Literature DB >> 30240419

Antiretroviral exposure and comorbidities in an aging HIV-infected population: The challenge of geriatric patients.

Clotilde Allavena1,2, Matthieu Hanf2,3, David Rey4, Claudine Duvivier5,6,7, Firouze BaniSadr8,9, Isabelle Poizot-Martin10,11, Christine Jacomet12, Pascal Pugliese13, Pierre Delobel14,15, Christine Katlama16,17, Véronique Joly18,19, Christian Chidiac20, Nathalie Dournon21,22, Dominique Merrien23, Thierry May24, Jacques Reynes25,26, Amandine Gagneux-Brunon27, Catherine Chirouze28,29, Thomas Huleux30, André Cabié22,31,32, François Raffi1,2.   

Abstract

As HIV-infected adults on successful antiretroviral therapy (ART) are expected to have close to normal lifespans, they will increasingly develop age-related comorbidities. The objective of this cross-sectional study was to compare in the French Dat'AIDS cohort, the HIV geriatric population, aged 75 years and over, to the elderly one, aged from 50 to 74 years. As of Dec 2015, 16,436 subjects (43.8% of the French Dat'AIDS cohort) were aged from 50 to 74 (elderly group) and 572 subjects (1.5%) were aged 75 and over (geriatric group). Durations of HIV infection and of ART were slightly but significantly different, median at 19 and 18 years, and 15 and 16 years in the elderly and geriatric group, respectively. The geriatric group was more frequently at CDC stage C and had a lower nadir CD4. This group had been more exposed to first generation protease inhibitors and thymidine analogues. Despite similar virologic suppression, type of ART at the last visit significantly differed between the 2 groups: triple ART in 74% versus 68.2%, ART ≥ 4 drugs in 4.7% versus 2.7%; dual therapy in 11.6% versus 16.4% in the elderly group and the geriatric group, respectively. In the geriatric group all co-morbidities were significantly more frequent, except dyslipidemia, 4.3% of the elderly group had ≥4 co-morbidities versus18.4% in the geriatric group. Despite more co-morbidities and more advanced HIV infection the geriatric population achieve similar high rate of virologic suppression than the elderly population. A multidisciplinary approach should be developed to face the incoming challenge of aging HIV population.

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Year:  2018        PMID: 30240419      PMCID: PMC6150468          DOI: 10.1371/journal.pone.0203895

Source DB:  PubMed          Journal:  PLoS One        ISSN: 1932-6203            Impact factor:   3.240


Introduction

As a benefit of long term suppressive antiretroviral therapy with improved tolerability, the number of aging HIV infected individuals is increasing with about half of them above 50 years of age or over in high-income countries [1, 2]. Both life expectancy and mortality rates improved over time linked with coverage improvement, quality and tolerability of ART regimens and HIV care[3, 4]. A 20-year-old HIV-positive adult on ART in the U.S. or Canada is expected to live into his early 70‘s, a life expectancy approaching that of the general population. However, large differences in life expectancy persist between certain sub-groups of patients according to sex, race, HIV transmission risk group, lifestyle and CD4 cell counts at ART initiation[3, 5, 6]. It is well-established that multimorbidity increases with age, moreover comorbidities, including cardiovascular diseases, diabetes, cancer, cognitive dysfunction, depression and osteopenia are more frequent in the HIV population[7-11]. Many age-related illnesses can be driven by HIV itself, and drug toxicities may play a role in specific organ systems and interact with medical conditions typically associated with advanced age[2, 12]. Due to the increased risk of age-related co-morbidities among HIV-positive adults, it is possible that life expectancy may plateau or decrease in the future. However, the concept of premature aging of HIV-infected persons appears to be controversial, particularly when considering the investigation of the effects of age on non–AIDS-defining malignancies[13]. Even if aging HIV cohorts included subjects aged 50 years and older, so far few of them have focused on geriatric population of HIV-infected patients aged 75 and over. It could be anticipated that the geriatric HIV population will have more co-morbidities and co-medications, much longer HIV infection, then more complex and/or less standard antiretroviral regimens, therefore a higher risk of not being virologically suppressed. The objective of this study was to assess to which extent the HIV geriatric population aged 75 and older differed from the HIV elderly population in terms of demographic and immuno-virological characteristics, ART history and current ART, and comorbidities.

Material and methods

DatAIDS cohort is a French multicentric prospective cohort involving 19 HIV reference centres in France (Clinicaltrials.gov ref NCT02898987). These reference centres maintain prospective databases of all HIV infected patients seeking care in the centres and providing written consent. The data collection has been approved by the French national commission on informatics and liberty (CNIL). The database is implemented via an electronic medical[14]. DatAIDS cohort collects sociodemographic and clinical data, medical and ARV history, immunological and virological status at regular 3- to 6- month intervals during routine clinical assessment. For the purpose of the study we selected all HIV patients aged 50 year-old and over at the last visit, with at least one visit since 2004 and still on follow-up at the censoring date (Dec 31st 2015). Patients were classified as “elderly” if they were aged between 50 and 74 and “geriatric” if they were aged 75 or older at the latest visit. Medical history collected data on past or current diabetes (insulin-dependent or non insulin-dependent diabetes), hypertension (confirmed blood pressure above 140/90 mm Hg or hypertension treatment), dyslipidaemia (hypercholesterolemia and/or hypertriglyceridemia or treatment with lipid lowering agent), history of cardiovascular disease (ischemic cardiovascular disease or stroke), depression, and cancer. Renal insufficiency was defined by a confirmed estimated glomerular filtration rate below 60 ml/min/1.73 m2, as calculated using the Modification of Diet in Renal Disease (MDRD) formula. Continuous variables were described by their medians and interquartile ranges (IQR) and compared between groups using a Mann-Whitney test. Categorical variables were described by proportions and compared by chi-square tests. R software version 3.0.2 was used for the analyses.

Results

Among the 37,511 HIV infected adult patients included in the DatAIDS cohort with at least one visit since 2004 and still on follow-up at the 31 December 2015, 17 008 (45.3%) were older than 50 years (S1 Dataset). Among them 16,436 subjects were aged between 50 and 75 years and classified in the elderly group and 572 subjects were aged 75 years or older and classified in the geriatric group. The geriatric group represented 1.5% of the whole population. Socio-demographics and clinical characteristics of the elderly and geriatric groups are presented in Table 1. At the last visit, there was no difference in the proportion of HIV-1 infected subjects on ART, 97.3% and 97.2% in the geriatric and the elderly group, respectively, with a duration of known HIV infection slightly shorter in the geriatric group than in the elderly group (18.0 vs 19.0 years, p = 0.029) and a median duration of ART significantly longer in the geriatric group than in the elderly group, (16.0 vs 15.0 years, p = 0.003).
Table 1

Socio-demographic, clinical and immune-virological characteristics of the Elderly and Geriatric populations.

 Elderly 50–74Geriatric ≥75P. value
 n = 16 436n = 572
Age, median [IQR]56[52–61]78[76–81]< 0.001
Male, n (%)12,300(74.8)416(72.7)0.275
HBV and/or HCV Hepatitis coinfection*, n (%)4,118(25.1)53(9.3)< 0.001
HIV-2 infection, n (%)205(1.2)5(0.9)0.547
HIV transmission, n (%)< 0.001
    heterosexual6,871(44.7)281(55.4)
    MSM6,057(39.4)194(38.3)
    others2,431(15.8)32(6.3)
Country of birth, n (%)< 0.001
    France6,800(64.5)238(68.0)
    African countries1,811(17.2)32(9.1)
    Others2,308(18.3)80(22.9)
Age at HIV diagnosis, median [IQR]39[31–48]61[56–67]<0.001
    <50 year-old, n (%)13,318(81.3)40(7.0)
    50–75 year-old, n (%)3,063(18.7)485(85.1)
    ≥75 year-old, n (%)0(0.0)45(7.9)
Time since HIV diagnosis, year, med. [IQR]19[11–25]18[13–23]0.029
CDC stage C, n (%)4,713(28.8)192(33.6)0.015
CD4/mm3 at diagnosis, median [IQR]300[122–495]246[113–430]0.039
Nadir CD4 /mm3, median [IQR]183[70–297]159[71–268]<0.001
BMI, n (%)< 0.001
    underweight1688(4.3)119(21.6)
    normal weight29,596(60.6)390(70.8)
    overweight34,142(26.2)30(5.4)
    obesity41,402(8.9)12(2.2)
25(OH)Vitamin D, ng/mL, median [IQR]31[21–45]30[21–45]0.716
Serology CMV positive, n (%)10,443(87.2)373(93.0)< 0.001
Current smoker, n (%)4,874(38.7)31(7.5)< 0.001
Alcohol abuse**, n (%)2,980(26.1)83(21.5)0.049
IVDU current/past, n (%)4,901(38.6)96(23.0)< 0.001
At last visit
    CD4 /mm3, median [IQR]504[324–720]456[304–634]< 0.001
    CD4/CD8 ratio, median [IQR]0.6[0.4–1.0]0.6[0.4–0.9]0.137
    CD4≥500/mm3 and CD4/CD8≥1, n (%)2,452(19.8)74(17.1)0.178
    HIV RNA <50 c/mL, n(%)10,893(89.8)384(89.9)0.969
    HIV RNA <50 c/mL on ART5, n(%)10,739(90.6)378(90.9)0.932

BMI (Body Mass Index)

* Hepatitis B virus and/or Hepatitis C virus co-infection

1 <18 in Elderly, <21 in Geriatric

2 18–25 in Elderly, 21–30 in Geriatric

3 25–30 in Elderly, 30–35 in Geriatric

4 >30 in Elderly, >35 in Geriatric

5HIV-1 only

** More than 2 glasses of alcohol per day

BMI (Body Mass Index) * Hepatitis B virus and/or Hepatitis C virus co-infection 1 <18 in Elderly, <21 in Geriatric 2 18–25 in Elderly, 21–30 in Geriatric 3 25–30 in Elderly, 30–35 in Geriatric 4 >30 in Elderly, >35 in Geriatric 5HIV-1 only ** More than 2 glasses of alcohol per day At last visit, elderly patients were more frequently receiving a standard triple ART compared to of geriatric patients (74% and 68.2% respectively, p = 0.003), while proportion of patients receiving 4 or more ARVs and a dual therapy were 4.7% and 11.6% for the elderly group and2.7% and 16.5% for the geriatric grou, respectively (p = 0.042 and p <0.001). ART regimens at the last visit for elderly and geriatric HIV-1 infected patients are detailed in Table 2. Plasma HIV RNA was below 50 copies/mL in 90.6% and 90.9% of the subjects on ART in the elderly and geriatric group, respectively (p = 0.932).
Table 2

Current ART regimens in the elderly and geriatric groups (restricted to HIV-1 infected subjects).

VariableElderly (50–74)Geriatric (≥75)P. value*
On ART, n (%)15,795 (96.1)551 (96.3)0.914
Duration on ART, year, median [IQR]15 [8–19]16 [10–19]0.003
ART regimen   
Triple therapy, n (%)11,692 (74.0)376 (68.2)0.003
    2 NRTIs + 1 INSTI, n (%)3,590 (22.7)116 (21.1)0.383
    2 NRTIs + 1 PI, n (%)258 (1.6)16 (2.9)0.034
    2 NRTIs + 1 bPI, n (%)2,845 (18.0)77 (14.0)0.018
    2 NRTIs + 1 NNRTI, n (%)4,894 (31.0)156 (28.3)0.198
    3 NRTIs, n (%)105 (0.7)11 (2.0)< .001
Monotherapy, n (%)402 (2.5)18 (3.3)0.360
    Monotherapy with bPI, n (%)368 (2.3)17 (3.1)0.314
    Other, n (%)34 (0.2)1 (0.2)0.999
Dual therapy, n (%)1,831 (11.6)91 (16.5)< .001
    bPI + NNRTI, n (%)220 (1.4)6 (1.1)0.678
    bPI + INSTI, n (%)376 (2.4)14 (2.5)0.920
    bPI + LAM, n (%)63 (0.4)4 (0.7)0.400
    bPI + other, n (%)182 (1.2)6 (1.1)0.999
    INSTI + NNRTI, n (%)613 (3.9)31 (5.6)0.050
    2 NRTIs, n (%)59 (0.4)5 (0.9)0.104
    Other with no bPI, n (%)318 (2.0)25 (4.5)< .001
4 drugs and more, n (%)737 (4.7)15 (2.7)0.042

ART: antiretroviral therapy, PI: protease inhibitor, bPI: boosted protease inhibitor, NRTI: nucleoside/nucleotide reverse transcriptase inhibitor, NNRTI: non-nucleoside reverse transcriptase inhibitor, INSTI: integrase inhibitor, LAM: lamivudine

* Continuous variables were compared using a Mann-Whitney test. Categorical variables were compared by χ2 tests.

ART: antiretroviral therapy, PI: protease inhibitor, bPI: boosted protease inhibitor, NRTI: nucleoside/nucleotide reverse transcriptase inhibitor, NNRTI: non-nucleoside reverse transcriptase inhibitor, INSTI: integrase inhibitor, LAM: lamivudine * Continuous variables were compared using a Mann-Whitney test. Categorical variables were compared by χ2 tests. The elderly group had been less frequently exposed than the geriatric group to first-generation protease inhibitors and nucleoside reverse transcriptase inhibitors, 51.7% versus 59.0% (p<0.001) and 71.0% vs 79.9% (p<0.001), respectively. Exposure to non-nucleoside reverse transcriptase inhibitors and integrase inhibitors was similar between both groups (Table 3).
Table 3

ART exposure in the elderly and geriatric groups (restricted to HIV-1 infected subjects on ART).

Exposure to ARV and duration (months) in exposed patientsElderly (50–74)Geriatric (≥75)P. value*
n = 15,795n = 551
N(%)Median [IQR]N(%)Median [IQR]
PI13,205 (83.6)94 [41–154]461 (83.7)94 [39–150]0.999
    First generation PI 18,170 (51.7)49 [26–89]325 (59)45 [24–78]< .001
    LPV/RTV5,721 (36.2)38 [14–76]202 (36.7)33 [9–73]0.868
    DRV/RTV5,690 (36)41 [17–68]164 (29.8)44 [20–68]0.003
    ATV/RTV5,499 (34.8)55 [22–92]183 (33.2]67 [27–100]0.465
NRTI15,719 (99.5)159 [93–218]551 (100)175 [110–226]0.189
    First generation NRTI211,213 (71)97 [58–136]440 (79.9)107 [63–153]< .001
    TDF12,849 (81.3)73 [36–107]387 (70.2)69 [25–97]< .001
    ABC9,076 (57.5)58 [18–109]370 (67.2)66 [21–122]< .001
NNRTI11,897 (75.3)62 [23–120]423 (76.8)74 [25–144]0.468
    Nevirapine5,332 (33.8)40 [9–110]222 (40.3)54 [11–139]0.002
    Efavirenz6,810 (43.1)41 [11–94]226 (41)43 [10–110]0.350
    Rilpivirine2,570 (16.3)20 [9–31]75 (13.6)11 [6–21]0.108
    Etravirine2,521 (16)39 [16–67]72 (13.1)51 [32–78]0.077
INSTI36,999 (44.3)28 [10–67]253 (45.9)36 [12–66]0.483
Enfuvirtide776 (4.9)13 [5–28]24 (4.4)9 [6–15]0.620

PI: protease inhibitor, LPV: lopinavir, DRV: darunavir, ATV: atazanavir, RTV: ritonavir, NRTI: nucleoside/nucleotide reverse transcriptase inhibitor, TDF: tenofovir DF, ABC: abacavir, ZDV: zidovudine, NNRTI: non-nucleoside reverse transcriptase inhibitor, INSTI: integrase inhibitor

1 RTV full dose, amprénavir, fosamprenavir, indinavir, nelfinavir, saquinavir, tipranavir

2zidovudine, didanosine, stavudine, zalcitabine

3 raltegravir, elvitegravir/cobicistat, dolutegravir

* Exposures were compared by χ2 tests

PI: protease inhibitor, LPV: lopinavir, DRV: darunavir, ATV: atazanavir, RTV: ritonavir, NRTI: nucleoside/nucleotide reverse transcriptase inhibitor, TDF: tenofovir DF, ABC: abacavir, ZDV: zidovudine, NNRTI: non-nucleoside reverse transcriptase inhibitor, INSTI: integrase inhibitor 1 RTV full dose, amprénavir, fosamprenavir, indinavir, nelfinavir, saquinavir, tipranavir 2zidovudine, didanosine, stavudine, zalcitabine 3 raltegravir, elvitegravir/cobicistat, dolutegravir * Exposures were compared by χ2 tests Co-morbidities were significantly more frequent in the geriatric group, except for dyslipidemia (Table 4). The most frequent comorbidities in the geriatric group were dyslipidemia (60.8%), hypertension (43.5%), chronic renal disease (29.4%) and cardiovascular disease (23.4%). In the geriatric group, 32.2% of the subjects had no more than one comorbidity, 49.5% had 2 or 3 comorbidities and 18.4% had 4 comorbidities or more, compared to 60.1%, 34.7% and 5.3%, respectively in the elderly group.
Table 4

Co-morbidities in the Elderly and Geriatric group.

Co-morbidityElderly (50–74)Geriatric (≥75)P.value*
n = 16,436N(%)n = 572N(%)
Diabetes1490 (9.1)126 (22)< .001
Hypertension3452 (21)249 (43.5)< .001
Chronic renal disease738 (4.5)168 (29.4)< .001
Dyslipidemia9584 (58.3)348 (60.8)0.245
Cardiovascular disease1775 (10.8)134 (23.4)< .001
Osteoporosis1046 (6.4)72 (12.6)< .001
Depression2933 (17.8)80 (14)0.020
Cancer2026 (12.3)131 (22.9)< .001
Number of comorbidities   
    0–19870 (60.1)184 (32.2)< .001
    2–35701 (34.7)283 (49.5)
    ≥ 4865 (5.3)105 (18.4)

* Co-morbidities were compared by χ2 tests

* Co-morbidities were compared by χ2 tests

Discussion

This study describes an aging HIV-infected population and because of the large population size we were able to compare an elderly population aged 50 to 74 years to a geriatric population aged 75 and over. To our knowledge our study is the first one to describe HIV and ART history, as well as comorbidities in a geriatric HIV population and shows that the high rate of virologic suppression is similar within the 2 groups despite more frequent comorbidities, a longer exposure to first generation protease inhibitors and thymidine analogs and more frequent non classical antiretroviral regimen in the geriatric group. Interestingly, the geriatric group had a significantly shorter duration of HIV infection than the elderly group, and had a significantly longer duration of antiretroviral therapy than the elderly population. However, these differences were only around 1 year, while difference in median age of the 2 groups was 22 years, suggesting that the geriatric group either acquired HIV infection at an already advanced age (93% of the geriatric subjects were diagnosed after 50 years old and among them 7.9% after 75 years old), or was diagnosed late after many years of latent chronic HIV infection (median age at HIV diagnosis of 61 years). Indeed, the geriatric group had a significantly lower nadir CD4 cell count and a higher prevalence of CDC stage C and a median age at HIV diagnosis of 61 years. Of note, and in contrast with the elderly group, geriatric patients had acquired HIV mainly through heterosexual contact, which could contribute to a lower perception of the risk of HIV infection and to increased delay for HIV testing. Studies on missed opportunities for HIV diagnosis have identified old age and being heterosexual has significant risk factors for being diagnosed late [15, 16]. Although the geriatric population had been more frequently exposed to first-generation ARVs, including protease inhibitors and thymidine analogue nucleoside reverse transcriptase inhibitors, they were less likely to receive complex regimens consisting of 4 ARVs or more and more likely to receive a dual therapy. This suggests that with newer ARVs, the need for complex antiretroviral regimens consisting of multiple drugs because of cumulative or cross-resistance is decreasing. On the other hand, because of a higher prevalence of co-morbidities, a higher number of co-medications, or an age-related chronic renal impairment, adaptation of treatment to avoid cumulative toxicities or drug-drug-interactions is probably more frequently needed in geriatric patients, which could explain the more frequent use of dual therapy in this population. Use of nucleosidic- and PI- sparing regimens to avoid the cumulative toxicity of antiretroviral therapy represents a major issue, particularly in aging subjects highly ART experienced, confronted with lipodystrophy, renal, cardio-vascular and other co-morbidities. Dual therapy has been shown to be a possible switch option in virologically suppressed patients, as long as certain conditions are fulfilled[17]. Some of these dual therapies have been evaluated among them combination of an integrase inhibitor plus a non nucleosidic reverse transcriptase inhibitor, lamivudine or maraviroc with a benefit on lipid profile and bone mineral density[18-20]. The combination of one integrase inhibitor plus one non nucleosidic reverse transcriptase inhibitor was the dual therapy most frequently prescribed in the geriatric group. Recent data of the ANRS163-ETRAL study showed the robust and potent activity with an excellent safety profile of the dual therapy raltegravir plus etravirine in subjects over 45 years virologically suppressed and with a long history of antiretroviral therapy and frequent lipodystrophy[21]. The dual therapy in maintenance of dolutegravir plus either rilpivirine or lamivudine have also shown reassuring results both on efficacy and renal tolerability, with the advantage of a simple once-daily regimen[22] [18]. With the development of these new promising PI-sparing and/or NRTI-sparing switch dual therapy, future studies need to address their specific benefit in HIV geriatric patients. Interestingly, not only older age but also a high number of comorbidities was driving the choice for a mono/dual therapy. These data suggest that physicians are more and more concerned about prevention of comorbidities and long-term toxicities. In the general population, co-morbidities are increasing with age and are not linear but rather significantly accelerate at older age. Our result is consistent with the study of Guaraldi at al. where 14% of patients aged 60 year-old and over had 4 comorbidities or more[23]. Some studies have shown a higher and earlier frequency of these comorbidities in the HIV population compared with the general population[5, 24]. Some of these comorbidities may be induced or worsened by ART. In our study geriatric patients had been more often exposed to first generation antiretrovirals including oldest PI favouring metabolic syndrome, and increasing cardiovascular risk and thymidine analogs responsible for lipoatrophy and mitochondrial toxicity. In the Dutch AgeHIV cohort with a median age of 52.4 years, prevalence of hypertension is high (46.2%) and the authors show that changes in body composition, involving both abdominal obesity and stavudine-induced peripheral lipoatrophy, might contribute to the higher prevalence of hypertension in HIV-1-infected patients [25]. Neurocognitive dysfunction, obstructive pulmonary disease, and osteoporosis, have also been linked to low nadir CD4+ T-cell counts[26]. In the centers from which the data were drawn, the proportion of individuals aged 50 years and over on ART and with HIV RNA < 50 c/mL on treatment is very similar to the global population (96% and 89.9% vs 94.3% and 87.4%, respectively (n = 35890, personal data). On ART, despite a high rate of virological success above 90% and a long duration on ART above 15 years, quality of immune reconstitution (considered as optimal if CD4 count is above 500/mm3 and CD4:CD8 ratio above 1) was poor in this aging population both in the elderly and the geriatric groups with only 19.8% and 17.1% of the subjects reaching both more than 500 CD4 cell/mm3 and a CD4:CD8 ratio above 1, respectively, as it was pointed out in some studies [27]. Many similarities on immunological alterations have been observed between middle-aged HIV-infected individuals and non-HIV geriatric subjects[28]. It is of importance to point out that very few elderly patients have been included in studies assessing HIV aging and the relative impact of HIV infection and other parameters on inflammatory and immune disorders has not yet been fully studied in this population[29]. Hentzien et al. studied the impact of age related morbidities on on five-year overall mortality in an aging population aged 60 and over. They showed that age-related comorbidities—particularly cardiovascular diseases and chronic renal disease—were the main prognostic factors for mortality, at the same weight as CD4 cell count[30]. In this context of highly experienced elderly patients, our study shows that the choice of ARV was driven by presence of co-morbidities as well as prevention of long-term toxicities without impairing virologic suppression. Polymedication is a major issue in the geriatric and elderly populations, with the risk of increased adverse drug events, drug-drug interactions, inappropriate medications and poor adherence [31]. In a recent study, Greene et al.show that HIV subjects older than 60 were at high risk of polypharmacy and medications related problems and that the overall burden of medications has shifted from antiretrovirals to comorbidities-associated medications and points out the need for a geriatric-sensitive care of the ageing HIV population [32]. The multidisciplinary approach that is recommended for ART management including physicians, virologists and pharmacists to optimize HIV infection management should integrate geriatricians for the patients that enter elderly age [33, 34]. Our study has some limitations; some comorbidities may have been underestimated because of a non declaration in the patient’s medical chart. However results of a recent French study evaluating comorbidities in HIV patients over 60 years find similar prevalence of the major comorbidities (cardiovascular diseases 30%, hypertension 27% and diabetes 15%) [35]. Furthermore individuals who died before Dec 31, 2015 were not included in the study and this does not allow to evaluate the frequency and reasons of death in this aging population. In summary, our study points out that a geriatric HIV population is emerging and highlights the burden and challenge of this geriatric HIV population who despite more co-morbidities and more advanced HIV infection achieve similar high rate of virologic suppression than the elderly population. A systematic multidisciplinary approach, involving general practitioners, infectiologists, geriatricians, pharmacists should be developed to face the incoming challenge of HIV-infected population advancing to geriatric age.

Anonymous dataset of the study.

(XLS) Click here for additional data file.
  32 in total

Review 1.  HIV infection, inflammation, immunosenescence, and aging.

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Journal:  Annu Rev Med       Date:  2011       Impact factor: 13.739

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Authors:  Steven G Deeks; Andrew N Phillips
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Authors:  P Gantner; L Cuzin; C Allavena; A Cabie; P Pugliese; M-A Valantin; F Bani-Sadr; V Joly; T Ferry; I Poizot-Martin; R Garraffo; G Peytavin; S Fafi-Kremer; D Rey
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Journal:  Antivir Ther       Date:  2013-10-22

7.  Maraviroc plus raltegravir failed to maintain virological suppression in HIV-infected patients with lipohypertrophy: results from the ROCnRAL ANRS 157 study.

Authors:  Christine Katlama; Lambert Assoumou; Marc-Antoine Valantin; Cathia Soulié; Claudine Duvivier; Laetitia Chablais; Sami Kolta; Gilles Pialoux; Patrick Mercié; Anne Simon; Dominique Costagliola; Gilles Peytavin; Anne-Genevieve Marcelin
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8.  The influence of age, gender and socio-economic status on multimorbidity patterns in primary care. First results from the multicare cohort study.

Authors:  Ingmar Schäfer; Heike Hansen; Gerhard Schön; Susanne Höfels; Attila Altiner; Anne Dahlhaus; Jochen Gensichen; Steffi Riedel-Heller; Siegfried Weyerer; Wolfgang A Blank; Hans-Helmut König; Olaf von dem Knesebeck; Karl Wegscheider; Martin Scherer; Hendrik van den Bussche; Birgitt Wiese
Journal:  BMC Health Serv Res       Date:  2012-04-03       Impact factor: 2.655

9.  Increased risk of serious non-AIDS-related events in HIV-infected subjects on antiretroviral therapy associated with a low CD4/CD8 ratio.

Authors:  Sergio Serrano-Villar; María Jesús Pérez-Elías; Fernando Dronda; José Luis Casado; Ana Moreno; Ana Royuela; José Antonio Pérez-Molina; Talia Sainz; Enrique Navas; José Manuel Hermida; Carmen Quereda; Santiago Moreno
Journal:  PLoS One       Date:  2014-01-30       Impact factor: 3.240

10.  Closing the gap: increases in life expectancy among treated HIV-positive individuals in the United States and Canada.

Authors:  Hasina Samji; Angela Cescon; Robert S Hogg; Sharada P Modur; Keri N Althoff; Kate Buchacz; Ann N Burchell; Mardge Cohen; Kelly A Gebo; M John Gill; Amy Justice; Gregory Kirk; Marina B Klein; P Todd Korthuis; Jeff Martin; Sonia Napravnik; Sean B Rourke; Timothy R Sterling; Michael J Silverberg; Stephen Deeks; Lisa P Jacobson; Ronald J Bosch; Mari M Kitahata; James J Goedert; Richard Moore; Stephen J Gange
Journal:  PLoS One       Date:  2013-12-18       Impact factor: 3.240

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  15 in total

Review 1.  HIV and Aging: Reconsidering the Approach to Management of Comorbidities.

Authors:  Kristine M Erlandson; Maile Y Karris
Journal:  Infect Dis Clin North Am       Date:  2019-09       Impact factor: 5.982

Review 2.  The far-reaching HAND of cART: cART effects on astrocytes.

Authors:  Hemil Gonzalez; Anthony Podany; Lena Al-Harthi; Jennillee Wallace
Journal:  J Neuroimmune Pharmacol       Date:  2020-03-09       Impact factor: 7.285

3.  HIV-1 Tat-mediated astrocytic amyloidosis involves the HIF-1α/lncRNA BACE1-AS axis.

Authors:  Susmita Sil; Guoku Hu; Ke Liao; Fang Niu; Shannon Callen; Palsamy Periyasamy; Howard S Fox; Shilpa Buch
Journal:  PLoS Biol       Date:  2020-05-26       Impact factor: 8.029

4.  Risk and Cost Associated With Drug-Drug Interactions Among Aging HIV Patients Receiving Combined Antiretroviral Therapy in France.

Authors:  Ludivine Demessine; Laure Peyro-Saint-Paul; Edward M Gardner; Jade Ghosn; Jean-Jacques Parienti
Journal:  Open Forum Infect Dis       Date:  2019-03-22       Impact factor: 3.835

5.  Research priorities for rehabilitation and aging with HIV: a framework from the Canada-International HIV and Rehabilitation Research Collaborative (CIHRRC).

Authors:  Kelly K O'Brien; Francisco Ibáñez-Carrasco; Patricia Solomon; Richard Harding; Darren Brown; Puja Ahluwalia; Soo Chan Carusone; Larry Baxter; Charles Emlet; Gayle Restall; Alan Casey; Amrita Ahluwalia; Adria Quigley; Alex R Terpstra; Nkem Ononiwu
Journal:  AIDS Res Ther       Date:  2020-05-19       Impact factor: 2.250

Review 6.  The challenge of HIV treatment in an era of polypharmacy.

Authors:  David Back; Catia Marzolini
Journal:  J Int AIDS Soc       Date:  2020-02       Impact factor: 5.396

7.  Higher Comorbidity Burden Predicts Worsening Neurocognitive Trajectories in People with Human Immunodeficiency Virus.

Authors:  Ronald J Ellis; Emily Paolillo; Rowan Saloner; Robert K Heaton
Journal:  Clin Infect Dis       Date:  2022-04-28       Impact factor: 20.999

8.  Elderly HIV-positive women: A gender-based analysis from the Multicenter Italian "GEPPO" Cohort.

Authors:  Emanuele Focà; Paola Magro; Giovanni Guaraldi; Agostino Riva; Anna Maria Cattelan; Giuseppe Vittorio De Socio; Cecilia Costa; Stefania Piconi; Benedetto Maurizio Celesia; Silvia Nozza; Giancarlo Orofino; Antonella Castagna; Giovanni Di Perri; Francesco Castelli; Andrea Calcagno
Journal:  PLoS One       Date:  2019-10-17       Impact factor: 3.240

9.  Prescribing issues in older adults living with HIV: thinking beyond drug-drug interactions with antiretroviral drugs.

Authors:  Françoise Livio; Catia Marzolini
Journal:  Ther Adv Drug Saf       Date:  2019-10-03

Review 10.  Contemporary issues and new challenges in chronic kidney disease amongst people living with HIV.

Authors:  Jack Edward Heron; Corinne Isnard Bagnis; David M Gracey
Journal:  AIDS Res Ther       Date:  2020-03-16       Impact factor: 2.250

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