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Erschienen in: BMC Public Health 1/2022

Open Access 01.12.2022 | Research

Chronic diseases and productivity loss among middle-aged and elderly in India

verfasst von: Shamrin Akhtar, Sanjay K. Mohanty, Rajeev Ranjan Singh, Soumendu Sen

Erschienen in: BMC Public Health | Ausgabe 1/2022

Abstract

Context

Chronic diseases are growing in India and largely affecting the middle-aged and elderly population; many of them are in working age. Though a large number of studies estimated the out-of-pocket payment and financial catastrophe due to this condition, there are no nationally representative studies on productivity loss due to health problems. This paper examined the pattern and prevalence of productivity loss, due to chronic diseases among middle-aged and elderly in India.

Methods

We have used a total of 72,250 respondents from the first wave of Longitudinal Ageing Study in India (LASI), conducted in 2017-18. We have used two dependent variables, limiting paid work and ever stopped work due to ill health. We have estimated the age-sex adjusted prevalence of ever stopped working due to ill health and limiting paid work across MPCE quintile and socio- demographic characteristics. Propensity Score Matching (PSM) and logistic regression was used to examine the effect of chronic diseases on both these variables.

Findings

We estimated that among middle aged adults in 45–64 years, 3,213 individuals accounting to 6.9% (95%CI:6.46–7.24) had ever-stopped work and 6,300 individuals accounting to 22.7% (95% CI: 21.49–23.95) had limiting paid work in India. The proportion of ever-stopped and limiting work due to health problem increased significantly with age and the number of chronic diseases. Limiting paid work is higher among females (25.1%), and in urban areas (24%) whereas ever-stopped is lower among female (5.7%) (95% CI:5.16–6.25 ) and in urban areas (4.9%) (95% CI: 4.20–5.69). The study also found that stroke (21.1%) and neurological or psychiatric problems (18%) were significantly associated with both ever stopped work and limiting paid work. PSM model shows that, those with chronic diseases are 4% and 11% more likely to stop and limit their work respectively. Regression model reveals that more than one chronic conditions had a consistent and significant positive impact on stopping work for over a year (increasing productivity loss) across all three models.

Conclusion

Individuals having any chronic disease has higher likelihood of ever stopped work and limiting paid work. Promoting awareness, screening and treatment at workplace is recommended to reduce adverse consequences of chronic disease in India.
Hinweise

Supplementary Information

The online version contains supplementary material available at https://​doi.​org/​10.​1186/​s12889-022-14813-2.

Publisher’s Note

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

Introduction

Ill-health, work, and productivity are interrelated. The pro-longed ill-health due to chronic diseases has a higher chance of premature mortality [1], increasing the chance of disability [2], higher use of medical services and exerts greater economic burden to household and nation. At the households level, economic burden can be both direct and indirect [3]. The high out-of-pocket spending, catastrophic health spending and impoverishment are direct consequences of increasing chronic diseases [4]. Indirect burden of chronic diseases includes work absenteeism, voluntary retirement from work [5], and reduced propensity to work [6]. The cascading effect of ill-health reduces individual income [7] and may lead to poor physical and mental health [8] and may lead to gradual loss of productivity and welfare.
Productivity loss reduces the income and well-being of individuals and households. Ill-health often reduces the work participation as it affects the prime working age group. Productive time forgone due to ill-health cost both, to the household and the nation as well. Productivity loss is measured using multiple indicators; work absenteeism, presenteeism, permanent withdrawal from the workforce, and job interruption [9]. While work absenteeism refers to absence due to illness, presenteeism is low work performance during sickness [10]. Permanent withdrawal from the workforce includes voluntary retirement due to impairment or other health problems. Work-related injuries or accidents and success and failure also add to productivity loss [11].
Most of the studies on the consequences of chronic diseases on work productivity were carried out in developed countries [1214]. People with poor health are more likely to spend a considerable time in seeking healthcare and that may lead to work absenteeism [15]. Among respondents who experienced symptoms related to health conditions in Germany, the average number of workdays lost due to absenteeism and presenteeism was 27 days per respondent annually [16]. Results from a study in Australia shows that the full-time workers with mental disorders lost an average of one day due to absenteeism and three days due to presenteeism in one month reference period [17]. In USA, the weekly absenteeism costs US$1685/employee per year and about 71% of the total productivity loss was contributed by reduced performance at work [18]. Asthma, cancer, heart disease, and respiratory disorders were estimated to have presenteeism costs of more than US$200 per person annually in USA [19]. Presenteeism represents the largest component and leading driver to the medical costs, specifically among the patients with migraine/headache, allergies, and arthritis [20]. Depression ranked third among health conditions with an annual productivity loss of US$878 per person [21]. A higher number of health risks is associated with lower on-the-job productivity [22]. Adults with multiple chronic diseases may have high chance of reduced productivity [23] In India, nearly a quarter of the companies lose approximately 14% of the total working days annually due to sickness [24].
Older adults in India are vulnerable to chronic diseases and, that may affect their work temporary or permanently [25]. The country has achieved the replacement level of fertility and nearing completion of demographic transition, resulting increasing share of older adults and elderly in the country and increasing burden of non-communicable disease (NCD). The share of middle aged and elderly population (45+) has increased from 18.9% to 2001 to 25.1% by 2020 [26]. The median age of onset of NCDs was also declining from 57 years in 2004 to 53 years by 2018 [27]. Though large number of studies estimated the OOP and catastrophic health spending, socio-economic inequality and determinant of OOPS and CHE [28], there is no nationally representative studies on productivity loss due to health problems. Present study explores the pattern and prevalence of limiting paid work and productivity loss among middle-aged and elderly in India and their association with chronic diseases. Figure 1 presents a schematic presentation of productivity loss. It depicts the pathways how economic burden of ill-health lead to loss of income and welfare through various medical and non-medical components. The non-medical component includes absenteeism, presenteeism and job-interruption.

Data and methods

Data

The study utilizes data from the first wave of Longitudinal Ageing Study in India (LASI), collected during April 2017 to December 2018. The survey was conducted by International Institute for Population Sciences (IIPS) in collaboration with Harvard T.H. Chan School of Public Health (HSPH), University of Southern California (USC) and other national institutions. Using multistage sampling method, a total of 42,949 households and 72,250 individuals aged 45 years and older and their spouses were successfully interviewed. Among these individuals, a total of 3,213 ever stopped working for a year or more due to health problem and 6,300 had limiting paid work. The data is publicly available for all states except Sikkim at the time of drafting this paper. The household and individual response rate was 95.8% and 87.3% respectively. Detailed about the survey and the findings are available in national report [29].

Variable description

Outcome variables

In LASI survey, a detailed module on ever work, current work, stopped work and limiting paid work due to health issues were collected. The questions on stopped work begins with “have you ever stopped working for one year or more at a time due to reasons of family, health, education, economic recession, natural disasters, etc.?” and the question on limiting work reads as “Do you have any impairment or health problem that limits the kind or amount of paid work you can do?”. We used ever stopped work (1 = yes, 0 = no) for one year or more due to health problem and whether health problem had limit the paid work (1 = yes, 0 = no) as two outcome variables.

Covariates

We have used a set of demographic, economic, behavioural and health covariates in the analyses. These includes age (45–54, 55–64, 65–74, 75+), sex (male/female), educational attainment (illiterate, less than 5 years, 5–9 years completed, 10 years or more), monthly per capita expenditure quintile (MPCE), place of residence (rural/urban), caste (scheduled caste, scheduled tribe, other backward classes, others), religion (Hindu, Muslim, Christian, others), marital status (currently married, widowed, others) and regions (north, central, east, northeast, west, south) were used as the predictors in this study. The MPCE was used to depict the living standard of the household. In addition, the number of chronic diseases (hypertension, diabetes, chronic lung disease, chronic heart diseases, stroke, arthritis, neurological or psychiatric problems), health insurance coverage (yes/no), practicing exercise (yes/rarely/never) and smoking tobacco (yes/no) are included to examine their association with the limiting paid work or ever stopping work for one year or more among older adults.

Treatment variable for PSM

In LASI, respondents were asked if they were diagnosed with chronic disease such as hypertension, diabetes, cancer, chronic lung disease, chronic heart disease, stroke, arthritis, and neurological problem. The individuals who had reported being diagnosed with any chronic diseases (1 = yes, 0 = no) have been considered as treatment group and those not being reported any of the chronic diseases have been treated as control group in the study. The treatment and control group did not overlap as they were mutually exclusive in nature.

Statistical analysis

Descriptive statistics, age-sex adjusted estimates, propensity score matching and logistic regression model were used in the analysis.

Prevalence of ever stopped work and limiting paid work

We estimated age-sex adjusted prevalence of ever stopped working and limiting paid work using the nationally representative full sample age-sex composition as reference using logistic regression.

Propensity score matching analysis

The propensity score matching (PSM) considers the potential selectivity in the sample. PSM is a statistical technique that estimates the effect of an intervention or a treatment by adjusting for covariates that predicts the results of receiving the treatment [30]. The advantage of using PSM model is that it compares the treated and controlled group on the basis of similar observed characteristics [31, 32]. The PSM has been used for evaluating various programme in a number of research studies [3134]. For determining the average treatment effect (i.e., the effect of having any chronic disease), a counterfactual model is estimated.

Propensity score

The PSM is the probability of the middle aged and elderly population who had chronic diseases with certain characteristics, may be written as,
$$\mathrm P(\mathrm X)\:=\:\Pr\;(\mathrm D\:=\:1\vert\;\mathrm X)$$
(1)
Where, D = 1 if the population had any chronic diseases D = 0, otherwise.
And X is the vector of all the covariates used in the model.
Generally, PSM model estimated three probabilities, such as, Average Treatment Effect on the Treated (ATT), Average Treatment Effect on the Untreated (ATU) and Average Treatment Effect (ATE).
ATE is the average treatment effect of the intervention variable on the outcome variable and can be explained by using following equation
$$\mathrm{ATE}\;=\;\mathrm E\;(\mathrm\delta)\;=\;\mathrm E\;({\mathrm Y}_1-{\mathrm Y}_0)$$
(2)
where E (.) means average and Y1 represents potential outcome for those having any chronic disease and Y0 represents potential outcome for the population having no chronic diseases.
With the help of counterfactual model, the ATT can be written as
$$\mathrm{ATT}\;=\;\mathrm E\;({\mathrm Y}_1/\mathrm D=1)-\mathrm E\;({\mathrm Y}_0/\mathrm D=1)$$
(3)
The counterfactual model is the potential outcome that would have been obtained in case of not having any chronic disease and vice versa.
Where, E (Y1/D = 1) is stopping work who have any chronic disease.
E (Y0/D = 1) is the expected outcome for the individuals having any chronic disease if they would not have any of the diseases.
Similarly, the average treatment effect on the untreated (ATU) is defined as:
$$\mathrm{ATU}\;=\;\mathrm E\;({\mathrm Y}_1/\mathrm D=\;0)\;-\;\mathrm E\;({\mathrm Y}_0/\mathrm D=0)$$
(4)
Where E (Y1/D = 0) is the expected outcome if the individuals without any chronic disease were to have any chronic disease.
E (Y0/D = 0) is the counterfactual model predicts the outcome for the individuals who would have had any chronic disease but earlier they had not any.
The average treatment effect (ATE) is the difference between the expected outcome for those with any chronic disease and those without any chronic disease.
We used psmatch2 command in the STATA 16 which provides all the estimates using Mahalanobis matching technique.

Logistic regression

We used the multivariate logistic regression as a robustness check in support to our PSM model. We used three different models to understand the impact of each covariate on ever stopping work and limiting paid work separately. In the Model 1, we adjusted only for the number of chronic diseases. In model 2, socio-demographic variables were considered (age, sex residence, caste, religion, marital status and region). Finally, the socioeconomic variables along with smoking/substance abuse, exercise, health insurance and other predictors were adjusted in Model 3 to assess the adjusted effect of all the covariates on ever stopping work for one year or more. The following regression equation has been used.
$$\mathrm{Logit}\;({\mathrm Y}_{\mathrm i})\:=\:\ln(\mathrm p/1-\mathrm p)\;=\;\mathrm\alpha\:+{\:{\mathrm\beta}_{\mathrm i}\mathrm X}_{\mathrm i}$$
Where, Y is the probability of outcome event of the ith individual. The model estimates the log odds of ever stopped work and limiting paid work adjusted for a set of explanatory variables (Xi).
STATA version 16 was used for cleaning, standardizing data (to adjusted form), and for analysing data. Independent variables included individual level variables.

Results

Figure 2 shows a flow chart of participant selection for our analysis. Among 72,250 participants interviewed in LASI, 50,941 (72.4%) have ever worked and 21,289 (27.6%) had never worked. Those ever worked, 32,990 were currently working and 17,951 were not working currently. Those who were not working currently, about 31.5% have had stopped work, out of which health related reason accounts 56.5% followed by 20% due to childcare.
Table 1 presents the socio-economic and demographic profile of the study samples of ever worked and currently working/ temporarily laid off. Of the total surveyed individuals, 59.3% had ever worked and 40.7% were currently working/temporarily laid off. Over 67.52% of ever worked sample population were in the working age group (under 65) compared to 81.03% for currently working sample. The sample was predominantly rural and currently married. About 56.99% of ever worked sample did not had any chronic disease compared to 62.75% among currently working/ temporarily laid off. Majority of the respondents were illiterates. Sample were proportionately distributed across regions.
Table 1
Descriptive statistics of sample profile by socioeconomic and demographic characteristics among middle aged and elderly in India, 2017–18
 
Had any chronic condition
Had no chronic condition
Ever stopped work for a year or more due to health problem
 
Limiting paid work
 
Ever stopped work for a year or more due to health problem
 
Limiting paid work
 
N = 1,660
 
N = 2,973
 
N = 1,553
 
N = 3,327
 
Number
Percent
Number
Percent
Number
Percent
Number
Percent
MPCE Quintile
 Poorest
331
19.94
570
19.17
401
25.82
849
25.52
 Poorer
370
22.29
602
20.25
354
22.79
746
22.42
 Middle
355
21.39
648
21.8
287
18.48
614
18.46
 Richer
309
18.61
629
21.16
271
17.45
613
18.43
 Richest
295
17.77
524
17.63
240
15.45
505
15.18
Educational attainment
 Illiterate
788
46.85
1,432
47.48
771
49.01
1,727
51
 Less than 5 years
249
14.8
423
14.03
241
15.32
457
13.5
 5–9 years completed
425
25.27
726
24.07
374
23.78
780
23.04
 10 years or more
220
13.08
435
14.42
187
11.89
422
12.46
Age
 < 45
54
3.21
143
4.74
83
5.28
258
7.62
 45–54
495
29.43
936
31.03
574
36.49
1,325
39.13
 55–64
492
29.25
985
32.66
475
30.2
1,013
29.92
 65–74
437
25.98
745
24.7
318
20.22
650
19.2
 75+
204
12.13
207
6.86
123
7.82
140
4.13
Sex
 Male
1,090
64.8
1,800
59.68
997
63.38
1,988
58.71
 Female
592
35.2
1,216
40.32
576
36.62
1,398
41.29
Residence
 Rural
1,226
72.89
2,118
70.23
1,210
76.92
2,624
77.5
 Urban
456
27.11
898
29.77
363
23.08
762
22.5
Caste
 Scheduled Tribes
202
12.03
386
12.82
319
20.29
731
21.6
 Scheduled Castes
343
20.43
619
20.56
345
21.95
666
19.68
 OBC
754
44.91
1,318
43.79
596
37.91
1,316
38.89
 Others
380
22.63
687
22.82
321
19.85
671
19.83
Religion
 Hindu
1,289
76.63
2,329
77.22
1,231
78.26
2,753
81.31
 Muslim
195
11.59
383
12.7
154
9.79
277
8.18
 Christian
123
7.31
164
5.44
120
7.63
177
5.23
 Others
75
4.46
140
4.64
68
4.32
179
5.29
Marital Status
 Currently married
1,320
78.52
2,418
80.17
1,249
79.4
2,791
82.43
 Widowed
298
17.73
513
17.01
269
17.1
502
14.83
 Others
63
3.75
85
2.82
55
3.5
93
2.75
Smoke/Substance use
 Yes
848
50.69
1,395
46.59
836
53.9
1,615
48.05
 No
825
49.31
1,599
53.41
715
46.1
1,746
51.95
Practicing Exercise
 Yes
158
9.5
296
9.98
114
7.38
260
7.78
 Rarely/ Never
1,506
90.5
2,671
90.02
1,431
92.62
3,081
92.22
Health Insurance
 No
1,217
72.74
2,203
73.68
1,119
72.15
2,460
73.21
 Yes
456
27.26
787
26.32
432
27.85
900
26.79
Regions
 North
293
17.42
508
16.84
199
12.65
445
13.14
 Central
187
11.12
356
11.8
275
17.48
538
15.89
 East
286
17
502
16.64
285
18.05
626
18.49
 Northeast
135
8.03
108
3.58
182
11.57
102
3.01
 West
293
17.42
775
25.7
286
18.18
1,056
31.19
 South
488
29.01
767
25.43
347
22.06
619
18.28
Figure 3 shows reasons for ever stopped work among elderly and non-elderly in India. Health issue (60%) is the major reason for ever stopped work followed by child care (21%) and other family issues (9%). It is slightly higher for the elderly as compared to the middle-aged people. In case of child care, it is higher for the middle-aged people than elderly.
Table 2 presents the age-sex adjusted estimates of ever stopped work and limiting work (whose paid work was limited due to health reasons) by socioeconomic and demographic characteristics among individuals with and without chronic conditions. We estimated that 8.4% [95% CI: 7.52–9.24] older adults in India ever stopped work with a chronic condition compared to 5.35% [95% CI: 4.82–5.96] without chronic condition. Similarly, 31.1% [95% CI: 27.86–34.39] had limiting paid work compared to 18.3% [95% CI: 16.78–19.86] without any chronic condition. The proportion of ever stopped work for one year or more increases with age and decline with the level of education for both the group. The prevalence of stopped work among the treatment group was higher in urban areas (9.8%,95% CI: 9.04–10.54), among males (9.9%, 95% CI: 9.03–10.77) and among those who smoke/use any substance. However, no difference in prevalence were observed across different caste, religion and marital status in both treatment and control group. Notably, the prevalence of ever stopped work for one year or more was highest in poorest MPCE quintile (9.2%, 95% CI: 7.80-10.64) and lowest in richest MPCE quintile (6.7%, 95% CI: 5.33–8.07). However, the prevalence of ever stopped work and limiting paid work varied across the regions of India with highest being in western region in both the groups. The proportion of participants whose paid work was limited due to health reasons also increases with age and higher among females. It was higher in urban areas, and among those who smoke/use any substance. The prevalence of limiting paid work was higher among richest MPCE quintile compared to poorest MPCE quintile. Overall, for each of the background characteristics, prevalence was higher among the ones limiting paid work than those who ever stopped work for 1 year or more due to health reasons in both the groups in India. However, the prevalence of both the outcome variables were higher in the treatment group compared to that in the control group.
Table 2
Age-sex adjusted estimates of ever stopped work for one year or more and limiting paid work by socioeconomic and demographic characteristics among middle aged and elderly in India, LASI 2017–18
 
Had any chronic condition
Had no chronic condition
N = 1,660
N = 2,973
N = 1,553
N = 3,327
Stopped work for 1 year or more due to health problem
Limiting paid work
Stopped work for 1 year or more due to health problem
Limiting paid work
Prevalence (95% CI)
Prevalence (95% CI)
Prevalence (95% CI)
Prevalence (95% CI)
India
8.4 [7.52, 9.24]
31.1[27.86,34.39]
5.35 [4.82, 5.96]
18.3 [16.78, 19.86]
Age
 < 45
8.7 [5.60, 11.87]
23.7 [17.93, 29.43]
4.5 [2.72, 6.36]
17.9 [8.93, 26.94]
 45–54
8.8 [7.49, 10.01]
26.7 [20.98, 32.43]
5.2 [4.52, 5.83]
14.9 [13.73, 16.12]
 55–64
8.6 [7.54, 9.74]
29.6 [26.98, 32.26]
5.9 [5.19, 6.64]
17.9 [16.57, 19.227]
 65–74
8.5 [7.39, 9.54]
38.9 [35.84, 41.93]
5.8 [4.93, 6.59]
26.1 [23.54, 28.67]
 75+
8.1 [6.36, 9.76]
44.0 [37.56, 50.50]
5.6 [4.14, 7.00]
31.5 [20.70, 42.20]
Sex
 Male
9.9 [9.03, 10.77]
28.2 [25.52, 30.94]
5.9 [5.43, 6.56]
16.9 [15.61, 18.27]
 Female
6.9 [6.01, 7.71]
34.0 [30.19, 37.83]
4.8 [4.21, 5.35]
19.7 [17.95, 21.45]
Marital Status
 Currently married
8.6 [7.90, 9.32]
30.9 [28.31, 33.66]
5.5 [5.04, 5.97]
18.1 [16.79, 19.46]
 Widowed
8.2 [6.80, 9.54]
29.0 [25.08, 32.95]
5.6 [4.59, 6.57]
17.5 [15.03, 19.86]
 Others
9.8 [9.94, 13.63]
27.9 [20.90, 34.86]
4.1 [2.49, 5.68]
18.7 [10.69, 26.75]
Educational attainment
 Illiterate
9.9 [8.88, 10.96]
33.5 [29.69, 37.38]
6.0 [5.36, 6.69]
17.5 [16.42, 18.65]
 Less than 5 years
10.5 [8.80, 12.16]
32.5 [28.83, 36.08]
6.6 [5.38, 7.73]
20.7 [17.73, 23.57]
 5–9 years completed
9.1 [7.74, 10.41]
29.9 [26.49, 33.36]
5.6 [4.75, 6.41]
18.5 [16.82, 20.11]
 10 years or more
4.3 [3.43, 5.19]
23.5 [16.35, 30.60]
3.3 [2.51, 4.03]
17.3 [11.3, 23.39]
MPCE Quintile
 Poorest
9.2 [7.80, 10.64]
30.2 [27.29, 33.05]
5.8 [5.00, 6.61]
16.9 [15.42, 18.34]
 Poorer
9.2 [8.02, 10.45]
28.2 [25.45, 30.87]
5.1 [4.40, 5.75]
17.1 [15.57, 18.59]
 Middle
9.0 [7.78, 10.27]
33.0 [30.20, 35.85]
5.6 [4.57, 6.57]
17.8 [16.08, 19.58]
 Richer
8.3 [6.83, 9.67]
29.2 [25.83, 32.51]
5.9 [4.87, 6.92]
19.3 [17.30, 21.25]
 Richest
6.7 [5.33, 8.07]
32.7 [24.02, 41.38]
4.9 [3.87, 5.8]
20.8 [14.01, 27.61]
Residence
 Rural
5.9 [4.94, 6.87]
29.9 [24.04, 35.77]
4.1 [3.37, 4.73]
19.2 [14.56, 23.87]
 Urban
9.8 [9.04, 10.54]
30.8 [29.26, 32.42]
5.9 [5.44, 6.39]
17.7 [16.89, 18.58]
Caste
 Scheduled Tribes
8.9 [6.29, 11.62]
28.8 [24.62, 33.04]
5.6 [4.44, 6.79]
19.7 [17.54, 21.81]
 Scheduled Castes
9.1 [7.88, 10.41]
32.7 [29.45, 35.96]
7.1 [6.03, 8.15]
17.0 [15.39, 18.65]
 OBC
8.8 [7.89, 9.70]
31.6 [27.77, 35.45]
5.1 [4.52, 5.63]
17.7 [15.36, 20.08]
 Others
7.6 [6.49, 8.65]
27.0 [24.44, 29.63]
4.6 [3.95, 5.33]
18.8 [16.74, 20.85]
Religion
 Hindu
8.5 [7.84, 9.17]
29.2 [27.62, 30.67]
5.5 [5.03, 5.89]
18.3 [16.89, 19.74]
 Muslim
8.4 [6.44, 10.35]
39.5 [28.76, 50.30]
5.9 [4.51, 7.41]
15.9 [13.55, 18.38]
 Christian
10.1 [7.03, 13.19]
22.2 [16.76, 27.71]
3.6 [2.53, 4.62]
10.6 [8.09, 13.01]
 Others
8.9 [5.93, 11.99]
37.0 [29.76, 44.25]
6.2 [3.59, 8.84]
25.0 [20.05, 29.96]
Smoke/Substance use
 Yes
10.1 [9.07, 11.02]
33.0 [30.74, 35.31]
6.6 [5.91, 7.20]
19.1 [17.76, 20.45]
 No
7.4 [6.64, 8.24]
28.9 [25.40, 32.43]
4.6 [4.05, 5.04]
17.2 [15.49, 18.93]
Practicing Exercise
 Yes
6.1 [4.47, 7.64]
32.5 [23.32, 41.75]
4.4 [3.34, 5.52]
17.0 [14.17, 19.85]
 Rarely/ Never
8.9 [8.26, 9.56]
30.3 [28.12, 32.47]
5.6 [5.16, 6.00]
18.2 [16.84, 19.47]
Health Insurance
 No
8.5 [7.74, 9.16]
30.7 [28.29, 33.07]
5.3 [4.82, 5.72]
17.8 [16.84, 18.78]
 Yes
8.9 [7.73, 10.01]
30.2 [25.70, 34.77]
6.2 [5.35, 7.05]
18.9 [14.93, 22.82]
Region
 North
8.8 [7.35, 10.17]
29.4 [26.43, 32.43]
5.0 [4.13, 5.91]
15.7 [13.75, 17.65]
 Central
8.9 [7.19, 10.79]
30.2 [26.48, 33.86]
5.7 [4.35, 6.18]
15.4 [13.72, 17.04]
 East
8.7 [7.33, 10.02]
24.6 [22.10, 26.99]
5.7 [4.86, 6.59]
14.5 [13.11, 15.79]
 Northeast
6.4 [4.84, 7.98]
6.8 [4.92, 8.72]
4.3 [3.35, 5.29]
2.9 [1.98, 3.73]
 West
8.9 [7.54, 10.31]
46.9 [43.44, 50.48]
6.8 [5.68, 7.82]
33.2 [30.78, 35.58]
 South
8.1 [7.01, 9.12]
27.7 [21.89, 33.46]
4.8 [4.08, 5.54]
15.9 [11.69, 20.12]
Age was adjusted for sex; sex was adjusted for age and all other variables were adjusted for age and sex
Table 3 presents the age-sex adjusted estimates of ever stopped work and limiting work by type and number of chronic diseases. The prevalence of ever stopped work and limiting paid work due to chronic diseases was higher among those who had the chronic disease compared to who did not had across each of the eight diseases category. For instance, respondent who have been diagnosed with hypertension, 8.3% had ever stopped work compare to 6.4% who did not had hypertension. Similarly, among those with hypertension 30.6% had limiting work compared to 20.8% who did not had hypertension. The proportion of older adults who stopped work/ had limiting work was highest in case of stroke (21.1%, 95% CI: 15.29–28.26) and (51.6%, 95% CI: 40.82–62.16) respectively followed by neurological or psychiatric problems. Prevalence of both the outcome variables increased with the increase in the number of chronic diseases. For instance, the proportion of older adults who ever stopped work varies from 5.4% (95% CI: 4.98–5.88) among those with no chronic condition to 19.3% (95% CI: 10.25–33.22) among those with five or more chronic conditions. The pattern was similar in case of limiting paid work. A significant gap is found in the prevalence of stopped working and limiting work between the two groups of population, one who have been diagnosed with diabetes/hypertension and the other who have not.
Table 3
Proportion of middle-aged adults and elderly ever stopped work for 1 year or more and limiting paid work by type of chronic diseases in India, LASI 2017-18
 
Ever stopped work for 1 year or more
Limiting paid work
N = 1,660
N = 2,973
Prevalence 95% CI
Prevalence 95% CI
Hypertension
 Yes
8.3 [7.31,9.36]
30.6 [26.76,34.65]
 No
6.4 [6.01,6.82]
20.8 [19.67,21.87]
Diabetes
 Yes
8.5 [7.20,9.89]
35.0 [27.69,43.02]
 No
6.7 [6.26,7.08]
21.5 [20.49,22.53]
Cancer
 Yes
11.4 [7.74,16.56]
40.3 [29.90,51.54]
 No
6.8 [6.44,7.23]
22.6 [21.40,23.86]
Chronic lung disease
 Yes
10.1 [8.56,11.84]
38.1 [31.48,45.12]
 No
6.6 [6.23,7.05]
21.9 [20.63,23.14]
Chronic heart diseases
 Yes
13.3 [9.99,17.55]
42.9 [36.98,49.11]
 No
6.6 [6.25,7.02]
22.2 [20.95,23.44]
Stroke
 Yes
21.1 [15.29,28.26]
51.6 [40.82,62.16]
 No
6.6 [6.20,6.95]
22.4 [21.16,23.62]
Arthritis
 Yes
9.0 [8.10,10.03]
34.0 [31.18,37.02]
 No
6.5 [6.05,6.92]
21.1 [19.72,22.45]
Neurological or psychiatric problems
 Yes
18.3 [13.52,24.32]
36.5 [29.32,44.26]
 No
6.6 [6.22,6.98]
22.4 [21.22,23.69]
Number of Chronic diseases
 0
5.4 [4.98,5.88]
18.0 [16.69,19.30]
 1
7.9 [7.24,8.62]
26.4 [24.97,27.90]
 2
8.8 [7.34,10.56]
36.1 [28.99,43.94]
 3
13.0 [9.62,17.38]
50.5 [42.68,58.29]
 4
20.3 [14.95,26.99]
50.8 [38.75,62.68]
 5+
19.3 [10.25,33.22]
70.8 [44.78,87.92]
Table 4 shows result of propensity matching score of ever stopped work and limiting paid work. controlling for socio-demographic and economic covariates. The estimated ATT in treated and control groups are 0.085 and 0.046 respectively, suggesting that the population who had chronic condition, if they would not have, then 3.6% of them would not stop working. ATU result for controlled group indicates that among those individuals who had no chronic disease, if they would have chronic disease, then only 10.4% of them would stop working. ATE results indicate the average treatment effect and from the table, the difference in ATE is 4.8%. This indicates that after matching, the population with chronic disease are 4.8% more likely to stop working.
Table 4
Result of propensity matching score of ever stopped work or limiting work
Having any chronic disease vs. not having any chronic disease
Treated
Control
Differences
S.E.
T-test
Ever stopped Work in 1 year or more
 Unmatched
0.085
0.049
0.036
0.002
16.22
 ATT
0.085
0.046
0.039
0.005
8.25
 ATU
0.049
0.104
0.055
.
 
 ATE
  
0.048
  
Limiting Paid work
 Unmatched
0.253
0.141
0.112
0.004
25.95
 ATT
0.253
0.125
0.128
0.008
15.17
 ATU
0.141
0.253
0.112
.
 
 ATE
  
0.118
.
 
ATT Average treatment effect on the treated, ATU Average treatment effect on the untreated, ATE Average treatment effect
Similarly, the unmatched sample estimate for limiting paid work shows that individuals having any chronic disease are 11% more likely to have increased limiting paid work compared with the ones not having any chronic disease. The estimated ATT values in treated and control groups are 0.253 and 0.141 respectively, indicating that population who had chronic condition, if they would not have, then only 12.5% of them would limit paid work. ATU result for controlled group indicates that among those individuals who had no chronic disease, if they would have chronic disease, then only 25.3% of them would limit paid work. ATE results indicate the average treatment effect and from the table, the difference in ATE is 11.8%. this indicates that after matching, the population with chronic disease are 12% more likely to stop working.
The propensity score results for ever stopped work for 1 year or more and limiting paid work suggest that individual having any chronic disease is indeed associated with greater ever stopped work and limiting paid work.
Table 5 presents the odds ratio of ever stopped work using three regression models. In first model, we have included the number of chronic diseases while in model 2, the socio-demographic factors along with chronic diseases were included. In model 3, economic condition of the household, health insurance along with behavioural factors were included. Noticeably, the odds ratio of the number of chronic diseases show significant variation even after adjusting for socio-economic and demographic covariates. The odds of stopping work among those with 5 and more chronic disease were 4 times higher (OR: 4.17, 95% CI: 1.99–8.75) as compared to those having no chronic disease. Similarly, the odds of ever stopped work was significantly lower among females (OR: 0.70, 95% CI: 0.62–0.79) compared to males. By type of residence, the likelihood of ever stopped work was 1.6 times higher among rural residents (OR: 1.60 95%, CI 1.34–1.90) compared to urban residents. For all other demographic variables except the number of chronic diseases, the pattern remains similar to that of model 2. However, the odds of stopping work were 1.13 (OR: 1.13, 95% CI: 0.95–1.34) times higher among richer compared to that of poorer. The odds of stopping work declined with each gradient of educational level. Those who were using any substance, the odds of stopping work was 1.26 times higher (OR: 1.26, 95% CI: 1.12–1.43) compare to those who don’t. Similarly, among those who do not practice exercise or practices rarely, the odds of stopping work was 1.15 times higher (OR: 1.15, 95% CI: 0.94–1.40) than those who practices exercise.
Table 5
Adjusted odds ratio for ever stopped wok by socioeconomic and demographic characteristics among middle aged and elderly people in India, 2017-18
 
Unadjusted
Adjusted
 
Model 1
 
Model 2
 
Model 3
 
OR
95% CI
OR
95% CI
OR
95% CI
Number of Chronic diseases
 0 ®
      
 1
1.50*
1.32–1.71
1.56*
1.37–1.77
1.61*
1.42–1.83
 2
1.69*
1.36–2.10
1.69*
1.41–2.03
1.86*
1.56–2.22
 3
2.62*
1.84–3.72
2.52*
1.98–3.21
2.69*
2.12–3.42
 4
4.46*
3.05–6.53
4.56*
3.05–6.81
4.72*
3.14–7.10
 5+
4.17*
1.99–8.75
4.88*
2.29–10.41
5.70*
2.61–12.44
Age
 75+ ®
      
 < 45
  
1.24*
0.78–1.96
1.12*
0.78–1.62
 45–54
  
1.07*
0.87–1.33
1.14*
0.92–1.42
 55–64
  
1.10*
0.89–1.35
1.13*
0.91–1.39
 65–74
  
1.05*
0.85–1.29
1.06*
0.86–1.30
Sex
 Male ®
      
 Female
  
0.70*
0.62–0.79
0.70*
0.60–0.80
Residence
 Urban®
      
 Rural
  
1.60*
1.34–1.90
1.44*
1.24–1.67
Caste
 Others®
      
 Scheduled Tribes
  
1.47*
1.22–1.77
1.23*
1.03–1.46
 Scheduled Castes
  
1.19*
0.95–1.49
1.04*
0.83–1.32
 OBC
  
1.15*
0.99–1.32
1.07*
0.93–1.24
Religion
 Muslim®
      
 Hindu
  
0.84*
0.69–1.01
0.92*
0.75–1.12
 Christian
  
0.75*
0.54–1.05
0.89*
0.64–1.24
 Others
  
0.82*
0.57–1.18
1.00*
0.69–1.46
Marital Status
 Others®
      
 Currently married
  
1.01*
0.74–1.38
0.99*
0.72–1.35
 Widowed
  
0.98*
0.70–1.36
0.94*
0.67–1.31
Region
 North®
      
 Central
  
0.96*
0.79–1.17
1.03*
0.84–1.26
 East
  
0.96*
0.80–1.15
0.97*
0.81–1.17
 Northeast
  
0.76*
0.60–0.95
0.72*
0.57–0.91
 West
  
1.20*
1.00-1.43
1.23*
1.02–1.47
 South
  
0.96*
0.79–1.17
0.93*
0.77–1.11
MPCE Quintile
 Poorer®
      
 Poorest
    
1.03*
0.89–1.20
 Middle
    
1.08*
0.92–1.27
 Richer
    
1.13*
0.95–1.34
 Richest
    
1.09*
0.90–1.32
Educational attainment
 Illiterate®
      
 Less than 5 years
    
1.06*
0.90–1.24
 5–9 years completed
    
0.96*
0.82–1.11
 10 years or more
    
0.55*
0.44–0.69
Smoke/Substance use
 No®
      
 Yes
    
1.26*
1.12–1.43
Practicing Exercise
 Yes®
      
 Rarely/ Never
    
1.15*
0.94–1.40
Health Insurance
 No®
      
 Yes
    
1.16*
1.02–1.31
® indicates reference category 
* p < 0.05, values in the parentheses are 95% confidence interval
Table 6 shows the unadjusted and adjusted odds ratio for limiting paid work. The odds of the number of chronic diseases show significant variation even after adjusting for socio-economic and demographic covariates. For instance, compared to those having no chronic disease, person with 2 chronic diseases were significantly more likely to have limiting paid work (OR: 2.58, 95% CI: 1.84–3.62). The likelihood of limiting work was significantly higher among females (OR: 1.17, 95% CI: 1.00-1.36) and those residing in rural areas (OR: 1.08, 95% CI: 0.86–1.34) as compared to that of males. Similarly, the odds of limiting paid work was higher among ST (OR: 1.31, 95% CI: 1.10–1.55) followed by SC (OR: 1.34, 95% CI: 1.10–1.63) compared to the other caste. For all other demographic variables in model 3, the pattern remains similar that to of model 2 however for MPCE quintile the chances of limiting paid work was 1.45 times higher among richest quintile (OR: 1.45, 95% CI: 1.11–1.90) compare to that of poorer.
Table 6
Adjusted odds ratio for limiting paid work by socioeconomic and demographic characteristics among middle aged and elderly people in India, 2017-18
 
Unadjusted
Adjusted
 
Model 1
 
Model 2
 
Model 3
 
OR
95% CI
OR
95% CI
OR
95% CI
Number of Chronic diseases
 0®
      
 1
1.64*
1.46–1.84
1.62*
1.43–1.83
1.64*
1.45–1.86
 2
2.58*
1.84–3.62
2.50*
1.82–3.45
2.66*
1.97–3.59
 3
4.66*
3.36–6.47
3.83*
2.80–5.25
3.88*
2.82–5.33
 4
4.71*
2.87–7.73
5.04*
3.09–8.23
5.17*
3.15–8.48
 5+
11.09*
3.69–33.35
10.27*
2.54–41.46
11.94*
2.68–53.19
Age
 75+®
      
 < 45
  
0.52*
0.29–0.92
0.52*
0.30–0.93
 45–54
  
0.43*
0.30–0.61
0.44*
0.30–0.65
 55–64
  
0.50*
0.35–0.70
0.51*
0.36–0.73
 65–74
  
0.78*
0.55–1.09
0.78*
0.55–1.11
Sex
 Male®
      
 Female
  
1.17*
1.00-1.36
1.16*
0.92–1.47
Residence
 Urban®
      
 Rural
  
1.08*
0.86–1.34
1.03*
0.86–1.22
Caste
 Others®
      
 Scheduled Tribes
  
1.31*
1.10–1.55
1.22*
1.01–1.46
 Scheduled Castes
  
1.34*
1.10–1.63
1.26*
1.03–1.55
 OBC
  
1.24*
1.05–1.45
1.21*
1.02–1.44
Religion
 Muslim®
      
 Hindu
  
0.74*
0.51–1.06
0.79*
0.56–1.12
 Christian
  
0.61*
0.38–0.96
0.65*
0.41–1.02
 Others
  
0.92*
0.61–1.38
1.04*
0.70–1.56
Marital Status
 Others®
      
 Currently married
  
0.94*
0.62–1.43
0.94*
0.63–1.42
 Widowed
  
0.91*
0.59–1.40
0.89*
0.58–1.37
Region
 North®
      
 Central
  
0.98*
0.84–1.14
1.05*
0.89–1.22
 East
  
0.82*
0.72–0.94
0.85*
0.74–0.98
 Northeast
  
0.16*
0.13–0.21
0.16*
0.12–0.21
 West
  
2.48*
2.15–2.86
2.63*
2.28–3.03
 South
  
0.94*
0.76–1.18
0.94*
0.77–1.14
MPCE Quintile
 Poorer®
      
 Poorest
    
1.06*
0.94–1.20
 Middle
    
1.15*
1.01–1.31
 Richer
    
1.14*
0.98–1.33
 Richest
    
1.45*
1.11–1.90
Educational attainment
 Illiterate®
      
 Less than 5 years
    
0.97*
0.81–1.15
 5–9 years completed
    
0.89*
0.76–1.05
 10 years or more
    
0.69*
0.49–0.99
Smoke/Substance use
 No®
      
 Yes
    
1.20*
1.06–1.36
Practicing Exercise
 Yes®
      
 Rarely/ Never
    
0.95
.+++*
0.69–1.29
Health Insurance
 No®
      
 Yes
    
1.20*
1.00-1.45
® indicates reference category
* p < 0.05, values in the parentheses are 95% confidence interval
Additional file 1: Appendix 2 presents the estimated proportion of ever stopped work and limiting work among working age population (under 65) and 65 + by chronic diseases. In each of the variable, the proportion who stopped work was higher among those with any chronic disease compared to those without chronic diseases. The proportion of ever stopped worked for each of the diseases were higher among those in working age group compared to elderly (65+). However, the proportion of limiting work was higher for those 65+, in most of the chronic diseases.

Discussion

This is the first ever population-based study that estimated the prevalence of ever stopped work and limiting paid work among middle aged and elderly in India. The key strength of our study is the use of the first and latest data from a high-quality, nationally representative, population-based ageing survey in India. Our study included sample of the middle-aged population, as well as the elderly population who have ever worked. This study fills the critical gaps in knowledge by investigating pattern and prevalence of limiting paid work and productivity loss among middle-aged and elderly in India and their association with chronic diseases and the validity of these findings has been confirmed by employing the robustness checks.
The results of age-sex adjusted estimates of ever stopped work and limiting work suggest that 7% of older adults ever stopped working and 23% had limiting work due to health-related issues. The prevalence of ever-stopped working and limiting work due to ill health is higher among those with a chronic condition compared to those who do not have that across socio-economic characteristics. As expected, the prevalence of ever-stopped work and limiting paid work are higher among the people who have even a single disease than who doesn’t and positively associated with age. The results of propensity score matching show that the difference in ATE is 4.8% and 12% which indicates after matching, the population with chronic disease are 4.8% and 12% more likely to stop working. Moreover, the prevalence of ever stopped work was higher among those in working age group compared to elderly (65+). However, the probability of limiting paid work was higher among elderly compared to working age group. Controlling for socio-demographic and economic factors, the probability for ever stopped work was lower among females but higher among rural dwellers. The probability of limiting paid work was higher among females, rural dwellers and people who had health insurance, also this was high among people belonging to comparatively higher MPCE groups. These findings are consistent with literature from low- and middle-income countries [35]. Second, we found educational attainment as significant predictors of ever stopped work and limiting paid work. In the case of full model (model 3) a significant decrease in stopping work and limiting paid work was observed with higher level of education. Zimmerman et al. addressed this and investigated that, those adults with relatively higher educational level are expected to have greater socio-economic resources to attain a healthy lifestyle, also they are well equipped with the health literacy level required to avail later in their lives [36].
We found each of the chronic disease are significantly associated with stopping work and limiting paid work. Overall, among the eight chronic health conditions, the chronic diseases with the strongest association to stopping work or limiting paid work were stroke followed by Neurological or psychiatric problems. Many stroke survivors experience poststroke spasticity resulting in inability to perform daily activities, further necessitating their management and treatment. This exerts a considerable economic burden due to treatment cost and lost productive days [37]. Results from a study also indicate that inability to complete neuropsychological tests at one-year post-injury is associated with non-productive activity [38]. The chance of ever stopped work by each of the chronic diseases was higher among adults in the prime working age group suggesting that chronic diseases significantly inhibit the work. Even after adjusting for other socioeconomic and demographic characteristics, number of chronic diseases is found to be important contextual unit for ever-stopped work and limiting paid work.
As per World global health (WHO) fact on non-communicable diseases 2021 showed that, 71% of all deaths caused by non-communicable each year 15 million people in age group 30 to 69 dies due to NCDs and 85% of them belong to low- and middle-income countries and 77% of all NCDs death takes place in low- and middle-income countries. Chronic disease does not only hinder individual productivity and wellbeing but also it brings economic and human working hours capital loss for the nation. The increased burden of chronic diseases among working population in low-income and middle-income countries that have inadequate health systems might increase the productivity loss and global inequality and instability.
Occurrence of chronic diseases among the working age group is expected to increase along with increasing share of elderly population in India [39]. Chronic disease poses greater risk of high medical expenditure and productivity loss at work for the working population. Our study reflects the very same notion. Evidences from this study on chronic diseases and productivity loss in India is new and staggering, with a demand of policy attention. At present, there is no official programme focusing on work place and chronic diseases in India. The first step in this direction is to create awareness followed by screening for growing non-communicable diseases, at least for employee working in public and private sectors to optimise the productivity potential. The burden of ill-health in terms of productivity loss will further increase if no programs are implemented to manage, control, or prevent chronic diseases among working middle-aged and elderly population in India. There need to be an investment in carefully designing workplace intervention by the policymakers and employers at population and individual level to turn away the adverse economic and health consequences of chronic diseases.
We acknowledge the following limitations of this study. First, the chronic diseases we used are self-reported and medically diagnosed. We believe that a higher proportion of population with chronic diseases has not remain undiagnosed. Second, we did not analysed by actual loss of wage / income due to lack of data. Despite these limitations, we believe that the findings serves as the first population based study on estimates of loss of productivity due to chronic diseases in India.

Conclusion

This study has demonstrated that stopping work and limiting paid work were significantly associated with chronic diseases. The chronic diseases have their greatest impact on performance domain of productivity or limiting paid work. It could be used as an indicator of the performance of workplace health interventions and guide employers and policy makers towards better adjustments for employees with chronic diseases.

Acknowledgements

Not applicable.

Declarations

The authors were not involved in data collection process and therefore they did not require any ethical approval or consent to participate. The LASI data is secondary in nature. The data is freely available on request and survey agencies that conducted the feld survey for the data collection have collected a prior consent from the respondent. The ethical clearance was provided by Indian Council of Medical Research (ICMR), India. 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. In accordance with Human Subjects Protection, four consent forms were used in the LASI: Household Informed Consent, Individual Informed Consent, Consent for Blood Samples Collection for Storage and Future Use (DBS), and Proxy Consent. For each survey participant, the study protocol was described and the steps of each biomarker test were demonstrated by the trained health investigators. Participant’s informed consent was obtained for the interviews. Since, the survey obtained either signed or oral consent, it was feasible for each participant to provide his/her consent. All methods were performed in accordance with the relevant guidelines and regulations.
Not applicable.

Competing interests

The authors declare that they have no competing interests. Or other interests that might be perceived to influence the results and/or discussion reported in this paper.
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Literatur
1.
Zurück zum Zitat Carter HE, Schofield D, Shrestha R. The long-term productivity impacts of all cause premature mortality in Australia. Aust N Z J Public Health. 2017;41(2):137–43.CrossRef Carter HE, Schofield D, Shrestha R. The long-term productivity impacts of all cause premature mortality in Australia. Aust N Z J Public Health. 2017;41(2):137–43.CrossRef
2.
Zurück zum Zitat Tillett W, et al. A threshold of meaning for work disability improvement in Psoriatic Arthritis measured by the Work Productivity and Activity Impairment Questionnaire. Rheumatol Ther. 2019;6(3):379–91.CrossRef Tillett W, et al. A threshold of meaning for work disability improvement in Psoriatic Arthritis measured by the Work Productivity and Activity Impairment Questionnaire. Rheumatol Ther. 2019;6(3):379–91.CrossRef
3.
Zurück zum Zitat Meerding WJ, et al. Health problems lead to considerable productivity loss at work among workers with high physical load jobs. J Clin Epidemiol. 2005;58(5):517–23.CrossRef Meerding WJ, et al. Health problems lead to considerable productivity loss at work among workers with high physical load jobs. J Clin Epidemiol. 2005;58(5):517–23.CrossRef
4.
Zurück zum Zitat Amaya-Lara JL. Catastrophic expenditure due to out-of-pocket health payments and its determinants in colombian households. Int J Equity Health. 2016;15(1):182.CrossRef Amaya-Lara JL. Catastrophic expenditure due to out-of-pocket health payments and its determinants in colombian households. Int J Equity Health. 2016;15(1):182.CrossRef
5.
Zurück zum Zitat Cloostermans L, et al. The effectiveness of interventions for ageing workers on (early) retirement, work ability and productivity: a systematic review. Int Arch Occup Environ Health. 2015;88(5):521–32.CrossRef Cloostermans L, et al. The effectiveness of interventions for ageing workers on (early) retirement, work ability and productivity: a systematic review. Int Arch Occup Environ Health. 2015;88(5):521–32.CrossRef
6.
Zurück zum Zitat Biron C, et al. At work but ill: psychosocial work environment and well-being determinants of presenteeism propensity. J Public Mental Health. 2006;5(No. 4):26–37. Biron C, et al. At work but ill: psychosocial work environment and well-being determinants of presenteeism propensity. J Public Mental Health. 2006;5(No. 4):26–37.
7.
Zurück zum Zitat Olivera MJ. Dexamethasone and COVID-19: strategies in low- and Middle-Income Countries to tackle steroid-related Strongyloides Hyperinfection. Am J Trop Med Hyg. 2021;104(5):1611–2.CrossRef Olivera MJ. Dexamethasone and COVID-19: strategies in low- and Middle-Income Countries to tackle steroid-related Strongyloides Hyperinfection. Am J Trop Med Hyg. 2021;104(5):1611–2.CrossRef
8.
Zurück zum Zitat Fox J, et al. Mental-health conditions, barriers to care, and productivity loss among officers in an urban police department. Conn Med. 2012;76(9):525. Fox J, et al. Mental-health conditions, barriers to care, and productivity loss among officers in an urban police department. Conn Med. 2012;76(9):525.
9.
Zurück zum Zitat Besen E, Pranksy G. Assessing the relationship between chronic health conditions and productivity loss trajectories. J Occup Environ Med. 2014;56(12):1249–57.CrossRef Besen E, Pranksy G. Assessing the relationship between chronic health conditions and productivity loss trajectories. J Occup Environ Med. 2014;56(12):1249–57.CrossRef
10.
Zurück zum Zitat Howard KJ, Howard JT, Smyth AF. The problem of absenteeism and presenteeism in the workplace. InHandbook of occupational health and wellness. Boston: Springer; 2012. p. 151–79. Howard KJ, Howard JT, Smyth AF. The problem of absenteeism and presenteeism in the workplace. InHandbook of occupational health and wellness. Boston: Springer; 2012. p. 151–79.
11.
Zurück zum Zitat Kessler RC, et al. The world health organization health and work performance questionnaire (HPQ). J Occup Environ Med. 2003;45:156–74.CrossRef Kessler RC, et al. The world health organization health and work performance questionnaire (HPQ). J Occup Environ Med. 2003;45:156–74.CrossRef
12.
Zurück zum Zitat Vuong TD, Wei F, Beverly CJ. Absenteeism due to functional limitations caused by seven common chronic diseases in US workers. J Occup Environ medicine/American Coll Occup Environ Med. 2015;57(7):779.CrossRef Vuong TD, Wei F, Beverly CJ. Absenteeism due to functional limitations caused by seven common chronic diseases in US workers. J Occup Environ medicine/American Coll Occup Environ Med. 2015;57(7):779.CrossRef
13.
Zurück zum Zitat Leijten FR, et al. The influence of chronic health problems on work ability and productivity at work: a longitudinal study among older employees. Scand J Work Environ Health. 2014;40(5):473–82.CrossRef Leijten FR, et al. The influence of chronic health problems on work ability and productivity at work: a longitudinal study among older employees. Scand J Work Environ Health. 2014;40(5):473–82.CrossRef
14.
Zurück zum Zitat Alavinia SM, Molenaar D, Burdorf A. Productivity loss in the workforce: associations with health, work demands, and individual characteristics. Am J Ind Med. 2009;52(1):49–56.CrossRef Alavinia SM, Molenaar D, Burdorf A. Productivity loss in the workforce: associations with health, work demands, and individual characteristics. Am J Ind Med. 2009;52(1):49–56.CrossRef
15.
Zurück zum Zitat Van den Heuvel SG, et al. Productivity loss at work; health-related and work-related factors. J Occup Rehabil. 2010;20(3):331–9.CrossRef Van den Heuvel SG, et al. Productivity loss at work; health-related and work-related factors. J Occup Rehabil. 2010;20(3):331–9.CrossRef
16.
Zurück zum Zitat Iverson D, et al. The cumulative impact and associated costs of multiple health conditions on employee productivity. J Occup Environ Med. 2010;52:1206–11.CrossRef Iverson D, et al. The cumulative impact and associated costs of multiple health conditions on employee productivity. J Occup Environ Med. 2010;52:1206–11.CrossRef
17.
Zurück zum Zitat Doki S, et al. Relationship between sickness presenteeism and awareness and presence or absence of systems for return to work among workers with mental health problems in Japan: an internet-based cross‐sectional study. J Occup Health. 2015;57(6):532–9.CrossRef Doki S, et al. Relationship between sickness presenteeism and awareness and presence or absence of systems for return to work among workers with mental health problems in Japan: an internet-based cross‐sectional study. J Occup Health. 2015;57(6):532–9.CrossRef
18.
Zurück zum Zitat Stewart WF, et al. Lost productive time and cost due to common pain conditions in the US workforce. JAMA. 2003;290(18):2443–54.CrossRef Stewart WF, et al. Lost productive time and cost due to common pain conditions in the US workforce. JAMA. 2003;290(18):2443–54.CrossRef
19.
Zurück zum Zitat Goetzel RZ, et al. Health, absence, disability, and presenteeism cost estimates of certain physical and mental health conditions affecting US employers. J Occup Environ Med. 2004;46:398–412.CrossRef Goetzel RZ, et al. Health, absence, disability, and presenteeism cost estimates of certain physical and mental health conditions affecting US employers. J Occup Environ Med. 2004;46:398–412.CrossRef
20.
Zurück zum Zitat Schultz AB, Chen C-Y, Edington DW. The cost and impact of health conditions on presenteeism to employers. PharmacoEconomics. 2009;27(5):365–78.CrossRef Schultz AB, Chen C-Y, Edington DW. The cost and impact of health conditions on presenteeism to employers. PharmacoEconomics. 2009;27(5):365–78.CrossRef
21.
Zurück zum Zitat Mitchell RJ, Bates P. Measuring health-related productivity loss. Popul health Manage. 2011;14(2):93–8.CrossRef Mitchell RJ, Bates P. Measuring health-related productivity loss. Popul health Manage. 2011;14(2):93–8.CrossRef
22.
Zurück zum Zitat Riedel JE, et al. Use of a normal impairment factor in quantifying avoidable productivity loss because of poor health. J Occup Environ Med. 2009;51:283–95.CrossRef Riedel JE, et al. Use of a normal impairment factor in quantifying avoidable productivity loss because of poor health. J Occup Environ Med. 2009;51:283–95.CrossRef
23.
Zurück zum Zitat Meraya AM, Sambamoorthi U. Chronic condition combinations and productivity loss among employed nonelderly adults (18 to 64 years). J Occup Environ Med. 2016;58(10):974.CrossRef Meraya AM, Sambamoorthi U. Chronic condition combinations and productivity loss among employed nonelderly adults (18 to 64 years). J Occup Environ Med. 2016;58(10):974.CrossRef
24.
Zurück zum Zitat Alka C, Ali M, Garima M. Impact of Preventive Health Care on Indian Industry and Economy. Indian Council for Research on International Economic Relations (ICRIER), New Delhi; 2007. Working Paper, No. 198. Alka C, Ali M, Garima M. Impact of Preventive Health Care on Indian Industry and Economy. Indian Council for Research on International Economic Relations (ICRIER), New Delhi; 2007. Working Paper, No. 198.
25.
Zurück zum Zitat Fouad AM, et al. Effect of chronic diseases on work productivity: a propensity score analysis. J Occup Environ Med. 2017;59(5):480–5.CrossRef Fouad AM, et al. Effect of chronic diseases on work productivity: a propensity score analysis. J Occup Environ Med. 2017;59(5):480–5.CrossRef
26.
Zurück zum Zitat INDIA P. Census of India 2011 provisional population totals. New Delhi: Office of the Registrar General and Census Commissioner; 2011. INDIA P. Census of India 2011 provisional population totals. New Delhi: Office of the Registrar General and Census Commissioner; 2011.
27.
Zurück zum Zitat Mohanty SK, et al. Awareness, treatment, and control of hypertension in adults aged 45 years and over and their spouses in India: a nationally representative cross-sectional study. PLoS Med. 2021;18(8):e1003740.CrossRef Mohanty SK, et al. Awareness, treatment, and control of hypertension in adults aged 45 years and over and their spouses in India: a nationally representative cross-sectional study. PLoS Med. 2021;18(8):e1003740.CrossRef
28.
Zurück zum Zitat Marthias T, et al. Impact of non-communicable disease multimorbidity on health service use, catastrophic health expenditure and productivity loss in Indonesia: a population-based panel data analysis study. BMJ Open. 2021;11(2):e041870.CrossRef Marthias T, et al. Impact of non-communicable disease multimorbidity on health service use, catastrophic health expenditure and productivity loss in Indonesia: a population-based panel data analysis study. BMJ Open. 2021;11(2):e041870.CrossRef
29.
Zurück zum Zitat International Institute for Population Sciences (IIPS) NP for, Health Care of Elderly (NPHCE), MoHFW HTHCS of, (USC) PH (HSPH) and the U of SC. Longitudinal Ageing Study in India (LASI) wave 1, 2017–18, India report. 2020. International Institute for Population Sciences (IIPS) NP for, Health Care of Elderly (NPHCE), MoHFW HTHCS of, (USC) PH (HSPH) and the U of SC. Longitudinal Ageing Study in India (LASI) wave 1, 2017–18, India report. 2020.
30.
Zurück zum Zitat Rosenbaum PR, Rubin DB. The central role of the propensity score in observational studies for causal effects. Biometrika. 1983;70(1):41–55.CrossRef Rosenbaum PR, Rubin DB. The central role of the propensity score in observational studies for causal effects. Biometrika. 1983;70(1):41–55.CrossRef
31.
Zurück zum Zitat Sen S, et al. Unintended effects of Janani Suraksha Yojana on maternal care in India. SSM-population health. 2020;11:100619.CrossRef Sen S, et al. Unintended effects of Janani Suraksha Yojana on maternal care in India. SSM-population health. 2020;11:100619.CrossRef
32.
Zurück zum Zitat Dixit P, Dwivedi LK, Ram F. Strategies to improve child immunization via antenatal care visits in India: a propensity score matching analysis. PLoS ONE. 2013;8(6):e66175.CrossRef Dixit P, Dwivedi LK, Ram F. Strategies to improve child immunization via antenatal care visits in India: a propensity score matching analysis. PLoS ONE. 2013;8(6):e66175.CrossRef
33.
Zurück zum Zitat Yanovitzky I, Zanutto E, Hornik R. Estimating causal effects of public health education campaigns using propensity score methodology. Eval Program Plan. 2005;28(2):209–20.CrossRef Yanovitzky I, Zanutto E, Hornik R. Estimating causal effects of public health education campaigns using propensity score methodology. Eval Program Plan. 2005;28(2):209–20.CrossRef
34.
Zurück zum Zitat Burton WN, et al. The association of health risks with on-the-job productivity. J Occup Environ Med. 2005;4:769–77.CrossRef Burton WN, et al. The association of health risks with on-the-job productivity. J Occup Environ Med. 2005;4:769–77.CrossRef
35.
Zurück zum Zitat Saha A, Alleyne G. Recognizing noncommunicable diseases as a global health security threat. Bull World Health Organ. 2018;96(11):792.CrossRef Saha A, Alleyne G. Recognizing noncommunicable diseases as a global health security threat. Bull World Health Organ. 2018;96(11):792.CrossRef
36.
Zurück zum Zitat Zimmerman E, Woolf SH. Understanding the relationship between education and health. Washington, DC: Institute of Medicine; 2014. Discussion Paper. Zimmerman E, Woolf SH. Understanding the relationship between education and health. Washington, DC: Institute of Medicine; 2014. Discussion Paper.
37.
Zurück zum Zitat Ganapathy V, et al. Caregiver burden, productivity loss, and indirect costs associated with caring for patients with poststroke spasticity. Clin Interv Aging. 2015;10:1793. Ganapathy V, et al. Caregiver burden, productivity loss, and indirect costs associated with caring for patients with poststroke spasticity. Clin Interv Aging. 2015;10:1793.
38.
Zurück zum Zitat Atchison T, et al. Relationship between neuropsychological test performance and productivity at 1-year following traumatic brain injury. Clin Neuropsychol. 2004;18(2):249–65.CrossRef Atchison T, et al. Relationship between neuropsychological test performance and productivity at 1-year following traumatic brain injury. Clin Neuropsychol. 2004;18(2):249–65.CrossRef
39.
Zurück zum Zitat Abegunde DO, et al. The burden and costs of chronic diseases in low-income and middle-income countries. The Lancet. 2007;370(9603):1929–38.CrossRef Abegunde DO, et al. The burden and costs of chronic diseases in low-income and middle-income countries. The Lancet. 2007;370(9603):1929–38.CrossRef
Metadaten
Titel
Chronic diseases and productivity loss among middle-aged and elderly in India
verfasst von
Shamrin Akhtar
Sanjay K. Mohanty
Rajeev Ranjan Singh
Soumendu Sen
Publikationsdatum
01.12.2022
Verlag
BioMed Central
Erschienen in
BMC Public Health / Ausgabe 1/2022
Elektronische ISSN: 1471-2458
DOI
https://doi.org/10.1186/s12889-022-14813-2

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