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ABSTRACT Epilepsy is a multifactorial pathology that has allowed the development of various drugs aiming to combat it. This effort was formally initiated in the 1940s when phenytoin began to be used. It eventually turned out to be a drug with great anticonvulsant efficacy. At present, several potentially good new generation anti-seizure medications (ASMs) have been developed. Most of them present more tolerability and less toxic effects. However, they continue to have adverse effects at different levels. In addition, some seizures are difficult to treat with ASMs, representing 30% of the total cases of people who suffer from epilepsy. This review aims to explore the genetic and molecular mechanisms of ASMs neurotoxicity, proposing the study of damage caused by epileptic seizures, in addition to the deterioration generated by anti-seizure drug administration within the central nervous system. It is beyond question that there is a need to develop drugs that lower the lower the risk of secondary and toxic effects of ASMs. Simultaneously, we must find strategies that produce fewer harmful interactions and more health benefits when taking anti-seizure drugs.
RESUMO
Resumen Introducción: Pseudomonas aeruginosa es un patógeno oportunista asociado a alta morbi-mortalidad. Para cepas multi-resistentes (MDR), ceftolozano/tazobactam (CTZ) se ha autorizado por la Agencia Europea del Medicamento (EMA) para infecciones del tracto urinario complicadas, pielonefritis aguda e infecciones intra-abdominales complicadas. Objetivo: Determinar la sensibilidad a CTZ de P. aeruginosa MDR en muestras clínicas aisladas en el Hospital Universitario Puerto Real. Material y Métodos: Se estudió la sensibilidad según criterios EUCAST a CTZ de cepas de P. aeruginosa MDR, entre enero de 2015 y agosto de 2017. Los criterios de multi-resistencia fueron definidos por el Centers for Disease Control and Prevention. La sensibilidad antimicrobiana se obtuvo mediante sistema MicroScan® (Beckman Coulter). La sensibilidad a CTZ se determinó mediante tiras de gradiente (Liofilchem®, Werfen). Resultados: De 1253 cepas, 7% fueron MDR. Se estudió la sensibilidad de 78 cepas de P. aeruginosa MDR, de las cuales cinco (6,4%) resultaron resistentes a CTZ según criterios EUCAST. Conclusiones: En nuestro medio la resistencia in vitro a CTZ en cepas de P. aeruginosa MDR es aproximadamente 6%; CTZ es una opción de tratamiento de infecciones por cepas de P. aeruginosa MDR cuando no exista otra alternativa y se haya comprobado su sensibilidad in vitro.
Background: Pseudomonas aeruginosa is an opportunistic pathogen associated with high morbidity and mortality. For multidrug-resistant strains (MDR), ceftolozane/tazobactam (CTZ) has been authorized by the European Medicines Agency (EMA) for complicated urinary tract infections, acute pyelonephritis, and complicated intraabdominal infections. Aim: To determine the susceptibility to CTZ of P. aeruginosa MDR in isolated clinical samples at the University Hospital Puerto Real. Methods: The susceptibility according to the EUCAST to CTZ criteria of strains of P. aeruginosa MDR, between January 2015 and August 2017 has been studied. The multiresistance criteria were those defined by the Centers for Disease Control and Prevention. The antibiotic susceptibility was obtained by automated MicroScan® system (Beckman Coulter). Susceptibility to CTZ was determined using gradient strips (Liofilchem®, Werfen). Results: Of 1253 strains isolated, 7% presented MDR. We studied the susceptibility of a total of 78 strains of MDR P. aeruginosa, of which 5 (6.4%) were resistant to CTZ according to the EUCAST criteria. Conclusions: In our environment, the in vitro resistance to CTZ in MDR P. aeruginosa strains is approximately 6%. CTZ is an option for the treatment of infections by MDR P. aeruginosa when there is no other alternative and its in-vitro susceptibility has been proven.