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Prevalence and determinants of multiple chronic conditions (MCC) among young adults in Indian households: an analysis of NFHS-5

Abstract

Background

Multiple chronic conditions (MCC) are defined as the presence of two or more chronic conditions, that significantly impact health status, functional capacity, quality of life, and overall healthcare management. Despite the significant evidence on chronic disease burden, the co-existence of MCC within a household in low- and middle-income countries (LMICs) is less studied. This study therefore estimates the prevalence of MCC and its determinants among adults in the Indian households.

Methods

Data used in this study were drawn from the fifth round of the National Family Health Survey (NFHS) conducted in 2019–21. Data sets of men (15–54 years) and women (15–49 years) were used for the study. The total sample size of adults for this analysis was N = 239,848. The outcome variable of this study was multiple chronic conditions (MCC) in adults which included a total of nine chronic conditions (hypertension, diabetes, chronic respiratory diseases, chronic kidney disorders, cancer, thyroid disorders, obesity, and heart diseases, consuming alcohol, chewing tobacco, and smoking) documented in NFHS-5. Descriptive statistics and binary logistic regression analysis were used to quantify the results.

Results

A prevalence of 5.5% of MCC in adults emerged from our study. Logistic regression analysis identified that younger age, males (AOR 0.36 (0.33–0.39)), urban areas (AOR 1.11 (1.02–1.17)) as the place of residence, and participants representing SC (AOR 0.89 (0.81–0.97)), and ST (AOR 1.30 (1.17–1.45)), had a higher risk of MCC irrespective of level of education, type of occupation, marital status, or wealth index, and states from any category of social progress.

Conclusion

A 5% prevalence of MCC specifically obesity, substance use, and hypertension calls for integrated efforts aiming at behavior change, and regulatory efforts to prevent further increase of MCC among young adults in India.

Background

Globally, infections and nutritional disorders have emerged as key determinants of mortality and morbidity. An upsurge in the burden of multiple chronic conditions (MCC) is observed in almost one in three of all adults worldwide [1, 2]. MCC is defined as the presence of two or more chronic diseases, that collectively impact health status, function, or quality of life and that require complex healthcare management, decision-making, or coordination [3]. Non-communicable diseases (NCDs) add to the burden of MCC and the WHO reported that 86% of premature deaths due to NCDs occurred in low and middle-income countries (LMICs) [4]. Cardiovascular disease, cancer, chronic lung diseases, and diabetes have been recognized to increase mortality [5].

The growing burden of MCC is well documented in literature from developed countries where between 16 and 57% of the population have more than one chronic disease. Data from the 2018 National Health Interview Survey (NHIS) estimated, 24.6% (61 million) adults had 1 chronic condition, and 27.2% (68 million) had ≥ 2 chronic conditions [6] in the United States of America (USA). Few other countries have estimated the prevalence of MCC such as Spain (24%), Taiwan (17%), Singapore (16%), and India (23%) [7,8,9,10]. However, not all represent population prevalence. The trends varied by geographical region, country’s economy and per capita income, gender, age, number of diseases considered for multimorbidity, or study methodology [11]. In developing countries multimorbidity tends to be more prevalent among the wealthier population, while in developed countries it is higher among the poor. Combinations of MCC varies across nations for example in China [12] hypertension with hearing impairment, and in Africa [13] dyslipidemia with hypertension are a few. Characterizing the patterns is a primary step to plan need-based interventions for specific populations.

Further, the place of residence impacts health and disease. People in urban areas have higher incomes and lead a more sedentary lifestyle than their rural counterparts [14, 15]. Besides, there are differences in types of jobs, education, wealth, social security, and health behavior, all of which are significant determinants of chronic diseases [16]. In developing nations maternal undernutrition that leads to stunted children increases the risk of NCDs and chronic conditions in adulthood [17].

Economic development and social progress are both a cause and consequence of multi-morbidity which is yet to be explored (13,14). Healthcare expenditures greatly increase, sometimes exponentially, with each additional chronic condition with greater specialist physician access, emergency department presentations, and hospital admissions. Individuals with MCC experience deterioration in the quality of life, out-of-pocket expenses, medication adherence, inability to work, and symptom control, which impose a high toll on caregivers [2, 11]. In LMICs, the burden of MCC-associated out-of-pocket expenditure (OOPE) is a rising concern both for the health system and the households [18]. The increasing proportion and a further predicted increase of older and younger adults with MCC who will live to advanced ages are greater public health challenges for policymakers [2].

Despite the significant evidence on chronic disease burden, the co-existence of MCC within a household in LMICs is less studied. Additionally, gaps in knowledge regarding the influence of behavioral or lifestyle factors, such as smoking and alcoholism, on the development of MCC are evident. Existing studies show considerable heterogeneity between MCC and its associated behavioral or lifestyle factors. For LMICs to achieve better health outcomes, it is crucial to gain a better understanding of these knowledge gaps. The lessons from developed countries suggest an increased burden of MCC with increased age. The demography of India is unique characterized by a young population. Studying patterns of MCC will enable characterization to plan specific prevention strategies among the young adults to prevent an increase in burden with increasing age. This study, therefore, estimates the prevalence of MCC and its determinants among young adults in Indian households.

Methods

Data source

This study utilized secondary data from the National Family Health Survey (NFHS) 5, a nationally representative cross-sectional survey to estimate the prevalence and determinants of MCC among adults in Indian households. The NFHS 5 (2019–21) was conducted under the stewardship of the Ministry of Health and Family Welfare (MoHFW), Government of India (GOI). It provides essential data on health and family welfare, as well as data on levels of fertility, infant and child mortality, maternal and child health, and other health and family welfare indicators by background characteristics at the national and state levels.

Sample design

The survey adopted a multistage stratified sampling design to provide various demographic and population health outcome indicators. Each district was stratified into urban and rural areas. Each rural stratum is sub-stratified into smaller substrata considering the village population, and the percentage of scheduled castes and scheduled tribes (SC/ST). The Primary sampling unit (PSU) for urban and rural areas was selected according to the percentage of the SC/ST population. In all, 30,456 PSUs were selected across the country, drawn from 707 districts, 28 states, and 8 union territories of India. For rural areas, a sample of villages (cluster) was selected based on the literacy rate of women aged 6 + years. In urban areas, Census Enumeration Blocks (CEBs) (cluster) were selected based on the percentage of the SC/ST population. In the second stage of selection, 22 households per cluster were chosen with an equal probability of systematic selection of households enlisted during the mapping in the selected PSUs. Overall, 30,456 PSUs were selected across the country from 707 districts, and fieldwork was completed in 30,198 PSUs. This survey provided data on 724,115 women and 101,839 men who were successfully interviewed from 636,699 households.

Study population

NFHS 5 datasets were accessed from the Demographic and Health Surveys (DHS) website (17). The independent variables of the study included data derived from data sets of young adults defined and categorized as per NFHS as men (15–54 years), and women (15–49 years). The data from the household, household members, and birth datasets were excluded because they did not include variables regarding chronic conditions. The current sample is restricted to a matched sub-set of child data under 5 years of age which is a part of a larger data used for another research objective in the same project. Therefore, the present analysis represents, a sub-sample of N = 239,848 adults (18,086 men and 221,762 women).

Outcome variable

The outcome variable of this study was multiple chronic conditions in adults (MCC). The outcome of interest was computed using the information on nine self-reported chronic conditions (hypertension, diabetes, chronic respiratory diseases, chronic kidney disorders, cancer, thyroid disorders, obesity, and heart diseases, and substance use disorder (which included consuming alcohol, chewing tobacco, and smoking cigarettes) as documented in NFHS-5. All the chronic conditions were coded into binary categories of No—‘0’ and Yes—‘1’.

Independent variables

The socio-demographic and economic factors, including age (age groups between, 15–30, and 31–54 years), gender (male and female), place of residence (urban and rural), religion (Hindu, Muslim, Christian, and Other), ethnicity (caste, tribe, no caste/tribe/do not know), marital status (never married, married, widowed or separated or divorced), wealth index (poorest, poor, middle, rich, and richest), education (no education, primary, secondary, higher education), occupation (primary, secondary, tertiary occupation). States were categorized according to the social progress index (SPI) [19, 20].

Definitions of multiple chronic conditions (MCC)

The lack of a single definition of what constitutes an MCC has resulted in high heterogeneity in the estimates. The definition of MCC is varied as per the number of chronic conditions included [2]. The simplest definition of MCC is the presence of two or more chronic diseases [6, 21, 22]. What constituted a chronic disease also varied across the literature [23]. Some studies define chronic conditions by their specific organ system (e.g., chronic lung disease), whereas others differentiate within organ systems (e.g., COPD and interstitial lung disease) [24]. Several indices have been used to measure the number and severity of chronic diseases. However, the most recognized of these is the Charlson Comorbidities Index and its adaptations, originally established to predict mortality in hospital patients [25].

We, therefore, defined MCC as the presence of two or more chronic conditions (hypertension, diabetes, chronic respiratory diseases, chronic kidney disorders, cancer, thyroid disorders, heart diseases, obesity, and substance abuse) that were documented in NFHS 5.

Statistical analysis

Cross-tabulations and summary statistics were performed to describe the study population. Simple frequencies, summary measures, tables, and figures were used to present the data. Analyses were based on weighted data to account for the complexity of the survey design. Associations between independent and dependent variables were analysed using chi-square test. Variables that showed significance in the binary logistic regression (Crude Odds Ratio -COR) were subjected to multinomial logistic regression (Adjusted Odds Ratio-AOR) and the analyses were performed to assess the risk factors of MCC among young adults. Associations with p =  < 0.05 were considered statistically significant. The adjusted odds ratio (AOR) with a 95% confidence interval was also presented in the results. The analysis was done using the statistical package for the social sciences (SPSS) version 23.0 (International Business Machines Corporation-IBM Corp., Armonk, New York).

Ethical consideration

The present study utilized a secondary data set from the recent NFHS-5 survey with no identifiable information on the survey participants. The survey received ethical clearance from the Institutions Review Board (IRB) of the International Institute for Population Sciences, India. This dataset is available in the public domain for legitimate research purposes. Since it is a secondary dataset there was no need to get any other institution's ethical permission.

Results

Table 1 represents the distribution of sociodemographic characteristics of study participants. Reported mean age of participants was 28.49 ± 7.90 years. More than 90% of the participants were females. Of the total female participants, about 70% were in the age group of 15–30 years. The majority of the participants belonged to the Hindu religion (71.7%). A substantial proportion of adults were from scheduled castes (males 71.6% and females 80%). Nearly half of the males (44.8%) were engaged in primary occupations. The majority of males (82.6%) and females (86.5%) were married. More than one-third of the population resided in rural areas (78.5%). The reported educational status of participants showed concentration at the secondary level [males (57%) and females (51.3)]. Nearly one-fourth of the adults belonged to the poorest wealth index [males (26.7%) and females (23.9%)]. Health insurance coverage was higher in males (38.1%) as compared to females (28.4%).

Table 1 Sociodemographic characteristics of adults (N = 239,848)

Figure 1 shows the prevalence of nine chronic conditions along with MCC prevalence among adults in India. Among all the chronic conditions, obesity (16.59%) was the most prevalent. Substance use disorder (5.30%) was India's second most prevalent chronic condition, followed by hypertension (3.50%). The prevalence rates of thyroid disorders, diabetes, chronic respiratory diseases, heart diseases, chronic kidney disorders, and cancer were lower than the previously mentioned conditions. However, these chronic conditions are emerging health concerns in India, with prevalence rates ranging from 0.13 to 1.77%. The data shows that the overall burden of MCC in adults was found to be 5.5%.

Fig. 1
figure 1

Prevalence of chronic conditions and MCC among adults in India (N = 239,848)

Figure 2 shows how chronic conditions are distributed among adults of different age groups. Around 5.5% of all adults had two or more chronic conditions. However, the proportion of people with multiple chronic conditions was almost three times higher in the older age group (31–54 years) compared to the younger age group (15–30 years).

Fig. 2
figure 2

Proportion of adults with and without chronic conditions, by age

Figure 3 presents the state-wise prevalence of MCC among adults in India. The prevalence of MCC was highest in the northern zonal region of India i.e., in Ladakh (16.26%). In the north-eastern region, the highest prevalence of MCC was in Meghalaya (14.39%) and Mizoram (15.09%) followed by Arunachal Pradesh (13.75%). In the eastern region (that consists of states viz. Bihar, Jharkhand, West Bengal, and Odessa) the overall prevalence was between 4.38 and 7.8%. In the central zonal region, the prevalence of MCC was highest in Chhattisgarh at 7.7% and lowest in Uttarakhand at 1.13%. In the western region, the prevalence of MCC was highest in Goa (9.33%) and a similar prevalence was seen in Dadra & Nagar Haveli and Daman & Diu and Maharashtra i.e., 5.01% and 5.03% respectively. In the southern region, a similar pattern of prevalence was seen in Andhra Pradesh, Puducherry, and Kerala i.e., 7.42%, 7%, and 7.7% respectively. But the highest prevalence in this region was in Telangana at 9.81%.

Fig. 3
figure 3

State-wise prevalence of multiple chronic conditions among adults in India (N = 239,848)

Table 2 shows the percent prevalence of chronic conditions (CCs) in adults according to the social progress index. A high prevalence of obesity (20.8%), thyroid disorders (3.92%), and diabetes (1.65%) was observed in the very high social progress group states while the prevalence of cancer (0.11%) and chronic kidney disorders (0.83%) was low. In the case of the high social progress group, the prevalence of obesity (21%), hypertension (5.59%), and thyroid disorders (3.65%) was higher as compared to other CCs. In the case of upper-middle social progress states, the overall prevalence of chronic conditions was low as compared to other social progress groups. In the lower middle social progress group, the states of Haryana (6.73%), Meghalaya (6.88%), and Tripura (6.02%) showed a higher prevalence of hypertension. Whereas, a greater number of states showed a high prevalence of chronic respiratory diseases i.e., Haryana (0.91%), Gujarat (0.87%), Andhra Pradesh (2%), Meghalaya (3.5%), West Bengal (2.58%) and Tripura (2.23%). The majority of states showed a low prevalence of heart diseases and the overall prevalence was 0.5%. In the low social progress group, a high prevalence of obesity was seen in Odisha (21.3%) and hypertension in Madhya Pradesh (4.55%). Substance use disorders (6.2%) had a high prevalence in the very low social progress group.

Table 2 Percent prevalence of chronic conditions in adults according to the social progress index of Indian States/Union Territories

Table 3 shows the logistic regression results of sociodemographic and economic factors associated with MCC among adults. Among the socio-demographic factors considered in the study, the age of the participants 15–30 years [COR 0.569 (0.544–0.595)], being male [COR 0.036 (0.033–0.039)], living in urban areas [COR 1.086 (1.027–0.148)], both scheduled caste and scheduled tribes [COR 0.898 (0.817–0.987)] and [COR 1.306 (1.171–1.455)] respectively, educational status i.e., no education [COR 1.647 (1.514–1.793)], primary [COR 1.674 (1.535–1.826)] and secondary education [COR 1.352 (1.261–1.449)], all levels of occupation including secondary and tertiary occupation [COR 1.390 (1.261–1.531)] and [COR 0.869 (0.768–0.96)] also adults who were not working [COR 0.854 (0.786–0.927)] had higher odds of having multiple chronic conditions. Similarly in the case of marital status both married and never married [COR 0.641 (0.573–0.717)] and [COR 0.382 (0.334–0.438)], adults covered by health insurance [COR 1.175(1.124–1.228)] had higher odds of having MCC (p < 0.005).

Table 3 Binary logistic regression of the association between sociodemographic characteristics and multiple chronic conditions among adults in India

The social progress index complements GDP with quality of life measures such as health, education, infrastructure, etc. When analyzed as per the states social progress index all categories i.e., very low social progress [COR 0.774 (0.709–0.845)], low social progress [COR 0.596 (0.545–0.652)], lower middle social progress [COR 0.758 (0.7–0.819)], upper middle social progress [COR 0.886 (0.81–0.97)] and high social progress [COR 1.169 (1.055–1.297) had higher odds of having MCC (p < 0.005).

From all these variables, the younger age group (15–30 years), male adults, urban places of residence, adults representing scheduled caste and scheduled tribes, covered by health insurance, and states with very low social progress stayed significant in the adjusted model as well. In the multinomial regression model, states with low social progress [AOR 0.406 (0.377–0.436)], lower middle social progress [AOR 0.758 (0.715–0.812)], and high social progress [AOR 0.818 (0.751–0.891)] were also statistically significant with MCC.

Discussion

Our study examined the prevalence and determinants of multiple chronic conditions among adults in Indian households in a nationally representative sample. It is critical to note that 5.50% of adults in the same households have MCC which is a matter of public health concern. The increase in the prevalence of MCC was observed with the advancement of age. Indian traditional family system prioritizes elderly care which increases the need for household resources to manage MCC and meet their health care needs. Among the chronic condition’s obesity, substance use disorder, and hypertension were the most common chronic conditions in India.

Prevalence of MCC

Our analysis showed obesity, substance use disorder, and hypertension as the primary MCC triad in India. Obesity showed the highest prevalence among chronic conditions. The trend is similar to the earlier rounds of NFHS 2, 3, and 4, which saw an increase in obesity from 8.4 to 15.5% and 2.2 to 5.1% [26,27,28]. An eight-country analysis of the economic costs of overweight and obesity (OWO) estimated 0.8% of the GDP in India, much lesser compared to the other countries (South Africa, Thailand, Spain, Mexico, Brazil, and Australia) [29]. Luhar and coworkers have predicted a larger relative increase in OWO among the older age groups and in rural compared to urban settings [30]. While the prevalence of cancer was the least in our findings, other countries in the Southeast Asian region showed a high incidence of oral cancer [4]. In the South East Asian region (SEAR) deaths due to chronic diseases ranged from 34% in Timar-Leste to 79% in Maldives [31]. Research from European countries showed smoking as the predominant risk for premature deaths [32]. In the USA percentage population having ≥ 2 chronic conditions was 27.2% much greater than in any other developing country [6]. However, such comparisons need to be carefully interpreted considering the age of the population, the period, the prevailing economic conditions, and other factors like the pandemic that could have contributed to the estimates.

The second highest prevalence in our analysis was substance use disorder (5.3%). In 2019, the Ministry of Social Justice and Empowerment, Government of India reported predominant alcohol use at 4.6% and a dependent pattern use of 19% [33]. The determinants for such high dependency and use of other substances are not limited to biological but also to socio-political factors [34]. The third high prevalent chronic condition in our analysis was hypertension, estimated to be 3.5%. The World Health Organization (WHO) reported hypertension as the major cause of death (27%) among the 40–69 age group [35]. In India, the interventions have strengthened to achieve a 25% reduction in hypertension [36]. Work in India has documented the benefits of a high-protein diet in maintaining normal blood pressure [37].

Socio demographics and MCC in India

As predicted by Luhar and co-workers (2020), an analysis of socio-demographic characteristics showed MCC was more concentrated in rural than urban areas, where obesity and substance use disorder were prominent [30]. However, our findings reveal a higher prevalence of MCC in urban areas similar to other studies [10, 16]. Among the different ethnic groups, scheduled caste households exhibited a higher prevalence of MCC compared to scheduled tribes. Individuals irrespective of education and occupation were susceptible to MCC. Remarkably, our findings diverged from a previous study, as we did not observe a higher MCC prevalence among unmarried, divorced/separated, or widowed individuals [38].

Differences in prevalence across states

A high prevalence of chronic conditions was seen among the North and North Eastern (NE) states, Assocham report identified similar patterns in the NE states. These states are in the lower middle stage of epidemiological transition. Their rural and tribal regions have a mountainous terrain that impedes access to health care, characterized by poor infrastructure and increased untreated morbidities. This combined with poverty, high intake of non-vegetarian foods low consumption of fruits and vegetables, and less physical activity adds to the increasing burden of MCC in these states [39, 40]. Our analysis showed a high prevalence of MCC in Chhattisgarh. The high prevalence of NCD, mental health disorders, and substance use above the national average in this state contribute to the high MCC [16, 41]. In our analysis, states in the southern region showed a higher prevalence of MCC compared to the western states. However, such differences have not been observed in previously published work that compared chronic conditions in older adults [42]. A high prevalence is likely to be observed among younger adults that need to be supported by more research.

Social progress of states and MCC

In our work, states with very high and lower middle social progress displayed higher MCC prevalence in adults. This varied from developed countries where very high economic strata showed a low prevalence of MCC. However, our work used social progress that considered the social context of progress that included education, social conditions that influenced the risk of exposure, environment, degree of susceptibility, the course and outcome of the disease, and not just economic growth [43,44,45]. In developed countries, the interstate variability was marked, where access to care and insurance varied across degrees of progress [46]. Notably, our study too highlighted that those individuals with health insurance had a lower prevalence of MCC. The findings urge the need to test innovative models for the prevention and control of MCC in developing country settings.

Strengths and limitations

Our analysis focuses on a less explored area of MCC among young adults in India, with a unique demography, experiencing significant nutrition transition. The strength of our study is the large dataset, covering the nationally representative sample and chronic conditions in young adults as outcomes that had a higher analytical potential. The use of weighted data in our analysis minimized the effect of inherent bias of big datasets especially improving the representation of smaller demographic groups. Many studies focus on individual adults as the study unit, whereas we focused on households relevant to MCC studies. Despite these strengths, our work is not free from constraints. Since these data were derived from a nationally representative cross-sectional survey i.e., NFHS round 5, our findings present the association between the variables but not causation. Further, we used self-reported information on nine chronic conditions, which could not eliminate bias and our study was limited to a small number of conditions. Also, the economic status of the households in this study was measured through the wealth index based on household assets. Additionally, the adult–child matched sub-set within the households’ limits representativeness of young adults. The higher proportion of women in the dataset also could have skewed the study findings. Comparing the prevalence of MCC across different studies poses challenges due to variations in the definition of MCC, data collection methods, and the inclusion of specific chronic conditions.

Conclusion

The 5% prevalence of MCC among young adults in Indian households represents the tip of the iceberg, that could disguise the huge burden of MCC among the older age groups. Among the major prevalent conditions, obesity, substance use, and hypertension emerge as three major chronic conditions. However, state-wise combined burden identified obesity, combined with thyroid disorders and diabetes as the MCC triad in Indian households. This calls for innovative strategies that collectively address biological and social determinants appropriate for a developing country setting. With the expanding urban population in developing countries, our findings urge concentrated efforts to curb the rising prevalence in urban settings that are well influenced by transition. Adults in mid-life (31–59 years) need priority attention for a country with a young demography, to prevent economic losses. The three major chronic conditions with modifiable determinants and calls to advocate lifestyle modification irrespective of social class and age. In addition, strengthening of health systems, and improving coverage of services to households across settings. The overall findings of the study points to critical and urgent investment in improving the life of young adults and to prevent an increase in the burden of MCC with advancing age. The alarming patterns of MCC seen in developed countries gives India vital lessons to curb progress by investing in the health of young adults. Perhaps integrated efforts aiming at behavior change, alongside regulations for the food industry to promote healthy food environments will be a worthwhile investment.

Availability of data and materials

The datasets used and/or analysed during the current study are available from the corresponding author on reasonable request.

Abbreviations

MCC:

Multiple chronic conditions

CC:

Chronic condition

NCD:

Non-communicable disease

LMICs:

Low and middle-income countries

NHIS:

National Health Interview Survey

USA:

United States of America

OOPE:

Out-of-pocket expenditure

NFHS:

National Family Health Survey

MoHFW:

Ministry of Health and Family Welfare

GOI:

Government of India

SC:

Scheduled caste

ST:

Scheduled tribe

PSU:

Primary sampling unit

CEBs:

Census Enumeration Blocks

DHS:

Demographic and Health Surveys

COR:

Crude odds ratio

AOR:

Adjusted odds ratio

SPSS:

Statistical package for the social sciences

IRB:

Institutions Review Board

OWO:

Overweight and obesity

SEAR:

South East Asian region

WHO:

World Health Organization

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AJ and SG designed the study; GT and AH conducted the library search and wrote the manuscript; GT and AH extracted and analyzed the data; AJ and SG had primary responsibility for the final content; all authors read and approved the final manuscript.

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Takale, G., Handore, A., Jeyakumar, A. et al. Prevalence and determinants of multiple chronic conditions (MCC) among young adults in Indian households: an analysis of NFHS-5. J Health Popul Nutr 43, 77 (2024). https://doi.org/10.1186/s41043-024-00560-0

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