RESUMEN
Mass spectrometry (MS) has found numerous applications in medicine and has been widely used in the detection and characterization of biomolecules associated with viral infections such as COVID-19. COVID-19 is a multisystem disease and, therefore, the need arises to carry out a careful and conclusive assessment of the pathophysiological parameters involved in the infection, to develop an effective therapeutic approach, assess the prognosis of the disease, and especially the early diagnosis of the infected population. Thus, the urgent need for highly accurate methods of diagnosis and prognosis of this infection presents new challenges for the development of laboratory medicine, whose methods require sensitivity, speed, and accuracy of the techniques for analyzing the biological markers involved in the infection. In this context, MS stands out as a robust analytical tool, with high sensitivity and selectivity, accuracy, low turnaround time, and versatility for the analysis of biological samples. However, it has not yet been adopted as a frontline clinical laboratory technique. Therefore, this review explores the potential and trends of current MS methods and their contribution to the development of new strategies to COVID-19 diagnosis and prognosis and how this tool can assist in the discovery of new therapeutic targets, in addition, to comment what could be the future of MS in medicine.
Asunto(s)
COVID-19 , SARS-CoV-2 , Prueba de COVID-19 , Humanos , Laboratorios Clínicos , Espectrometría de Masas , PronósticoRESUMEN
In the mol-ecular structure of the title compound, C10H10N4O2·H2O, the angle between the triazole and arene rings is 87.39â (5)°. The water of crystallization connects the mol-ecules in the crystal packing. The crystal structure exhibits N-Hâ¯O, O-Hâ¯O and O-Hâ¯N inter-actions, resulting in the formation of a three-dimensional framework. The inter-molecular inter-actions were identified and qu-anti-fied using Hirshfeld surface analysis.
