorsal horn under pain, but low expression in L5 DRG. Double immunofluorescence staining revealed that immunoreactivity of TRESK was mostly restricted in neuronal cells, and that synapse markers GAD67 and VGlut2 appeared to be associated with TRESK expression. We were unable to find a significant association between TRESK and calcineurin by double immunofluorescence. CONCLUSION: TRESK in spinal cord neurons may contribute to the development of neuropathic pain following injury.
		                        		
		                        		
		                        		
		                        			Animals
		                        			;
		                        		
		                        			Disease Models, Animal
		                        			;
		                        		
		                        			Hyperalgesia
		                        			;
		                        		
		                        			Ligation
		                        			;
		                        		
		                        			Male
		                        			;
		                        		
		                        			Neuralgia/*metabolism/physiopathology
		                        			;
		                        		
		                        			Neurons/metabolism
		                        			;
		                        		
		                        			Nociceptors
		                        			;
		                        		
		                        			Pain/metabolism/*physiopathology
		                        			;
		                        		
		                        			Potassium Channels/*metabolism
		                        			;
		                        		
		                        			Rats
		                        			;
		                        		
		                        			Rats, Sprague-Dawley
		                        			;
		                        		
		                        			Real-Time Polymerase Chain Reaction
		                        			;
		                        		
		                        			Spinal Cord Dorsal Horn/*metabolism
		                        			;
		                        		
		                        			Spinal Nerves/*injuries
		                        			
		                        		
		                        	
5.The Effect of Pulsed Radiofrequency Applied to the Peripheral Nerve in Chronic Constriction Injury Rat Model.
Jun Beom LEE ; Jeong Hyun BYUN ; In Sung CHOI ; Young KIM ; Ji Shin LEE
Annals of Rehabilitation Medicine 2015;39(5):667-675
		                        		
		                        			
		                        			OBJECTIVE: To investigate the effect of pulsed radiofrequency (PRF) applied proximal to the injured peripheral nerve on the expression of tumor necrosis factor-alpha (TNF-alpha) in a neuropathic pain rat model. METHODS: Nineteen male Sprague-Dawley rats were used in the study. All rats underwent chronic constriction injury (CCI) procedure. After 7 days of CCI, withdrawal frequency of affected hind paw to mechanical stimuli and withdrawal latency of affected hind paw to heat stimulus were measured. They were randomly divided into two groups: group A, CCI group (n=9) and group B, CCI treated with PRF group (n=10). Rats of group B underwent PRF procedure on the sciatic nerve. Withdrawal frequency and withdrawal latency were measured at 12 hours, and 7 days after PRF. Immunohistochemistry and Western blot analysis were performed using a TNF-alpha antibody. RESULTS: Before PRF, withdrawal frequency and withdrawal latency were not different in both groups. After PRF, withdrawal frequency decreased and withdrawal latency prolonged over time in group B. There was significant interaction between time and group for each withdrawal frequency and withdrawal latency. Group B showed decreased TNF-alpha immunoreactivity of the spinal cord and sciatic nerve at 7 days. CONCLUSION: PRF applied proximal to the peripheral nerve injury is potentially helpful for the reduction of neuropathic pain by neuromodulation of inflammatory markers.
		                        		
		                        		
		                        		
		                        			Animals
		                        			;
		                        		
		                        			Blotting, Western
		                        			;
		                        		
		                        			Constriction*
		                        			;
		                        		
		                        			Hot Temperature
		                        			;
		                        		
		                        			Humans
		                        			;
		                        		
		                        			Immunohistochemistry
		                        			;
		                        		
		                        			Male
		                        			;
		                        		
		                        			Models, Animal*
		                        			;
		                        		
		                        			Neuralgia
		                        			;
		                        		
		                        			Peripheral Nerve Injuries
		                        			;
		                        		
		                        			Peripheral Nerves*
		                        			;
		                        		
		                        			Pulsed Radiofrequency Treatment
		                        			;
		                        		
		                        			Rats*
		                        			;
		                        		
		                        			Rats, Sprague-Dawley
		                        			;
		                        		
		                        			Sciatic Nerve
		                        			;
		                        		
		                        			Spinal Cord
		                        			;
		                        		
		                        			Tumor Necrosis Factor-alpha
		                        			
		                        		
		                        	
6.Intrathecal Administration of Mesenchymal Stem Cells Reduces the Reactive Oxygen Species and Pain Behavior in Neuropathic Rats.
En Ji ZHANG ; Chang Hwa SONG ; Young Kwon KO ; Won Hyung LEE
The Korean Journal of Pain 2014;27(3):239-245
		                        		
		                        			
		                        			BACKGROUND: Neuropathic pain induced by spinal or peripheral nerve injury is very resistant to common pain killers, nerve block, and other pain management approaches. Recently, several studies using stem cells suggested a new way to control the neuropatic pain. In this study, we used the spinal nerve L5 ligation (SNL) model to investigate whether intrathecal rat mesenchymal stem cells (rMSCs) were able to decrease pain behavior, as well as the relationship between rMSCs and reactive oxygen species (ROS). METHODS: Neuropathic pain of the left hind paw was induced by unilateral SNL in Sprague-Dawley rats (n = 10 in each group). Mechanical sensitivity was assessed using Von Frey filaments at 3, 7, 10, 12, 14, 17, and 24 days post-ligation. rMSCs (10 microl, 1 x 105) or phosphate buffer saline (PBS, 10 microl) was injected intrathecally at 7 days post-ligation. Dihydroethidium (DHE), an oxidative fluorescent dye, was used to detect ROS at 24 days post-ligation. RESULTS: Tight ligation of the L5 spinal nerve induced allodynia in the left hind paw after 3 days post-ligation. ROS expression was increased significantly (P < 0.05) in spinal dorsal horn of L5. Intrathecal rMSCs significantly (P < 0.01) alleviated the allodynia at 10 days after intrathecal injection (17 days post-ligation). Intrathecal rMSCs administration significantly (P < 0.05) reduced ROS expression in the spinal dorsal horn. CONCLUSIONS: These results suggest that rMSCs may modulate neuropathic pain generation through ROS expression after spinal nerve ligation.
		                        		
		                        		
		                        		
		                        			Animals
		                        			;
		                        		
		                        			Horns
		                        			;
		                        		
		                        			Hyperalgesia
		                        			;
		                        		
		                        			Injections, Spinal
		                        			;
		                        		
		                        			Ligation
		                        			;
		                        		
		                        			Mesenchymal Stromal Cells*
		                        			;
		                        		
		                        			Nerve Block
		                        			;
		                        		
		                        			Neuralgia
		                        			;
		                        		
		                        			Pain Management
		                        			;
		                        		
		                        			Peripheral Nerve Injuries
		                        			;
		                        		
		                        			Rats*
		                        			;
		                        		
		                        			Rats, Sprague-Dawley
		                        			;
		                        		
		                        			Reactive Oxygen Species*
		                        			;
		                        		
		                        			Spinal Nerves
		                        			;
		                        		
		                        			Stem Cells
		                        			
		                        		
		                        	
7.Intrathecal Lamotrigine Attenuates Mechanical Allodynia and Suppresses Microglial and Astrocytic Activation in a Rat Model of Spinal Nerve Ligation.
Yun Sik CHOI ; In Gu JUN ; Sung Hoon KIM ; Jong Yeon PARK
Yonsei Medical Journal 2013;54(2):321-329
		                        		
		                        			
		                        			PURPOSE: Lamotrigine, a novel anticonvulsant, is a sodium channel blocker that is efficacious in certain forms of neuropathic pain. Recently, microglial and astrocytic activation has been implicated in the development of nerve injury-induced neuropathic pain. We have assessed the effects of continuous intrathecal administration of lamotrigine on the development of neuropathic pain and glial activation induced by L5/6 spinal-nerve ligation in rats. MATERIALS AND METHODS: Following left L5/6 spinal nerve ligation (SNL), Sprague-Dawley male rats were intrathecally administered lamotrigine (24, 72, or 240 microg/day) or saline continuously for 7 days. Mechanical allodynia of the left hind paw to von Frey filament stimuli was determined before surgery (baseline) and once daily for 7 days postoperatively. On day 7, spinal activation of microglia and astrocytes was evaluated immunohistochemically, using antibodies to the microglial marker OX-42 and the astrocyte marker glial fibrillary acidic protein (GFAP). RESULTS: Spinal-nerve ligation induced mechanical allodynia in saline-treated rats, with OX-42 and GFAP immunoreactivity being significantly increased on the ipsilateral side of the spinal cord. Continuously administered intrathecal lamotrigine (240 microg/day) prevented the development of mechanical allodynia, and lower dose of lamotrigine (72 microg/day) ameliorated allodynia. Intrathecal lamotrigine (72 and 240 microg/day) inhibited nerve ligation-induced microglial and astrocytic activation, as evidenced by reduced numbers of cells positive for OX-42 and GFAP. CONCLUSION: Continuously administered intrathecal lamotrigine blocked the development of mechanical allodynia induced by SNL with suppression of microglial and astrocytic activation. Continuous intrathecal administration of lamotrigine may be a promising therapeutic intervention to prevent neuropathy.
		                        		
		                        		
		                        		
		                        			Animals
		                        			;
		                        		
		                        			Astrocytes/drug effects/*physiology
		                        			;
		                        		
		                        			Disease Models, Animal
		                        			;
		                        		
		                        			Hyperalgesia/*drug therapy
		                        			;
		                        		
		                        			Infusions, Spinal
		                        			;
		                        		
		                        			Ligation
		                        			;
		                        		
		                        			Male
		                        			;
		                        		
		                        			Microglia/drug effects/*physiology
		                        			;
		                        		
		                        			Neuralgia/drug therapy
		                        			;
		                        		
		                        			Rats
		                        			;
		                        		
		                        			Rats, Sprague-Dawley
		                        			;
		                        		
		                        			Spinal Nerves/*injuries
		                        			;
		                        		
		                        			Triazines/administration & dosage/*therapeutic use
		                        			;
		                        		
		                        			Voltage-Gated Sodium Channel Blockers/administration & dosage/*therapeutic use
		                        			
		                        		
		                        	
8.Comparative Study of the L5 Spinal Nerve Transection Model and Sciatic Nerve Axotomy Model as a Peripheral Nerve Injury Model in Rat.
Dae Yong SONG ; Ji Hye LEE ; Ha Nul YU ; Chae Ri PARK ; Ran Sook WOO ; Sung Youp HONG ; Young Hee CHEON ; Hyung Nam GOO ; Tai Kyoung BAIK
Korean Journal of Physical Anthropology 2012;25(1):11-21
		                        		
		                        			
		                        			The aim of this study was to propose new more reliable peripheral nerve transection model to overcome the defect of the traditional sciatic axotomy model by specifically transecting L5 spinal nerve just after emerging from the intervertebral foramen and confining analysis area to the L5 spinal segment. The adult male Sprague-Dawley rats, weighing 300~350 g at the time of surgery, were used for the experiments. Four different experimental groups were used. 1. Sciatic nerve transection (Sc-Tx) group: transect the sciatic nerve in the popliteal fossa where it divided into the common peroneal nerve and tibial nerve. 2. L5 spinal nerve transection (L5-Tx) group: L5 spinal nerve was specifically transected. 3. Suture (Su) group: L5 spinal nerve was transected and immediately sutured. 4. Control group: the same surgical procedure with L5 spinal nerve transection group was performed except for the excision of L5 spinal nerve. To distinguish L5 motoneurons from the other level ones, the animals were received the retrograde tracer, FluoroGold into the axotomized proximal nerve stump. Serial coronal frozen sections at 40 microm thick through the L4 to L6 spinal segment was performed and the resultant total number of sections was about 180. Approximate serial 50 sections (approximately 2 mm) could be considered as the L5 segment based on the number of the fluorescent signals (above 20). L5 spinal segment could be differentiated from L4 and L6 segment based on their morphological characteristics under Cresyl violet stain. In L5-Tx group, at 2 and 4 weeks post-transection, the number of L5 spinal motoneurons was reduced by 8%. Meanwhile, Sc-Tx and Su groups showed no statistically notable changes. In this study, the authors could propose more reliable peripheral nerve axotomy model than the conventional sciatic nerve axotomy model by specifically transecting L5 spinal nerve and confining the investigating area within the L5 spinal segment.
		                        		
		                        		
		                        		
		                        			Adult
		                        			;
		                        		
		                        			Animals
		                        			;
		                        		
		                        			Axotomy
		                        			;
		                        		
		                        			Benzoxazines
		                        			;
		                        		
		                        			Frozen Sections
		                        			;
		                        		
		                        			Humans
		                        			;
		                        		
		                        			Male
		                        			;
		                        		
		                        			Peripheral Nerve Injuries
		                        			;
		                        		
		                        			Peripheral Nerves
		                        			;
		                        		
		                        			Peroneal Nerve
		                        			;
		                        		
		                        			Rats
		                        			;
		                        		
		                        			Rats, Sprague-Dawley
		                        			;
		                        		
		                        			Sciatic Nerve
		                        			;
		                        		
		                        			Spinal Nerves
		                        			;
		                        		
		                        			Sutures
		                        			;
		                        		
		                        			Tibial Nerve
		                        			;
		                        		
		                        			Viola
		                        			
		                        		
		                        	
9.Metronidazole Induced Encephalopathy with Peripheral Polyneuropathy in Patient with Spinal Cord Injury.
Gi Hoon HWANG ; Young Joo SIM ; Ho Joong JEONG ; Ghi Chan KIM ; Bae Wook SIN ; Ju Ho JUNG
Korean Journal of Spine 2012;9(1):44-48
		                        		
		                        			
		                        			Metronidazole may produce a number of neurologic side effects including peripheral neuropathy, seizure, encephalopathy. We experienced neurological side effects of metronidazole. The 32-year-old female patient with spinal cord injury was diagnosed as encephalophathy and peripheral polyneuropathy resulting from complication of metronidazole. It was difficult to diagnose at first glance using clinical findings because of paraplegia due to spinal cord injury. But through magnetic resonance imaging with diffusion weighted imaging and electrophysiologic study, the patient showed to have characteristic abnormalities that of a person suffering from metronidazole-induced encephalopathy and peripheral polyneuropathy. Whether the symptoms were caused by a peripheral nerve lesion or MIE, the patient's paraplegia prevented to appear other symptoms, such as ataxic gait and seizure, from manifesting. In such case as this, an active differentiated diagnosis is crucial.
		                        		
		                        		
		                        		
		                        			Adult
		                        			;
		                        		
		                        			Diffusion
		                        			;
		                        		
		                        			Female
		                        			;
		                        		
		                        			Gait
		                        			;
		                        		
		                        			Humans
		                        			;
		                        		
		                        			Magnetic Resonance Imaging
		                        			;
		                        		
		                        			Metronidazole
		                        			;
		                        		
		                        			Paraplegia
		                        			;
		                        		
		                        			Peripheral Nerves
		                        			;
		                        		
		                        			Peripheral Nervous System Diseases
		                        			;
		                        		
		                        			Polyneuropathies
		                        			;
		                        		
		                        			Seizures
		                        			;
		                        		
		                        			Spinal Cord
		                        			;
		                        		
		                        			Spinal Cord Injuries
		                        			;
		                        		
		                        			Stress, Psychological
		                        			
		                        		
		                        	
10.Comparative Study of the L5 Spinal Nerve Transection Model and Sciatic Nerve Axotomy Model as a Peripheral Nerve Injury Model in Rat.
Dae Yong SONG ; Ji Hye LEE ; Ha Nul YU ; Chae Ri PARK ; Ran Sook WOO ; Sung Youp HONG ; Young Hee CHEON ; Hyung Nam GOO ; Tai Kyoung BAIK
Korean Journal of Physical Anthropology 2012;25(1):11-21
		                        		
		                        			
		                        			The aim of this study was to propose new more reliable peripheral nerve transection model to overcome the defect of the traditional sciatic axotomy model by specifically transecting L5 spinal nerve just after emerging from the intervertebral foramen and confining analysis area to the L5 spinal segment. The adult male Sprague-Dawley rats, weighing 300~350 g at the time of surgery, were used for the experiments. Four different experimental groups were used. 1. Sciatic nerve transection (Sc-Tx) group: transect the sciatic nerve in the popliteal fossa where it divided into the common peroneal nerve and tibial nerve. 2. L5 spinal nerve transection (L5-Tx) group: L5 spinal nerve was specifically transected. 3. Suture (Su) group: L5 spinal nerve was transected and immediately sutured. 4. Control group: the same surgical procedure with L5 spinal nerve transection group was performed except for the excision of L5 spinal nerve. To distinguish L5 motoneurons from the other level ones, the animals were received the retrograde tracer, FluoroGold into the axotomized proximal nerve stump. Serial coronal frozen sections at 40 microm thick through the L4 to L6 spinal segment was performed and the resultant total number of sections was about 180. Approximate serial 50 sections (approximately 2 mm) could be considered as the L5 segment based on the number of the fluorescent signals (above 20). L5 spinal segment could be differentiated from L4 and L6 segment based on their morphological characteristics under Cresyl violet stain. In L5-Tx group, at 2 and 4 weeks post-transection, the number of L5 spinal motoneurons was reduced by 8%. Meanwhile, Sc-Tx and Su groups showed no statistically notable changes. In this study, the authors could propose more reliable peripheral nerve axotomy model than the conventional sciatic nerve axotomy model by specifically transecting L5 spinal nerve and confining the investigating area within the L5 spinal segment.
		                        		
		                        		
		                        		
		                        			Adult
		                        			;
		                        		
		                        			Animals
		                        			;
		                        		
		                        			Axotomy
		                        			;
		                        		
		                        			Benzoxazines
		                        			;
		                        		
		                        			Frozen Sections
		                        			;
		                        		
		                        			Humans
		                        			;
		                        		
		                        			Male
		                        			;
		                        		
		                        			Peripheral Nerve Injuries
		                        			;
		                        		
		                        			Peripheral Nerves
		                        			;
		                        		
		                        			Peroneal Nerve
		                        			;
		                        		
		                        			Rats
		                        			;
		                        		
		                        			Rats, Sprague-Dawley
		                        			;
		                        		
		                        			Sciatic Nerve
		                        			;
		                        		
		                        			Spinal Nerves
		                        			;
		                        		
		                        			Sutures
		                        			;
		                        		
		                        			Tibial Nerve
		                        			;
		                        		
		                        			Viola
		                        			
		                        		
		                        	
            
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