Key Points

Question: What is the cost to the US economy of racial and ethnic health inequities?

Meaning: The costs of racial and ethnic health inequities are unacceptably high and warrant societal investments in policies and interventions to promote health equity.

Abstract

The study used cross-sectional analysis using nationally representative secondary data to estimate the economic burden of racial and ethnic health inequities in the US. The data included 2016-2019 data from the Medical Expenditure Panel Survey (MEPS), state-level Behavioral Risk Factor Surveillance System (BRFSS), 2016-2018 mortality data from the National Vital Statistics System (NVSS), and 2018 IPUMS American Community Survey (ACS).

87,855 survey respondents to MEPS, 1,792,023 survey respondents to the BRFSS, and 8,416,203 death records from the NVSS were exampled to determine the sum of excess medical care costs, lost labor market productivity, and excess premature death (before age 78) costs by race and ethnicity compared to health equity goals.

Background

Most racial and ethnic health inequities exist because there are differences among these groups in their exposure to economic, social, structural, and environmental risks and their access to healthcare. This study was commissioned by the NIMHD and updates our previous estimates of the US’s economic burden of health inequities. We focused on American Indian or Alaska Native (AIAN), Asian, Black or African American (Black), Hispanic or Latino (Latino), and Native Hawaiin or Other Pacific Islander (NHOPI) because their health is impacted by disparities in the health care delivery system, public health system, employment, education, transportation, public safety, and other systems that are social determinants of health. The study shows that health inequities are also an economic concern for society.

Methods

Detailed Description of the Methodology

To compute excess medical care expenditures and lost labor market productivity, we used an incremental approach based on regression models for medical care costs, hours worked, wages, and sick days. We simulated the outcomes using the prevalence rates from the MEPS or BRFSS data and health equity goals. We computed the costs of health inequities as the difference between the predicted outcomes using the actual health conditions and the healthy equity targets. To estimate the cost of premature death, we computed crude death rates by race and ethnicity for ten age groups: under 1, 1-9, 10-19, 20-29, 30-29, 40-49, 50-59, 60-69, 70-79, and 80 and over. We then estimated the number of deaths that would have occurred for each racial/ethnic group if every group’s death rate were equal to the health equity target death rate within each category. The difference between the actual number of deaths and the estimated deaths represents “excess deaths.” We computed the number of years of life lost in each racial/ethnic group by assuming that all persons would have lived to age 78 had they not died prematurely since that was the average life expectancy in the US in 2018. We then computed the premature death cost by multiplying the years of life lost by $100,000. (View Figure 1)

Figure 1. Health Inequity vs Health Disparity

2019 Coronary heart disease death rate. Health inequity and disparity are illustrated for each of 6 racial and ethnic population groups. The baseline for health inequity (shown in blue) is the Healthy People 2030 equity goal. The baseline for health disparity (shown in orange) is the mean for the White population.
2019 Coronary heart disease death rate. Health inequity and disparity are illustrated for each of 6 racial and ethnic population groups. The baseline for health inequity (shown in blue) is the Healthy People 2030 equity goal. The baseline for health disparity (shown in orange) is the mean for the White population.

Definition of Health Equity Perspective

We established a health equity target of reaching the 90th percentile of the predicted prevalence rates for health conditions and the 10th percentile of crude deaths. Using the MEPS adult sample, we estimated prevalence models for each health condition, including fair/poor health, diabetes, joint pain/arthritis, depression, any limitation of activities, hypertension, high cholesterol, stroke, heart attack, coronary heart disease/angina, asthma, emphysema/chronic bronchitis, and cancer. The sample was divided into 14 cohorts based on sex and seven more age groups: 18-24, 25-34, 35-44, 45-54, 55-64, 65-74, and 75 and over. Within each cohort, we identified the risk of each health condition at the 90th percentile. To compute years of life lost due to premature death, we ordered the states from lowest to highest crude death rates for each category, identified the 5th state with the lowest rate, and used the crude death rate for that state as the healthy equity goal for that age category.

Estimating the Direct Cost of Medical Care Due to Excess Morbidity

Modeling Medical Care Expenditures

Using the MEPS data, we built a regression model from the 2016 survey. We used a two-part estimation technique for the medical costs. The first part was a logistic regression model to estimate the impact of health conditions on the probability of having any time of medical care expenditures, and the second part was a generalized linear model to estimate the impact of the conditions on levels of expenditures for individuals with positive expenditures. Our dependent variable was total medical expenditures, and the predictor values were the health conditions.

Predicting Excess Medical Care Expenditures

Using the MEPS and BRFSS data, we simulated medical care costs using the reported health conditions and assigned each group the target prevalence rate for the condition within the age/sex cohort. The respondents in each cohort were randomly assigned the conditions using a uniform distribution, so the prevalence rate for the condition was at the 90th percentile. We randomly chose 1,000 samples to get one predicted probability and one predicted mean for the models. We repeated this exercise 1,000 times to get 1,000 predicted probabilities and 1,000 predicted means by race and ethnicity.

Estimating the Value of Lost Labor Market Productivity

To compute the value of lost productivity, we built three separate two-part labor market models. We estimated the impact of health conditions on three outcomes: disability and illness on sick days, annual hours of work, and wages for working adults ages 25-64.

We predicted disability days off from work, annual hours worked, and hourly wages using the reported health conditions from the MEPS and BRFSS data. We then simulated the labor market outcomes by assigning each group a health condition.

Estimating the Costs of Excess Premature Death

Premature deaths are deaths that may be preventable through lifestyle modifications, better access to health care, and basic resources, such as food and housing. Typical measures of premature death estimate potential life lost when death occurs before one would expect according to population average death rates.

Calculating the Costs of Premature Death based on Willingness to Pay

Willingness to pay is a comprehensive measure of the private valuation individuals place on small reductions in risk of death. Generally, an individual’s willingness to pay has been assessed using surveys. Conceptually, the measure captures everything that would contribute to a person’s well-being, including time preference, non-labor income, the value of leisure, and the value of pain and suffering.

Analytic Approach

The estimate of costs of health inequities has three components: excess medical care expenditures, lost labor market productivity, and premature death costs. To compute excess medical care expenditures and lost labor market productivity, we used an incremental approach based on regression models for medical care costs; hours worked, wages, and sick days simulating costs using the MEPS or BRFSS data. To estimate the cost of premature death, we computed crude death rates by race and ethnicity for ten age groups: under 1, 1-9, 10-19, 20-29, 30-29, 40-49, 50-59, 60-69, 70-79, and 80 and over. We then estimated excess deaths and subsequent years of life lost reality to the health equity goals. We valued a year of life lost at $100,000 to reflect recent estimates, which have valued willingness to pay at $95,000 to up to $264,000.

Results

In 2018, the overall economic burden of failing to achieve the health equity goals was $1.03 trillion. This included $421.1 billion for racial and ethnic minorities and $608.7 billion for the White population. For racial and ethnic minorities, approximately two-thirds of the economic burden was attributable to premature death, while excess medical care costs were 18% and lost labor market productivity were 14%. The study also found that most of the costs were attributable to the Black population; however, costs attributable to Native Hawaiian or Other Pacific Islander and American Indian or Alaska Native populations were disproportionately greater than their share of the population.

View All Tables and Figures

Discussion

The economic costs of racial and ethnic health inequities are unacceptably high. In some states, the economic burden of racial and ethnic health inequity is over twice the growth rate of the nation’s economy. Therefore, federal, state, and local policymakers must invest resources to develop research, policies, and practices to eliminate these inequities in the US. Additionally, state health policymakers and state officers of minority health should use this information to guide their policies and programs to address the inequities in their state. The magnitude of the costs is not the only thing that needs to be considered, but also how the state’s costs compare to the size of their economy.

The COVID-19 pandemic has increased the cost of health inequities, given the pandemic’s disproportionate impact on Black, Latino, and AIAN populations. With the higher excess death rates due to the pandemic, an increased number of hospitalizations, and disruptions to the labor market that employ large numbers of Black and Latino workers, we anticipate the cost of health inequity will have increased in 2020 and 2021 due to its disruption of follow-up visits, screening tests, and even treatments that would have likely resulted in reduced early detection of cancers and costly chronic illnesses. Furthermore, worsening mental health, substance misuse, and violence will exacerbate existing disparities in the area. This disruption in care may have reduced medical care expenditures in the short term, but the delay in treatment may increase care costs in future years.

With our study, there were several limitations. First, we could not always compute estimates for the AIAN and NHOPI populations, even when we pooled the data across three years, because the sample sizes were too small. Second, the MEPS excludes persons residing in institutions and persons in the military, so our medical care and labor market estimates exclude costs associated with these groups. We also excluded children since they face different health inequities than adults and are not typically in the labor force. However, the premature death calculation does include children, persons in institutions, and persons in the military. Third, our labor market outcomes model excluded adults over 64 and under 25. Fourth, our simulation assigned health conditions to individuals as the occurrence of one condition is unrelated to the others, even though it is well-known that some conditions are more likely to co-occur with others, such as diabetes, hypertension, and heart disease. It is unclear how this lack of accounting for the covariance biases our excess medical care costs and lost labor market productivity estimates.

The costs and racial and ethnic health inequities to the US economy are substantial and more than justify the societal investment in developing policies and programs to eliminate health inequities and larger data sets for smaller racial and ethnic subpopulations. Even a modest reduction in health inequalities can save the nation billions of dollars in medical spending and lost labor market productivity annually.

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Figure 1. Health Inequity vs Health Disparity

2019 Coronary heart disease death rate. Health inequity and disparity are illustrated for each of 6 racial and ethnic population groups. The baseline for health inequity (shown in blue) is the Healthy People 2030 equity goal. The baseline for health disparity (shown in orange) is the mean for the White population

2019 Coronary heart disease death rate. Health inequity and disparity are illustrated for each of 6 racial and ethnic population groups. The baseline for health inequity (shown in blue) is the Healthy People 2030 equity goal. The baseline for health disparity (shown in orange) is the mean for the White population.

Table 1. Economic Burden of Excess Medical Care Expenditures, Loss of Productivity, and Premature Death Attributable to Racial and Ethnic Health Inequities in the US in 2018 ($ Billions)

  • Abbreviations: BRFSS, Behavioral Risk Factor Surveillance System; MEPS, Medical Expenditure Panel Survey; NVSS, National Vital Statistics System.
  • Native Hawaiian and Other Pacific Islander samples in the MEPS for age-sex cohorts were too small to compute estimates for medical care spending and labor market productivity.
  • Because the study primarily focuses on the burden of health inequities for racial and ethnic minorities, state-level estimates were not computed for the White population using the BRFSS.

 

Cost, $ in billions

Outcome

American Indian or Alaska Native

Asian

Black

Latino

Native Hawaiian or Other Pacific Islander

Total health inequities for non-White populations

White

Total

MEPS and National NVSS Estimates

Excess medical care costs

2.8

4.9

42.0

25.4

 

75.1

183.3

258.4

Lost labor market productivity

4.7

0.9

31.5

22.0

 

59.1

90.0

149.1

Excess premature deaths

20.0

0.0

238.0

9.4

19.5

286.9

335.4

622.3

Total

27.5

5.8

311.5

56.8

19.5

421.1

608.7

1029.8

BRFSS and State NVSS Estimates

Excess medical care costs

3.5

4.6

36.8

31.3

0.6

76.8

 

 

Lost labor market productivity

3.3

3.6

33.2

40.3

0.6

81.0

 

 

Excess premature deaths

19.5

0.2

239.6

22.6

11.1

293.0

 

 

Total

26.3

8.4

309.6

94.2

12.3

450.8

 

 

Table 2. Total Economic Burden of Health Inequities for each State and the District of Columbia in 2018 ($ Millions)

The bar graph is a visual representation of each number for purposes of comparison.

To compute excess medical care costs and lost labor market productivity, the authors computed states level estimates for 50 states and the District of Columbia (DC). State level prevalence rates for each race and ethnic group were computed using data from the 2016-2019 BRFSS. These rates were used to simulate medical care costs and labor market outcomes adjusting for age, gender, race, marital status, insurance status, education, family income, health status, health conditions and census regions of the country). Excess premature death costs were computed for each state and DC using state level data from National Vital Statistic System. GDP by states are published by The Bureau of Economic Analysis. Dollar amounts are in millions.

Total
State Total
AL 13741.2
AK 2253.9
AZ 7867.7
AR 4652.6
CA 39502.5
CO 4131.4
CT 2330.3
DE 1839.3
DC 3487.4
FL 27346.5
GA 21156.0
HI 4457.5
ID 1407.0
IL 29253.8
IN 6849.7
IA 1533.4
KS 3541.8
KY 4097.8
LA 15308.8
ME 280.6
MD 14412.7
MA 3637.0
MI 16074.9
MN 4620.2
MS 10290.0
MO 8673.9
MT 1367.2
NE 1483.7
NV 8748.2
NH 284.3
NJ 10287.3
NM 5933.5
NY 18750.5
NC 19817.3
ND 767.1
OH 14868.9
OK 7677.2
OR 1745.6
PA 14723.2
RI 1187.0
SC 12140.9
SD 1587.0
TN 11211.9
TX 40606.2
UT 2565.3
VT 47.4
VA 11606.4
WA 5161.2
WV 403.4
WI 4568.6
WY 229.5
American Indian or Alaska Native
State American Indian or Alaska Native
AL 9977
AK 17057
AZ 13247
AR 8550
CA 11240
CO 10274
CT 3769
DE 5585
DC 7480
FL 11504
GA 2176
HI 2428
ID 10335
IL 8295
IN 3586
IA 11168
KS 16676
KY 14348
LA 5651
ME 7232
MD 6228
MA 8850
MI 16615
MN 22096
MS 15517
MO 4577
MT 17314
NE 12245
NV 9571
NH 18509
NJ 3311
NM 12899
NY 3141
NC 10051
ND 15406
OH 6922
OK 12593
OR 10225
PA 13243
RI 9632
SC 4724
SD 20275
TN 13220
TX 6108
UT 9824
VT 9209
VA 2328
WA 17976
WV 10054
WI 10802
WY 10209
Asian
State Asian
AL 71
AK 164
AZ 398
AR 16
CA 634
CO 219
CT 353
DE 169
DC 197
FL 263
GA 325
HI 782
ID 71
IL 475
IN 192
IA 59
KS 263
KY 28
LA 53
ME 147
MD 649
MA 187
MI 156
MN 314
MS 74
MO 269
MT 245
NE 119
NV 641
NH 24
NJ 777
NM 171
NY 819
NC 300
ND 174
OH 101
OK 155
OR 346
PA 283
RI 148
SC 105
SD 29
TN 116
TX 130
UT 110
VT 143
VA 445
WA 511
WV 653
WI 160
WY 148
Black
State Black
AL 10254
AK 6490
AZ 5888
AR 9387
CA 7801
CO 6042
CT 5012
DE 7158
DC 10912
FL 6459
GA 6334
HI 1827
ID 2058
IL 9836
IN 10185
IA 9058
KS 9650
KY 9968
LA 9965
ME 814
MD 7190
MA 3770
MI 10202
MN 5579
MS 8801
MO 11790
MT 648
NE 7793
NV 9613
NH 816
NJ 7068
NM 5808
NY 4340
NC 7486
ND 411
OH 10022
OK 11100
OR 8321
PA 8940
RI 4198
SC 8929
SD 184
TN 9494
TX 6987
UT 3653
VT 362
VA 6575
WA 7205
WV 4108
WI 10636
WY 175
Latino
State Latino
AL 1494
AK 6461
AZ 1048
AR 857
CA 828
CO 2018
CT 855
DE 4086
DC 419
FL 1133
GA 687
HI 7073
ID 5621
IL 5136
IN 1268
IA 2526
KS 4803
KY 2681
LA 1222
ME 10095
MD 2472
MA 2177
MI 2761
MN 5012
MS 2145
MO 1063
MT 6365
NE 3082
NV 6725
NH 4819
NJ 914
NM 3300
NY 1326
NC 2619
ND 6070
OH 1295
OK 2452
OR 989
PA 2535
RI 5696
SC 680
SD 4133
TN 1365
TX 1501
UT 4723
VT 1709
VA 1126
WA 761
WV 3147
WI 612
WY 1754
Native Hawaiian or Other Pacific Islander
State Native Hawaiian or Other Pacific Islander
AL 1358
AK 604
AZ 20487
AR 2555
CA 35476
CO 12705
CT 3195
DE 11126
DC 443
FL 36384
GA 13201
HI 24017
ID 9728
IL 2710
IN 954
IA 1877
KS 3292
KY 25084
LA 6839
ME 6020
MD 1805
MA 3106
MI 578
MN 2410
MS 17241
MO 7056
MT 9739
NE 3119
NV 20712
NH 6078
NJ 1187
NM 3914
NY 33195
NC 17124
ND 590
OH 1151
OK 1032
OR 13064
PA 1017
RI 444
SC 1595
SD 1631
TN 549
TX 37993
UT 6968
VT 998
VA 16909
WA 21175
WV 5474
WI 512
WY 1348
Economic Burden per Capita in US Dollars for Racial and Ethnic Health Inequities in 2018
Location American Indian or Alaska Native Asian Black Latino Native Hawaiian or Other Pacific Islander
AL 9977 71 10254 1494 1358
AK 17057 164 6490 6461 604
AZ 13247 398 5888 1048 20487
AR 8550 16 9387 857 2555
CA 11240 634 7801 828 35476
CO 10274 219 6042 2018 12705
CT 3769 353 5012 855 3195
DE 5585 169 7158 4086 11126
DC 7480 197 10912 419 443
FL 11504 263 6459 1133 36384
GA 2176 325 6334 687 13201
HI 2428 782 1827 7073 24017
ID 10335 71 2058 5621 9728
IL 8295 475 9836 5136 2710
IN 3586 192 10185 1268 954
IA 11168 59 9058 2526 1877
KS 16676 263 9650 4803 3292
KY 14348 28 9968 2681 25084
LA 5651 53 9965 1222 6839
ME 7232 147 814 10095 6020
MD 6228 649 7190 2472 1805
MA 8850 187 3770 2177 3106
MI 16615 156 10202 2761 578
MN 22096 314 5579 5012 2410
MS 15517 74 8801 2145 17241
MO 4577 269 11790 1063 7056
MT 17314 245 648 6365 9739
NE 12245 119 7793 3082 3119
NV 9571 641 9613 6725 20712
NH 18509 24 816 4819 6078
NJ 3311 777 7068 914 1187
NM 12899 171 5808 3300 3914
NY 3141 819 4340 1326 33195
NC 10051 300 7486 2619 17124
ND 15406 174 411 6070 590
OH 6922 101 10022 1295 1151
OK 12593 155 11100 2452 1032
OR 10225 346 8321 989 13064
PA 13243 283 8940 2535 1017
RI 9632 148 4198 5696 444
SC 4724 105 8929 680 1595
SD 20275 29 184 4133 1631
TN 13220 116 9494 1365 549
TX 6108 130 6987 1501 37993
UT 9824 110 3653 4723 6968
VT 9209 143 362 1709 998
VA 2328 445 6575 1126 16909
WA 17976 511 7205 761 21175
WV 10054 653 4108 3147 5474
WI 10802 160 10636 612 512
WY 10209 148 175 1754 1348
US (overall) 12351 487 7797 1643 23225
Mean (SD) across states 10,281 (4,930) 262 (215) 6,614 (3,390) 2,856 (2,183) 8,976 (10,551)

Table 5. Economic Burden of Racial and Ethnic and Education-Related Health Inequities

Table 5 compares data from both this report and the Socioeconomic Health Report.

  • The “Racial and ethnic health inequities” totals do not compute state-level estimates for the White population and adults with 4-year college or more because the study focuses on burden of health inequities for disadvantaged populations.
  • The “Education-related health inequities” fields are divided by the 2018 gross domestic product for each states and the nation, which are published by The Bureau of Economic Analysis.
Economic Burden of Racial and Ethnic and Education-Related Health Inequities
  Racial and ethnic health inequities Education-related health inequities
Location Total, $ in million Share of gross domestic product, % Total, $ in million Share of gross domestic product, %
AL 13741.2 6.12 28431 12.66
AK 2253.9 4.11 2278 4.15
AZ 7867.7 2.35 16484 4.92
AR 4652.6 3.58 13210 10.18
CA 39502.5 1.31 59463 1.97
CO 4131.4 1.10 11203 2.97
CT 2330.3 0.83 7380 2.64
DE 1839.3 2.40 3523 4.60
DC 3487.4 2.45 2710 1.90
FL 27346.5 2.58 57230 5.40
GA 21156.0 3.52 32384 5.38
HI 4457.5 4.77 2727 2.92
ID 1407.0 1.79 3974 5.05
IL 29253.8 3.32 3974 5.05
IN 6849.7 1.84 24224 6.52
IA 1533.4 0.80 8749 4.54
KS 3541.8 2.09 8264 4.87
KY 4097.8 1.94 26132 12.35
LA 15308.8 5.99 23145 9.06
ME 280.6 0.43 4621 7.07
MD 14412.7 3.45 19037 4.56
MA 3637.0 0.63 18343 3.19
MI 16074.9 2.99 43710 8.14
MN 4620.2 1.23 10209 2.72
MS 10290.0 8.89 15561 13.44
MO 8673.9 2.68 23704 7.33
MT 1367.2 2.75 2689 5.42
NE 1483.7 1.19 5220 4.18
NV 8748.2 5.18 7864 4.66
NH 284.3 0.33 4443 5.16
NJ 10287.3 1.62 20577 3.24
NM 5933.5 5.85 7930 7.82
NY 18750.5 1.10 36411 2.14
NC 19817.3 3.44 48508 8.43
ND 767.1 1.38 1625 2.92
OH 14868.9 2.16 47793 6.94
OK 7677.2 3.78 16800 8.27
OR 1745.6 0.72 10551 4.34
PA 14723.2 1.83 43518 5.42
RI 1187.0 1.94 2616 4.26
SC 12140.9 5.18 42871 18.29
SD 1587.0 3.02 2488 4.74
TN 11211.9 3.00 36302 9.72
TX 40606.2 2.23 71127 3.91
UT 2565.3 1.42 5295 2.93
VT 47.4 0.14 1824 5.34
VA 11606.4 2.13 22055 4.05
WA 5161.2 0.90 19095 3.31
WV 403.4 0.51 6154 7.77
WI 4568.6 1.33 14068 4.11
WY 229.5 0.58 1655 4.15
Total 12187.6 2086514.0 977675 4.69

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Socioeconomic Health Report

This report estimates the economic burden of socioeconomic health inequities in the US.

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