World Neurosurg
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A plethora of studies has substantiated the remarkable clinical efficacy of anterior cervical discectomy and fusion (ACDF) in the treatment of cervical spondylotic myelopathy.1,2 This procedure effectively removes the posterior osteophytes and protruding nucleus pulposus, achieving direct decompression of the spinal cord and effectively alleviating compression symptoms. Concurrently, by distracting the intervertebral space, ACDF contributes to the restoration of the physiological curvature of the cervical spine. However, several pressing issues remain to be addressed during the surgical process. ⋯ Assisted by 3D microscopy, ACDF surgery offers a high-definition visual field that enhances precision, thereby reducing procedural risks and improving clinical outcomes. This technology alleviates the physical strain on surgeons, fosters collaborative teamwork, and facilitates educational exchanges. With a relatively short learning curve, 3D microscopy significantly enhances the safety and efficiency of ACDF procedures.
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Traumatic brain injury (TBI) significantly contributes to morbidity rates. While computed tomography (CT) scoring systems have been recognized as predictive factors for TBI outcomes, their association with shunt dependency in patients undergoing decompressive craniectomy (DC) has not been investigated. This study aimed to evaluate the predictive utility of CT scoring systems concerning shunt-dependent hydrocephalus in patients post-DC for TBI. ⋯ The CT scoring systems proved insufficient for predicting shunt-dependent hydrocephalus following DC for TBI. However, our observations underscore a significant correlation between post-traumatic shunt dependency after DC and an increased incidence of unfavorable outcomes during long-term follow-up.
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To create a reusable and inexpensive training model with technological tools that simulates cerebral bypass surgery and a sensor system that provides tactile feedback to the surgeon. Furthermore, we aimed to evaluate the anastomotic stability and contribution to the surgeon's learning curve. ⋯ With practice, the time required for anastomosis completion and number of parenchymal touches decreased. Thus, the model is useful, inexpensive, reusable, easily accessible, and contributes to the surgeon's learning curve. Our model with pressure-sensitive sensors can be used for microsurgery practice, enabling the surgeons to gain tactile conditioning and evaluate anastomotic stability and leakage.
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Mexico is under-represented in global neurosurgical research. High-income countries represent roughly 10% of the world's population but utilize about 90% of the research funding for medical research, highlighting the need for promoting research initiatives in low- and middle-income countries. We present an online-based research initiative in Mexico that aims to reduce the research gap in neurosurgery. ⋯ This online-based neurosurgical model contributed to 3.4% of the neurosurgical research productivity in Mexico. Our findings suggest that this model can effectively bridge the research gap and enhance scientific contributions in developing countries.
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Comparative Study
Collagen Membrane as artificial Dura Substitute: A Comprehensive in vivo study of efficiency and substitution compared to Durepair.
The dura mater is a barrier between the brain and the surrounding environment. Injuries to the dura can lead to serious complications, therefore, ensuring a hermetic closure of the dura is a primary task for a neurosurgeon. The aim of the study is to compare the effectiveness of applying the newly developed ViscollDURA collagen membrane (VDCM), with the commercially available Durepair (xenogeneic collagen) in animal model. ⋯ Both membranes showed safety and compatibility. The collagen membrane produced under sterile conditions demonstrated better regeneration with minimal inflammatory reaction. The study suggests that VDCM exhibits biocompatibility comparable to Durepair, providing prospects for potential applications in neurosurgery.