 Technical advance
 Open access
 Published:
A Bayesian hierarchical logistic regression model of multiple informant family health histories
BMC Medical Research Methodology volume 19, Article number: 56 (2019)
Abstract
Background
Family health history (FHH) inherently involves collecting proxy reports of health statuses of related family members. Traditionally, such information has been collected from a single informant. More recently, research has suggested that a multiple informant approach to collecting FHH results in improved individual risk assessments. Likewise, recent work has emphasized the importance of incorporating healthrelated behaviors into FHHbased risk calculations. Integrating both multiple accounts of FHH with behavioral information on family members represents a significant methodological challenge as such FHH data is hierarchical in nature and arises from potentially errorprone processes.
Methods
In this paper, we introduce a statistical model that addresses these challenges using informative priors for background variation in disease prevalence and the effect of other, potentially correlated, variables while accounting for the nested structure of these data. Our empirical example is drawn from previously published data on families with a history of diabetes.
Results
The results of the comparative model assessment suggest that simply accounting for the structured nature of multiple informant FHH data improves classification accuracy over the baseline and that incorporating family member healthrelated behavioral information into the model is preferred over alternative specifications.
Conclusions
The proposed modelling framework is a flexible solution to integrate multiple informant FHH for risk prediction purposes.
Background
Many complex diseases are believed to result from the joint influence of genetic, socioenvironmental, and lifestyle risk factors that are clustered within families [1], thereby making family health history (FHH) a powerful predictor of varied health outcomes, such as heart disease [2, 3], type 2 diabetes [4,5,6], and colorectal cancer [7]. To help identify asymptomatic patients who are at increased risk for disease and require additional surveillance and preventive measures, many riskassessment tools weigh FHH heavily in their algorithms [8,9,10,11,12]. Quantitative risk scores based on an individual’s FHH could even play a deterministic role in diagnosis and treatment decisions [13, 14] and have been the basis for interventions in research [15, 16].
However, much of the enthusiasm of using FHH to enhance preventive screening and care has been dampened by the realization that FHH data, especially those collected from patients’ selfreports, are often incomplete and inaccurate [17,18,19,20,21]. Typically, a patient or research subject reports on their FHH independently and autonomously by informing on the health and disease status of their biological first and seconddegree relatives (e.g., children, siblings, parents, aunts/uncles, and grandparents). This single informant, however, may not have accurate or complete knowledge about their relatives’ disease diagnoses, age at diagnosis, causes of death, and healthrelated behaviors, leading to an inaccurate risk assessment. This is particularly true for members of the younger generation who have yet to learn about the health of their extended kin [22]. Based on a handful of studies that empirically investigated accuracy of FHH reports [17, 19, 21, 23], sensitivity of selfreported FHH for type 2 diabetes, for example, ranged widely from 53% to 87%, depending on the type and degree of relation between informants and relatives, as well as on methods of external validation (e.g., medical records, interview/questionnaire from relatives).
Recognizing that the predictive value of FHHbased risk scores is likely to be limited by data completeness and accuracy, much effort has focused on improving FHH data collection. One potential remedy for inaccuracies and biases is to focus on the data collection process. It is anticipated that new tools such as pedigree workbooks and online interactive software will encourage individuals to seek their FHH information, thereby improving the accuracy of each individual data point [24, 25].
Since many of these data collection tools employ a sharedmodel within families, FHH data from multiple members of the same family are available to clinicians and researchers, showing promise in improving risk assessments without having to rely on improving the completeness and accuracy of each individual’s FHH report. Essentially, because FHH reports from related individuals will overlap, such an approach facilitates imputation and crossvalidation. It has been shown that incorporating new information from additional sources alone improves risk prediction, yielding an accuracy similar to validating with medical records [26]. While an important step forward, the algorithm used in our previous study is a simple weighted integration of multiinformant FHH without the ability to address uncertainty from individual and/or dyadic characteristics embedded in these data. For example, information provided by each informant may be errorprone and subject to both topical or informantbased uncertainty. Informants may have dissimilar tendencies to make falsepositive, falsenegative, or missing reports. They may disagree with one another regarding the statuses of the people about whom they are reporting health information. Existing models can address errors and biases arising at the individual level, by including individual attributes as predictors in the regression equation. Such models are not wellsuited to dealing with contradicting information at the dyadic level. For example, younger informants tend to have higher rates of missing FHH reports due to generational distance [22]. Women, as kinkeepers, tend to be more knowledgeable about the family’s health information [27,28,29]. Individuals’ healthrelated behaviors (e.g., weight, alcohol use) contribute directly to disease risk, and may influence how proactively they seek FHH information [30]. These factors in themselves may not be strong predictors of individual risk, but could signal possible differences in the level of accuracy of FHH data from multiple informants in a family, which in turn can be used to integrate multiple informant FHH (MIFHH) in a meaningful way.
With this type of data, a statistical model used for risk prediction has to not only account for informantbased errors and uncertainty, but also discrepant information provided by different informants by explicitly modeling dependence arising from within and betweeninformants. In what follows, we present a statistical model that improves estimation for reconciling discrepant accounts of multiple informant family health histories into a unified FHH that can be used to calculate risk by adjusting for errors arising from the informants, their family members, and background noise. We apply this model to the estimation of individual risk for type 2 diabetes using MIFHH data recently collected from a sample of 45 families residing in the greater Cincinnati area [26]. Specifically, we model the observed diabetes status as dependent on informantlevel and dyadiclevel attributes and the underlying true diabetes risk as a latent variable that has been observed in two or more informants’ accounts, with informant and dyadiclevel effects.
Methods
Our goal is to incorporate information from multiple family informants’ family health history observations into a common, integrated FHH. That is, we wish to predict family members’ disease statuses from MIFHH observations and use those estimates to calculate disease risk for unaffected individuals in a family. In the simplest case, we can use arithmetical methods that ignore sources of variation and error in MIFHH data [26]. Alternatively, a statistical model accounting for the process that gives rise to such variation in disease status reports may be used to estimate the integrated FHH. In this section, we introduce a Bayesian hierarchical logistic regression model for improving the precision of such estimation based on MIFHH data.
We begin by defining a common notation. Let each realization of a pedigree containing family health history from m informants on n family members be represented by Y, an m × ndimensional matrix. The values of the cells in Y_{ij} reflect the i^{th} informant’s report of the j^{th} family member’s disease status. Ideally, our integration solution reduces the dimensionality of the FHH to a simple ndimensional vector y (y_{1},…y_{n}).
Statistical model
We can treat the case of MIFHH integration as a classification problem. Classification models allow the researcher to infer the state of a variable visavis model parameters and data. We infer one of two states from a set of possibly discrepant observations on a particular individual: does individual j truly have a particular disease state (y = 1 if yes, and y = 0 if no)? Because we do not observe the true disease state on typical FHH data per se, we treat it as a latent variable. Here, we assume informants’ accounts of disease statuses of their family members represent evidence of the underlying true disease state of the individual. While several candidate models for such classification tasks in clinical contexts exist (i.e., Item Response Theory, Naive Bayes, Random Forests), the hierarchically structured and dependent nature of MIFHH data make it particularly challenging to model. Moreover, as disease contexts within families are likely informed by population parameters, better models would incorporate informative priors reflecting this information. As such, we propose using a Bayesian hierarchical logistic regression model that accounts for variability in outcome arising from both informants and the family members they are reporting on, together with informative priors.
Following the Bayesian hierarchical logistic regression models of [31, 32], we assume that individual reports of disease statuses are distributed Bernoulli with probability θ. As we have multiple observations from informants on different family members (but not all m informants report on all n family members), the response vector for each j^{th} family member is of length k × 1, where k is the number of informants reporting on j, and thus 1 ≤ k ≤ m ≤ n. When the all family members are informants, then m = n.
Specifically,
and model θ_{ij} as a latent variable visavis the logitlink function (ϕ = ln \( \frac{\mu }{1\mu } \), where μ is the predicted mean vector of the Bernoulli parameter θ):
The first term on the right hand side of Eq. 2 reflects the level1 intercept (β_{0}) and the next two terms reflect the matrix of level1 covariates in X and the matrix of level2 W covariates, respectively. These matrices have dimensionality k × p (p being the number of level1 covariates) and k × q (q being the number of level2 covariates), respectively. The third term (ϵ) captures the errors, which are optionally assumed to be overdispersed following a normal distribution:
where each I_{ij} is indexed on identity matrix I. In practice, however, the overdispersion of the errors can be fixed to be 1.
The level2 effects are also assumed to be distributed normally with mean 0 and covariance D:
The conjugate priors for this model as derived by [32] assume that each level1 effect β is distributed normally,
where b is the mean vector and B^{− 1} is the variance of β, which can optionally be modeled as InverseWishart if level1 effects are assumed to be correlated but is here set to be noninformative. Next, the residual error variance follows an InverseGamma distribution,
where ν and δ are the shape and scale hyperparameters of the InverseGamma distribution. Finally, we assume that the level2 effects have an InverseWishart precision matrix prior:
where the scale and shape hyperparameters of the InverseWishart are defined such that ψ is a q × q positive definitive matrix and ρ is a scalar such that ρ ≥ q, respectively. A Kruschkestyle diagram of this hierarchical model [33] is depicted in Additional file 1.
Information can be incorporated into these priors by specifying appropriate hyperparameter values. For instance, one may incorporate prior information about the population prevalence of a disease by setting the hyperparameter for the intercept equal to the logit transformed parameter, which would have the result of mixing the observed average reported disease rates in the data with the prior and incorporating that information into the estimate of the model intercept. We sample parameters directly from the posterior of this model using Markov Chain Monte Carlo (MCMC) with the MCMCpack package for R as detailed in [32, 34], which implements Algorithm 2 from [35]. For each model we draw a sample of size 20,000 with a 5000 run burnin, and sample every other draw with an adaptive mean acceptance rate of about 45%. Thus, our final sample represents 10,000 draws from the posterior of each set of model parameters.
The model described above draws from the posterior of the parameters associated with the informantinformee dyad reports of disease statuses (i.e., at the dyad level). To approximate the equivalent of the individual level reports, we simply average over each individual family member’s vector of posterior predictives (θ) as described below.
Empirical example
The data we use to illustrate our model include MIFHH information collected in 2011–2013 from 128 informants from 45 families residing in the greater Cincinnati area. The number of informants per family ranges from 2 to 5, with an average of 2.8. Each informant independently provided family history of type 2 diabetes for their first and seconddegree biological relatives and we also record selfreports of disease status from the informants. Additionally, each informant provided demographic and lifestyle information such as tobacco and alcohol use and weight status, about each biological relative and themselves. Details about design and data features of this study can be found elsewhere [26]. The final analytic dataset consists of 2159 FHH records contributed by informants from all 45 families, almost twothirds of which (n = 1337) are multiple accounts from informants of the same family with respect to common relatives.
The analysis proceeds in two stages. First, for each family member enumerated we estimate diabetes status as a latent variable with multiple observations provided by different informants using the procedure detailed below. The number of informant based observations per individual family member ranges from 1 to 5. In this model we are able to systematically account for a) populationlevel prior prevalence of type 2 diabetes, b) family member characteristics (at level1), and c) informant or familylevel variability (at level2). We assume that the hyperparameters for the mean and variance of β_{0} (the level1 intercept) are ≂ 1.99 and 100, respectively. This specification models the populationlevel prior prevalence of type 2 diabetes by a normal distribution with a mean equivalent to just above observed background probability in the United States (which is roughly 12%, thus − 1.99 ≂ ln \( \frac{0.12}{1.12} \)) and a wide, but finite, variance. We additionally assume vague level2 covariance priors (with hyperparameters set to ρ = q and ψ = I × q, which assumes withininformant covariance in reports on family members for the informant level2 models and within/between informant covariance in the family level2 models. Finally, for the residual error variances (σ^{2}), we assume hyperparameters that result in noninformative priors.
Second, we make use of the posterior predictions (θ_{ij}, above) of the final model. These represent the distribution of marginalized modeladjusted probabilities that diabetes status is indicated on the informantfamily member dyad. Following [26], we average these predictions over the number of dyads each family member was reported upon by an informant to obtain a weighted estimate of diabetes status.
Model selection
The primary measure used to compare and select competing parameterizations of our proposed model is the Deviance Information Criteria (DIC). This measure is appropriate as it incorporates a first approximation to the predictive accuracy of the model visavis the posterior deviance while simultaneously discounting for model complexity. We follow the DIC specification of [31] (pp. 180–3), which defines the DIC as the sum of the average deviance of the posterior sample and one half its variance. The latter term is proportional to the effective number of parameters in the model and is a good estimate of Bayesian model complexity. Like other deviance and likelihood based model selection measures (AIC, BIC, AICC, etc), models with comparatively lower values of DIC are preferred.
We also evaluate classification accuracy for each of our candidate models using the area under the receiveroperator curve (AUC) for both dyadic and individuallevel predictions. Larger values of AUC represent better classification, with clinically relevant values exceeding 70% [36]. Additional model robustness checks are reported in Additional file 2.
Results
Table 1 reports the model fit and predictive power of five candidate models (dyadic data, not aggregated a posteriori to the individuallevel). Results for models with two different level2 covariance structures are reported: one modeling within and between informant covariance (called family level2) and one modeling within informant covariance (called informant level2). The null model is effectively an interceptonly logistic regression model with no hierarchical structure and is a natural baseline model by which to compare our candidate models. No AUC is reported for this model as it is degenerate (predictions do not exceed chance under this model). The hierarchical Bayesian logistic regression baseline model (model 1) incorporated only intercept terms for level 1 (dyadic level) and level 2 (informant level). Across all models, the family level2 was preferred by DIC due to having fewer model parameters and less complexity than the informant level2 specifications. By contrast, however, the informant level2 models all exhibit better classification with higher AUCs than the family level2 models.
Simply accounting for level2 heterogeneity improves model fit over the null and results in moderate classification accuracy with an AUC of about 63% for familylevel and about 69% for informantlevel. In model 2, we add generational distance between the informant and the family member being informed on as well as gender homophily (1 = same gender, 0 = otherwise) to level 1 and observe a slight improvement in both DIC and AUC over model 1. In model 3, we add the informant’s gender (1 = female) and informant’s obesity status (1 = obese, BMI > 25) to level 2. This model improves slightly over the previous models by DIC and yet is about as good as a classifier as model 2, with an AUC of about 70% in both cases. Model 3 is also a relatively complex model with a larger number of parameters. In model 4 we add informant’s perspective on the family member’s healthrelated behavioral risk factors to model 2. This model yielded an improved fit by DIC and had a very good classification accuracy with an AUC around 0.75% for family level2 and 77% for informant level2 specifications. Finally, in model 5, we combine the terms from models 3 and 4, which slightly improves DIC by decreases of 3.147 and 25.981, for family and informant level2 models, respectively. The AUCs for model 5 also improve to about 76% for family level2 and 78% for informant level2 models. Despite being a relatively complex model, we prefer model 5 with the informant level2 covariance structure for the balance of our analyses as it has the best classification accuracy of all models.
Figure 1 plots the receiveroperator curves (ROCs) for model 5 with the informant level2. To illustrate the familylevel variability around the model fit with the full dataset (indicated by the thick black line) we also stratified the dataset by family and plot separate ROCs for each family model (indicated by the thin gray lines). As the figure demonstrates, model 5 is a good fit in nearly every family separately as well as in the full pooled dataset.
After marginalizing over the data and averaging to the individual family member level, we observe very good classification accuracy. For instance, Fig. 2 is a comparison of the ROCs after averaging to the individual level for model 1 (solid line, AUC = 0.724) and model 5 (dotted line, AUC = 0.829), which demonstrates the superior classification accuracy of our final model predicting diabetes status for individual family members as a function of background prevalence, multiple informant accounts, and dyadic covariates. Fig. 3 recapitulates these results in terms of the posterior predictive values (i.e., individual predicted probabilities averaged across all informants under the model). The light red histogram represents the posterior predictive values marginalized over the data from model 1 and the light blue histogram represents such from model 5. The vertical dotted line represents the informative prior mean hyperparameter (here P (0.12)) used to model the background prevalence of diabetes in the population. While model 1, consisting of parameters for only level1 (family member) and level2 (informant) intercepts, pools probability mass around the mean of y_{ij} in the data (x ≂ 0.22), model 5 which includes covariates, is centered closer to the population prevalence and is more diffuse across the parameter space. In other words, the improvement in the classification accuracy of model 5 over model 1 appears to be the result of its greater representation of heterogeneity in the data.
Discussion
Increasingly, researchers acknowledge the clustered nature of FHH data and have taken the first steps addressing the problem of FHH data reconciliation using arithmetical methods [26]. While an arithmetical method would be a convenient, straightforward metric for integrating MIFHH into a single FHH, this type of method lacks the ability to incorporate sources of error. In this paper we have described a statistical model for integrating MIFHH into a unified FHH that can be used to calculate individual disease risk scores. The Bayesian hierarchical logistic regression model that we proposed has the advantage of integrating FHH from multiple informants in a more meaningful way, accounting for the processes that gives rise to reporting error and bias in typical FHH data.
Our results reveal two important insights about the nature of FHH data, in general. First, simply accounting for the hierarchical structure of these clustered data in the absence of any covariates improves classification accuracy over the null model (e.g., an improvement from 50 to 70%). This suggests models of FHH are better specified when clustering of family members is incorporated into their estimation. Given that informant error is inherent in any FHH assessment, our findings imply that accounting for such error is an important first step in any FHHbased risk assessment. As such, a latent class approach to estimating the disease status of family members that incorporates clustering of family members into estimation is, at a minimum, necessary for optimal risk evaluation. This is true, whether using FHH information obtained from a single informant or multiple informants.
Second, our best fitting model included informant’s perceptions of the informee’s healthrelated behaviors. Many clinical and research protocols include information about the informant’s own healthrelated behaviors (especially, whether they smoke, drink alcohol to excess, and maintain a healthy diet). Our results suggest that collecting information on individuals’ perceptions of their family members’ healthrelated behaviors may be at least as important in contributing sources of variation in their shared FHH. These covariates may be capturing the joint effect of shared family environment, which are often concealed in a standard diseasecentric FHH assessment. Our results suggest that directly accounting for contributions to risk that stem from lifestyle factors as well as heredity yields significant improvement in model fit. Clearly, these proxy reports of healthrelated behaviors cannot be ignored in current and future models of FHH.
Under the current framework, the model is highly sensitive to the quality of informants reports. Based on current data, our model showed significant improvement in classification accuracy by incorporating multiple informants reports. It is important to point out that this improvement is likely because of high level of agreement between informants. Over 60% of the dyadic comparisons of informants reports are congruent with each other. In this case, a model based on multiinformant information has increased power. Conversely, when interinformant agreement with respect to a common family members disease diagnosis is low, incorporating multiple reports could lead to more noise (i.e., additional informants reporting “dont know”), and error and bias (i.e., additional informants reporting contradictory information), since the current model weighs each source of information equally.
Both the model and the empirical data have some limitations. First, the approach we’ve taken relies on multiple accounts of FHH from either a single family or from many families. While multiply sourced information is increasingly recognized as important to improving classical approaches to individual risk assessments, these data are difficult to collect and protocols for doing so are outside the current clinical paradigm. In the meantime, our model is probably better suited for research than for practice. The model is also limited in that researchers must choose how the level2 covariance structure models dependence in families. For the current application, we reported two such sources of dependence: one with just withininformant covariation by clustering at the informantlevel and another that incorporated betweeninformant sources of covariation by clustering at the familylevel. While the less complex family level2 clustered models were preferred by DIC, the informant level2 models were uniformly better classifiers. In part, this is because the average number of informants per family in our example dataset was small. Increasing the average number of informants will necessitate a more nuanced approach, perhaps one that assumes separate levels of both within and betweeninformant covariance in one model. The problem of choosing an appropriate covariance structure for betweenfamily member dependence is nontrivial and future research is needed to evaluate viable alternative specifications. We considered several such specifications in robustness checking but none performed better than the withininformant case we presented here from a classification perspective. Finally, as the sample was drawn from a population that is at increased risk for diabetes, these data and the model evaluation may be an overcharacterization of risk profiles in the general population. While we attempted to adjust for this limitation in generalizability with informative priors for the background rate of diabetes, there may be additional sources of unobserved heterogeneity that we cannot account for that make this sample systematically different from the population at large.
Notwithstanding these limitations, the problem we have detailed here is more general than that of the case of MIFHH. The value of such a model lies in enabling users to optimally store, present, and analyze heterogeneous and dynamic FHH data in a way that properly supports clinical risk assessments and treatment decisions. Besides accounts from multiple informants, FHH data can come from different sources, ranging from selfreports, to proxy reports, medical records, or even genomic data. Indeed, a few studies have attempted to further improve FHHbased risk assessment by including molecular genetic variables with promising results [37, 38]. Previously, a similar approach has been used to examine withinpatient and betweensample tumor classification accuracy [39]. That model differed from ours, however, in that multiplemodes of tests represented the level2 source of variation rather than multiple informants. As well, it also lacked the incorporation of covariates. Moreover, information from each of these sources is not fixed in time. New diagnoses, births/deaths, and corrections in family and individual level data often arise and are reported in new accounts of FHH. As efforts to build a core family health history dataset continue [40], there is an urgent need to design platforms with the capacity to reconcile and integrate FHH from multiple sources in a dynamic manner. The model we’ve proposed here is one example of how such a database may be leveraged for risk prediction in future work.
Conclusion
The proposed modelling framework is a flexible solution to integrate multiple informant FHH for risk prediction purposes. Our approach contributes to the state of the science on modelbased risk assessments by allowing for the joint incorporation of various forms of correlation structure within families, together with populationlevel priors, and individual attributes. This framework allows to more fully capture the context of how multiple FHH reports shape disease risk assessments over existing methods. Our empirical example results indicate that, for type2 diabetes, both disease history and health behavior information should be collected for more accurate clinical and research assessments of FHH.
Abbreviations
 AUC:

Area Under the Curve
 BMI:

Body Mass Index
 DIC:

Deviance Information Criteria
 FHH:

Family Health History
 MCMC:

Markov Chain Monte Carlo
 MIFHH:

Multiple Informant Family Health History
 ROC:

Receiver Operator Curve
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Acknowledgements
We would like to thank Drs. Gustavo Sudre and Johan Koskinen for their respective comments and feedback on an earlier draft of this paper. We are also grateful for participation of the families in this study. The views expressed in this article are those of the authors and do not reflect the official policy or positions of NIH, DHHS, or the U.S. Government.
This work utilized the computational resources of the NIH HPC Biowulf cluster.
Funding
This study was supported by the National Human Genome Research Institute’s Intramural Research Program (ZIAHG200335 to LMK) and a National Institute of Diabetes and Digestive and Kidney Diseases grant (K18DK095473 to MFM). The funding agencies had no role in the design of the study or collection, analysis, and interpretation of data, or in writing of the manuscript.
Availability of data and materials
The datasets analysed during the current study are not publicly available due to the reasonable risk that study participants may be identified. These data may be available from the corresponding author on reasonable request.
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Contributions
CSM designed the model, conducted analyses, and wrote the paper. JL prepared preliminary analyses, prepared the dataset, and wrote the paper. MM and LMK designed the study used in the empirical example, collected the data from participants, and assisted with the writing and editing of the paper. All authors read and approved the final manuscript.
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IRBs at the University of Cincinnati (2013–4924) and National Human Genome Research Institute (12HGN149) approved the study. Written and verbal consent were obtained before study participation.
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Not applicable.
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The authors declare that they have no competing interests.
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Additional files
Additional file 1:
Model diagram. (DOCX 125 kb)
Additional file 2:
Supplementary analysis for model robustness. (DOCX 43 kb)
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Lin, J., Myers, M.F., Koehly, L.M. et al. A Bayesian hierarchical logistic regression model of multiple informant family health histories. BMC Med Res Methodol 19, 56 (2019). https://doi.org/10.1186/s1287401907005
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DOI: https://doi.org/10.1186/s1287401907005