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BMJ Open logoLink to BMJ Open
. 2020 Mar 3;10(3):e030298. doi: 10.1136/bmjopen-2019-030298

Do employer-sponsored health insurance schemes affect the utilisation of medically trained providers and out-of-pocket payments among ready-made garment workers? A case–control study in Bangladesh

Sayem Ahmed 1,2,3,, Abdur Razzaque Sarker 1,4,5, Marufa Sultana 6,7, Felix Roth 8, Rashidul Alam Mahumud 1,9, Md Kamruzzaman 10, Md Zahid Hasan 1, Andrew J Mirelman 11, Ziaul Islam 1, Louis W Niessen 3,12, Clas Rehnberg 2, AK Azad Khan 10, Niklaus Gyr 13, Jahangir AM Khan 2,3
PMCID: PMC7059493  PMID: 32132134

Abstract

Objective

We estimated the effect of an employer-sponsored health insurance (ESHI) scheme on healthcare utilisation of medically trained providers and reduction of out-of-pocket (OOP) expenditure among ready-made garment (RMG) workers.

Design

We used a case–control study design with cross-sectional preintervention and postintervention surveys.

Settings

The study was conducted among workers of seven purposively selected RMG factories in Shafipur, Gazipur in Bangladesh.

Participants

In total, 1924 RMG workers (480 from the insured and 482 from the uninsured, in each period) were surveyed from insured and uninsured RMG factories, respectively, in the preintervention (October 2013) and postintervention (April 2015) period.

Interventions

We tested the effect of a pilot ESHI scheme which was implemented for 1 year.

Outcome measures

The outcome measures were utilisation of medically trained providers and reduction of OOP expenditure among RMG workers. We estimated difference-in-difference (DiD) and applied two-part regression model to measure the association between healthcare utilisation, OOP payments and ESHI scheme membership while controlling for the socioeconomic characteristics of workers.

Results

The ESHI scheme increased healthcare utilisation of medically trained providers by 26.1% (DiD=26.1; p<0.01) among insured workers compared with uninsured workers. While accounting for covariates, the effect on utilisation significantly reduced to 18.4% (p<0.05). The DiD estimate showed that OOP expenditure among insured workers decreased by −3700 Bangladeshi taka and -1100 Bangladeshi taka compared with uninsured workers when using healthcare services from medically trained providers or all provider respectively, although not significant. The multiple two-part models also reported similar results.

Conclusion

The ESHI scheme significantly increased utilisation of medically trained providers among RMG workers. However, it has no significant effect on OOP expenditure. It can be recommended that an educational intervention be provided to RMG workers to improve their healthcare-seeking behaviours and increase their utilisation of ESHI-designated healthcare providers while keeping OOP payments low.

Keywords: RMG workers, employer sponsored health insurance, difference-in-difference, medically trained provider, Bangladesh


Strengths and limitations of this study.

  • The difference-in-difference estimate was used to evaluate the effect of employer-sponsored health insurance (ESHI) scheme on healthcare utilisation of medically trained healthcare providers and out-of-pocket (OOP) payments.

  • A two-part model was employed to measure the association between OOP payments and ESHI scheme enrolment while controlling for the socioeconomic characteristics of workers.

  • The self-reported information on healthcare utilisation and OOP payments might be influenced by recall bias.

Background

In Bangladesh, 67.0% of the total healthcare expenditure is borne by households through out-of-pocket (OOP) payments.1 Due to such payments, 15.6% of households face catastrophic health expenditure (CHE), and almost five million people fall into poverty every year.2–4 Further, among those who seek healthcare, about 41.6% use services from informal (village doctor, drug sellers) and traditional providers, as well as faith-based healers,5 which results in overutilisation of drugs and adverse effects of treatment in many cases.6–9

In order to achieve the Universal Health Coverage (UHC), the WHO urged its member states ‘to ensure that health-financing systems included a method for prepayment of financial contributions for healthcare, with a view to sharing risk among the population and avoiding CHE and impoverishment of individuals as a result of seeking care’.10 In response to this urgent mission, the government of Bangladesh developed the first-ever Health Care Financing Strategy 2012-2032 for the country in 2012.11 This strategy proposed three different prepayment mechanisms to secure healthcare for all populations considering their involvement in economic sectors, namely formal sector workers and their dependents (18.8 million or 12.3%); informal sector workers and their dependents (85.7 million or 56.2%); and the below poverty line population (48 million or 31.5%).11 The mechanisms for financing healthcare include the design and implementation of social health protection scheme for the below poverty line population as well as informal workers. It also includes the strengthening of financing and provision of public health services.11

The ready-made garment (RMG) sector, with 4.2 million workers, has emerged as one of the largest employer pools and foreign currency earners of Bangladesh. This sector has a large contribution to the economy of over US$34.13 billion export (more than 84% of all exports) per financial year.12 In spite of their large contribution to the economy, the workers are not receiving enough social protection, especially investment in health and education for their children. RMG workers are more vulnerable to suffer from many kinds of occupational illness compared to formal workers.13 14 A study revealed that diarrhoea, cough and breathlessness were predominant symptoms among 38%, 29% and 28% of RMG workers, respectively. Such workers have limited access to quality healthcare, as observed that about 11% of RMG workers did not receive any treatment for their illness. The majority of RMG workers consult with local medical assistant family planning (56%) for their illness, followed by drug sellers (21%) and traditional healers (10%).15 Another study on 300 RMG workers showed that they did not get required vaccine, health education or workplace health-related knowledge from the garment factories.16 There was no provision of healthcare centres, doctors, medicine and treatment for fire burn and chronic illness both for themselves and for their family. More than half (63%) of the respondents reported working day lost due to illness.16

To ensure access to quality healthcare and financial risk protection for organised workers, industry-based ‘Employer-Sponsored Health Insurance’ (ESHI) has been used in developed countries and recommended for developing countries.17 18 Such insurance schemes are usually offered by an organisation as part of workers’ benefits and compensation package. Considering the inadequate accessibility of RMG workers to healthcare, Bangladesh Diabetic Samiti (BADAS), a diabetic association in Bangladesh established in 1956, implemented a research-based pilot ESHI scheme (box 1) from March 2014 to February 2015. United Insurance Company (UIC), Telemedicine Reference Center Ltd (TRCL) and the New Asia Group (RMG factories) collaborated in the pilot study.

Box 1. Employer-sponsored health insurance (ESHI) scheme.

Target population: workers of the garment industry.

Implementation organi s ation ( t hird - party payment mechanism):

  • Diabetic Association of Bangladesh (health service provider).

  • United Insurance Company (insurance company).

  • The New Asia Group (garments factory).

Benefit package:

  • Inpatient and outpatient treatment covered by the insurance scheme with a maximum coverage of 15 000 BDT (US$192.8*) per year.

Premium: 487 BDT (US$6.3) per year, which is borne by the employer.

Number of enrollees: 8000 RMG workers from seven garment factories.

*US$1 = 77.8 Bangladeshi taka (BDT).53

ESHI, employer-sponsored health insurance; RMG, ready-made garment.

It should be noted that some diseases and health conditions were excluded mostly due to the high and unaffordable costs of services. Such services comprised any congenital infirmity, radiotherapy (X-ray, radium or radioactive isotopes treatment), chemotherapy or any form of treatment when not incidental or necessary for treatment of the injury/illness which caused the hospitalisation, any dental treatment unless it requires hospitalisation for reconstructive surgery as a consequence of an accident, and special procedures (transplant, cardiac surgery, neurosurgery, phaco surgery, dialysis, HIV/AIDS and so on).

The ESHI scheme offered mandatory health insurance for workers of six garment factories of the New Asia Group (Knit-Asia, Ashulia; Knit-Asia, Shafipur; Knit-Asia, Nichintapur; Malek Spinning Mills; Salek Textile; and Rahim Textile Mills) located at Shafipur in Gazipur, Bangladesh. A total of 8000 workers and supervisors were the beneficiaries of the insurance scheme. We included all of these RMG factories in our evaluation study. It means that no other RMG factories had insurance scheme in that location to our knowledge. It, however, should be noted that a large number of RMG factories are located in the Gazipur district of Bangladesh. Therefore, the generalisability of the study findings should not be remarkably affected by selection of these factories only from the Gazipur district. Health services were provided by a newly built hospital by BADAS in Shafipur, located close to the RMG factories. BADAS is one of the largest healthcare chains in Bangladesh after the public sector. It has grown into a nationwide organisation having 80 healthcare centres and educational facilities spread all over the country.19 For the pilot phase one newly built hospital of BADAS was contracted by the insurance company. The pilot scheme provided coverage for treatment with a cost of up to 15 000 Bangladeshi taka (BDT) or US$192.8 annually. The premium for enrolment in the scheme was 487 BDT (US$6.3) per year, which was borne by the employer. BADAS and UIC have been experimenting with the ESHI scheme on a limited scale and sought a mechanism for scaling up and technical support to conduct that process in a professional way. The approach was to develop a scalable, ESHI scheme funded by the RMG factories through premium payment. The scheme was linked with the existing health service providers and insurance provider to create a sustainable and scalable health financing model. The premium was set through an actuarial analysis conducted by a hired firm. The benefit package was developed through expert consultation on the healthcare needs of RMG workers.

This ESHI scheme was piloted with the aim of providing quality healthcare with financial protection in the long term to RMG workers in Bangladesh. The objective of this study was thus to assess the effect of this insurance scheme on utilisation of healthcare services from medically trained providers (MTPs) and on the reduction of OOP healthcare expenditure for such care.

Methods

We used a case–control study design with cross-sectional preintervention and postintervention surveys to assess healthcare utilisation of MTPs. Study participants were RMG workers from the insured group (IG) and uninsured group (UG). IG comprised workers from the six purposively selected RMG factories that offered ESHI. UG comprised workers from one purposively selected RMG factory without any ESHI scheme, namely JM Fabrics. All factories were located in the same area. Surveys were conducted before and after implementation of the ESHI scheme among workers in both IG and UG.

Sample size

We estimated the sample size using the technique proposed by Casagrande et al 20 and Ury and Fleiss21 for comparing two independent proportions. A study on micro-health insurance showed that the healthcare utilisation of insured and uninsured individuals was 7.6% and 6.2%, respectively.22 Using these healthcare utilisation rates for two groups at a 10% error level and 85% statistical power, the estimated sample size for each group was 372. We considered 30% non-response rate in the sample size calculation due to high job switch rate among garment workers. Therefore, the sample size was increased to 484 for each group to maintain the desired statistical power. Finally, 962 RMG workers (480 from IG and 482 from UG) were included in both the preintervention and postintervention period. Workers who had been working in the selected RMG factories for 6 months prior to the surveys were considered eligible for participation in the survey.

Data collection

A complete list of workers was collected from each selected factory. The list contained worker identification number, name, job position, age and sex. Using simple random sampling approach, the required number of samples was selected from that list. The selected participants were informed about the survey on the day before the survey. The management staff ensured the presence of the RMG workers during the survey to reduce non-response rate. A structured questionnaire was developed, and necessary modifications and corrections were made through field test before finalising. Data from individual workers were collected through face-to-face interviews. The interviews took place in a separate room close to the working place of the workers to ensure confidentiality. To avoid any bias in response by factory managers, none of them was allowed to accompany the worker during the survey. Twenty trained field research assistants were involved in conducting the survey, and four supervisors supervised and coordinated the data collection process. The preintervention data collection was performed from October 2013 to March 2014, and the postintervention data collection was from March to April 2015. The preintervention survey took a long time due to an interruption caused by a political and labour unrest in the country.23

The demographic and socioeconomic characteristics along with illness and related healthcare-seeking information for the past 90 days (prior to interview) of RMG workers were collected. The type of healthcare providers used and the associated OOP healthcare expenditure information, for example, consultation, hospital bed, medicine, diagnosis, and transportation, were collected.

Variables

In this study, healthcare utilisation of MTPs and related OOP expenditure were the main outcome variables. The enrolment in the ESHI scheme was the main explanatory variable of interest. For adjustment of confounding, a number of demographic characteristics (eg, age, sex, marital status and education), socioeconomic characteristics (eg, household income), employment level and type of illness suffered (eg, chronic illness) were used. Generally, RMG workers sought healthcare from both MTPs (eg, doctors, private clinics, medical colleges and district hospitals, subdistrict health complexes, factory doctors and non-governmental organisation clinics) and medically non-trained providers (eg, village doctors, drug sellers, traditional healers).15 OOP healthcare expenditure includes medical fees or user fees for public care, medicines expenditure (whether prescribed or not), insurance copayments, and expenditure for transportation, diagnostic tests, hospital beds and food.3

Data analysis

We estimated the proportion of healthcare utilisation and average of OOP healthcare expenditure, along with their corresponding 95% confidence interval (CI), of RMG workers in IG and UG. Effects of the ESHI scheme on healthcare utilisation of MTPs and the reduction of OOP payments were estimated using difference-in-difference (DiD) estimates and a two-part regression model. Data cleaning, validation and all statistical analyses were performed using STATA V.13.0 software.24

Difference-in-difference

The DiD method was employed to estimate the observed changes in the outcome variables for ESHI scheme enrollees. The outcomes of the scheme were reflected on differences and changes over time (preimplementation and postimplementation) and between the study groups (IG and UG) in terms of illness or symptoms, inpatient care, utilisation of MTPs and OOP healthcare expenditure. It implies that the estimate of the counterfactual was obtained by computing the changes in outcomes for the UG. This counterfactual change is then subtracted from the change in outcomes for the IG.25 DiD statistics were estimated using a regression model,26 where two dummy variables, Si (1=IG, 0=UG) and Ti (1=postintervention and 0=preintervention), were created and entered into a regression model with the outcome variable (Yi). The regression model was specified as follows:

Yi=β0+β1Ti+β2Si+β3(T×S)it+ϵi (1)

The estimated regression coefficient β 3 in equation 1 represents the DiD statistics of the outcome variable.

While accounting for covariates for utilisation of healthcare, a separate model was used considering a number of control variables (eg, age, sex, education, marital status, income, job position and type of illness suffered) were included in multiple regression models for an adjusted estimate of DiD. The multiple regression model was specified as follows:

Yi=β0+β1T1+β2Si+β3(T×S)it+β4ϰ1it+β5ϰ2it++ϵi (2)

where β 0 was the constant, T was the study period, S was the study group, X1it, X2it,… were the control variables (eg, age, sex, marital status, education, occupation, and income), and β4, β5 were the associated coefficients. β 3 was the DiD estimate while accounting for covariates.

Two-part model

Since it was observed in the data that many individuals did not utilise any healthcare service during the intervention period, reporting of zero OOP expenditure was quite common. Therefore, participation in expenditure and the magnitude of OOP healthcare expenditure may not be statistically independent.27 Application of an ordinary least square approach to estimate the coefficient of the regression model to only among who spent for healthcare raises the possibility of sample selection bias.28 To avoid this problem, we included both individuals’ decision to participate in expenditure and the magnitude of OOP healthcare expenditure into the regression model adopting a two-part regression model. The two-part model allows assessment of the relationship between the participation decision and the magnitude of OOP healthcare expenditure while controlling for covariates (eg, socioeconomic and demographic characteristics).29 30 In this model, the first part involves a decision about whether or not to participate in healthcare expenditure using probit function, and the second part determines the level of healthcare expenditure through a regression model.31 32 Thus, the two-part model uses the information on both the probability and the magnitude of expenditure simultaneously in assessing predictors of OOP healthcare expenditure. The dependent variable for the probit model is a dichotomous variable that indicates whether OOP healthcare expenditure incurred (the participation decision). The regression model analysed the natural logarithm of OOP payments as a function of the covariates. The two-part regression modelwas specified as follows32:

yi=β1X1i+β2X2i+β3X3i++εi;εiIN(0,σ2)...(3)

Observed OOP payments are assumed to be related to a latent value as below:

yi=yi,ifyi§amp;gt;00,otherwise (4)

where Y i denotes the OOP healthcare expenditure and X 1i represents the participation in ESHI scheme and X2i, X3i ,… other control variables (eg, sex, age, marital status, education level, job position, income, chronic illness, inpatient care, healthcare provider type). Two models were applied for OOP healthcare expenditures. In the first model (model 1) the dependent variable was OOP expenditure for using healthcare from any provider, and in another model (model 2) the dependent variable was the OOP expenditure for using healthcare from MTP. The inpatient control variable was added only in the second part as all inpatient care incurred OOP healthcare expenditure and no variation with a participation decision. Preintervention and postintervention periods were included in the model as dummy variable, that is, time dummy (1=postintervention and 0=preintervention) for adjustment. The patients admitted to the inpatient care were often referred from the outpatient or emergency department of the health facility. We, therefore, classified these patients as ‘inpatient care users’, which was used as a control variable in the two-part regression model. Those who used only outpatient or emergency care were classified as ‘outpatient users’.

Patient and public involvement

Patients and the public were not involved in the design or planning of the study. Study findings will be shared with stakeholders, including owners association of the RMG factories, in meetings/seminars and in national or regional conferences.

Results

Sample characteristics

Table 1 presents the socioeconomic and demographic characteristics of the study participants. The majority of the workers were 20–30 years old. The participants in IG and UG were mostly at the worker-level job position. The largest number of RMG workers had less than three household members. The workers mostly had primary level education. The average monthly income of UG workers (9140.0 BDT; US$176) was higher than IG workers (7945.0 BDT; US$102) in the preintervention period. However, in the postintervention period, there was no significant difference in monthly income between IG and UG.

Table 1.

Sample characteristics

Characteristics Preintervention Postintervention
Insured group Uninsured group Insured group Uninsured group
% (95% CI) % (95% CI) % (95% CI) % (95% CI)
Age group (years)
<20 23.1 (19.3 to 26.9) 21.8 (18.1 to 25.5) 11.3 (8.4 to 14.1) 18.8 (15.3 to 22.3)
 20–30 49.2 (44.7 to 53.6) 62.2 (57.9 to 66.6) 54.1 (49.6 to 58.5) 58.0 (53.6 to 62.5)
 30–40 18.5 (15.1 to 22.0) 12.0 (9.1 to 14.9) 26.5 (22.6 to 0.5) 18.2 (14.7 to 1.6)
 40+ 9.2 (6.6 to 11.8) 3.9 (2.2 to 5.7) 8.1 (5.7 to 10.6) 5.0 (3.1 to 7.0)
Sex
 Male 40.6 (36.2 to 45.0) 52.5 (48.0 to 57.0) 31.3 (27.2 to 35.5) 47.8 (43.3 to 52.3)
 Female 59.4 (55.0 to 63.8) 47.5 (43.0 to 52.0) 68.7 (64.5 to 72.8) 52.2 (47.7 to 56.7)
Marital status
 Married 69.0 (64.8 to 73.1) 73.2 (69.3 to 77.2) 78.5 (74.8 to 82.2) 75.4 (71.5 to 79.2)
 Unmarried 27.1 (23.1 to 31.1) 24.5 (20.6 to 28.3) 18.4 (14.9 to 21.8) 22.8 (19.0 to 26.5)
 Others (widowed, divorced and separated) 4.0 (2.2 to 5.7) 2.3 (0.9 to 3.6) 3.1 (1.6 to 4.7) 1.9 (0.7 to 3.1)
Job position
 Worker 87.7 (84.8 to 90.6) 85.1 (81.9 to 88.2) 78.7 (75.0 to 82.4) 83.1 (79.7 to 86.5)
 Supervisor/admin-level worker 12.3 (9.4 to 15.2) 14.9 (11.8 to 18.1) 21.3 (17.6 to 25.0) 16.9 (13.5 to 20.3)
Household size
 3 persons or fewer 69.8 (65.7 to 73.9) 75.5 (71.7 to 79.4) 70.6 (66.5 to 74.6) 76.0 (72.2 to 79.8)
 4–5 persons 25.4 (21.5 to 29.3) 22.2 (18.5 to 25.9) 22.3 (18.6 to 26.1) 20.0 (16.5 to 23.6)
 6 persons or more 4.8 (2.9 to 6.7) 2.3 (0.9 to 3.6) 7.1 (4.8 to 9.4) 4.0 (2.2 to 5.7)
Level of education
 Primary level (years 1–5) 67.5 (63.3 to 71.7) 62.9 (58.5 to 67.2) 59.7 (55.3 to 64.1) 62.4 (58.1 to 66.8)
 Secondary level (years 9–10) 28.3 (24.3 to 32.4) 33.6 (29.4 to 37.8) 34.9 (30.6 to 39.1) 33.6 (29.4 to 37.8)
 Higher secondary level and above (years 11+) 4.2 (2.4 to 6.0) 3.5 (1.9 to 5.2) 5.4 (3.4 to 7.5) 4.0 (2.2 to 5.7)
Mean income per month (Bangladeshi taka) 7945 (7606 to 8284) 9140 (8737 to 9542) 12 945 (12 310 to 13 580) 11 298 (10 884 to 11 711)

Effect on healthcare utilisation

The effect of ESHI scheme on the utilisation of healthcare is presented in table 2. We found self-reported illness among the IG workers increased by 2.1% and among UG workers 0.8%. The DiD estimate showed that healthcare utilisation of MTPs (DiD=26.10.6; p<0.01) increased by about 26.0% among the IG workers compared to the UG workers as a result of the ESHI scheme. While accounting for covariates, the DiD estimate reduced to 18.4 and remained significant (p<0.05). However, after this adjustment, healthcare-seeking among those who suffered from illness became significant (DiD=7.4; p<0.1). Among the three categories of providers, utilisation of healthcare from private providers was the highest in both IG and UG workers.

Table 2.

Utilisation of healthcare among insured and uninsured ready-made garment workers during baseline and endline survey

Characteristics Preintervention Postintervention DiD DiD accounting for covariates
Insured group Uninsured group Insured group Uninsured group
n % (95% CI) n % (95% CI) n % (95% CI) n % (95% CI) % %
Suffered any illness or symptoms
 No 249 51.9 (47.4 to 56.3) 299 62.0 (57.6 to 66.3) 239 49.8 (45.3 to 54.3) 295 61.2 (56.8 to 65.5) 1.3 2.5
 Yes 231 48.1 (43.7 to 52.6) 183 38.0 (33.7 to 42.4) 241 50.2 (45.7 to 54.7) 179 38.8 (34.4 to 43.2)
Seek healthcare among those who suffered illness
 No 21 9.1 (6.0 to 13.6) 20 10.9 (7.1 to 16.4) 19 7.9 (5.1 to 12.0) 8 4.3 (2.1 to 8.3) 5.4 7.4*
 Yes 210 90.9 (86.4 to 94.0) 163 89.1 (83.6 to 92.9) 222 92.1 (88.0 to 94.9) 179 95.7 (91.7 to 97.9)
Seek healthcare among the total sample
 No 270 56.3 (51.8 to 60.6) 319 66.2 (61.8 to 70.3) 258 53.8 (49.3 to 58.2) 303 62.9 (58.4 to 67.1) −0.8 −0.2
 Yes 210 43.8 (39.4 to 48.2) 163 33.8 (29.7 to 38.2) 222 46.3 (41.8 to 50.7) 179 37.1 (32.9 to 41.6)
Seek healthcare from MTPs among the ill workers
 No 159 75.7 (69.4 to 81.1) 80 49.1 (41.5 to 56.8) 124 55.9 (49.2 to 62.3) 99 55.3 (47.9 to 62.5) 26.1*** 18.4**
 Yes 51 24.3 (18.9 to 30.6) 83 50.9 (43.2 to 58.5) 98 44.1 (37.7 to 50.8) 80 44.7 (37.5 to 52.1)
Self-reported illness/symptoms
 Communicable diseases 68 29.4 (23.9 to 35.7) 53 29.0 (22.8 to 36.0) 77 32.0
(26.4 to 38.1)
52 27.8 (21.8 to 34.7)
 Non-communicable diseases 14 6.1 (3.6 to 10.0) 4 2.2 (0.8 to 5.7) 13 5.4 (3.2 to 9.1) 2 1.1 (0.3 to 4.2)
 Accident and injuries 2 0.9 (0.2 to 3.4) 2 1.1 (0.3 to 4.3) 2 0.8 (0.2 to 3.3) 2 1.1 (0.3 to 4.2)
 Female reproductive health problem and delivery care 1 0.4 (0.1 to 3.0) 2 1.1 (0.3 to 4.3) 3 1.2 (0.4 to 3.8) 10 5.3 (2.9 to 9.7)
 Symptoms of illness 130 56.3 (49.8 to 62.6) 100 54.6 (47.4 to 61.7) 131 54.4 (48.0 to 60.6) 103 55.1 (47.9 to 62.1)
 Others 16 6.9 (4.3 to 11.0) 22 12.0 (8.0 to 17.6) 15 6.2 (3.8 to 10.1) 18 9.6 (6.1 to 14.8)
Healthcare provider used
 Public 4 1.9 (0.7 to 5.0) 5 3.1 (1.3 to 7.2) 4 1.8 (0.7 to 4.7) 9 5.0 (2.6 to 9.4)
 Private 198 94.3 (90.2 to 96.7) 155 95.1 (90.5 to 97.5) 209 94.1 (90.2 to 96.6) 162 90.5 (85.2 to 94.0)
 Others (eg, traditional) 8 3.8 (1.9 to 7.5) 3 1.8 (0.6 to 5.6) 9 4.1 (2.1 to 7.6) 8 4.5 (2.2 to 8.7)
Inpatient care used
 No 201 95.7 (92.0 to 97.8) 153 93.9 (88.9 to 96.7) 217 97.7 (94.7 to 99.1) 175 97.8 (94.2 to 99.2) 1.9 −0.1
 Yes 9 4.3 (2.2 to 8.0) 10 6.1 (3.3 to 11.1) 5 2.3 (0.9 to 5.3) 4 2.2 (0.8 to 5.8)

*P<0.1, **P<0.05, ***P<0.01.

DiD, difference-in-difference; MTP, medically trained provider; RMG, ready-made garment.

Effect on OOP healthcare payment

Table 3 summarises the OOP payments for healthcare of RMG workers in IG and UG. The descriptive statistics showed that at preintervention IG and UG spent 1197.7 BDT or US$15.4 (CI 483.5 BDT to 1911.9 BDT) and 817.8 BDT or US$10.5 (CI 531.2 BDT to 1104.4 BDT) for healthcare, respectively. It reduced to 951.3 BDT or US$12.2 (CI 567.5 BDT to 1335.1 BDT) among the IG workers and increased to 1681.1 BDT or US$21.6 (CI 611.0 BDT to 2751.2 BDT) among the UG workers. In sum, the DiD estimate showed that the difference in OOP healthcare expenditure for any provider between IG and UG was not statistically significant. A similar result was observed for OOP spendings on healthcare utilisation of MTPs.

Table 3.

Out-of-pocket payments (BDT) for healthcare among insured and uninsured ready-made garment workers during the preintervention and postintervention period

Items Preintervention Postintervention DiD
Insured group Uninsured group Insured group Uninsured group
n Mean (BDT)
(95% CI)
n Mean (BDT)
(95% CI)
n Mean (BDT)
(95% CI)
n Mean (BDT)
(95% CI)
Mean (BDT)
(p value)
Consultation fee 48 292.2
(239.9 to 344.5)
38 227.5
(179.8 to 275.2)
41 528.8
(154.4 to 903.1)
30 448
(237.1 to 658.9)
Medicine cost 204 634.5
(334.4 to 934.6)
129 523.3
(383.1 to 663.5)
156 555.8
(401.8 to 709.9)
155 971.6
(445.6 to 1497.7)
Accommodation cost 3 2033.3
(−1281.2 to 5347.8)
0 0 4 1950.0
(−216.8 to 4116.8)
5 4460.0
(−2442.3 to 11 362.3)
Diagnostic cost 13 2111.5
(505.5 to 3717.5)
17 515.3
(346.4 to 684.2)
15 2216.7
(711.3 to 3722.0)
22 2261.4
(903.7 to 3619.0)
Transport cost 46 199.7
(−20.5 to 419.9)
36 220.0
(84.1 to 355.9)
38 291.11
(80.06 to 502.2)
52 215.7
(95.2 to 336.2)
Other cost 5 266.0
(24.9 to 507.1)
4 3725.0
(−3292.3 to 10 742.3)
11 339.5
(86.2 to 592.9)
19 678.9
(−432.9 to 1790.7)
Total OOP payments for care-seeking from all providers 204 1197.7
(483.5 to 1911.9)
131 817.8
(531.2 to 1104.4)
165 951.3
(567.5 to 1335.1)
158 1681.1
(611.0 to 2751.2)
−1100.0 (0.132)
Total OOP payments for care-seeking from MTP 47 3567.7
(633.9 to 6501.5)
51 1329.4
(928.9 to 1729.9)
42 2268.7
(896.1 to 3641.3)
59 3689.7
(880.7 to 6498.7)
−3700 (0.114)

BDT, Bangladeshi taka; DiD, difference-in-difference; MTP, medically trained provider; OOP, out-of-pocket; RMG, ready-made garment.

The results from the two-part regression model are presented in table 4. These models (models 4 and 5) showed that the ESHI scheme has no effect on reduction of OOP healthcare expenditure for those seeking care from all types of providers or from MTPs. However, OOP expenditure for seeking healthcare from all types of providers was positively associated with inpatient care and chronic illness. For such care, female workers were spending less as OOP for healthcare compared with male workers. The supervisor/administrative staff spent less on healthcare than other workers. OOP expenditure due to utilisation of MTP was positively associated with inpatient care only.

Table 4.

Two-part regression analysis of out-of-pocket healthcare expenditure (natural logged) for seeking care from all types of providers and from MTPs

Characteristics Description Model 1: seek care from all providers Model 2: seek care from MTPs
First stage
(participation logit equation)
Second stage (expenditure log regression) First stage (participation logit equation) Second stage (expenditure log regression)
OR
(95% CI)
Coefficient
(95% CI)
OR (95% CI) Coefficient (95% CI)
Health insurance status Insured (ref=matched uninsured) 1.276*** (1.131 to 1.439) −0.122
(−0.354 to 0.109)
0.889 (0.757 to 1.044) −0.143
(−0.556 to 0.270)
Time dummy Postintervention (ref=preintervention) 1.049
(0.919 to 1.197)
0.0173
(−0.238 to 0.273)
0.942 (0.792 to 1.121) 0.189
(−0.258 to 0.636)
Sex Male (ref=female) 0.770***
(0.67 to 0.884)
−0.294**
(−0.569 to 0.0192)
0.687*** (0.57 to 0.826) −0.262
(−0.771 to 0.247)
Age (years) 20–30 (ref=<20) 1.249**
(1.049 to 1.486)
0.146
(−0.186 to 0.477)
1.234* (0.969 to 1.571) 0.305
(−0.349 to 0.960)
30–40 (ref=<20) 1.083
(0.865 to 1.355)
0.332
(−0.0971 to 0.761)
1.226 (0.909 to 1.654) −0.0261
(−0.811 to 0.759)
40+ (ref=<20) 1.157
(0.863 to 1.55)
0.164
(−0.399 to 0.727)
1.108 (0.74 to 1.659) 0.334
(−0.775 to 1.443)
Marital status Married (ref=unmarried) 1.068
(0.908 to 1.255)
0.168
(−0.147 to 0.484)
1.225* (0.974 to 1.54) −0.223
(−0.861 to 0.415)
Others (ref=unmarried) 1.251
(0.855 to 1.833)
−0.113
(−0.790 to 0.564)
1.415 (0.879 to 2.275) −0.953
(−2.135 to 0.229)
Education Secondary (ref=primary) 1.206**
(1.037 to 1.401)
0.0323
(−0.258 to 0.322)
1.106 (0.905 to 1.354) −0.0412
(−0.566 to 0.483)
Higher secondary and above (ref=primary) 1.020
(0.737 to 1.411)
−0.197
(−0.871 to 0.477)
1.066 (0.699 to 1.626) 0.0805
(−1.036 to 1.197)
Job position Supervisor/admin-level worker (ref=other worker) 1.038
(0.862 to 1.251)
−0.302* (−0.656 to 0.0528) 1.086 (0.852 to 1.384) −0.160
(−0.783 to 0.463)
Income Logged income per month 0.78***
(0.649 to 0.939)
0.246
(−0.111 to 0.603)
1.225 (0.959 to 1.565) −0.0365
(−0.742 to 0.669)
Chronic illness Suffered chronic illness (ref=other illness) 5.244*** (2.784 to 9.875) 0.699** (0.127 to 1.272) 2.886*** (1.804 to 4.618) 0.540
(−0.306 to 1.386)
Inpatient care Sought inpatient care
(ref=outpatient care)
1.717*** (1.160 to 2.274) 2.071***
(1.335 to 2.807)
Healthcare provider Private (ref=public) −1.013***
(−1.635 to 0.390)
Others (ref=public) −0.344
(−1.172 to 0.484)
Constant 4.816*
(0.952 to 24.337)
4.360*** (1.155 to 7.566) 0.039*** (0.004 to 0.334) 7.094** (0.880 to 13.31)
n 1924 658 1924 199
Pseudo-R-squared/adjusted R-squared 0.070 0.099 0.07 0.119

*P<0.1, **P<0.05, ***P<0.01.

MTPs, medically trained providers; OOP, out-of-pocket; ref, reference.

Discussion

This study, based on representative surveys of preintervention and postintervention periods among RMG workers, is the first to consider the effect of the ESHI scheme on the utilisation of MTP in Bangladesh and on OOP expenditure. We found healthcare utilisation of MTPs significantly increased among the insured compared with the uninsured workers (DiD=26.1; p<0.01). While accounting for the effects of covariates (eg, age, sex, education, marital status, household income, job position, and type of illness suffered), the DiD estimate changed to 18.4 (p<0.05) and remained significant. Healthcare from MTP became more accessible to RMG workers when they enrolled in the ESHI scheme. Generally, the RMG workers have limited access to quality healthcare services. Therefore, increasing utilisation of MTPs was an important achievement of the ESHI scheme.15 However, we did not find any statistically significant effect of the ESHI scheme on the reduction of OOP healthcare expenditure. We found that RMG workers used healthcare providers or facilities (eg, drug sellers, traditional healers and private healthcare providers) which were not covered by the ESHI scheme. This might be due to their continued healthcare utilisation behaviour prior to enrolment in the insurance scheme. It has been observed in other studies that insured workers used healthcare from service providers those are not designated under their insurance schemes.33 Behaviour change communication intervention or educational intervention can be conducted among ESHI scheme members to inform them about the benefits of the scheme and the importance of using MTP.33 A standard treatment protocol was employed for the ESHI scheme to minimise supplier-induced healthcare utilisation. Further, the chances of overutilisation of healthcare services by RMG workers or moral hazard was limited since generally these workers significantly underuse healthcare services, as evidenced by other studies.15 16

Health insurance is warranted in many low-and-middle-income countries (LMICs) since reliance on OOP payments for healthcare services leads to catastrophic burden for many households. Approximately 4.2 million people are workers of the RMG industry in Bangladesh, however, the industry lacks adequate healthcare facilities for them.15 Health insurance for this specific group of RMG workers can increase healthcare accessibility and utilisation at an affordable price.34 35

The findings from this study were similar to a number of studies that have examined the effects of health insurance/micro-health insurance schemes on healthcare utilisation and financial outcomes among members.22 36–40 Four studies have found higher utilisation of healthcare services among the insured individuals in different settings such as Congo,41 Senegal,42 India43 and Philippines.22 36 In addition, Hamid et al 44 found that micro-health insurance improves the health status of insured members, which increases productivity and labour supply. Such positive effects of the studied ESHI scheme on utilisation may also increase the production of RMG sectors. However, the International Labour Organization found that only 14 out of 24 studies that examined the healthcare utilisation effects of health insurance observed positive outcomes.40 Jakab and Krishnan,45 in a review, showed that 13 out of 16 studies reported that the insured members were likely to use more healthcare services than non-members; 2 studies found no difference while 1 study found a slight decrease in healthcare use. Another study conducted by Raza e t al 46 on community-based health insurance in India reported that the health insurance scheme had no significant effect on any utilisation outcome and there was no significant evidence of reducing financial hardship.

The statistically non-significant effect of the ESHI scheme on reducing OOP healthcare expenditure could be explained by the healthcare-seeking behaviour of the insured workers. We observed that a proportion of the insured workers continued to use health services from formal and informal providers (drug store, traditional healers and so on) out of the scheme at their own payments, despite their access to providers designated by the insurance scheme at no cost. Consequently, OOP payments of the insured workers remained high. Such healthcare-seeking behaviour of workers during their first and 1 year of enrolment might have influenced our findings considerably. Our study did not analyse the health outcomes of the enrollees in this study and was limited within the investigation of healthcare utilisation and OOP payment. It, therefore, might be useful to note here that the utilisation of informal care providers by insured workers might have contributed to their health outcome. The impact of health insurance on health outcomes should be studied to better estimate and understand the value for money of such interventions. We, however, believe that an educational intervention on health-seeking behaviour and financial literacy of workers and their enrolment in the scheme for a longer period might be useful in changing their behaviour towards utilisation of healthcare providers designated by the insurance scheme. We found the average OOP payments of RMG workers were 1329.4 BDT and 3567.7 BDT in UG and IG, respectively in preintervention period. Khan et al 47 estimated that the OOP payment of Bangladeshis was 644.6 BDT for 30 days (or 1933.8 BDT for 3 months) using nationwide household income expenditure survey of 2010. Although this estimate was not directly comparable with our estimate due to the difference in study population, the average OOP spending we estimated for a 3-month period was more or less similar.

The limited maximum coverage, that is, 15 000 BDT per year per worker, by the insurance scheme might not be adequate to cover the OOP healthcare expenditure of the scheme enrollees. However, this low maximum coverage per member per year was kept to secure the scheme’s financial sustainability, especially during the pilot phase where prior knowledge about the expenditure of health insurance schemes was limited in Bangladesh in general and for RMG workers in particular.48 The insurance scheme management should revise this annual ceiling amount to meet the high cost of treatment (eg, multiple inpatient care utilisation) based on the experience of this pilot phase. Another limitation of the ESHI scheme was that the scheme contracted a few healthcare facilities that may affect the healthcare-seeking behaviour of the insured RMG workers. We found a number of RMG workers were using healthcare services from drug sellers and traditional providers while they are covered by the scheme, and this may obscure the effect of this scheme on reducing the OOP healthcare expenditure. The scheme management can include more healthcare service delivery points based on the opinion of the RMG workers. The initiative should be taken by the scheme manager to better inform the RMG workers about the available services under the ESHI scheme and motivate them to use such services. This scheme has potential to be scaled up in the existing RMG factories and other industries in Bangladesh. The political will of the government and the willingness of the RMG factory owners will be fundamental to the large-scale implementation of ESHI schemes and their sustainability. However, before the scale-up of the scheme, financial sustainability should be tested, and this was beyond the scope of the current study.

One possible limitation of the study is that we were unable to follow up the same workers during the preintervention and postintervention period. This was not possible due to the high dropout rate of RMG workers. However, RMG workers were randomly selected from the list of workers for both IG and UG in the preintervention and postintervention period, and no significant difference was observed in the demographic characteristics of the workers (table 1). Another limitation was that the ESHI scheme was implemented for a 1-year period, which may be a short time to assess the OOP healthcare expenditure effect of this scheme. Several studies reported findings without preintervention to assess the utilisation effect of health insurance.22 37 43 49 However, this study used a pre–post intervention design considering two groups that provide an opportunity to obtain DiD estimates, which is a standard approach to assess the effects of any intervention.25 There are possibilities of recall bias and bias on self-reported information about illness, healthcare utilisation and OOP healthcare expenditure among RMG workers who have poor knowledge about medical conditions and healthcare services.50 51 However, we used a 90-day recall period to minimise such biases. We were unable to test the parallel trend assumption of the DiD approach in this study. We did not include a midline survey in this evaluation study considering the short period of the ESHI pilot scheme (1 year) and the budgetary constraint for data collection, and are thus potential limitations of this study.

Conclusions

The ESHI scheme had a significant effect on increasing healthcare utilisation of MTPs and a non-significant effect on reduction in the OOP healthcare expenditure. Educational intervention on healthcare-seeking behaviour and related financial literacy can be recommended to increase RMG workers’ utilisation of healthcare services provided by insurance scheme-designated healthcare providers, which consequently would reduce OOP payments. The employers, therefore, should promote ESHI scheme to RMG workers to address the challenge of UHC. For better understanding the value for money, future studies on the impact of the ESHI scheme on health outcomes are required.

This kind of scheme can generate new resources for providing healthcare to low-income RMG workers in LMICs through employer contribution. The healthcare financing strategy of the government of Bangladesh as well as the WHO should prioritise such schemes for workers.11 52 This study contributes to the concept of initiating such schemes at a broader scale and informing policymakers on the key issues to consider while designing such schemes in the future.

Supplementary Material

Reviewer comments
Author's manuscript

Acknowledgments

icddr, b acknowledges with gratitude the commitment of Swiss TPH to its research efforts. icddr, b is also grateful to the governments of Bangladesh, Canada, Sweden and the UK for providing core/unrestricted support. We thank the Bangladesh Diabetic Samiti (BADAS) for their cordial cooperation in conducting this study. Gratitude goes to all data collectors for their hard work during data collection. Finally, we are thankful to RMG factory owners (New Asia Group) and workers for their time and cooperation in this study.

Footnotes

Twitter: @marufa_sultana, @m_zahidhasan

Contributors: JAMK, AKAK, NG and SA conceptualised the research idea, study design, literature search, data extraction and analysis, data interpretation, and writing the manuscript. ARS, MS, FR, MK, RAM, MZH, AJM, ZI, CR and LWN contributed to writing, reviewing and revising the manuscript. All authors read and approved the final manuscript.

Funding: This work was supported by the Swiss Agency for Development and Cooperation (SDC) through the Swiss Tropical and Public Health Institute (Swiss TPH).

Competing interests: None declared.

Patient consent for publication: Not required.

Ethics approval: Written informed consent was obtained from each RMG worker after explaining the aims of the study. They were also informed that participation in the interview was voluntary and they can withdraw at any time if they are not comfortable. The Institutional Review Board of icddr, b reviewed and approved the study.

Provenance and peer review: Not commissioned; externally peer reviewed.

Data availability statement: Data are available upon reasonable request.

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