For decades, the question of neonatal anesthetic toxicity has variably met with passionate concern, perplexity, or indifference among the anesthesia practitioner and investigator communities. What began as a laboratory observation and academic curiosity of unknown clinical relevance, leading to clinical research and clinical concern, was elevated to a real clinical predicament by an unexpected 2016 U.S. Food and Drug Administration (FDA) Safety Announcement declaring that “repeated or lengthy use of general anesthetic and sedation drugs during surgeries or procedures in children younger than 3 years or in pregnant women during their third trimester may affect the development of children’s brains,” with admonitions to healthcare professionals, parents, pregnant women, and caregivers. This was followed in 2017 by FDA–approved formalized changes to several drug labels to memorialize this warning. The aftermath has seen heightened consternation and confusion, with variable response among parents, practitioners, regulators, anesthesiology societies, healthcare institutions, and their risk managers, as well as changes (or not) in informed consent, and several position statements and commentaries. Having allowed this initial flurry to subside, Anesthesiology this month features two comprehensive review articles and accompanying editorials on anesthetic developmental neurotoxicity in animals and in humans.
- False Interpretation of Scientific Data Leads to Biased Conclusions About the Association Between Cesarean Deliveries Under General Anesthesia and Risk of Autism Spectrum Disorder.
- Exposure to General Anesthesia May Contribute to the Association between Cesarean Delivery and Autism Spectrum Disorder.
- Effects of Xenon-Based Anesthetic Exposure on the Expression Levels of Polysialic Acid Neural Cell Adhesion Molecule (PSA-NCAM) on Human Neural Stem Cell-Derived Neurons.
- Downregulation of CDK5 Restores Sevoflurane-Induced Cognitive Dysfunction by Promoting SIRT1-Mediated Autophagy.
- Desflurane and Surgery Exposure During Pregnancy Decrease Synaptic Integrity and Induce Functional Deficits in Juvenile Offspring Mice.