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. 2022 Oct 10;22:790. doi: 10.1186/s12877-022-03481-x

Burden of communicable and non-communicable diseases-related inequalities among older adults in India: a study based on LASI survey

Shekhar Chauhan 1, Shubham Kumar 2, Ratna Patel 3,, David Jean Simon 4, Aradhana Kumari 5
PMCID: PMC9552506  PMID: 36217103

Abstract

Background

A rising proportion of elderly in India has infused notable challenges to the healthcare system, which is already underdeveloped. On one side, NCDs are increasing among the elderly in India; however, on the other side, CDs are also a cause of concern among the elderly in India. While controlling the outbreak of communicable diseases (CDs) remained a priority, non-communicable diseases (NCDs) are placing an unavoidable burden on the health and social security system. India, a developing nation in South Asia, has seen an unprecedented economic growth in the past few years; however, it struggled to fight the burden of communicable and non-communicable diseases. Therefore, this study aimed at examining the burden of CDs and NCDs among elderly in India.

Methods

Data from Longitudinal Ageing Study in India (LASI Wave-I, 2017–18) were drawn to conduct this study. The LASI is a large-scale nationwide scientific study of the health, economics, and social determinants and implications of India's aged population. The LASI is a nationally representative survey of 72,250 aged 45 and over from all Indian states and union territories. Response variables were the occurrence of CDs and NCDs. The bi-variate and binary logistic regression were used to predict the association between communicable and non-communicable diseases by various socio-demographic and health parameters. Furthermore, to understand the inequalities of communicable and non-communicable diseases in urban and rural areas, the Fairlie decomposition technique was used to predict the contribution toward rural–urban inequalities in CDs and NCDs.

Results

Prevalence of communicable diseases was higher among uneducated elderly than those with higher education (31.9% vs. 17.3%); however, the prevalence of non-communicable diseases was higher among those with higher education (67.4% vs. 47.1%) than uneducated elderly. The odds of NCDs were higher among female elderly (OR = 1.13; C.I. = 1–1.27) than their male counterparts. Similarly, the odds of CDs were lower among urban elderly (OR = 0.70; C.I. = 0.62–0.81) than rural elderly, and odds of NCDs were higher among urban elderly (OR = 1.85; C.I. = 1.62–2.10) than their rural counterparts. Results found that education (50%) contributes nearly half of the rural–urban inequality in the prevalence of CDs among the elderly. Education status and current working status were the two significant predictors of widening rural–urban inequality in the prevalence of NCDs among the elderly.

Conclusion

The burden of both CD and NCD among the elderly population requires immediate intervention. The needs of men and women and urban and rural elderly must be addressed through appropriate efforts. In a developing country like India, preventive measures, rather than curative measures of communicable diseases, will be cost-effective and helpful. Further, focusing on educational interventions among older adults might bring some required changes.

Supplementary Information

The online version contains supplementary material available at 10.1186/s12877-022-03481-x.

Keywords: Communicable diseases, Non-communicable diseases, Older population, Double burden, India

Background

South-Asian countries are still young in terms of their demographic profile, but their population is aging as well [1]. South Asian countries face a growing number of healthcare challenges due to their aging populations [1]. In spite of the fact that communicable diseases remain a top priority, non-communicable diseases continue to pose a considerable burden to health care systems [1]. India, a developing nation in South Asia, has seen an unprecedented economic growth in the past few years; however, it struggled to fight the burden of communicable and non-communicable diseases [1]. India, with more than 8 percent of its population being more than 60 + years [24], has acquired the level of an ageing nation with the growth of older Indian population in absolute number comparatively faster than other regions of the world [5]. A rising proportion of elderly in India has infused notable challenges to the healthcare system, which is already undeveloped [6]. With a slighter decline in Communicable Diseases (CD) and a steeper increase in Non-communicable disease (NCD), India is currently undergoing the double burden of CDs and NCDs [7]. A critical gap in the health system and policy development was addressed in October 2015 when the India State-Level Disease Burden Initiative was formally launched.

As India undergoes a rapid demographic and epidemiological transition, these processes run parallel [8]. The growing number of NCDs in developing countries such as India has added to the burden of communicable diseases [9]. Currently, India is undergoing double burden of disease, with CDs being a concern at one side, and NCDs being rising on the other side [10]. NCDs are degenerative diseases and are linked to older adults. India is experiencing an increase in the proportion of older people, so NCDs will continue to be a challenge.

CDs were the prime cause of death worldwide for a very long time [11]. NCDs were initially considered diseases of the rich and burdened healthcare systems only in developed countries [11]. Off late, NCDs seemed to be sweeping the globe, a trend that is becoming more prominent in developing countries [11]. India is also experiencing an increasing burden of NCD among elderly [12, 13]. India has been undergoing an epidemiological transition resulting from rise in non-communicable diseases [14]. Despite an increasing burden of NCD, India still does not have sufficiently detailed data on NCDs for research and policy purposes [12]. India's elderly population is on the rise with non-communicable diseases; communicable diseases, however, also pose a threat [7]. The projected increase in the elderly population in India [15] would bring several repercussions as far as the burden of CDs, and NCDs is concerned [7]. In light of the limited literature on CD and NCD among elderly in Indian context, it is imperative to examine the burden of CDs and NCDs in the country. Therefore, this study aimed at examining the burden of CDs and NCDs in a single study among elderly in India. This study explored prevalence and determinants of CDs and NCDs among elderly in India along with examining the urban–rural inequalities in the prevalence of CDs and NCDs among elderly in India.

Methods

Data

The study utilizes de-identified data from Longitudinal ageing study of India (LASI), first wave: 2017–18, conducted by the collaboration of International Institute for Population Sciences (IIPS), Harvard T.H. Chan School of Public Health (HSPH), and University of Southern California (USC), and several other national and international institutions. [16]. The survey has been funded by the Ministry of Health and Family Welfare (MoHFW), the Government of India, the National Institute on Aging (NIA), and the United Nations Population Fund, India (UNFPA). The survey included the older adults (men and women) age 45 years and above across all the states (exclude Sikkim) and union territories in India. The LASI wave-1 covers comprehensive aspects of chronic health conditions, functional and mental health, healthcare utilization, family and social networks, work and employment and life expectations.

The LASI has utilized a multistage stratified area probability sampling design to reach out a representative sample. Moreover, rural areas are sampled in three stages while urban areas are sampled in four stages. Further, the first stage engaged to selection of primary sampling units (PSUs) i.e. Tehsils and Talukas. The second stage considered the selection of villages in rural areas and wards in urban areas. In the third stage, household were selected from pre-selected villages in rural areas where census enumeration blocks (CEBs) were selected in urban areas. In additional and final stage of sampling in urban areas, the process of selection of household was made through selected CEBs.

The LASI featured with 72, 250 individuals, including 31,434 aged 60 years and above and 6,749 individuals aged 75 years and above. However, this study considered 60 years and above population for the analytical purpose.

The double burden of communicable and non-communicable diseases

Double burden of disease refers to the situation where an individual suffers from both non-communicable and infectious diseases. A study classified the burden of diseases in three broad clusters: communicable diseases, non-communicable diseases, and injuries [7]. This study examines the responses of communicable and non-communicable diseases only. Following diseases were included as communicable disease: Jaundice/ Hepatitis, Tuberculosis (TB), Malaria, Diarrhoea/gastroenteritis, Typhoid, Urinary Tract Infection, Chikungunya and Dengue. Within non-communicable diseases, following conditions were included: Hypertension or high blood pressure, diabetes or high blood sugar, Cancer or a malignant tumour, Chronic lung diseases such as asthma, chronic obstructive pulmonary disease/Chronic bronchitis or other chronic lung problems, Chronic heart diseases such as Coronary heart disease (heart attack or Myocardial Infarction), congestive heart failure, or other chronic heart problems, Stroke, Arthritis or rheumatism, Osteoporosis or other bone/joint diseases, Any neurological, or psychiatric problems such as depression, Alzheimer’s/Dementia, unipolar/bipolar disorders, convulsions, Parkinson’s, etc. and High cholesterol.

Study variables

Response variable

The response variables for this study are communicable diseases and non-communicable diseases. Communicable diseases are diagnosed by health professionals and asked as “In the past 2 years, have you had any of the following diseases?” and responses have been recorded in ‘yes’ and ‘no.’ Similarly, non-communicable diseases are also diagnosed by health professionals and asked in the form of ‘yes’ and ‘no.’

Predictors

The predictors for this study are considered as sex (male and female); age (60–69 and 70 years and above); marital status (currently married, never married, Divorced/Separated/Deserted/Widowhood), education (No education, below primary, primary, secondary, and higher); living arrangements (living alone, with spouse and with others); place of residence (rural and urban); currently working (yes and no); wealth index (poorest, poorer, middle, richer and richest); self-rated health (poor and good; physical activity (yes and no); tobacco use (no and yes); alcohol use (yes and no); ADL disability (severe, moderate and no disability), and IADL disability (severe, moderate and no disability) [17]. Furthermore, ADL and IADL disability constructed from five (bathing, dressing, mobility, feeding, and toileting) and seven (preparing a hot meal (cooking and serving), shopping for groceries, making telephone calls, taking medications, doing work around the house or garden, managing money, such as paying bills and keeping track of expenses and getting around or finding an address in an unfamiliar place) activities. Both the ADL and IADL disability was categorized into the three categories as “severe,” “moderate,” and “no disability” based on the scale given in previous studies [18, 19]. Further, tobacco use can be defined “ever smoked tobacco (cigarette, bidi, cigar, hookah, cheroot) or used smokeless tobacco (such as chewing tobacco, gutka, pan, masala etc.)”. In addition, alcohol use can be defined as “ever consumed any alcoholic beverages such as beer wine, liquor, country liquor etc.” [13].

Statistical measures

The analyses were carried out with statistical software STATA version 16. Bivariate technique was used to understand the prevalence of communicable diseases and non-communicable diseases by socio-demographic and health parameters and across various states in India. Further, binary logistic regression was used to predict the association between communicable and non-communicable diseases and socio-demographic and health parameters. We have used enter method of regression where all the predictor variables have been selected in a single step. The equation for binary logistic regression is given below,

logpi1-pi=logitpi=β0+β1x1+β2x2++βnxn

In the above regression equation, pi is the probability of being perceived as communicable or non-communicable diseases, x1, x2x2 are the predictors, β0 is the intercept and β1, β2βn are the coefficients.

Furthermore, to understand the inequalities of communicable and non-communicable diseases in urban and rural areas, the Fairlie decomposition technique was used to predict the contribution toward rural–urban inequalities in CDs and NCDs [20]. The Fairlie technique was first initiated by Fairlie in 1999 which used to estimate from a logit or probit model. The equation for Fairlie decomposition can be written as,

Y¯U-Y¯R=i=1NUF(XiUβ^U)NU-i=1NRF(XiRβ^RNR+i=1NRF(XiRβ^U)NR-i=1NRF(XiRβ^RNR

where NU and NR is the sample size for urban and rural respectively, Y¯U and Y¯R are the average probability of a binary outcome of interest for group urban and rural, F is the cumulative distribution function from the logistic distribution, distribution, XiR and XiU are the set of the average value of the independent variable and β^U and β^R are the coefficient estimates for the urban and rural, respectively. The results can be interpreted as: positive values indicate rural–urban inequalities in CDs or NCDs where negative values show the lower inequality for the same.

Results

Figure 1 depicts the prevalence of CDs among the elderly in India. Almost 15 percent of the elderly reported Diarrhoea and another 9 percent reported Malaria. Almost 6 percent of the elderly reported Typhoid.

Fig. 1.

Fig. 1

Proportion of communicable diseases among elderly

Figure 2 depicts the prevalence of NCDs among the elderly in India. Almost one-third of the elderly reported hypertension (32.8%), and another one-fifth (19.7%) reported Arthritis. In addition, nearly 14 percent reported Diabetes, and 9 percent reported chronic lung diseases. Supplementary tables 1 and 2 depict prevalence of CD and NCD, respectively, by sex of the respondents and ICD-10 codes.

Fig. 2.

Fig. 2

Proportion of non-communicable diseases among elderly

Table 1 depicts the prevalence of communicable and non-communicable diseases among the elderly by various socioeconomic and health characteristics of the elderly. Results found that a higher proportion of female elderly reported communicable (26.8% vs. 26.2%) and non-communicable diseases (55.6% vs. 50.3%) than their male counterparts. Prevalence of communicable diseases was higher among uneducated elderly than those with higher education (29.8% vs. 16.6%); however, the prevalence of non-communicable diseases was higher among those with higher education (67.4% vs. 47.1%) than uneducated elderly. Those who reported good self-rated health had a lower prevalence of communicable (24.9% vs. 36.9%) and non-communicable diseases (50% vs. 70.4%) than those who reported poor self-rated health. Similarly, communicable and non-communicable diseases were higher among those who had severe ADL and IADL disabilities.

Table 1.

Proportion of communicable diseases (CDs) and non-communicable diseases (NCDs) among elderly by socio-economic and health parameters

Communicable Diseases (%) CI (Lower limit) CI (upper limit) Non-communicable Diseases (%) CI (Lower limit) CI (upper limit) Total (N)
Sex
  Male 26.2 25.0 27.5 50.3 48.7 51.8 14,931
  Female 26.8 25.6 28.1 55.6 53.9 57.2 16,533
Age
  60–69 26.7 25.6 27.7 50.8 49.5 52.2 18,410
  70 +  26.4 24.9 27.8 56.2 54.2 58.2 13,054
Marital Status 0.0
  Currently married 26.9 25.9 28.0 51.7 50.4 53.1 19,536
  Never Married 30.9 23.1 40.0 45.7 36.8 54.9 225
  Divorced/Separated/Diserted 25.9 24.4 27.4 55.4 53.4 57.5 11,703
Education
  No education 29.8 28.7 31.0 47.1 45.8 48.4 17,782
  Below primary 24.9 22.6 27.4 58.4 55.6 61.2 3,598
  Primary 24.2 22.0 26.6 60.2 57.5 62.8 3,520
  Secondary 20.5 18.3 22.9 61.2 56.9 65.3 5,285
  Higher 16.6 13.8 19.8 67.4 62.8 71.7 1,278
Living arrangements
  Living alone 26.5 23.1 30.3 55.3 51.4 59.1 1,787
  With spouse 27.0 26.0 28.1 51.6 50.2 53.0 19,176
  With others 25.7 24.2 27.3 55.3 53.1 57.5 10,501
Place of residence 0.0
  Rural 29.9 29.0 30.9 47.3 46.2 48.3 22,196
  Urban 18.4 29.0 30.9 66.9 46.2 48.3 9,268
Currently working 0.0
  Yes 28.0 26.6 29.5 29.4 38.2 41.5 9,483
  No 26.2 25.0 27.6 28.1 56.4 59.8 13,197
Wealth Index
  Poorest 27.4 25.7 29.2 44.8 42.9 46.8 6,829
  Poorer 28.8 27.1 30.6 49.9 47.9 51.9 6,831
  Middle 24.7 22.8 26.7 51.3 48.4 54.1 6,590
  Richer 25.1 23.1 27.1 58.4 55.7 61.2 6,038
  Richest 26.5 24.3 28.8 64.0 61.2 66.7 5,175
Self-rated health
  Poor 36.9 34.6 39.2 70.4 68.1 72.6 4,630
  Good 24.9 24.0 25.8 50.0 48.7 51.2 26,181
Physical activities 0.0 0.0 0.0
  Yes 29.2 27.7 30.7 44.4 42.5 46.2 9,704
  No 25.6 24.6 26.6 57.4 56.1 58.7 21,494
Tobacco Use
  No 24.7 23.6 25.9 56.9 55.4 58.4 18,665
  Yes 29.6 28.4 30.9 48.0 46.6 49.4 12,539
Alcohol use 0.0 0.0
  Yes 27.4 25.5 29.3 47.3 45.1 49.5 4,555
  No 26.6 25.7 27.6 54.4 53.1 55.6 26,655
ADL disability
  Severe ADL 32.5 27.9 37.5 71.7 67.0 76.0 999
  Moderate ADL 30.3 28.3 32.4 62.5 60.2 64.8 6,045
  No ADL 25.6 24.7 26.6 50.3 49.1 51.6 24,291
IADL disability
  Severe IADL 31.4 27.8 35.3 61.9 57.9 65.7 1,859
  Moderate IADL 29.6 28.1 31.1 58.5 56.6 60.3 13,281
  No IADL 23.8 22.8 24.9 48.2 46.9 49.5 16,164
Total 26.7 24.7 25.6 53.1 53.6 54.7 31,464

Table 2 depicts the state-wise prevalence of communicable and non-communicable diseases among the elderly. The highest prevalence of CDs was recorded in Dadra & Nagar Haveli (48.3%), followed by Chhattisgarh (47.2%), Rajasthan (46.2%), Haryana (45.8%), Madhya Pradesh (43.5%), Mizoram (41.5%), and Uttar Pradesh (41.1%). Similarly, the highest prevalence of NCDs was recorded in Kerala (78.8%), Goa (72.2%), Andaman & Nicobar Island (68.5%), Lakshadweep (67.9%), Punjab (67.3%), Telangana (66.9%), Puducherry (66.8%), Jammu & Kashmir (66.4%), and Chandigarh (65.7%).

Table 2.

State-wise prevalence of communicable and non-communicable disease among elderly

States CDs NCDs Total
Jammu & Kashmir 12.9 66.4 321
Himachal Pradesh 31.7 56.2 200
Punjab 27.5 67.3 805
Chandigarh 20.9 65.7 21
Uttarakhand 16.8 50.4 270
Haryana 45.8 58.6 573
Delhi 33.7 62.1 385
Rajasthan 46.2 51.9 1742
Uttar Pradesh 41.1 38.8 4831
Bihar 39.9 43.5 2660
Arunachal Pradesh 33.1 37.4 16
Nagaland 4.8 22.6 45
Manipur 25.9 44.3 69
Mizoram 41.5 49.4 24
Tripura 17 53.4 81
Meghalaya 14.1 39.6 50
Assam 14.2 48.3 525
West Bengal 16.6 65.4 2310
Jharkhand 29 39.1 791
Odisha 20.1 43.4 1201
Chhattisgarh 47.2 33.9 535
Madhya Pradesh 43.5 36.8 1795
Gujarat 30.3 54.1 1408
Daman & Diu 20.8 63.6 4
Dadra & Nagar Haveli 48.3 47.4 5
Maharashtra 15.8 62.5 3327
Andhra Pradesh 11.9 65.2 1423
Karnataka 14.7 53.7 1342
Goa 7.6 72.8 43
Lakshadweep 4.2 67.9 2
Kerala 9.3 78.8 1244
Tamil Nadu 11 63.4 2410
Puducherry 7.3 66.8 42
Andaman & Nicobar Island 28.4 68.5 9
Telangana 14.4 66.9 952

Table 3 depicts the multiple logistic regression of CDs and NCDs among the elderly in India. The odds of NCDs were higher among female elderly (OR = 1.13; C.I. = 1–1.27) than their male counterparts. The odds of CDs decreased with an increase in education; however, the odds of NCDs increased with an increase in education. The results found that the odds of CDs were lower among higher educated elderly (OR = 0.62; C.I. = 0.47–0.81) than uneducated elderly, and odds of NCDs were higher among higher educated elderly (OR = 1.80; C.I. = 1.37–2.35) than their uneducated counterparts. Similarly, the odds of CDs were lower among urban elderly (OR = 0.67; C.I. = 0.59–0.76) than rural elderly, and odds of NCDs were higher among urban elderly (OR = 1.85; C.I. = 1.62–2.10) than their rural counterparts. The results were insignificant for the association between CDs and wealth index; however, the odds of NCDs were higher among the richest elderly (OR = 1.93; C.I. = 1.63–2.28) than the poorest elderly. The odds of CDs (OR = 0.59; C.I. = 0.51–0.68) and NCDs (OR = 0.47; C.I. = 0.41–0.54) were lower among those with good self-rated health than those with poor self-rated health. The odds of NCDs (OR = 1.16; C.I. = 1.03–1.29) were higher among the elderly with no physical activity than their counterparts. The odds of NCDs were lower among the elderly who had no ADL (OR = 0.52; C.I. = 0.35–0.78) than those who had severe ADL limitations.

Table 3.

Multivariatele logistic regression of communicable diseases (CDs) and non-communicable diseases (NCDs) among elderly by socio-economic and health parameters

Communicable Diseases Non-communicable Diseases
OR CI at 95% OR CI at 95%
Sex
Male
   Female 0.97 0.88–1.10 1.13** 1.00–1.27
Age
  60–69
  70 +  0.93 0.83–1.03 1.03 0.93–1.14
Marital Status
  Currently married
  Never Married 1.42 0.79–2.54 0.69 0.38–1.21
  Divorced/Separated/Deserted 1.11 0.74–1.64 0.91 0.62–1.32
Education
No education
   Below primary 0.85** 0.72–0.99 1.52*** 1.30–1.77
   Primary 0.80** 0.67–0.94 1.64*** 1.41–1.92
   Secondary 0.77*** 0.67–0.90 1.75*** 1.52–2.02
   Higher 0.62*** 0.47–0.81 1.80*** 1.37–2.35
Living arrangements
Living alone
   With spouse 1.23 0.79–1.91 0.88 0.58–1.32
   With others 1.08 0.85–1.36 0.84 0.68–1.02
Place of residence
Rural
   Urban 0.67*** 0.59–0.76 1.85*** 1.62–2.10
Currently working
Yes
   No 1.01 0.90–1.13 1.60*** 1.44–1.79
Wealth Index
Poorest
   Poorer 1.07 0.93–1.23 1.34*** 1.17–1.53
   Middle 0.93 0.79–1.07 1.48*** 1.28–1.71
   Richer 0.92 0.79–1.06 1.68*** 1.45–1.95
   Richest 1.05 0.88–1.23 1.93*** 1.63–2.28
Self-rated health
Poor
   Good 0.59*** 0.51–0.68 0.47*** 0.41–0.54
Physical activities
Yes
   No 0.82*** 0.73–0.91 1.16*** 1.03–1.29
Tobacco Use
No
    Yes 1.18*** 1.06–1.31 0.86*** 0.78–0.95
Alcohol use
Yes
    No 1.07 0.94–1.21 1.03 0.91–1.15
ADL disability
Severe ADL
    Moderate ADL 1.03 0.69–1.51 0.69 0.46–1.03
    No ADL 1.00 0.67–1.46 0.52*** 0.35–0.78
IADL disability
Severe IADL
    Moderate IADL 1.09 0.81–1.45 1.50* 1.12–2.02
    No IADL 0.92 0.68–1.24 1.06 0.78–1.43

***p < 0.01

**p < 0.05

*p < 0.10

Table 4 depicts the rural–urban inequality in the prevalence of CDs among the elderly by various characteristics. Results found that education (50%) contributes nearly half of the rural–urban inequality in the prevalence of CDs among the elderly. Self-rated health was another significant predictor that explained nearly one-sixth (16.01%) of the rural–urban inequality in the prevalence of CDs among the elderly in India.

Table 4.

Decomposition results of rural–urban differentials for communicable diseases (CDs) among elderly by socio-economic and health parameters

Coefficient Standard Error Lower limit at 95% Upper limit at 95% Percent contribution
Sex 0.0011 0.0017 -0.0022 0.0043 -3.72
Age 0.0006 0.0006 -0.0006 0.0018 -2.04
Marital Status 0.0002 0.0008 -0.0014 0.0019 -0.80
Education** -0.0145 0.0068 -0.0278 -0.0013 49.95
Living arrangements 0.0008 0.0012 -0.0016 0.0032 -2.64
Currently working -0.0037 0.0028 -0.0091 0.0018 12.65
Wealth Index 0.0002 0.0005 -0.0008 0.0013 -0.84
Self-rated health*** -0.0047 0.0010 -0.0067 -0.0026 16.01
Physical activities 0.0009 0.0026 -0.0042 0.0061 -3.24
Tobacco Use** -0.0063 0.0027 -0.0116 -0.0009 21.52
Alcohol use 0.0004 0.0006 -0.0007 0.0015 -1.47
ADL disability -0.0006 0.0006 -0.0018 0.0006 2.10
IADL disability -0.0035 0.0032 -0.0099 0.0029 12.05

***p < 0.01

**p < 0.05

*p < 0.10

Table 5 depicts the rural–urban inequality in the prevalence of NCDs among the elderly by various characteristics. Education status and current working status were the two significant predictors of widening rural–urban inequality in the prevalence of NCDs among the elderly. On the other hand, wealth index, Self-rated health, and IADL disability were the three factors narrowing down the rural–urban inequality in the prevalence of NCDs among the elderly in India.

Table 5.

Decomposition results of rural–urban differentials for non-communicable diseases among elderly by socio-economic and health parameters

NCDs Coefficient Standard error Lower limit at 95% CI Upper limit at 95% CI Percent contribution
Sex -0.0020 0.0022 -0.0064 0.0023 -5.6
Age -0.0010 0.0007 -0.0024 0.0003 -2.8
Marital Status 0.0010 0.0007 -0.0004 0.0025 2.9
Education*** 0.0370 0.0099 0.0176 0.0565 102.6
Living arrangements -0.0008 0.0010 -0.0028 0.0011 -2.3
Currently working*** 0.0108 0.0038 0.0034 0.0183 30.0
Wealth Index** -0.0018 0.0009 -0.0035 -0.0001 -5.0
Self-rated health*** -0.0053 0.0011 -0.0075 -0.0031 -14.6
Physical activities 0.0035 0.0038 -0.0039 0.0108 9.6
Tobacco Use 0.0039 0.0037 -0.0033 0.0110 10.7
Alcohol use 0.0004 0.0006 -0.0009 0.0016 1.0
ADL disability -0.0016 0.0010 -0.0035 0.0003 -4.4
IADL disability** -0.0081 0.0041 -0.0160 -0.0001 -22.3

***p < 0.01

**p < 0.05

*p < 0.10

Discussion

Our study attempts to assess the prevalence of CDs and NCDs among the elderly and its associated factors. In this study, we found that CDs and NCDs are burdening a substantial proportion of the elderly in India. The NCDs have been acknowledged as an emerging global health concern since the beginning of the twenty-first century [21], and also it has already started sweeping extensively all over the world with an exceedingly increasing trend in developing countries [11, 21, 22]. However, India does not recognize it as an important public health challenge till the second decade of this millennium [23]. Despite NCDs' lack of significance in the National Health Policy 2002, they received special attention in the Draft National Health Policy 2015 [23].

This paper envisages the prevalence of both types of diseases among the elder population and found that more than half of the elderly population suffers from NCD, and nearly one-third suffers from CD. A study based on wave one of the world Health organization's study on global ageing and adult health also found the same pattern of NCD’s prevalence and reported that 50% of total aged population is suffering from at least one type of chronic non-communicable disease [24]. Furthermore, in a report released by Ministry of Health and Family Welfare (MOHFW), Government of India (GOI), “India: Health of the Nation’s States” reveal that NCDs' contribution to total disease burden-'disability-adjusted life years' (DALYs) increased from 30 percent in 1990 to 55 percent in 2016, as well as the proportion of fatalities owing to NCDs (in total deaths) increased from 37 percent in 1990 to 61 percent in 2016. This demonstrates a rapid epidemiological shift in illness burden to NCDs.

Also, the prevalence of these diseases varies with the socio-economic and bio-demographical backgrounds of the elderly. The percentage of elderly suffering from NCD is higher among those who are highly educated, richest, living in the urban area, taking alcohol, having severe ADL and IADL, whereas CD is common among the elderly those who are uneducated and lower educated, living in rural areas, poorer, taking tobacco, having severe ADL and IADL. Additionally, it has been noted that older people living alone have greater rates of CD and NCD. The living arrangements of the older population have a significant impact on their health. The percentage of elders with CDs and NCDs is higher among those who are living alone. The fertility decline has a direct association with the declining co-residence of the elders [25], and as a consequence, the elderly are not getting the care that is required for their better health status.

People with higher levels of education have better knowledge acquisition abilities, which makes them more likely to identify disease symptoms, report them, and seek treatment from medical institutions more immediately [26]. Therefore, it is considered that a person's higher level of education serves as a safety net for them and lowers their risk of contracting communicable diseases. Since educated people are more likely to be wealthy and have sedentary lifestyles, which increase their risk of non-communicable illness, they have higher probabilities of developing NCD [2729].

Similarly, the odds of CD were lesser among older adults living in urban areas whereas odds of NCD were higher among urban residents as compared to their counterparts. Sanitation is an important aspect in the occurrence of communicable [30], and it is evident in rural areas sanitation facilities are poorer than in urban areas [31] which can be linked to higher CD among older adults in rural areas than in urban areas. Older adults in urban areas follow a sedentary lifestyle which is why they have higher odds of NCD than their rural counterparts [27, 28]. Results noticed slightly lower odds for NCDs among those who consume tobacco than their counterparts. This finding deviates from previous studies [32, 33] and the possible causes are unexplored for the same.

The study also presents state-wise variation in CDs and NCDs among the elderly. The NCDs are reported to be more prevalent in south Indian states, and among all Indian states, UTs and Kerala have the greatest percentage of older people who have NCDs. The high burden of NCD in Kerala among the elderly is primarily due to the increase in the proportion of their population and the adoption of a sedentary lifestyle [34]. The burden of CDs are found to be higher in Chhattisgarh, Rajasthan, Haryana, Madhya Pradesh, Uttar Pradesh, and Bihar. The geographical pattern of CDs and NCDs manifests the north–south divide in the burden of these diseases. The less-developed north India with a lower percentage of urbanization has more burden of CDs, whereas the more developed southern India has a higher percentage of the urban population, has a greater burden of NCDs. As reported by the previous literature, the urban population has a greater burden of NCD and related risk [35]. Furthermore, regional differences in disease prevalence may be explained by the region's eating habits and dietary practices, tobacco consumption, and sedentary habits [36].

The present study also shows the proportion of CDs and NCDs among the elderly in India. Diarrhoea, malaria, and typhoid make up the majority of CDs, while Chikungunya, tuberculosis, and dengue make up the minority. The most common NCDs are hypertension, arthritis, diabetes, and chronic lung diseases. The hearth diseases and cancer have a comparatively lower prevalence than above-mentioned NCDs, but they are found to be most fatal across countries. Globally, the heart diseases (cardiovascular diseases) has the highest fatality rate among all NCDs and account for nearly 17.9 million death annually which is followed by death because of cancers (9.3 million), chronic lung diseases (4.1 million), and diabetes (1.5 million) [37]. In India, these four NCDs, including stroke, account for nearly 5.8 million deaths annually [21, 38]. On the other hand, with these NCDs, the CDs continue to pose a significant challenge to India’s elderly life.

Education was identified as one of the key contributors to the CD and NCD disparity between urban and rural areas among older persons. In India, the importance of education is widely studied in relation to healthcare among older adults [27, 28, 39, 40]. A person's education influences their awareness and helps them accept a diagnosis and make the necessary behavioural changes [41]. However, in one of the South African studies, education was not a significant predictor of non-communicable diseases among older adults [42].

Corroborating with previous findings [43, 44], the study noted a higher likelihood of NCDs among the female elderly than their male counterparts. In developing countries, including India, women report more about symptoms of their illness than men, which could be attributed to their higher prevalence of disease [27, 45]. Also, it has been noted that females tend to suffer from chronic debilitating conditions but not fatal ones, and this explains the paradox of high morbidity and less mortality among them compared to men [46]. In line with previous studies [28, 44], the study noted a higher odds of CDs among rural elderly, whereas the risk of NCDs was higher among urban elderly than their respective counterparts. A sedentary lifestyle and physical inactivity could expose the urban population to a high risk of NCDs [47, 48]. Furthermore, nuclear family setup causing loneliness lack of care could be another reason of high NCDs among the urban population [49]. The findings of higher odds of NCDs among highly educated and richest elderly agree with previous literature [28]. Elderly people who are educated and wealthy are more likely to lead sedentary lifestyles, which may be a contributing factor to greater NCD rates.

Strengths and limitations

The study has some potential limitations. The study has attempted to fill in the literature gap by examining the CDs and NCDs in a single study among the elderly in India using a nationally representative sample survey-based data. Despite its considerable strength, the study has few significant limitations. The cross-sectional nature of data limits our understanding of causal inferences. Moreover, the reporting of NCDs could be affected by the recall bias. Self-rated health as a predictor variable was an outcome of self-reporting of health by the older adults and therefore it can be affected by recent events pertaining to healthcare, thereby providing some false implications. Also, this study captured information about the consumption of alcohol and tobacco by the older adults but failed to quantify the information. It is evident that quantity in terms of alcohol and tobacco consumption plays an important role in deciding the health outcomes including NCD to a greater extent. Further, the association between ADL and IADL with communicable and non-communicable diseases is not conclusive as disability could be secondary to the NCD or as a consequence of the NCD and not necessarily contributory. There is much debate on whether to include Jaundice/Hepatitis as communicable disease or not and we have categorized it as communicable disease.

Conclusion

The burden of both CD and NCD among the elderly population requires immediate intervention. Among both types of diseases, the NCD is recognized as a more fatal and long-duration disease resulting from a combination and role of physiological, environmental, behavioural, and genetic factors throughout the life cycle. Although NCDs are treatable once diagnosed but as a prolonged health condition due to the sedentary lifestyle, it cannot be halted by providing treatment. Progression to complications or end-stage organ damage in the case of diabetes and hypertension could well be prevented by proper control. NCD is more of a concern in urban areas than in rural areas. Sedentary lifestyle behaviour. Urbanization has been associated with NCD risk factors such as low physical activity, unhealthy diet, overweight and high blood pressure. It is imperative that investment shall be made to promote physical activity and healthy lifestyle. Similarly, CDs were more of a concern in rural areas than in urban areas and interventions are to be promoted in rural areas to tackle CDs. The needs of men and women and urban and rural elderly must be addressed through appropriate effort. In a developing country like India, preventive measures, rather than curative measures of communicable diseases, will be cost-effective and helpful.

Supplementary Information

Additional file 1:  (25.6KB, docx)
Additional file 2:  (20.4KB, docx)

Acknowledgements

Not applicable

Abbreviations

ADL

Activity of Daily Living

CD

Communicable Disease

CEB

Census Enumeration Block

CI

Confidence Interval

DALYs

Disability-adjusted Life Years

GoI

Government of India

HRS

Health and Retirement Study

HSPH

Harvard T.H. Chan School of Public Health

IADL

Instrumental Activity of Daily Living

IIPS

International Institute for Population Sciences

LASI

Longitudinal Ageing Study in India

MoHFW

Ministry of Health and Family Welfare

NCD

Non-communicable disease

NIA

National Institute on Aging

OR

Odds Ratio

TB

Tuberculosis

UNFPA

United Nations Population Fund

USC

University of Southern California

UTs

Union Territories

Author’s contributions

The concept was drafted by SK. SK contributed to the analysis design. SC advised on the paper and assisted in paper conceptualization. SC, RP, AK and DJS contributed in the comprehensive writing of the article. All authors read and approved the final manuscript.

Funding

Authors did not receive any funding to carry out this research.

Availability of data and materials

The datasets generated and/or analysed during the current study are available with the International Institute for Population Sciences, Mumbai, India repository and could be accessed from the following link: https://iipsindia.ac.in/sites/default/files/LASI_DataRequestForm_0.pdf. Those who wish to download the data have to follow the above link. This link leads to a data request form designed by International Institute for Population Sciences. After completing the form, it should be mailed to: datacenter@iips.net for further processing. After successfully sending the mail, individual will receive the data in a reasonable time.

Declarations

Ethics approval and consent to participate

The authors were not involved in data collection process and therefore they did not require any ethical approval or consent to participate. However, the Indian Council of Medical Research (ICMR) extended the necessary ethical guidelines and clearance to undertake the survey. The LASI data is secondary in nature. The data is freely available on request and survey agencies that conducted the field survey for the data collection have collected a prior consent from the respondent. The survey agencies that collected data followed all the protocols. To maximize the cooperation of the sampled HHs and individuals, participants were provided with information brochures explaining the purpose of the survey, ways of protecting their privacy, and the safety of the health assessments as part of the ethics protocols. As per ethics protocols, consent forms were administered to each HH and age-eligible individual. All the methods were performed in accordance with the relevant guidelines.

Consent for publication

Not applicable.

Competing interests

The authors declare that they have no competing interests.

Footnotes

Publisher’s Note

Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.

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Associated Data

This section collects any data citations, data availability statements, or supplementary materials included in this article.

Supplementary Materials

Additional file 1:  (25.6KB, docx)
Additional file 2:  (20.4KB, docx)

Data Availability Statement

The datasets generated and/or analysed during the current study are available with the International Institute for Population Sciences, Mumbai, India repository and could be accessed from the following link: https://iipsindia.ac.in/sites/default/files/LASI_DataRequestForm_0.pdf. Those who wish to download the data have to follow the above link. This link leads to a data request form designed by International Institute for Population Sciences. After completing the form, it should be mailed to: datacenter@iips.net for further processing. After successfully sending the mail, individual will receive the data in a reasonable time.


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