Lack of Association between YEASTONE Antifungal Susceptibility Tests and Clinical Outcomes of Cryptococcus Meningitis.
Ting-Shu WuJung-Fu LinChun-Wen ChengPo-Yen HuangJeng-How YangPublished in: Journal of fungi (Basel, Switzerland) (2023)
The relation between antifungal susceptibility and treatment outcomes is not well-characterized. There is paucity of surveillance data for cerebrospinal fluid (CSF) isolates of cryptococcus investigated with YEASTONE colorimetric broth microdilution susceptibility testing. A retrospective study of laboratory-confirmed cryptococcus meningitis (CM) patients was conducted. The antifungal susceptibility of CSF isolates was determined using YEASTONE colorimetric broth microdilution. Clinical parameters, CSF laboratory indices, and antifungal susceptibility results were analyzed to identify risk factors for mortality. High rates of resistance to fluconazole and flucytosine were observed in this cohort. Voriconazole had the lowest MIC (0.06 µg/mL) and lowest rate of resistance (3.8%). In a univariate analysis, hematological malignancy, concurrent cryptococcemia, high Sequential Organ Failure Assessment (SOFA) score, low Glasgow coma scale (GCS) score, low CSF glucose level, high CSF cryptococcal antigen titer, and high serum cryptococcal antigen burden were associated with mortality. In a multivariate analysis, meningitis with concurrent cryptococcemia, GCS score, and high CSF cryptococcus burden, were independent predictors of poor prognosis. Both early and late mortality rates were not significantly different between CM wild type and non-wild type species.
Keyphrases
- cerebrospinal fluid
- candida albicans
- poor prognosis
- wild type
- gold nanoparticles
- cardiovascular events
- long non coding rna
- risk factors
- end stage renal disease
- public health
- cardiovascular disease
- hydrogen peroxide
- peritoneal dialysis
- blood glucose
- coronary artery disease
- type diabetes
- ejection fraction
- sensitive detection
- mass spectrometry
- prognostic factors
- skeletal muscle
- weight loss
- living cells
- high speed
- single molecule