Secondary Logo

Journal Logo


Mild renal impairment is associated with calcified plaque parameters assessed by computed tomography angiography in people living with HIV

Cheru, Lediya T.a; Fitch, Kathleen V.a; Saylor, Charles F.a; Lu, Michaelb; Hoffmann, Udob; Lo, Janeta; Grinspoon, Steven K.a

Author Information
doi: 10.1097/QAD.0000000000002055



Cardiovascular disease (CVD) is increased among HIV-infected patients [1], which is because of traditional and nontraditional factors [2]. Among traditional risk factors, renal disease is increased among HIV-infected patients [3]. Prior studies have demonstrated that kidney disease is associated with CVD among non-HIV patients [4–6], but little is known about the relationship between chronic kidney disease (CKD) and CVD in HIV. Also, kidney disease in HIV is often subclinical in nature [7], and only one study, to our knowledge, has investigated whether subclinical, mild renal impairment relates to coronary artery disease in HIV patients using only Agatston score [8]. To extend these findings, we used computed tomography (CT) angiography to investigate the relationship of moderate changes in estimated glomerular filtration rate (eGFR) to calcified and noncalcified plaque parameters, in PLHIV and HIV negative participants.


Study design

This study reports on new analyses from a previously performed observational study of HIV-infected men and women and well matched non-HIV control participants to assess coronary plaque [9]. Participants between 18 and 65 years of age and with BMI 20–35 kg/m2 were recruited from Boston community centers and infectious disease clinics. One hundred and eighty-four men and women with chronic HIV infection [>5 years; 66% men, median age 48 (43,53) years] and seventy-two non-HIV controls [58% men, median age 47 (43,50) years] were enrolled as a comparison group. Controls were selected to be similar in age and sex, and from the same neighborhoods and health clinics as the HIV participants. Participants from both groups with known cardiac disease, arrhythmias, valvular disease, congestive heart failure or symptoms consistent with angina were excluded. In addition, participants with creatinine greater than 1.5 mg/dl were excluded to reduce the risk of contrast nephropathy. Participants with an acute illness of any type were also excluded. Finally, participants with contraindication to beta blockers and nitroglycerin were excluded. Cardiovascular risk was determined using total Framingham point score and 10-year Framingham CVD risk score. The 2013 ACC/AHA risk scoring algorithm was not used as the data were collected prior to the introduction of this scoring system, which can only score those 40 years and older, and would thus be inappropriate for this study. All participants provided informed consent prior to enrollment. The previous study was approved by the institutional review boards of Massachusetts General Hospital and Massachusetts Institute of Technology.

Coronary plaque measurement

Agatston calcium score was calculated using the noncontrast CT images by standardized techniques [9]. Coronary CT imaging was performed using a 64-slice CT scanner (Sensation 64; Siemens Medical Solutions) as previously described [9]. Assessment of coronary atherosclerotic plaque, including number of total coronary segments with plaque, coronary segments with calcified plaque, and coronary segments with noncalcified plaque were determined by a consensus reading between two investigators, including a cardiologist and a radiologist with significant experience in the interpretation of coronary CT. Total severity of coronary plaque score was determined by the sum of severity plaque score at each segment, which was based on plaque size assessed qualitatively by the cardiac imaging specialists at each individual coronary segment. A scoring system for total severity of coronary plaque was established using a numerical scale from zero to three. The system was defined as: 0, no plaque; 1, mild; 1.5, mild to moderate; 2, moderate; 2.5, moderate to severe; and 3, severe coronary plaque. Physicians analyzing the scans were blinded to the participants’ clinical history or HIV status.

Metabolic, biochemical, and immunologic parameters

Total cholesterol, high-density lipoprotein (HDL), low-density lipoprotein (LDL), triglycerides, glucose, hemoglobin A1c (HbA1c), and creatinine were determined using standard techniques. The Chronic-Kidney Disease- Epidemiology Collaboration (CKD-EPI) equation was used to calculate eGFR. CD4+ and CD8+ T-cell counts were assessed by flow cytometry. HIV viral load was determined by ultrasensitive real-time PCR (lower limit of detection 50 copies/ml). HIV testing was performed by chemiluminometric immunoassay and confirmed by western blot.

Statistical analysis

Normality of distribution was determined using the Shapiro–Wilks test. Continuous and normally distributed variables were analyzed using Student's t-test for two group comparisons and were presented as mean ± SEM. Nonnormally distributed variables were analyzed using Wilcoxon rank sum test for two group comparisons and were presented as median (IQR). Categorical variables were presented as proportions. Pearson correlation coefficient was used to assess relationships with eGFR and total severity of coronary plaque score, total coronary segments with plaque, coronary segments with calcified plaque, coronary segments with noncalcified plaque and Agatston score within the HIV and non-HIV groups. Total severity of coronary plaque score was presented as mean ± SEM when stratifying participants based on eGFR less than 90. Multivariable regression analysis was used to assess the relationship of eGFR to coronary plaque parameters and Agatston score within the HIV group and HIV negative controls, controlling for traditional CVD risk factors and duration of HIV diagnosis, viral load, CD4+ cell count, and protease inhibitor, tenofovir disoproxil (TDF), abacavir and efavirenz in the HIV group. Statistical significance was defined as P value less than 0.05. Statistical analyses were performed using SAS JMP (version 11.0; SAS Institute, Cary, North Carolina, USA).


Demographics and clinical parameters

PLHIV and HIV negative controls were well matched for age, sex, race, and ethnicity (Table 1). There was no significant difference in current tobacco use, hypertension, diabetes, and total Framingham point score between PLHIV and HIV negative controls. Clinical parameters (including SBP and DBP, and BMI) were not significantly different between the two groups. There were no significant differences in HbA1c, total cholesterol, LDL, and HDL levels. As expected, triglycerides were higher in PLHIV compared with HIV negative controls. Statin use was not different between the groups. There was no significant difference in serum creatinine levels between PLHIV and HIV negative controls (0.9 ± 0.2 and 0.9 ± 0.2 mg/dl, P = 0.96, respectively). eGFR was also similar between PLHIV and HIV negative controls, 96 ± 22 vs. 96 ± 24 ml/min per 1.73 m2, P = 0.99, respectively. The PLHIV group had a duration of HIV infection of 15 ± 7 years, and HIV viral load was 49 [47,49] copies/ml. Seventy-eight percent of PLHIV had undetectable viral load. The median CD4+ cell count was 536 [370,770] cells/μl. Seventy percent of PLHIV were on tenofovir disoproxil, 14% were on abacavir, and 28% were on efavirenz at the time of the study. Calcified plaque parameters and Agatston score were similar between HIV and non-HIV groups, whereas noncalcified plaque was increased in PLHIV (Table 1).

Table 1
Table 1:
Baseline demographics and clinical parameters.

Correlation between estimated glomerular filtration rate and traditional cardiovascular risk factors

In PLHIV, eGFR was correlated with SBP (r = −0.18, P = 0.03), CD4+ cell count (r = 0.22, P = 0.004), total Framingham point score (r = −0.17, P = 0.02), and 10-year Framingham CVD risk score (ρ = −0.19, P = 0.01) and was inversely related to duration of HIV infection (r = −0.14, P = 0.07; Table 2). In HIV negative controls, HDL (r = 0.25, P = 0.03) and 10-year Framingham CVD risk score (ρ = −0.33, P = 0.006) were significantly associated with eGFR. There was no correlation between eGFR and HbA1c, DBP, total cholesterol, LDL, triglycerides, or statin use in either group.

Table 2
Table 2:
Correlation of estimated glomerular filtration rate with traditional cardiovascular risk factors in people living with HIV and HIV negative controls.

Relationship of estimated glomerular filtration rate to antiretroviral therapy use among HIV-infected participants

eGFR was lower among participants receiving protease inhibitors and TDF treatments. PLHIV on efavirenz had significantly higher eGFR (Supplemental Table 1, There was no significant correlation between eGFR and nucleoside reverse transcriptase inhibitors (NRTI), non-nucleoside reverse transcriptase inhibitors (NNRTI), abacavir, or raltegravir.

Correlation between creatinine and estimated glomerular filtration rate with coronary plaque type in people living with HIV and HIV negative controls

In PLHIV, eGFR was inversely and significantly related to total severity of coronary plaque score, total coronary segments with plaque, number of coronary segments with calcified plaque, and Agatston score (Table 3). In contrast, eGFR did not correlate with coronary segments with noncalcified plaque in PLHIV. In the HIV negative group, directionally similar but less robust relationships were seen relating eGFR to plaque parameters. The relationship was the strongest between eGFR and number of coronary segments with calcified plaque, which trended toward significance. Creatinine related significantly to multiple plaque parameters in PLHIV, but these relationships were less robust than with eGFR (Table 3). The same was seen among the non-HIV group.

Table 3
Table 3:
Correlation between serum creatinine and estimated glomerular filtration rate and coronary plaque type in people living with HIV and HIV negative controls.

We stratified eGFR to indicate normal and impaired renal function, defined by eGFR less than 90 ml/min per 1.73 m2. PLHIV with eGFR less than 90 ml/min per 1.73 m2, had significantly higher total severity of coronary plaque score compared with PLHIV with eGFR greater than or equal to 90 ml/min per 1.73 m2, 3.46 ± 4.98 and 1.73 ± 3.07, P = 0.02, respectively (Fig. 1). Among HIV-negative controls, the difference in total severity of plaque score was less comparing participants with eGFR less than 90 ml/min per 1.73 m2 and participants with eGFR greater or equal to 90 min per 1.73 m2, and did not reach statistical significance (Fig. 1).

Fig. 1
Fig. 1:
Total severity of coronary plaque score in people living with HIV and HIV negative controls with estimated glomerular filtration rate at least 90 and less than 90 ml/min per 1.73 m2.In the HIV negative group, 27 participants had eGFR less than 90 and 29 had eGFR at least 90 ml/min per 1.73 m2. In PLHIV, 62 participants had eGFR less than 90 ml/min per 1.73 m2 and 71 had eGFR at least 90 ml/min per 1.73 m2. Data reported as mean ± SEM. eGFR, estimated glomerular filtration rate.

Multivariable regression modeling to evaluate the effect of estimated glomerular filtration rate on Agatston score and coronary plaque types

To evaluate whether the observed correlation between eGFR and coronary plaque types was independent of traditional CVD risk and HIV-specific risk factors, we performed multivariable regression analysis controlling for total Framingham point score, BMI, duration of HIV diagnosis, CD4+ cell count, HIV viral load, protease inhibitors, TDF, abacavir, and efavirenz use (Table 4). After adjusting for the above potential covariates, eGFR remained significantly correlated with coronary segments with calcified plaques (β = −0.009, P = 0.01) and Agatston score (β = −0.97, P = 0.02). In the model, TDF tended to be associated with total coronary segments with plaque, coronary segments with calcified plaque, and Agatston score. HIV viral load was also significantly and independently related to total coronary segments with plaque and Agatston score. The overall model was reasonably robust and highly significant, for example, explaining over 55% of the variability for Agatston score, a parameter often obtained clinically. We did not control for race or sex as that was included in the calculation of eGFR. Sensitivity analyses controlling for statin use showed similar results. Among HIV negative controls, eGFR tended to relate to coronary segments with calcified plaque, controlling for traditional CVD risk scores and BMI (Supplemental Table 2,

Table 4
Table 4:
Correlation between estimated glomerular filtration rate and Agatston score and coronary plaque after adjusting for traditional and nontraditional cardiovascular risk factors in people living with HIV.


Here for the first time, we show that mild subclinical renal impairment in PLHIV is independently correlated with coronary plaque assessed using CT angiography. Both creatinine and more strongly eGFR significantly correlated with critical indices of overall coronary plaque severity, including total severity of coronary plaque, total coronary segments with plaque, as well as calcium-specific indices including coronary segments with calcified plaque and Agatston score, but not with measures of noncalcified plaque, in PLHIV. The correlation between eGFR and key indices of calcified plaque, including the Agatston score, remained significant after multivariable regression analysis adjusting for total Framingham point score, BMI, CD4+ cell count, HIV viral load, duration of HIV diagnosis, and protease inhibitor, TDF, abacavir, and efavirenz use, suggesting a strong independent association, even among this group, chosen to exclude those with overt renal disease. These data provide further supporting evidence that mild subclinical renal disease, often common in HIV, may have important consequences for the development of coronary artery disease in this population.

In studies performed in the general population, CKD is associated with higher rates of CVD events [6,10,11]. Moreover, the most common cause of mortality and morbidity in individuals with CKD is CVD rather than progression to ESRD [5]. Traditional risk factors such as hypertension, diabetes, and obesity play an intricate role in both CVD and CKD. In CKD, nontraditional risk factors such as albuminuria, disorders of mineral metabolism, oxidative stress, and inflammation have been shown to be associated with increased risk of CVD events [4,12,13]. Furthermore, carotid artery studies in the general population have shown that individuals with CKD have significantly increased calcification and alteration in plaque composition and vulnerability for plaque rupture [14,15]. In one study, carotid intima–media thickness was inversely correlated with eGFR [15]. Bundy et al.[4] showed that lower eGFR was significantly associated with coronary artery calcification in non-HIV participants in the Chronic Renal Insufficiency Cohort (CRIC) study.

In contrast, there is sparse literature evaluating the relationship of CKD to CVD events and no data, to our knowledge, assessing the relationship of overt or subclinical CKD to coronary artery disease indices assessing detailed measures of plaque obtained using CT angiography in HIV. In the D:A:D study, PLHIV and increased predicted risk for CKD (eGFR < 60 ml/min per 1.73 m2) were shown to have higher CVD event rates [16,17]. In contrast to clinical CKD, subclinical CKD is more common in HIV [18]. In this regard, Roy et al.[8] demonstrated a relationship of eGFR to CAC score, among those with minimal changes in eGFR in the MACS cohort, but did not assess detailed indices of plaque by CTA and was thus unable to differentiate relationships of eGFR to specific plaque characteristics and plaque parameters including noncalcified plaque. We now extend the prior findings of Roy et al., demonstrating significant differences in coronary plaque severity at a higher eGFR threshold of 90 ml/min per 1.73 m2 and clear associations to detailed coronary plaque parameters across a range of eGFR consistent with subclinical disease. Assessing carotid intima–media thickness (cIMT), Serrano-Villar et al.[19] demonstrated an association between mild renal impairment defined as eGFR less than 90 ml/min and subclinical atherosclerosis in PLHIV but did not assess coronary plaque. Unlike these prior studies, we include women and show a more robust relationship between eGFR and plaque among HIV than non-HIV participants.

In the current study, we relate eGFR using the well accepted CKD-EPI formula, which accounts for race and sex, to measures of calcified and noncalcified coronary plaque in HIV-infected participants without a known history of CVD. Here, we demonstrate that mild renal impairment is significantly correlated with calcified plaque parameters, but not to noncalcified plaque parameters in PLHIV. This relationship to calcified but not to noncalcified plaque has not previously been compared in PLHIV. Calcified plaque is thought to relate to traditional CVD risk factors, whereas noncalcified plaque to other factors including immune activation in HIV [9,20,21]. Calcified plaque, more representative of traditional risk factors, is an important predictor of CVD events among non-HIV participants [22,23]. Such data is not yet available in PLHIV, but the ongoing REPRIEVE study will assess differential relationships of calcified and noncalcified plaque as well as eGFR to CVD events in HIV (NCT#02344290). Our finding suggests that early onset of subtle renal impairment can contribute to the development of calcified plaque in PLHIV. Importantly, we control for total Framingham point score, a global index of traditional CVD risk, and demonstrate persistent, independent associations of eGFR to coronary plaque and overall plaque burden, highlighting the independent effects of eGFR apart from other risk factors. Potential mechanisms by which subclinical renal disease and atherosclerosis are associated are likely multifactorial. Traditional risk factors such as age, sex, race, diabetes, hypertension, tobacco use and increased chronic inflammation from HIV alone can contribute to CKD and atherosclerotic disease [7,20,24–26]. Furthermore, HIV-related complications such as lipodystrophy and metabolic syndrome are also known to contribute to CVD [27–29]. Importantly, there may be a heightened interaction between mild renal impairment, immune and inflammatory factors, which drive increased coronary plaque in HIV. Indeed, in the current study, we show that HIV viral load is highly related to calcified plaque parameters consistent with prior data [18], suggesting that both traditional risk factors, including eGFR and nontraditional immune factors contribute to calcified plaque in this population.

Prior studies also suggest an association of antiretroviral therapy to CVD in PLHIV [30]. Older protease inhibitor-containing ART have been associated with increased risk of CVD [31,32]. However, there remain conflicting reports of the association of older NRTIs including abacavir and CVD risk and event rates [30,33–35]. There was no difference in eGFR between abacavir and nonabacavir users. Certain protease inhibitors and TDF-containing ARTs are well known to cause renal impairment [36]. Specifically, TDF has been well established as a nephrotoxic drug [37]. In this study, we show differences in eGFR among participants using protease inhibitors, TDF, and efavirenz. Importantly, controlling for the use of protease inhibitors, TDF, abacavir, and efavirenz, confirms an independent association of subtle renal disease and calcified coronary plaque. Indeed, overall severity of plaque was much greater above and below the eGFR threshold of 90 ml/min per 1.73 m2 in the HIV compared with the non-HIV group. These differences were not because of the fact of any differences in calcified plaque indices or eGFR between the groups. Further studies are needed to confirm this potentially important observation and assess the mechanisms of such an effect.

HIV negative controls were included in the current analysis, and demonstrate generally similar, but less robust associations between coronary plaque and eGFR. It is unknown why subtle renal impairment relates more strongly to plaque in HIV patients. HIV and non-HIV groups may differ in the biological mechanisms of plaque formation. Alterations in kidney function resulting from virological factors may contribute to immune activation and other mechanisms of advanced plaque formation [38,39]. Future research is needed to further elaborate on this issue.

This study has a number of strengths but also some important limitations. The data are cross-sectional and thus we cannot assess the relationship of subtle changes in eGFR and plaque over time or the threshold or development of significant plaque. Moreover, as the cohort excluded participants with overt renal disease, we did not assess potential mechanistic covariates, such as calcium, phosphate, albuminuria and FGF-23. Nonetheless, we do show a novel association of subtle renal impairment with coronary plaque, assessed using the CTA technique. Moreover, our study points out potential differences with simultaneously assessed non-HIV participants of similar race, ethnicity, sex, and with overall similar CVD risk and renal function. Our finding demonstrates the clinical significance of early assessment of renal function in PLHIV, which may presage development of advanced coronary atherosclerosis. Future studies are needed to assess whether such mild impairment in renal function is associated with CVD events in PLHIV and importantly, whether early treatment of mild renal impairment with ACEI or ARB will prevent events or improve coronary plaque indices. Additionally, aggressive management of diabetes, hypertension, hyperlipidemia including life style changes may be particularly warranted in such patients.

Our data highlight a robust relationship between subclinical renal impairment and overall coronary artery disease burden among PLHIV. This finding emphasizes the importance of identifying renal disease in the early stages and that potential intervention with medical therapy and referral to nephrologist may be needed in such patients. Further research is needed to understand the interplay between renal impairment and cardiovascular disease in HIV and clinical impact of this relationship in HIV.


We would like to thank our devoted volunteers who participated in the study and the nursing staff at Massachusetts General Hospital Translational and Clinical Research Center. Contribution of the authors are study conception (L.C., S.K.G., J.L.), study design (J.L., S.K.G.), subject recruitment (J.L., K.V.F.), data acquisition and database management (L.C., K.V.F., J.L., S.K.G.), cardiac imaging data acquisition and analysis (M.L.), statistical analysis and interpretation (L.C., S.K.G.) drafting of the manuscript (L.C., S.K.G.), critical revision of manuscript (J.L., K.V.F., C.F.S., U.H., M.L.), and supervision of the study (S.K.G.).

Declaration of interest: L.T.C., K.V.F., C.F.S. have nothing to declare. U.H. received grant support from Siemens Healthcare, the American College of Radiology Imaging Network, and HeartFlow Inc. M.L. received consulting fees from PQBypass and research support from NVIDIA. J.L. participated in a Scientific Advisory Board meeting for Gilead Sciences and served as a consultant for Viiv Healthcare; S.K.G. has received research funding from Gilead Sciences, KOWA, and Theratechnologies, and served as a consultant for Navidea Inc. and Theratechnologies. All declaration of interests of co-authors are unrelated to the design of this study and the preparation of this manuscript.

Funding sources: This work was supported by NIH RO1HL123351 (J.L.), NIH K23HL092792 (J.L.), NIH 5T32DK007028-44 (L.T.C.), and Bristol Myers Squibb, Inc. This project was also supported by Grant Number 1 UL1 RR025758-04, the Harvard Clinical and Translational Science Center, the National Center for Research Resources, and the Nutrition Obesity Research Center at Harvard, P30DK 040561. Funding sources were not involved in the design of the study, data analysis or the writing of the manuscript.

Conflicts of interest

There are no conflicts of interest.


1. Triant VA, Grinspoon SK. Epidemiology of ischemic heart disease in HIV. Curr Opin HIV AIDS 2017; 12:540–547.
2. Grinspoon SK. Cardiovascular disease in HIV: traditional and nontraditional risk factors. Top Antivir Med 2014; 22:676–679.
3. Overton ET, Nurutdinova D, Freeman J, Seyfried W, Mondy KE. Factors associated with renal dysfunction within an urban HIV-infected cohort in the era of highly active antiretroviral therapy. HIV Med 2009; 10:343–350.
4. Bundy JD, Chen J, Yang W, Budoff M, Go AS, Grunwald JE, et al. CRIC Study Investigators. Risk factors for progression of coronary artery calcification in patients with chronic kidney disease: the CRIC study. Atherosclerosis 2018; 271:53–60.
5. Dalrymple LS, Katz R, Kestenbaum B, Shlipak MG, Sarnak MJ, Stehman-Breen C, et al. Chronic kidney disease and the risk of end-stage renal disease versus death. J Gen Intern Med 2011; 26:379–385.
6. Liu M, Li XC, Lu L, Cao Y, Sun RR, Chen S, et al. Cardiovascular disease and its relationship with chronic kidney disease. Eur Rev Med Pharmacol Sci 2014; 18:2918–2926.
7. Cristelli MP, Trullas JC, Cofan F, Rico N, Manzardo C, Ambrosioni J, et al. Clinical Investigators. Prevalence and risk factors of mild chronic renal failure in HIV-infected patients: influence of female gender and antiretroviral therapy. Braz J Infect Dis 2018; 22:193–201.
8. Roy SK, Estrella MM, Darilay AT, Budoff MJ, Jacobson LP, Witt MD, et al. Glomerular filtration rate and proteinuria associations with coronary artery calcium among HIV-infected and HIV-uninfected men in the Multicenter AIDS Cohort Study. Coron Artery Dis 2017; 28:17–22.
9. Lo J, Abbara S, Shturman L, Soni A, Wei J, Rocha-Filho JA, et al. Increased prevalence of subclinical coronary atherosclerosis detected by coronary computed tomography angiography in HIV-infected men. AIDS 2010; 24:243–253.
10. Hinderliter A, Padilla RL, Gillespie BW, Levin NW, Kotanko P, Kiser M, et al. Association of carotid intima-media thickness with cardiovascular risk factors and patient outcomes in advanced chronic kidney disease: the RRI-CKD study. Clin Nephrol 2015; 84:10–20.
11. Matsushita K, van der Velde M, Astor BC, Woodward M, Levey AS, de Jong PE, et al. Association of estimated glomerular filtration rate and albuminuria with all-cause and cardiovascular mortality in general population cohorts: a collaborative meta-analysis. Lancet 2010; 375:2073–2081.
12. Xue C, Yang B, Zhou C, Dai B, Liu Y, Mao Z, et al. Fibroblast growth factor 23 predicts all-cause mortality in a dose-response fashion in pre-dialysis patients with chronic kidney disease. Am J Nephrol 2017; 45:149–159.
13. Tuegel C, Katz R, Alam M, Bhat Z, Bellovich K, de Boer I, et al. GDF-15, galectin 3, soluble ST2, and risk of mortality and cardiovascular events in CKD. Am J Kidney Dis 2018; 72:519–528.
14. Pelisek J, Assadian A, Sarkar O, Eckstein HH, Frank H. Carotid plaque composition in chronic kidney disease: a retrospective analysis of patients undergoing carotid endarterectomy. Eur J Vasc Endovasc Surg 2010; 39:11–16.
15. Kajitani N, Uchida HA, Suminoe I, Kakio Y, Kitagawa M, Sato H, et al. Chronic kidney disease is associated with carotid atherosclerosis and symptomatic ischaemic stroke. J Int Med Res 2018; 46:3873–3883.
16. Boyd MA, Mocroft A, Ryom L, Monforte AD, Sabin C, El-Sadr WM, et al. Cardiovascular disease (CVD) and chronic kidney disease (CKD) event rates in HIV-positive persons at high predicted CVD and CKD risk: a prospective analysis of the D:A:D observational study. PLoS Med 2017; 14:e1002424.
17. Ryom L, Lundgren JD, Ross M, Kirk O, Law M, Morlat P, et al. Renal impairment and cardiovascular disease in HIV-positive individuals: the D:A:D study. J Infect Dis 2016; 214:1212–1220.
18. Post WS, Budoff M, Kingsley L, Palella FJ Jr, Witt MD, Li X, et al. Associations between HIV infection and subclinical coronary atherosclerosis. Ann Intern Med 2014; 160:458–467.
19. Serrano-Villar S, Estrada V, Gomez-Garre D, Avila M, Fuentes-Ferrer M, Sanchez-Parra C, et al. Incipient renal impairment as a predictor of subclinical atherosclerosis in HIV-infected patients. J Acquir Immune Defic Syndr 2012; 59:141–148.
20. Tawakol A, Lo J, Zanni MV, Marmarelis E, Ihenachor EJ, MacNabb M, et al. Increased arterial inflammation relates to high-risk coronary plaque morphology in HIV-infected patients. J Acquir Immune Defic Syndr 2014; 66:164–171.
21. Zanni MV, Abbara S, Lo J, Wai B, Hark D, Marmarelis E, et al. Increased coronary atherosclerotic plaque vulnerability by coronary computed tomography angiography in HIV-infected men. AIDS 2013; 27:1263–1272.
22. Miller PE, Haberlen SA, Metkus T, Rezaeian P, Palella F, Kingsley LA, et al. HIV and coronary arterial remodeling from the Multicenter AIDS Cohort Study (MACS). Atherosclerosis 2015; 241:716–722.
23. De Socio GV, Pucci G, Baldelli F, Schillaci G. Observed versus predicted cardiovascular events and all-cause death in HIV infection: a longitudinal cohort study. BMC Infect Dis 2017; 17:414.
24. Fitch KV, Srinivasa S, Abbara S, Burdo TH, Williams KC, Eneh P, et al. Noncalcified coronary atherosclerotic plaque and immune activation in HIV-infected women. J Infect Dis 2013; 208:1737–1746.
25. Woolnough EL, Hoy JF, Cheng AC, Walker RG, Chrysostomou A, Woolley I, et al. Predictors of chronic kidney disease and utility of risk prediction scores in HIV positive individuals. AIDS 2018; 32:1829–1835.
26. Park J, Zuniga JA. Chronic kidney disease in persons living with HIV: a systematic review. J Assoc Nurses AIDS Care 2018; 29:655–666.
27. Grinspoon S, Carr A. Cardiovascular risk and body-fat abnormalities in HIV-infected adults. N Engl J Med 2005; 352:48–62.
28. Grinspoon SK. Metabolic syndrome and cardiovascular disease in patients with human immunodeficiency virus. Am J Med 2005; 118 (Suppl 2):23S–28S.
29. Hadigan C, Meigs JB, Corcoran C, Rietschel P, Piecuch S, Basgoz N, et al. Metabolic abnormalities and cardiovascular disease risk factors in adults with human immunodeficiency virus infection and lipodystrophy. Clin Infect Dis 2001; 32:130–139.
30. Chastain DB, Henderson H, Stover KR. Epidemiology and management of antiretroviral-associated cardiovascular disease. Open AIDS J 2015; 9:23–37.
31. Iloeje UH, Yuan Y, L’Italien G, Mauskopf J, Holmberg SD, Moorman AC, et al. Protease inhibitor exposure and increased risk of cardiovascular disease in HIV-infected patients. HIV Med 2005; 6:37–44.
32. Friis-Moller N, Reiss P, Sabin CA, Weber R, Monforte A, El-Sadr W, et al. Class of antiretroviral drugs and the risk of myocardial infarction. N Engl J Med 2007; 356:1723–1735.
33. Sabin CA, Reiss P, Ryom L, Phillips AN, Weber R, Law M, et al. D:A:D Study Group. Is there continued evidence for an association between abacavir usage and myocardial infarction risk in individuals with HIV? A cohort collaboration. BMC Med 2016; 14:61.
34. Marcus JL, Neugebauer RS, Leyden WA, Chao CR, Xu L, Quesenberry CP Jr, et al. Use of abacavir and risk of cardiovascular disease among HIV-infected individuals. J Acquir Immune Defic Syndr 2016; 71:413–419.
35. Martin A, Amin J, Cooper DA, Carr A, Kelleher AD, Bloch M, et al. Abacavir does not affect circulating levels of inflammatory or coagulopathic biomarkers in suppressed HIV: a randomized clinical trial. AIDS 2010; 24:2657–2663.
36. Ryom L, Mocroft A, Kirk O, Worm SW, Kamara DA, Reiss P, et al. D:A:D Study Group. Association between antiretroviral exposure and renal impairment among HIV-positive persons with normal baseline renal function: the D:A:D study. J Infect Dis 2013; 207:1359–1369.
37. Cuzin L, Pugliese P, Allavena C, Rey D, Chirouze C, Bani-Sadr F, et al. Antiretroviral therapy as a risk factor for chronic kidney disease: results from traditional regression modeling and causal approach in a large observational study. PLoS One 2017; 12:e0187517.
38. Ross MJ. Advances in the pathogenesis of HIV-associated kidney diseases. Kidney Int 2014; 86:266–274.
39. Rednor SJ, Ross MJ. Molecular mechanisms of injury in HIV-associated nephropathy. Front Med (Lausanne) 2018; 5:177.

cardiovascular disease; coronary artery plaque; estimated glomerular filtration rate; HIV; renal impairment

Supplemental Digital Content

Copyright © 2019 Wolters Kluwer Health, Inc.