AIM: Recombinant human adenovirus-p53 injection (rAd-p53) is the first marketed gene therapeutic drug worldwide. This study aimed to evaluate the safety and primary efficacy of rAd-p53 administrated on advanced solid tumors. METHODS: 24 patients with advanced solid tumor treated with rAd-p53 were reviewed, including 5 cases of renal carcinoma, 4 of nasopharyngeal carcinoma, 4 of colorectal carcinoma, 2 of melanoma, 1 of non-small-celllung cancer, 1 of esophageal carcinoma, 1 of gastric cardia carcinoma, 1 of thymic carcinoma, 1 of duodenal carcinoma, 1 of thyroid carcinoma, 1 of pancreatic carcinoma, 1 of endometrial carcinoma and 1 of rhabdomyosarcoma. RAd-p53 was weekly administrated at the dose of 1?10~ 12 VP, and 4 times of administration was defined as one cycle. Administration approach included intratumoral injection,intrabronchial drop in, intraperitoneal injection, intra-arterial infusion and intravenous drip. Combined therapy was given with chemotherapy in 18 cases, radiotherapy in 2, concomitant chemotherapy and radiotherapy in 1, abdominal thermotherapy and orally gefitinib in 1, cytokine immunotherapy in 1 and without combination therapy in 1. RESULTS: 23 cases underwent 35 cycles of therapy except for 1 case discontinued because of early progression. Among the 21 evaluable cases 5 PR, 5 SD and 11 PD were observed. Overall response rate was 23.8%(5/21) and disease control rate was 47.6%(10/21). Grade I-II injection site pain, chill, fever and myalgia were the most frequent side effects. Grade III fever developed in 2 cases and grade III-IV myelosuppression in 4 cases combined with chemotherapy. Furthermore, severe ostealgia occurred in 2 cases and transient hypotension in 1. CONCLUSION: RAd-p53 is tolerable in patients with advanced solid tumor. A further randomized clinical trial is necessary to confirm the antitumor activity of rAd-p53 combined with conventional strategies.

Objectives: Triglyceride-glucose index (TyGI) is an emerging surrogate marker of insulin resistance. We aim to explore the role of triglyceride-glucose index in the prediction of the development of hypertension. Methodology: nducted a retrospective cohort study that included 3,183 study participants identified from a community health screening programme who had no baseline hypertension and were then followed up after an average of 1.7 years. Cox proportional-hazard model was used to assess the association between risk of incident hypertension and TyGI in quartiles, while adjusting for demographics and clinical characteristics. Results: Hypertension occurred in 363 study participants (11.4%). Those who developed hypertension had higher TyGI [8.6 (IQR 8.2-9.0)] than those who did not [8.2 (IQR 8.0-8.7)] (p<0.001). Significant association between TyGI and hypertension was observed in both the unadjusted and proportional hazard model [Quartile (Q)2, p=0.010; Q3, p<0.001 and Q4, p<0.001] and the model that adjusted for demographics (Q2, p=0.016; Q3, p=0.003; Q4, p<0.001). In the model adjusted for clinical covariates, the hazard of developing hypertension remained higher in TyGI Q4 compared to TyGI Q1(Hazard Ratio=2.57; 95% Confidence Interval: 1.71, 3.87). Increasing triglyceride-glucose index accounted for 16.4% of the association between increasing BMI and incident hypertension, after adjusting for age, gender, ethnicity and baseline HDL cholesterol (p<0.001). Conclusion Triglyceride-glucose index was an independent predictor of the development of hypertension. It may potentially be used as an inexpensive indicator to predict the development of hypertension and risk-stratify individuals to aid management in clinical practice.
Diabetes Mellitus ; Triglycerides ; Hypertension ; Screening