Mortality among people with human immunodeficiency virus (HIV) declined with the introduction of combination antiretroviral therapy. We investigated trends in mortality in people with HIV from 1999 through 2020. Data were collected from the Data Collection on Adverse events of Anti-HIV Drugs (D:A:D) cohort between January 1999 through January 2015 and the International Cohort Consortium of Infectious Disease (RESPOND) from October 2017 through December 2020. Age-standardized all-cause and cause-specific mortality rates, classified using Coding Causes of Death in HIV, were calculated. Poisson models were used to assess mortality over time. Among 55 716 participants followed for median 6 years (interquartile range, 3-11), 5263 died (mortality rate [MR], 13.7/1000 person-years of follow-up [PYFU]; 95% confidence interval [CI], 13.4-14.1). Changing mortality was observed: AIDS mortality was most common between 1999-2009 (n = 952; MR, 4.2/1000 PYFU; 95% CI, 4.0-4.5) and non-AIDS-defining malignancy (NADM) between 2010-2020 (n = 444; MR, 2.8/1000 PYFU; 95% CI, 2.5-3.1). In multivariable analysis, all-cause mortality declined (adjusted mortality rate ratio [aMRR], 0.97 per year; 95% CI, .96-.98), mostly 1999-2010 (aMRR, 0.96 per year; 95% CI, .95-.97) but was stable 2011-2020 (aMRR, 1.00 per year; 95% CI, .96-1.05). Mortality due to all known causes except NADM also declined. Mortality among people with HIV in the D:A:D and/or RESPOND cohorts declined between 1999-2009 and was stable over the period 2010-2020. This decline in mortality was not fully explained by improvements in immunologic-virologic status or other risk factors.
Objectives The aim of the study was to establish a methodology for evaluating the hepatitis C continuum of care in HIV /hepatitis C virus ( HCV )‐coinfected individuals and to characterize the continuum in Europe on 1 January 2015, prior to widespread access to direct‐acting antiviral ( DAA ) therapy. Methods Stages included in the continuum were as follows: anti‐ HCV antibody positive, HCV RNA tested, currently HCV RNA positive, ever HCV RNA positive, ever received HCV treatment, completed HCV treatment, follow‐up HCV RNA test, and cure. Sustained virological response ( SVR ) could only be assessed for those with a follow‐up HCV RNA test and was defined as a negative HCV RNA result measured > 12 or 24 weeks after stopping treatment. Results Numbers and percentages for the stages of the HCV continuum of care were as follows: anti‐ HCV positive ( n = 5173), HCV RNA tested (4207 of 5173; 81.3%), currently HCV RNA positive (3179 of 5173; 61.5%), ever HCV RNA positive ( n = 3876), initiated HCV treatment (1693 of 3876; 43.7%), completed HCV treatment (1598 of 3876; 41.2%), follow‐up HCV RNA test to allow SVR assessment (1195 of 3876; 30.8%), and cure (629 of 3876; 16.2%). The proportion that achieved SVR was 52.6% (629 of 1195). There were significant differences between regions at each stage of the continuum ( P < 0.0001). Conclusions In the proposed HCV continuum of care for HIV / HCV ‐coinfected individuals, we found major gaps at all stages, with almost 20% of anti‐ HCV ‐positive individuals having no documented HCV RNA test and a low proportion achieving SVR , in the pre‐ DAA era.
The role of hepatitis C virus (HCV) coinfection and HCV-RNA in the development of diabetes mellitus (DM) in HIV-positive persons remains unclear.Poisson regression was used to compare incidence rates of DM (blood glucose >11.1 mmol/L, HbA1C >6.5% or >48 mmol/mol, starting antidiabetic medicine or physician reported date of DM onset) between current HIV/HCV groups (anti-HCV-negative, spontaneously cleared HCV, chronic untreated HCV, successfully treated HCV, HCV-RNA-positive after HCV treatment).A total of 16 099 persons were included; at baseline 10 091 (62.7%) were HCV-Ab-negative, 722 (4.5%) were spontaneous clearers, 3614 (22.4%) were chronically infected, 912 (5.7%) had been successfully treated, and 760 (4.7%) were HCV-RNA-positive after treatment. During 136 084 person-years of follow-up (PYFU; median [interquartile range], 6.9 [3.6-13.2]), 1108 (6.9%) developed DM (crude incidence rate, 8.1/1000 PYFU; 95% CI, 7.7-8.6). After adjustment, there was no difference between the 5 HCV strata in incidence of DM (global P = .33). Hypertension (22.2%; 95% CI, 17.5%-26.2%) and body mass index >25 (22.0%; 95% CI, 10.4%-29.7%) had the largest population-attributable fractions for DM.HCV coinfection and HCV cure were not associated with DM in this large study. The biggest modifiable risk factors were hypertension and obesity, and continued efforts to manage such comorbidities should be prioritized.
Abstract Introduction Data on safety and effectiveness of RPV from the real-world setting as well as comparisons with other NNRTIs such as efavirenz (EFV) remain scarce. Methods Participants of EuroSIDA were included if they had started a RPV- or an EFV-containing regimen over November 2011-December 2017. Statistical testing was conducted using non-parametric Mann–Whitney U test and Chi-square test. A logistic regression model was used to compare participants’ characteristics by treatment group. Kaplan–Meier analysis was used to estimate the cumulative risk of virological failure (VF, two consecutive values > 50 copies/mL). Results 1,355 PLWH who started a RPV-based regimen (11% ART-naïve), as well as 333 initiating an EFV-containing regimen were included. Participants who started RPV differed from those starting EFV for demographics (age, geographical region) and immune-virological profiles (CD4 count, HIV RNA). The cumulative risk of VF for the RPV-based group was 4.5% (95% CI 3.3–5.7%) by 2 years from starting treatment (71 total VF events). Five out of 15 (33%) with resistance data available in the RPV group showed resistance-associated mutations vs. 3/13 (23%) among those in the EFV group. Discontinuations due to intolerance/toxicity were reported for 73 (15%) of RPV- vs. 45 (30%) of EFV-treated participants (p = 0.0001). The main difference was for toxicity of central nervous system (CNS, 3% vs. 22%, p < 0.001). Conclusion Our estimates of VF > 50 copies/mL and resistance in participants treated with RPV were similar to those reported by other studies. RPV safety profile was favourable with less frequent discontinuation due to toxicity than EFV (especially for CNS).
Objectives The aim of the study was to evaluate the long‐term response to antiretroviral treatment ( ART ) based on atazanavir/ritonavir ( ATZ /r)‐, darunavir/ritonavir ( DRV /r)‐, and lopinavir/ritonavir ( LPV /r)‐containing regimens. Methods Data were analysed for 5678 Euro SIDA ‐enrolled patients starting a DRV /r‐, ATZ /r‐ or LPV /r‐containing regimen between 1 January 2000 and 30 June 2013. Separate analyses were performed for the following subgroups of patients: (1) ART ‐naïve subjects (8%) at ritonavir‐boosted protease inhibitor ( PI /r) initiation; (2) ART ‐experienced individuals (44%) initiating the new PI /r with a viral load ( VL ) ≤500 HIV ‐1 RNA copies/mL; and (3) ART ‐experienced patients (48%) initiating the new PI /r with a VL >500 copies/mL. Virological failure ( VF ) was defined as two consecutive VL measurements >200 copies/mL ≥24 weeks after PI /r initiation. Kaplan–Meier and multivariable Cox models were used to compare risks of failure by PI /r‐based regimen. The main analysis was performed with intention‐to‐treat ( ITT ) ignoring treatment switches. Results The time to VF favoured DRV /r over ATZ /r, and both were superior to LPV /r (log‐rank test; P < 0.02) in all analyses. Nevertheless, the risk of VF in ART ‐naïve patients was similar regardless of the PI /r initiated after controlling for potential confounders. The risk of VF in both treatment‐experienced groups was lower for DRV /r than for ATZ /r, which, in turn, was lower than for LPV /r‐based ART . Conclusions Although confounding by indication and calendar year cannot be completely ruled out, in ART ‐experienced subjects the long‐term effectiveness of DRV /r‐containing regimens appears to be greater than that of ATZ /r and LPV /r.