RESUMEN
Objective@#Several COVID-19 patients have overlapping comorbidities. The independent role of each component contributing to the risk of COVID-19 is unknown, and how some non-cardiometabolic comorbidities affect the risk of COVID-19 remains unclear.@*Methods@#A retrospective follow-up design was adopted. A total of 1,160 laboratory-confirmed patients were enrolled from nine provinces in China. Data on comorbidities were obtained from the patients' medical records. Multivariable logistic regression models were used to estimate the odds ratio ( @*Results@#Overall, 158 (13.6%) patients were diagnosed with severe illness and 32 (2.7%) had unfavorable outcomes. Hypertension (2.87, 1.30-6.32), type 2 diabetes (T2DM) (3.57, 2.32-5.49), cardiovascular disease (CVD) (3.78, 1.81-7.89), fatty liver disease (7.53, 1.96-28.96), hyperlipidemia (2.15, 1.26-3.67), other lung diseases (6.00, 3.01-11.96), and electrolyte imbalance (10.40, 3.00-26.10) were independently linked to increased odds of being severely ill. T2DM (6.07, 2.89-12.75), CVD (8.47, 6.03-11.89), and electrolyte imbalance (19.44, 11.47-32.96) were also strong predictors of unfavorable outcomes. Women with comorbidities were more likely to have severe disease on admission (5.46, 3.25-9.19), while men with comorbidities were more likely to have unfavorable treatment outcomes (6.58, 1.46-29.64) within two weeks.@*Conclusion@#Besides hypertension, diabetes, and CVD, fatty liver disease, hyperlipidemia, other lung diseases, and electrolyte imbalance were independent risk factors for COVID-19 severity and poor treatment outcome. Women with comorbidities were more likely to have severe disease, while men with comorbidities were more likely to have unfavorable treatment outcomes.
Asunto(s)
Adulto , Anciano , Femenino , Humanos , Masculino , Persona de Mediana Edad , COVID-19/virología , China/epidemiología , Comorbilidad , Estudios Retrospectivos , Índice de Severidad de la Enfermedad , Resultado del TratamientoRESUMEN
<p><b>OBJECTIVE</b>To study the differential expressions of the receptor for advanced glycation end products (RAGE) in the tissues of prostate cancer and normal prostate, and to find the role of RAGE in the pathogenesis of prostate cancer.</p><p><b>METHODS</b>We collected the tissue of prostate cancer and that of normal prostate from the same patient, and compared the differential expressions of RAGE at the tissue, protein and mRNA levels between prostate cancer and normal prostate tissues of 10 patients by immunohistochemistry, Western blot and real-time quantitative PCR.</p><p><b>RESULTS</b>Immunohistochemistry exhibited a significantly higher expression of RAGE in the prostate cancer tissue than in the normal prostate tissue; Western blot showed that the RAGE protein expression was 2.13 times higher in the former than in the latter (P < 0.05); and real-time quantitative PCR revealed the RAGE mRNA expression of the former to be 4.2 times that of the latter (P < 0.05).</p><p><b>CONCLUSION</b>RAGE may play an important role in the pathogenesis and progression of prostate cancer.</p>
Asunto(s)
Humanos , Masculino , Western Blotting , Estudios de Casos y Controles , Inmunohistoquímica , Reacción en Cadena de la Polimerasa , Métodos , Próstata , Metabolismo , Patología , Neoplasias de la Próstata , Metabolismo , Patología , ARN Mensajero , Genética , Receptor para Productos Finales de Glicación Avanzada , Receptores Inmunológicos , Genética , MetabolismoRESUMEN
<p><b>OBJECTIVE</b>To construct an eukaryotic recombinant expression vector for retinoblastoma 1 gene (RB-1) and investigate the role of RB-1 in prostate cancer.</p><p><b>METHODS</b>The coding sequence of RB-1 gene tagged with FLAG was amplified from the plasmid CMV-RB by PCR method. The fragment was cloned into CMV expression vector and identified by restriction enzyme digestion and sequence analysis. Western Blotting was used to detect RB-1 expression and immunofluorescence was used to observe RB-1 distribution in PC-3 cells transfected with the recombinant.</p><p><b>RESULTS</b>The expression vector CMV-FLAG-RB was successfully constructed as confirmed by PCR, endonuclease digestion and DNA sequence analysis. RB-1 protein was highly expressed and showed a nuclear distribution in PC-3 cells transfected with the recombinant.</p><p><b>CONCLUSIONS</b>The eukaryotic expression vector for RB-1 has been successfully constructed and can be efficiently expressed in PC-3 cells. The expression of RB-1 is located in the cell nuclei.</p>