Neurosurgery
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The origins of military neurosurgery are closely linked to those of neurosurgery in France and more particularly in Paris. The history of the field starts with its origins by 2 men, Thierry de Martel and Clovis Vincent. The first note about the creation of military neurosurgery was in 1942, when Marcel David was reassigned from the Sainte Anne Hospital to practice at the Val-de-Grâce Military Hospital. ⋯ Neurosurgeons were able to adapt to asymmetrical wars, such as in the Afghanistan campaign where they were deployed in the Role 3 medical treatment facility, and more recently in sub-Saharan conflicts where they were deployed in forward surgical roles. To manage the increasing craniocerebral war casualties in the forward surgical team, the French Military Health Service Academy established a training course referred to as the "Advanced Course for Deployment Surgery" providing neurosurgical damage control skills to general surgeons. Finally, military neurosurgery is reinventing itself to adapt to future conflicts through the enhancement of surgical practices via the addition of head, face, and neck surgeons.
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Greater thecal sac volumes are associated with an increased risk of spinal anesthesia (SA) failure. The thecal sac cross-sectional area accurately predicts thecal sac volume. The thecal sac area may be used to adjust the dose and prevent anesthetic failure. We aim to assess the rate of SA failure in a prospective cohort of lumbar surgery patients who receive an individualized dose of bupivacaine based on preoperative measurement of their thecal sac area. ⋯ Adjusting the dose of SA according to thecal sac area significantly reduces the rate of SA failure in patients undergoing lumbar spine surgery.
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Surgeons rely on clinical experience when making predictions about treatment effects. Incorporating algorithm-based predictions of symptom improvement after carpal tunnel release (CTR) could support medical decision-making. However, these algorithm-based predictions need to outperform predictions made by surgeons to add value. We compared predictions of a validated prediction model for symptom improvement after CTR with predictions made by surgeons. ⋯ The prediction model outperformed surgeon predictions of improvement after CTR in terms of calibration, accuracy, and sensitivity. Furthermore, the net benefit analysis indicated that using the prediction model instead of relying solely on surgeon decision-making increases the number of patients who will improve after CTR, without increasing the number of unnecessary surgeries.
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In 2013, all neurosurgery programs were mandated to adopt a 7-year structure. We sought to characterize how programs use the seventh year of training (postgraduate year 7 [PGY7]). ⋯ Most accredited neurological surgery training programs use the COS as the primary PGY7 role. Programs younger in their PGY7 structure seem to maintain the traditional COS role. Those more established seem to be experimenting with various roles the PGY7 year can fill, including enfolded fellowships and transition-to-practice years, predominantly. Most programs offer some form of enfolded fellowship. This serves as a basis for characterization of how neurological surgery training may develop in years to come.