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Hepatitis B vaccination and risk of hepatitis B infection in HIV-infected individuals

Landrum, Michael La,b; Hullsiek, Katherine Hupplerb,c; Ganesan, Anuradhab,d; Weintrob, Amy Cb,e; Crum-Cianflone, Nancy Fb,f; Barthel, R Vincentg; O'Connell, Robert Jb,h; Fieberg, Annb,c; Chun, Helen Mi; Marconi, Vincent Ca,b; Dolan, Matthew Ja; Agan, Brian Kbfor the Infectious Disease Clinical Research Program HIV Working Group

doi: 10.1097/QAD.0b013e32832cd99e
Clinical Science

Objective: To assess the association of hepatitis B virus (HBV) vaccination with risk of HBV infection among HIV-infected patients and HBV infection risk factors among vaccinees.

Design: Observational cohort study.

Methods: Participants enrolled from 1986 through 2004, unvaccinated and serologically negative for HBV infection at the time of HIV diagnosis, were followed longitudinally through 2007 for the occurrence of HBV infection. Risk factors for HBV infection were evaluated using time to event methods, including Kaplan–Meier survival curves and Cox proportional hazards models.

Results: During 11 632 person-years of follow-up, the rate of HBV infection was 2.01 (95% CI 1.75–2.27)/100 person-years. Receipt of at least one dose of vaccine was not associated with reduced risk of HBV (unadjusted hazard ratio 0.86, 95% CI 0.7–1.1; adjusted hazard ratio 1.08, 95% CI 0.8–1.4). Receipt of three or more doses of vaccine was also not associated with reduced risk (hazard ratio 0.96; 95% CI 0.56–1.64). Among 409 vaccinees with HBsAb less than 10 IU/l, 46 (11.2%) developed HBV infection compared with 11 of 217 (5.1%) vaccinees with HBsAb ≥10 IU/l (hazard ratio 0.51; 95% CI 0.3–1.0). In participants with initial HBsAb less than 10 IU/l, 16 of 46 (35%) infections were chronic, compared with none of 11 in those with initial HBsAb at least 10 IU/l (P = 0.02).

Conclusion: Overall, HBV vaccination was not associated with reduced risk of HBV infection in our cohort of HIV-infected individuals. However, the small subset of vaccinees with a positive vaccine response may have had reduced HBV infection risk, including chronic disease. Improvements in vaccine delivery and immunogenicity are needed to increase HBV vaccine effectiveness in HIV-infected patients.

aSan Antonio Military Medical Center, Fort Sam Houston Texas, USA

bInfectious Disease Clinical Research Program, Uniformed Services University, Bethesda, Maryland, USA

cUniversity of Minnesota, Minneapolis, Minnesota, USA

dNational Naval Medical Center, Bethesda, Maryland, USA

eWalter Reed Army Medical Center, Washington, District of Columbia, USA

fNaval Medical Center, San Diego, California, USA

gNaval Medical Center, Portsmouth, Virginia, USA

hDivision of Retrovirology, Walter Reed Army Institute of Research, Silver Spring, Maryland, USA

iNaval Health Research Center, San Diego, California, USA.

Received 29 October, 2008

Revised 12 January, 2009

Accepted 9 April, 2009

Correspondence to Michael L. Landrum, MD, Infectious Disease Service, Brooke Army Medical Center, 3851 Roger Brooke Dr, MCHE-MDI, Fort Sam Houston, TX 78234, USA. Tel: +1 210 916 2839; fax: +1 210 916 2121; e-mail:

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The burden of hepatitis B virus (HBV) infection in human immunodeficiency virus (HIV)-infected individuals is substantial with as many as 10% of unvaccinated patients chronically coinfected with HBV [1–4]. Compared with patients who are HBV-positive but HIV-negative, coinfected individuals generally have increased rates of cirrhosis and liver-related mortality [5,6]. Therefore, prevention of HBV infection in those with HIV is extremely important, and one of the potential means of accomplishing this is vaccination, as recommended by guidelines [7–10].

Previous investigations of HBV vaccine in HIV-infected patients have primarily investigated factors associated with vaccine response finding low rates of seroconversion following vaccination [11–16]. Risk factors for lack of a vaccine response include higher HIV RNA at the time of vaccination, [17,18] antihepatitis C virus (HCV) positivity [19,20], and lower nadir CD4 cell count prior to vaccination [21,22], whereas CD4 cell count at the time of vaccination has not been consistently predictive [11,13,15–18,20,23,24]. Several studies have also documented reduced durability of serologic responses to HBV vaccine in those infected with HIV compared with HIV-negative individuals [12,23,25,26] leading some to recommend booster doses for HIV-infected patients when antibody to HBV surface antigen (HBsAb) levels fall below 10 IU/l [2], although data supporting this practice are very limited.

In HIV-uninfected individuals, the protective efficacy of HBV vaccination has been shown to correlate with the concentration of HBsAb following vaccination [27,28], but similar data in HIV-infected patients also remain limited [29]. Hadler et al. [30] described 340 individuals with HBV infection following vaccination from a multicenter study of plasma-derived HBV vaccine in men who have sex with men. In that study 64 participants were infected with HIV prior to HBV infection, and among those participants, receiving an incomplete vaccination series or serologic nonresponse to vaccine appeared to be associated with development of chronic HBV. However, this post-hoc analysis included few HIV-infected patients, and both HIV status at the time of vaccination and the total number of HIV-infected patients included in the original trial were unknown, precluding any assessment of efficacy in those with HIV. In a more recent study history of receiving one or more doses of HBV vaccine was associated with reduced risk of developing acute HBV [1]. However, data regarding vaccine response and chronicity of HBV following vaccination were not reported and length of follow-up was limited to 3 years.

The long-term protection of HBV vaccine in HIV-infected individuals remains unknown, as well as correlates for protection in this patient population. Therefore, we assessed risk factors for HBV infection, including HBV vaccination, in our prospectively followed multicenter cohort, and evaluated risk factors for HBV infection among vaccine recipients, including vaccine response.

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Study cohort

The United States Military HIV Natural History Study (NHS) is an ongoing, continuous enrollment observational cohort of HIV-infected Department of Defense (DoD) beneficiaries followed at seven participating military medical centers in the United States and has been previously described [31]. Enrolling since 1986, the NHS has over 4500 participants with signed written consent. All adult DoD beneficiaries with a diagnosis of HIV infection followed at a participating site and ability to provide consent are eligible for participation. Approval for this research was obtained from the institutional review board at each participating site.

Following enrollment patients are seen every 6 months. Data collected at each visit includes demographic information, past and interim medical histories and illnesses, medications, vaccinations, and standard clinical laboratory studies. Additionally, blood samples are obtained and stored in a repository. At enrollment, participants self-reported race/ethnicity as: Caucasian, African–American, Hispanic or Puerto Rican or Mexican, Asian or Pacific Islander, Native American or Alaskan native, or other. HIV exposure category is not routinely captured, however, rates of HIV risk behaviors have been previously reported and intravenous drug use is rare (<3%) [32].

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Participant selection and definitions

All NHS participants with a documented date of HIV seropositivity, and without HBV infection at the time of HIV seropositivity (defined as negative initial tests after HIV seropositivity for both hepatitis B surface antigen (HBsAg) and total antibody to hepatitis B core antigen (HBcAb)) were eligible for inclusion. Vaccination was defined as receipt of at least one dose of HBV vaccine after HIV seropositivity. Patients with a date of HBV vaccine administration prior to HIV seropositivity were excluded. Neither the amount of the administered dose nor vaccine preparation was captured in the database. HBV infection was defined as positive results for two of the following three tests on one occasion: HBsAg, HBcAb, and HBsAb; or the presence of HBcAb or HBsAg on at least two separate occasions. For those meeting the criteria for HBV infection, chronic HBV infection was defined as the presence of HBsAg on two or more separate occasions at least 6 months apart.

Highly active antiretroviral therapy (HAART) was defined as a combination of at least three antiretroviral agents, similar to previous investigations [31]. The presence of an AIDS-defining illness was defined using 1993 CDC criteria [33], with the exception of isolated CD4 cell count less than 200 cells/μl. Infection with syphilis, Neisseria gonorrhea, Chlamydia trachomatis, or genital herpes simplex virus was considered to be a sexually transmitted infection (STI).

Vaccine response (HBsAb) after the last recorded dose was captured at two time points: initial response (3–9 months after the last recorded dose of vaccine) and follow-up response (6 to 24 months after the initial response). For study participants without a determination of HBsAb following vaccination at these time points, available repository specimens were tested for HBsAb (ETI-AB-AUK PLUS; DiaSorin Inc., Stillwater, Minnesota, USA) according to the package insert [34]. Nonresponse to vaccine was defined as HBsAb less than 10 IU/l and positive response was defined as HBsAb at least 10 IU/l. Persistent response was defined as HBsAb at least 10 IU/l at both time points, and a waning response was defined as an initial HBsAb at least 10 IU/l followed by HBsAb less than 10 IU/l.

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Design and statistical methods

Analyses were defined a priori. Eligible participants were classified into three nonexclusive groups: the overall group, the vaccinated group, and the vaccine response group (Fig. 1). The association of factors, including HBV vaccination status, and risk of HBV infection was assessed with the overall group, for which baseline was the documented date of HIV infection. Subanalyses with the vaccinated group (with the date of the first HBV vaccine dose defined as baseline) and the vaccine response group (with the date of initial HBsAb measurement defined as baseline) were performed to assess risk factors for HBV infection following vaccination. For all analyses, the censoring date for those with no HBV infection was the latest of the last recorded NHS visit or the date of the most recent HBV screening panel.

Fig. 1

Fig. 1

The analysis groups were summarized with descriptive statistics. The number of events, person-years at risk, and rates of HBV infection (per 100 person-years of follow-up) were calculated overall and for baseline subgroups. Differences in proportions were compared with chi-squared and Fisher's exact tests. For each group, Cox proportional hazard models, both unadjusted and stratified by era of HIV diagnosis (prior to 1996 or 1996 to 2004) were used to evaluate the association of covariates with subsequent HBV infection. Covariates which could change during follow-up (HIV RNA, CD4 cell count, history of a STI or AIDS event, antiretroviral therapy (ART) use, and HBV vaccination status) were considered as time-updated covariates, for which all available measurements through the event or censoring date were utilized. The multivariate models for the vaccinated groups were also adjusted for year of vaccination. The assumption of proportional hazards was tested for models including vaccination status and vaccine response. All results reported are from stratified models unless noted otherwise.

HBV vaccination within the NHS was by participant and provider choice. To consider the impact of potential selection bias, propensity score methods [35,36] were used as sensitivity analyses to evaluate the effect of vaccination on HBV infection for the overall group. Each person was assigned a propensity score estimated with a logistic regression model assessing the probability of initiating HBV vaccination given baseline characteristics. Five equal-sized propensity score subclasses were formed based on rank order of the propensity scores. The percentage of vaccinated participants in the five subclasses ranged from 25 to 75%. Cox proportional hazards models were then stratified by those propensity score subclasses. Additional analyses were performed using Kaplan–Meier survival methods. Medians are noted with interquartile ranges (IQR). All hazard ratios are stated with 95% confidence intervals (CI). Significance a priori was defined as P value less than 0.05. All P values are two-sided. All analyses were conducted using SAS (version 8.2; Cary, North Carolina, USA).

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Overall risk of hepatitis B infection

Of 4586 participants in the NHS, 4308 have been screened for HBV infection at least once after HIV infection with a median of five screens per subject (IQR, 2.0–9.0), and a median interval between HBV screens of 6.7 months (IQR, 5.7–11.1). For the current analysis, a total of 1853 participants met inclusion criteria (Fig. 1). Participants were enrolled from inception of the NHS through May 2004, and the latest censoring date for this study was April 2007. For participants included in the current investigation who did not experience HBV infection, the median interval from the last HBV screen to censoring for the study was 6.7 months (IQR, 0.0–29.4). The overall group was followed for a total of 11 632 person years (median 5.4 years; IQR 2.8–8.7). The median year of HIV diagnosis was 1991 (IQR 1988–1996). The median age at HIV diagnosis was 27 years (IQR 23–32); 87.3% were male; and self-reported ethnicity was Caucasian, African–American, and other for 44.8, 42.8, and 12.3%, respectively. Baseline CD4 cell count was available for 1570 (84.7%) participants, with a median of 521 cells/μl (IQR 361–682). Baseline HIV RNA was available for 645 (34.8%) participants with a median of 4.4 log10 copies/ml (IQR 3.7 – 4.9). Overall, 234 (12.6%) participants developed HBV infection resulting in a rate of 2.01 (95% CI 1.75–2.27) per 100 person-years [Table 1(a)].

Table 1

Table 1

In the overall group, 881 persons were never vaccinated and 972 received at least one dose of vaccine. Of vaccinated participants, 542 (55.7%) received three or more doses of vaccine. Characteristics at the time of HIV diagnosis were no different between participants never vaccinated and those which ultimately received vaccination, except for median year of HIV diagnosis, 1989 compared with 1993, respectively (P < 0.001). One hundred and forty-four (16.3%) unvaccinated participants developed HBV infection compared with 90 (9.3%) vaccinated participants (unadjusted hazard ratio 0.86; 95% CI 0.7–1.1) After stratifying by era of HIV diagnosis to adjust for unmeasured differences between the pre-HAART and HAART eras, results were similar (hazard ratio 1.08; 95% CI 0.8–1.4) [Table 2(a)]. Results were also comparable utilizing propensity score methods for initiating HBV vaccination to adjust for selection bias (hazard ratio 1.10; 95% CI 0.8–1.5). Vaccination with three or more vaccine doses was also not associated with reduced risk compared with no vaccination (hazard ratio 0.96, 95% CI 0.6–1.6). In multivariate analyses stratified by HIV diagnosis era, male sex (hazard ratio 5.38; 95% CI 2.5–11.4) and occurrence of an STI (hazard ratio 1.52; 95% CI 1.1–2.2) were significantly associated with increased risk of HBV infection, whereas use of HAART (hazard ratio 0.49; 95% CI 0.3–0.8) was associated with reduced risk [Table 3(a)]. HIV RNA was not included in the final multivariate model because 27.6% of participants had no HIV RNA measurement during follow-up, as this test was not widely used prior to 1996.

Table 2

Table 2

Table 3

Table 3

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Risk of hepatitis B virus infection after vaccination

The distribution of baseline characteristics for the 972 participants in the vaccinated group is shown in Table 1(b). Followed for a total of 5445 years from the date of first vaccination (median, 4.7 years; IQR 2.4–8.1), there were 90 cases of HBV in this group resulting in an event rate of 1.65 (95% CI 1.31–1.99) per 100 person-years. In multivariate analyses male sex (hazard ratio 4.88; 95% CI 1.5–15.5) was associated with an increased risk of HBV infection, whereas HAART use (hazard ratio 0.46; 95% CI 0.2–0.9), but not mono/dual ART was associated with reduced risk [Table 3(b)]. Increasing age remained significantly associated with reduced risk of HBV among vaccine recipients (hazard ratio 0.63 per 10 year increase; 95% CI 0.4–0.9). HIV RNA was again not included in the final multivariate model, because it was unknown for a large portion of the group.

To determine the association of vaccine seroresponse and risk of HBV infection, subset analyses were performed with the 626 vaccine recipients with known vaccine response or nonresponse [vaccine response group; Table 1(c)]. There were no baseline differences between those with and without an HBsAb determination following the last dose of vaccine. During 2333 years of follow-up (median 3.0 years; IQR 1.2–5.4) there were 57 cases of HBV in this group, all of which occurred in men, resulting in a rate of 2.44 per 100 person-years (95% CI 1.81–3.08). A positive vaccine response was seen in 217 (34.7%). After adjusting for age, ethnicity, and ART use, those with a positive response had an approximately 50% reduced risk of HBV infection compared to those with nonresponse (hazard ratio 0.51; 0.3–1.0) [Table 3(c)]. Of participants with positive response, 11 (5.1%) developed HBV infection compared with 46 (11.2%) with nonresponse (P = 0.013 by log rank, Fig. 2). Proportions (95% CI) of those without HBV infection at 3, 5, and 7 years follow-up for those with a positive response were 96.6% (94.0–99.0), 95.2% (91.7–98.8), and 95.2% (91.7–98.8), respectively; for those with nonresponse proportions at the same time points were 87.6% (83.4–91.8), 85.5% (80.8–90.2), and 84.3% (79.2–89.5). Of participants with an initial positive response, risk of HBV infection was no different between those with waning or persistent vaccine responses (P = 0.26 by log rank).

Fig. 2

Fig. 2

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Chronic hepatitis B virus infection

Overall, chronic HBV occurred in 55 (23.5%) of the 234 HBV-infected participants. Chronic infection occurred in 24% (35/144) of unvaccinated participants with HBV compared with 22% (20/90) of vaccinated participants (P = 0.75). For participants with initial nonresponse, 16 of 46 HBV infections (35%) resulted in chronic infection (P = 0.18 compared with unvaccinated participants). However, among those with a vaccine response, no chronic HBV infections were seen (P = 0.07 compared with unvaccinated participants; P = 0.02 compared with vaccinated, nonresponders). Among participants with HBV infection in the vaccine response group, there were no significant differences between those who did and did not develop chronic HBV regarding age, ethnicity, sex, HIV RNA, CD4 cell count, or use of ART at the time of HBV infection.

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We found receipt of HBV vaccine after diagnosis of HIV was associated with no reduction in risk of HBV infection overall. In a previous study by Kellerman et al. [1], history of ever receiving one or more doses of HBV vaccine was associated with a 40% reduced risk of acute HBV infection. The reasons for the different findings are likely related to several factors including different patient populations and study endpoints, as we captured serologic and chronic infections and not only acute HBV infections. In addition, we excluded participants with known receipt of HBV vaccine prior to HIV diagnosis, whereas Kellerman, et al. [1] did not. Whether vaccination prior to HIV infection is associated with a reduced risk of HBV following HIV diagnosis is unknown. Other factors found to be associated with risk of HBV infection in our study were similar to previous investigations, including increased risk in those with a previous sexually transmitted infection, and reduced risk in those taking HAART [1,37,38].

From our data we are unable to determine why vaccination was not associated with reduced risk of HBV infection. One possible contributing factor to the overall lack of protection may be the high rate of exposure to HBV in this HIV-positive population. This is supported by the overall rate of HBV infection we observed (2 per 100 person-years follow-up), approximately 100-fold higher than the rate of HBV in the US military and 500-fold higher than the rate of acute HBV in the general US population [37,39]. In addition, poor initial immunogenicity of the vaccine in patients with HIV may be a second contributing factor. A vaccine response, defined as HBsAb at least 10 IU/l, was found in 35% of vaccinees, consistent with other smaller investigations where response rates have varied from 20 to 50% [11–18]. In non-HIV-infected individuals where response rates following three doses of vaccine are generally more than 90% [10], CD4 T-cell function is essential for development of a response [40,41]. Therefore, weakly protective vaccine responses reflected by low seroresponse rates in HIV-infected individuals may not be sufficient to protect against the high rate of HBV exposure, and possible repeated exposures seen in this population. Strategies to improve immunogenicity, such as use of adjuvants [42], are urgently needed.

Low vaccination coverage and low completion of the initial three dose series may also have reduced vaccine effectiveness. Of the overall group during the last two decades, 52% received at least one dose of vaccine, and of those 56% received at least three doses. The lack of coverage is partially explained by the fact that some participants in our cohort were enrolled prior to the release of universal recommendations for HBV vaccination. Although lack of vaccine coverage and completion may appear to undermine the conclusions from our study, our experience is consistent with other clinics and likely reflects clinical practice more than the idealized setting of a clinical trial. In a recent investigation from nine US metropolitan HIV clinics only 32% of those eligible for HBV vaccine received at least one dose, and of those 52% received at least three doses [22]. In this way, our study may give a more accurate depiction of the effectiveness of HBV vaccine in HIV-infected patients. The unexpectedly low rates of HBV vaccine delivery and completion only highlight some of the challenges of using of HBV vaccine in HIV-infected individuals, especially considering our participants are relatively healthy with high CD4 cell counts, have very low rates of illicit drug use, and are seen in an optimal setting for delivery of vaccines, the open access to care military health system. Poor vaccine immunogenicity only compounds these challenges. Extrapolating the observed vaccine response rate to all vaccinated participants, only 18% of all individuals obtained a response reflecting the combination of low coverage and limited immunogenicity. Multiplying the proportion of participants, which developed a response, 18%, by the 49% reduction in HBV infection in those with a response, the expected vaccine effectiveness was approximately 9%, and well within the confidence limits we determined for overall effectiveness in any model.

Given that vaccine effectiveness may be low overall, public health officials and clinicians may speculate whether or not HBV vaccination should be routinely offered to patients with HIV. Although not definitive, our results suggest that those developing an initial response to the vaccine derived benefit from vaccination through at least 7 years of follow-up. Alternatively, development of a vaccine response may have indicated an improved ability of an individual's immune system to recognize HBV antigens associated with a reduced susceptibility to infection [43]. However, our finding that development of HBsAb of at least 10 IU/l was associated with a reduced risk of infection, including chronic disease, is consistent with results from prospective trials of non-HIV-infected individuals [27,28,44]. Therefore, until more definitive data are known regarding vaccine effectiveness, HBV vaccination of HIV-infected patients should be continued as a portion of patients may obtain protection from receipt of vaccine. In addition, clinicians should consider checking HBsAb levels following vaccination and reimmunizing nonresponders with additional doses of vaccine [45], as well as informing such patients of their HBV risk.

Although a high proportion of those with incident HBV infection developed chronic disease overall, the likelihood of developing chronic HBV infection was associated with vaccine response among vaccinated participants. In HIV-uninfected individuals spontaneous recovery from HBV infection involves a strong, polyclonal CD4 cell and CD8 cell response, whereas those developing chronic HBV display weak, monoclonal or oligoclonal responses [46–49]. Similar responses in HIV-infected patients were recently reported [50,51]. Therefore, lack of functional HBsAg-specific CD4 T cells necessary for vaccine response would predict a weaker and more homogeneous response to natural HBV infection, and an increased likelihood of chronicity. An alternative hypothesis for the observed association would be that antigenic stimulation by vaccination in the setting of immune activation would result in apoptosis [52] of HBsAg-specific CD4 T cells with subsequent impairment of the immune response to HBV once infected. Arguing against this however, is the observation that vaccination was not associated with an increased risk of HBV infection overall.

There are limitations to our study. First, our cohort is unique compared to other large HIV cohorts in some respects, including enrollment early after infection due to routine military HIV screening, open access to care in the military health system, and virtually no intravenous drug use [32]. However, these characteristics should only improve vaccine delivery and effectiveness. Second, HBV serologies in HIV-infected individuals may fluctuate [53] making diagnosis and classification for investigation difficult, but participants in our study received periodic testing of HBV serological markers, and our criteria for inclusion and definitions for infection required results of multiple serologies. Third, there may have been an indication bias for vaccination. However, the only notable difference between unvaccinated and vaccinated participants was the year of HIV diagnosis, and results were essentially identical from unadjusted and stratified models, and after utilizing propensity-scoring methods to account for potential selection bias regarding vaccination. The vaccine dose was also unknown, although providing higher doses of vaccine to patients with HIV is not clearly beneficial [18,54]. Lastly, HIV RNA levels, known to predict vaccine responses, were unknown for many participants, analyses of vaccine recipients were limited by the number of events, and analyses regarding vaccine response were further limited by HBsAb result ascertainment.

Though recommended by guidelines [7,10], the effectiveness of HBV vaccine in HIV-infected individuals had not been thoroughly investigated [29]. Although vaccination was not associated with reduced risk of HBV infection overall, it may be beneficial for some individuals, specifically those developing an initial vaccine response of HBsAb of at least 10 IU/l. However, our data suggest overall vaccine effectiveness in this population currently appears very limited, as vaccine nonresponders typically account for one-half to two-thirds of vaccine recipients, and the risk of exposure to HBV remains high in this patient population. Continued improvements in vaccination delivery in combination with further knowledge of methods to increase initial vaccine immunogenicity would substantially improve vaccine efficacy.

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The authors would like to thank Mr. William Bradley for his expertise and assistance with the United States Military HIV Natural History Study (NHS) database, and Dr Sheila Peel for her expertise in performing HBsAb testing. We would also like to express our gratitude for the current members of the IDCRP HIV Working Group and the long line of military HIV researchers who have supported the HIV NHS, and for the research coordinators and support staff for their countless hours of work. Most importantly, we would like to thank the patients for their participation, without which this research would not have been possible.

These data were presented in part at the 45th Annual Meeting of the Infectious Diseases Society of America, San Diego, California, October 4–7, 2007, Abstract #901.

Support for this work was provided by the Infectious Disease Clinical Research Program (IDCRP) of the Uniformed Services University of the Health Sciences (USUHS). The IDCRP is a DoD tri-service program executed through USUHS and the Henry M. Jackson Foundation for the Advancement of Military Medicine (HJF), in collaboration with HHS/NIH/NIAID/DCR through Interagency Agreement HU0001-05-2-0011. The opinions or assertions contained herein are the private views of the authors, and are not to be construed as official, or as reflecting the views of the Departments of the Army, Navy, Air Force, or the Department of Defense. The authors have no commercial or other association that might pose a conflict of interest.

Authorship contribution: Conception and design: M.L.L., K.H.H. and B.K.A.

Data acquisition: M.L.L., A.G., A.C.W., N.F.C.-C., R.V.B. and R.J.O'C.

Statistical analysis: K.H.H., M.L.L. and A.F.

Data analysis and Interpretation: M.L.L., K.H.H., A.G., A.C.W., N.F.C.-C., R.V.B., R.J.O'C., A.F., H.M.C., V.C.M., M.J.D. and B.K.A.

Drafting manuscript: M.L.L. and K.H.H.

Critical revision of the manuscript: A.G., A.C.W., N.F.C.-C., R.V.B., R.J.O'C., A.F., H.M.C., V.C.M., M.J.D. and B.K.A.

Final approval of manuscript: M.L.L., K.H.H., A.G., A.C.W., N.F.C.-C., R.V.B., R.J.O'C., A.F., H.M.C., V.C.M., M.J.D. and B.K.A.

Obtaining funding: M.L.L. and B.K.A.

Technical support: R.J.O'C.

Members of the Infectious Disease Clinical Research Program HIV Working Group:

National Institute of Allergy and Infectious Diseases, Bethesda, MD: M. Polis, J. Powers, J. Metcalf, E. Tramont.

Naval Medical Center, Portsmouth, VA: J. Maguire, V. Barthel, S. Patel.

Naval Medical Center, San Diego, CA: B. Hale, N. Crum-Cianflone, M. Bavaro, H. Chun.

National Naval Medical Center, Bethesda, MD: T. Whitman, A. Ganesan.

San Antonio Military Medical Center, San Antonio, TX: V. Marconi, M. Landrum, J. Delmar, W. Bradley.

Tripler Army Medical Center: T. Ferguson, A. Johnson.

University of Minnesota, Minneapolis, MN: A. Lifson, K. Hullsiek, A. Fieberg.

Uniformed Services University of the Health Sciences, Bethesda, MD: S. Wegner, B. Agan, G. Martin.

Walter Reed Army Institute of Research, Silver Spring, MD: N. Michael, M. Milazzo, R. O'Connell, S. Peel.

Walter Reed Army Medical Center, Washington, DC: G. Wortmann, C. Hawkes, A. Weintrob, S. Fraser.

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hepatitis B vaccine; hepatitis B virus; human immunodeficiency virus; immunization; vaccination

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