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. 2026 Feb 28;19:568966. doi: 10.2147/RMHP.S568966

Pain-Related Disparities in Healthcare Expenditures Among Adults with Cancer in the United States: Evidence from the Medical Expenditure Panel Survey (2019–2022)

Bander Balkhi 1,
PMCID: PMC12958951  PMID: 41789384

Abstract

Background

Cancer-related pain is a common and debilitating symptom that reduces quality of life and increases healthcare utilization. While prior studies have examined pain in specific cancer populations, its national economic impact remains understudied.

Objective

To estimate pain prevalence among US adults with cancer, evaluate differences in healthcare expenditures by pain status, and identify drivers of these disparities, with the aim of informing value-based cancer care and pain management policies.

Methods

We analyzed 4368 adults with cancer from the 2019–2022 Medical Expenditure Panel Survey (MEPS). Pain defined as self-reported interference with normal activities in the past four weeks. Total healthcare expenditures including: inpatient, outpatient, prescription, emergency, and other costs were examined using generalized linear models, adjusting for demographic, socioeconomic, and clinical factors. Blinder–Oaxaca decomposition quantified contributions of observed and unobserved factors to expenditure differences.

Results

Pain was reported by 55% of adults with cancer. Unadjusted mean expenditures were higher for patients with pain ($22,072) versus those without ($13,366; p < 0.0001). Adjusted analyses indicated pain was associated with an incremental total cost of $4473 (p = 0.001), mainly driven by inpatient ($2002; p = 0.001), prescription ($1711; p = 0.045), and outpatient costs ($1347; p = 0.003). Decomposition analysis showed 64% of the expenditure difference was explained by observed factors particularly self-reported health and comorbidities, while 36% remained unexplained, suggesting gaps in pain assessment, care quality, or access to effective management strategies. Pain prevalence and associated costs were higher among older adults, socioeconomically disadvantaged individuals, and those with multiple chronic conditions.

Conclusion

Pain places a substantial economic burden on adults with cancer, with disparities influenced by both clinical and socioeconomic factors. Implementing systematic pain assessment and management, including patient-reported outcomes and multimodal interventions, may support cost containment, improve outcomes, and advance value-based oncology care. Policy efforts should prioritize equitable access to comprehensive pain management and integration of pain metrics into cancer care quality frameworks and reimbursement models.

Keywords: cancer, pain, healthcare expenditures, medical expenditure panel survey, financial toxicity, health disparities, United States

Introduction

Cancer remains a leading public health concern in the United States, contributing significantly to morbidity, mortality, and escalating healthcare costs. Cancer-related pain is a common and debilitating symptom that reduces quality of life and increases healthcare utilization. While prior studies have examined pain in specific cancer populations, its national economic impact remains understudied, particularly with respect to how pain-related expenditure differences arise within a nationally representative population and across multiple categories of healthcare spending.

In 2025, an estimated 2.04 million new cancer cases and 618,120 cancer-related deaths are projected, emphasizing the immense burden of this disease on both individuals and healthcare systems.1 Beyond the direct costs of diagnosis and treatment, cancer survivors often face long-term challenges related to persistent symptoms. One of the most common and distressing of these symptoms is pain, which affects a substantial proportion of cancer patients.

Studies have consistently shown that cancer-related pain affects up to 55% of patients during anticancer treatment and 66% of those with advanced, metastatic, or terminal disease.2 Notably, many patients continue to experience moderate to severe pain even after curative treatment, with symptoms often persisting throughout survivorship.3 A comprehensive review reported pooled pain prevalence rates of 53% across all cancer stages, 59% during treatment, and 64% among patients with advanced or terminal disease, with over one-third of these patients reporting moderate to severe pain.4 More recent studies estimate that 44.5% of cancer patients experience pain, with approximately 31% reporting moderate to severe pain. These findings suggest some improvement in pain management, yet also highlighting a continued burden that persists across the cancer continuum.5

This persistent pain, both physical and psychological, contributes significantly to the economic burden of cancer care. Beyond the direct costs of treatment, cancer-related pain drives increased healthcare utilization, including prescriptions, outpatient visits, hospitalizations, and emergency department encounters. A recent analysis using nationally representative data reported that 10.5% to 24.2% of cancer survivors experience chronic post-treatment pain, leading to an incremental national healthcare expenditure of $27.3 to $40.2 billion annually.6 Additionally, cancer survivors aged 18–64 years report average annual out-of-pocket costs of $1000, compared to $622 for adults without a cancer history. These survivors are also more likely to experience material (25%) and psychological (34%) financial hardship, underscoring that cancer-related pain is not just a clinical issue but also a key driver of financial toxicity in cancer care.7

Despite these well-documented findings, few studies have comprehensively examined how cancer-related pain influences healthcare expenditures using large, nationally representative data. Much of the existing literature has been limited to specific cancer types or single-institution samples, which reduces the generalizability of findings. Even among studies using nationally representative datasets such as MEPS, prior analyses have primarily focused on overall cancer-related expenditures or survivorship costs without explicitly isolating pain-related interference as a distinct cost driver or disentangling observed versus unobserved contributors to expenditure disparities. This gap in knowledge is critical, as quantifying the incremental costs associated with pain can inform the design of effective interventions, shape insurance coverage and benefit structures, and promote more equitable allocation of resources in cancer care. Importantly, improved pain management not only addresses the immediate symptom burden for patients but could also serve as a policy-relevant strategy to reduce unnecessary spending and financial hardship among cancer survivors.

The present study aim to estimate the prevalence of self-reported pain interference among US adults with cancer, compare total and category-specific healthcare expenditures between cancer patients with and without pain, and decompose the expenditure differences to identify both observable and unobservable drivers. By linking pain to excess healthcare costs in a nationally representative cohort, this study provides actionable insights for clinicians, policymakers, and payers on how effective pain management can enhance patient outcomes while alleviating the financial burden of cancer care.

Methods

Study Design and Data

A cross-sectional analysis was conducted using retrospective data from the Medical Expenditure Panel Survey (MEPS), a nationally representative survey of the United States population administered by the Agency for Healthcare Research and Quality (AHRQ).8,9 Data from the 2019–2022 MEPS were utilized, incorporating information from household, medical conditions, prescribed medications, outpatient visits, and other relevant files. Given the cross-sectional design, all findings reflect associations rather than causal relationships.

Study Population

The study sample included adults aged 18 years and older with a diagnosis of Cancer, who were alive during the study period and had complete data on pain status. Individuals with cancer were identified using the clinical diagnostic codes from the International Classification of Diseases, tenth Revision, Clinical Modification (ICD-10-CM), which are included in the MEPS medical conditions (icd10cdx for Type 2 Diabetes Mellitus is “C18, C34, C43, C44, C50, C55, C61, C64, C67, C73, C85, C95, D04, D22, D48, D49”). Cancer included all type of cancer (colon, bronchus and lung, melanoma of the skin, breast, uterus, prostate, kidney, bladder, thyroid, non-Hodgkin lymphoma, leukemia, skin, other types of cancer).

Measures

Outcome: Healthcare Expenditures

The analysis included various categories of healthcare expenditures, such as inpatient care, outpatient services, prescription medications, emergency department visits, and other healthcare-related costs (eg, dental care, vision services, and durable medical equipment). Total healthcare expenditures were calculated by summing costs across all categories. To adjust for inflation, all expenditure values were standardized to 2022 US dollars using the Consumer Price Index, as provided by the US Bureau of Labor Statistics.1,10

Key Independent Variable (Pain)

Data on Pain are obtained from the MEPS. Pain was identified in MEPS using the variable ADPAIN42,2 which captures whether respondents reported that pain interfered with their normal work outside the home and housework during the past 4 weeks? Which included the options not at all, a little bit, moderately, quite a bit, and extremely, were recoded into two categories: (1) Pain (Combining a little bit, moderately, quite a bit and extremely), and (2) No pain (not at all). Based on the presence of documented pain conditions, adults with cancer were categorized into two groups: (1) Cancer with pain and (2) Cancer only (ie, without comorbid pain conditions). This approach of identifying pain has been used by previous studies using MEPS data.11–15

Pain data were extracted from the Medical Expenditure Panel Survey (MEPS) using the variable ADPAIN42,2 which assesses whether pain interfered with respondents’ normal activities, including work outside the home and household tasks, over the past four weeks. Response options included not at all, a little bit, moderately, quite a bit, and extremely, were dichotomized into two categories: (1) Pain (combining responses of a little bit, moderately, quite a bit, and extremely), and (2) No pain (not at all). Based on the presence of self-reported pain interference, individuals with cancer were classified into two groups: (1) Cancer with pain and (2) Cancer only (ie, without reported pain interference). This classification method has been previously validated and employed in prior studies utilizing MEPS data.11–15

Other Independent Variables

The study measured a comprehensive set of covariates spanning demographic, socioeconomic, and health-related domains, such as sex, race/ethnicity, age, marital status, geographic region, employment status, educational attainment, income level, self-reported physical health, health insurance status, prescription drug coverage, and physical activity. Additionally, a broad spectrum of chronic conditions was assessed, including cardiovascular disease, hypertension, diabetes, hyperlipidemia, asthma, chronic obstructive pulmonary disease (COPD), gastroesophageal reflux disease (GERD), arthritis, thyroid disorders, cancer, anxiety, and depression. These conditions were selected based on their high prevalence in the US adult population and their well-documented impact on morbidity and healthcare costs.

Statistical Analyses

Descriptive statistics were utilized to summarize the characteristics of the study population. Chi square testes were used to evaluate unadjusted difference in the study population stratified by cancer status (cancer with pain vs cancer without pain). Differences in unadjusted mean total and category-specific healthcare expenditures between the groups were assessed using one-way analysis of variance (ANOVA). To examine the association between pain and healthcare expenditures among individuals with cancer, generalized linear models (GLMs) with a log link function and gamma distribution were employed. These models adjusted for a comprehensive set of covariates, including sociodemographic characteristics, insurance coverage, health behaviors, self-rated physical health, and comorbid chronic conditions. To further assess the extent to which pain contributes to differences in healthcare expenditures, a linear decomposition analysis based on the Blinder–Oaxaca method was conducted. This approach decomposes the observed mean expenditure difference between the cancer groups into an “explained” component attributable to differences in observed covariates and an “unexplained” component reflecting differences in the effects (coefficients) of those covariates. A two-sided p-value of <0.05 was considered statistically significant. All analyses accounted for the complex survey design of MEPS by incorporating design variables including strata, primary sampling units, and person-level survey weights. Analyses were performed using the survey procedures in SAS version 9.4 (SAS Institute Inc., Cary, NC, USA) and STATA version 15.1 (StataCorp LLC, College Station, TX, USA).

Results

Characteristics of the Cancer Patients Sample

Table 1 represents demographic, socioeconomic, and health-related characteristics of 4368 adults with cancer, comparing those with pain (55%) to those without pain (45%). Pain prevalence was significantly associated with multiple sociodemographic and health-related factors. Age was associated with pain (p < 0.0001), with those over 65 experiencing higher pain (60.3%) than younger adults (22–39 years) (35.3%). Education level showed a strong relationship (p < 0.0001); individuals with high school education had the highest pain prevalence (79.8%) compared to those with higher than higher education (53.6%). Employment status was highly significant (p < 0.0001), with unemployed individuals more likely to experience pain (63.1%) than those employed (42.7%). Poverty status was also significant (p < 0.0001); poor individuals reported the most pain (76.8%), while high-income individuals reported the least (48.3%).

Table 1.

Characteristics of the Total Study Sample and Characteristics by Pain Among Adults with Cancer

Total Sample Pain No Pain Chi-Square Value P-value Sig.
N Wt.% N Wt.% N Wt.%
All 4368 100.0 2495 55.0 1873 45.0
Age in years
 22–39 173 5.8 59 35.3 114 64.7 54.599 <0.0001 ***
 40–49 225 6.6 90 39.2 135 60.8
 50–64 925 24.0 506 50.0 419 50.0
 >65 3045 63.6 1840 60.3 1205 39.7
Gender
 Women 2331 53.4 1371 55.3 960 44.7 0.108 0.743
 Men 2037 46.6 1124 54.6 913 45.4
Race/ethnicity
 White 3700 87.9 2110 55.7 1590 44.3 7.778 0.051
 African American 302 5.0 180 53.1 122 46.9
 Latino 237 4.5 127 43.7 110 56.3
 Others 129 2.6 78 54.3 51 45.7
Marital status
 Married 2485 62.3 1390 54.7 1095 45.3 10.704 0.005 **
 Widow 1509 29.8 913 58.1 596 41.9
 Sep/Div 374 7.8 192 45.6 182 54.4
Education level
 < High School 119 2.1 88 69.9 31 30.1 48.824 <0.0001 ***
 High School 193 3.7 146 79.8 47 20.2
 > High School 4039 94.0 2246 53.6 1793 46.4
Region
 Northeast 766 17.2 418 53.4 348 46.6 3.315 0.346
 Mid-west 976 22.4 590 57.2 386 42.8
 South 1468 37.5 856 56.1 612 43.9
 West 1158 22.9 631 52.3 527 47.7
Employment
 Employed 1508 39.8 652 42.7 856 57.3 96.887 <0.0001 ***
 Not employed 2859 60.2 1842 63.1 1017 36.9
Poverty status
 Poor 417 6.7 310 76.8 107 23.2 87.496 <0.0001 ***
 Near Poor 675 12.8 449 63.3 226 36.7
 Middle Income 1134 25.6 683 59.5 451 40.5
 High Income 2142 54.9 1053 48.3 1089 51.7
Health Insurance
 Private 2592 65.0 1365 51.3 1227 48.7 32.669 <0.0001 ***
 Public 1764 34.8 1124 62.0 640 38.0
 Uninsured 12 0.2 6 38.2 6 61.8
Rx Insurance
 Rx ins 1853 47.9 951 50.0 902 50.0 19.409 <0.0001 ***
 No Rx ins 2515 52.1 1544 59.6 971 40.4
General health
 Ex/very good 2159 51.6 903 40.1 1256 59.9 362.647 <0.0001 ***
 Good 1403 31.6 914 63.8 489 36.2
 Fair/poor 806 16.8 678 83.9 128 16.1
Physical activity
 3/week 2194 51.2 1076 47.4 1118 52.6 108.476 <0.0001 ***
 No exercise 2165 48.6 1412 62.8 753 37.2
Heart
 Yes 966 20.2 646 68.8 320 31.2 64.943 <0.0001 ***
 No 3402 79.8 1849 51.5 1553 48.5
Hypertension
 Yes 2262 49.9 1470 64.2 792 35.8 110.725 <0.0001 ***
 No 2106 50.1 1025 45.7 1081 54.3
Diabetes
 Yes 759 16.1 503 65.9 256 34.1 25.146 <0.0001 ***
 No 3609 83.9 1992 52.9 1617 47.1
Hyperlipidemia
 Yes 1887 41.4 1187 61.4 700 38.6 33.799 <0.0001 ***
 No 2481 58.6 1308 50.4 1173 49.6
Asthma
 Yes 418 8.7 308 67.3 110 32.7 16.309 <0.0001 ***
 No 3950 91.3 2187 53.8 1763 46.2
COPD
 Yes 292 5.6 212 70.8 80 29.2 18.810 <0.0001 ***
 No 4076 94.4 2283 54.0 1793 46.0
Arthritis
 Yes 813 16.9 645 79.2 168 20.8 144.331 <0.0001 ***
 No 3555 83.1 1850 50.1 1705 49.9
GERD
 Yes 652 14.5 462 68.2 190 31.8 31.861 <0.0001 ***
 No 3716 85.5 2033 52.7 1683 47.3

Notes: Based on 4,368 adults and elderly with Cancer and were alive during the calendar years 2019–2022. ***P <0.001; **001 < P <0.01.

Abbreviations: Wt, weighted percentage; Rx, Medication; Wid./Div./Sep., widowed, divorced, and separated.

Health coverage played a role: those with public insurance reported more pain (62%) than private (51.3%) (p < 0.0001), and lack of prescription insurance was associated with more pain (59.6%) vs those with coverage (50%). Self-rated general health was strongly associated to pain (p < 0.0001); 83.9% of those with fair/poor health reported pain, compared to 40.1% with excellent/very good health. Physical activity was associated with pain (p < 0.0001); 62.8% of inactive individuals reported pain vs 47.4% of active ones.

Several chronic conditions were significantly associated with higher pain prevelance (all p < 0.0001): heart disease (68.8%), hypertension (64.2%), diabetes (65.9%), hyperlipidemia (61.4%), asthma (67.3%), COPD (70.8%), arthritis (79.2%), and GERD (68.2%). In contrast, gender (p = 0.743) and region (p = 0.346) showed no statistically significant association with pain. These results describe patterns of co-occurrence rather than causal relationships, emphasizing that pain among adults with cancer is correlated with socioeconomic disadvantage, comorbidity burden, and poorer self-reported health status.

Mean Total and Type of Healthcare Expenditures by Cancer Group

Unadjusted analysis of healthcare expenditures among adults with cancer revealed significantly higher costs for those experiencing pain compared to those without pain (Table 2). The mean total healthcare expenditure for cancer patients with pain was $22,072.20, compared to $13,365.80 for those without pain (p < 0.0001). This significant difference was observed across all categories of spending. Inpatient costs were notably higher among those with pain ($4,006.90 vs $1,716.90; p = 0.0018), as were outpatient expenses ($9,789.10 vs $6,568.60; p < 0.0001). Prescription drug costs were also substantially greater for those with pain ($5,740.50 vs $3,241.40; p = 0.0009), along with emergency room expenditures ($373.50 vs $192.20; p = 0.0006). Other healthcare expenses (including dental, vision, and durable medical equipment) were also significantly elevated in the pain group ($2,162.10 vs $1,646.50; p < 0.0001.

Table 2.

Mean Healthcare Expenditures by Cancer Group, MEPS Data of 2019–2022

Total Sample SD Cancer & Pain SE Cancer Only SE p-value
Mean ($) Mean ($) Mean ($)
(N=2495) (N=1873)
Total Expenditures 18,581.2 43,243.8 22,072.2 1,126.2 13,365.8 793.9 <0.0001
Inpatient 2,949.5 16,101.1 4,006.9 432.9 1,716.9 274.7 0.0018
Outpatient 8,393.2 24,756.4 9,789.1 730.8 6,568.6 497.2 <0.0001
Prescription 4,867.7 28,528.4 5,740.5 677.8 3,241.4 446.3 0.0009
Emergency Room 285.0 1,279.3 373.5 37.1 192.2 26.6 0.0006
Other 2,085.6 8,953.4 2,162.1 154.3 1,646.5 270.5 <0.0001

Notes: P value represent mean differences by Cancer groups using One Way Anova. Other expenditures included dental, vision, durable medical equipment use, and others.

Abbreviations: SD, Standard Deviation; SE, Standard Error.

Adjusted Total and Type of Healthcare Expenditures by Cancer Group

The adjusted generalized linear model showed that adults with cancer who also reported pain had significantly higher healthcare expenditures across most categories compared to those without pain (Table 3). After adjusting for covariates (demographic, socioeconomic, and health-related characteristics), total healthcare costs were $4,473.20 higher for those with pain (β = 0.241, p = 0.001). The largest incremental cost was seen in inpatient care, with an increase of $2,001.90 (β = 0.580, p = 0.001), followed by prescription costs ($1,710.90, β = 0.277, p = 0.045) and outpatient services ($1,347.10, β = 0.239, p = 0.003). Emergency room expenditures were also significantly higher ($108.80, β = 0.382, p = 0.013). However, “other” healthcare expenses (eg, dental, vision, durable medical equipment) did not show a significant difference (β = -0.040, p = 0.723). These results confirm that pain among cancer patients is associated with significantly increased costs, especially for inpatient, outpatient services, and prescribed medications.

Table 3.

Adjusted Generalized Linear Model with Log Link and Gamma Distribution on Health Care Expenditures, Medical Expenditure Panel Survey 2019–2022 (N= 4368)

Cancer & Pain p-value
Intercept SE β SE Incremental Cost Lower CI Upper CI
Total 9.743 0.510 0.241 0.071 $4,473.2 0.101 0.380 0.001
Inpatient 7.736 0.784 0.580 0.167 $2,001.9 0.251 0.909 0.001
Outpatient 8.530 0.589 0.239 0.080 $1,347.1 0.082 0.395 0.003
Prescription 7.259 0.780 0.277 0.137 $1,710.9 0.006 0.547 0.045
Emergency 5.681 0.669 0.382 0.152 $108.8 0.082 0.681 0.013
Other 7.603 0.343 −0.040 0.111 $-39.5 −0.259 0.180 0.723

Notes: Other expenditures included dental, vision, durable medical equipment use, and others. Incremental Cost (Dollars)=Incremental Cost (Coefficient)×Mean Expenditure.

Abbreviations: β, Coefficient; SE, Standard Error, Reference group for cancer groups= Cancer only.

Factors Explaining Excess Pain Related Healthcare Expenditure Among Adults with Cancer from Linear Decomposition Analysis

The linear decomposition analysis of log-transformed total healthcare expenditures revealed that adults with cancer and pain had significantly higher total healthcare costs than those without pain (Table 4). The mean expenditure was $22,134.01 for the pain group and $13,859.54 for the no-pain group, resulting in a total difference of $8,274.47 (p < 0.0001). Of this difference, $5,292.73 (64%) was explained by observed characteristics (eg, demographics, socioeconomic), while $3,561.33 (36%) was unexplained (p = 0.018), potentially reflecting unmeasured factors like pain severity or quality of care.

Table 4.

Linear Decomposition of Log-Transformed Total Healthcare Differences by Cancer Group, MEPS 2019–2022 (N=4,368)

β SE p-value Lower CI Upper CI
Cancer & Pain 22134.01 1001.58 <0.0001 20170.95 24097.06
Cancer Only 13859.54 740.71 <0.0001 12407.78 15311.30
Difference 8274.47 1245.72 <0.0001 5832.91 10716.02
Explained 5292.73 867.04 <0.0001 3593.37 6992.09
Unexplained 3561.33 1499.46 0.018 622.44 6500.23
Interaction −579.60 1207.57 0.631 −2946.39 1787.19
Estimate due to difference in characteristics (Explained)
Age group 2.68 218.07 0.99 −424.73 430.08
Gender 13.05 57.23 0.82 −99.12 125.22
Race 7.25 43.31 0.867 −77.64 92.15
Marital Status 4.93 15.69 0.753 −25.83 35.69
Education 239.40 170.59 0.16 −94.94 573.75
Employment 98.08 338.65 0.772 −565.66 761.82
Income −524.28 321.84 0.103 −1155.08 106.51
Health Insurance −158.21 224.47 0.481 −598.17 281.76
RX Insurance −163.49 207.01 0.43 −569.23 242.25
Perceived Health 3490.23 671.17 <0.0001 2174.75 4805.70
Physical activity 346.20 256.49 0.177 −156.52 848.92
Region of residence −4.59 16.55 0.781 −37.02 27.84
Heart disease 818.72 212.14 <0.0001 402.92 1234.51
Hypertension 200.96 273.68 0.463 −335.44 737.37
Diabetes 250.79 150.47 0.096 −44.13 545.70
Hyperlipidemia −85.95 172.91 0.619 −424.84 252.94
Asthma −226.79 203.84 0.266 −626.31 172.72
COPD 469.30 173.39 0.007 129.46 809.15
Arthritis 270.73 435.44 0.534 −582.72 1124.18
GERD 243.72 205.69 0.236 −159.42 646.85

Abbreviations: β, Coefficient; SE, Standard Error.

Among the characteristics, perceived health ($3,490.23, p < 0.0001) and heart disease ($818.72, p < 0.0001) contributed most to the explained cost difference. COPD ($469.30, p = 0.007) was also a significant contributor. Other factors such as age, gender, race, education, income, insurance, and comorbidities were not statistically significant. These findings suggest that differences in self-reported health and key chronic conditions account for much of the excess healthcare costs among cancer patients with pain.

Discussion

Cancer-related pain remains a substantial clinical and economic burden, posing persistent challenges for patients, caregivers, and healthcare systems. Our analysis demonstrates that adults with cancer experiencing pain incurred, on average, $8274 more in unadjusted annual healthcare expenditures and $4473 more after adjustment for demographic, socioeconomic, and clinical characteristics, underscoring pain as a key driver of healthcare costs across multiple service domains. These findings are consistent with prior literature indicating that pain is one of the most prevalent and debilitating symptoms in oncology, significantly impairing quality of life and increasing healthcare utilization.1,3

Importantly, this study extends prior evidence by quantifying the incremental financial impact of cancer-related pain and highlighting its broader societal implications. When extrapolated nationally, the adjusted incremental cost translates into billions of dollars in additional annual healthcare spending among cancer survivors.1 Decomposition analyses indicated that both explained and unexplained factors contribute to expenditure disparities. Self-perceived health accounted for approximately $3490 (42%) of the explained difference, while chronic comorbidities, including heart disease and COPD, were additional major drivers. These results emphasize that self-rated health is not merely a subjective measure but a robust predictor of economic burden, consistent with prior studies linking poor self-reported health to higher healthcare utilization.3 The unexplained component likely reflects unmeasured variation in pain severity, treatment intensity, or access to high-quality care.

Disaggregating expenditures revealed that pain was significantly associated with higher inpatient, outpatient, prescription drug, and emergency department costs, but not “other” expenditures. Clinically, this pattern is intuitive: pain increases hospital admissions, outpatient visits for symptom management, emergency utilization for breakthrough pain, and prescription use of analgesics and adjuvant medications.2,6 These findings align with prior studies demonstrating the multifaceted economic consequences of inadequately controlled cancer pain.5,6

Beyond direct medical costs, cancer-related pain contributes to financial toxicity, medication nonadherence, productivity loss, caregiver strain, and long-term disability.16–19 Chronic post-cancer treatment pain (PCTP) further amplifies this burden. Recent longitudinal analyses by Mbous et al17 reported that PCTP is associated with incremental annual healthcare expenditures exceeding $27–40 billion in the United States, with survivors experiencing substantial out-of-pocket (OOP) burdens. Similarly, Iragorri et al18 found that OOP costs of cancer care frequently exceed 40% of annual household income in low- and middle-income countries, with pain management and medications among the most significant contributors. Collectively, these data highlight the urgent need for targeted insurance coverage policies and financial assistance programs to mitigate inequities in pain care.

Clinically, cancer-related chronic pain remains one of the most prevalent and disabling symptoms, persisting long after primary treatment. Green et al20 reported that nearly 20% of diverse cancer survivors experienced chronic pain, with women and Black patients disproportionately affected by greater pain severity and interference with daily functioning. These disparities illustrate that pain in survivorship is not only a medical issue but also a quality-of-life and equity concern. The persistence of cancer-related chronic pain contributes to ongoing healthcare utilization and underscores the need for long-term surveillance and intervention strategies.

Disparities in pain management are well documented. Socioeconomic status, race, gender, and age intersect to shape pain experiences, with younger, female, and lower-income patients consistently reporting worse outcomes.21,22 Minority patients often receive less guideline-concordant pain management, including lower opioid prescribing, even after adjusting for insurance coverage.23–26 Structural inequities, implicit provider bias, and geographic limitations exacerbate these disparities, with patients in rural or resource-limited settings facing reduced access to specialized pain services.26 These findings align with prospective cohort studies showing higher supportive care needs among minority patients with advanced cancers, particularly in psychological, physical symptom, and daily functioning domains.25

A critical challenge is that pain is inherently subjective and cannot be adequately assessed without patient input. Unlike laboratory values or imaging, pain originates from the patient’s lived experience, making patient-reported outcomes (PROs) central to both assessment and management. Integrating PROs into routine oncology practice represents not only a clinical imperative but also a cornerstone of value-based, patient-centered care. Randomized trials demonstrate that electronic PRO symptom monitoring enhances early pain detection, improves quality of life, reduces emergency visits, and may even confer survival benefits.27 Digital health solutions, including telemedicine-based pain consultations, have also shown promise in expanding access to supportive care and reducing inequities.28 Embedding PRO-driven monitoring into standard care pathways ensures timely identification and management of cancer-related pain, particularly for underserved populations. In this way, patient-centered pain assessment becomes aligned with value-based care principles, directing resources toward interventions that improve outcomes most meaningful to patients.

Policy implications are multifaceted. Insurance and reimbursement frameworks should increasingly consider pain management as an integral component of comprehensive cancer care, given its consistent association with higher healthcare utilization and expenditures, while ensuring equitable access to opioids, adjuvants, and non-pharmacologic interventions. Incentive structures that support the integration of PRO based monitoring may enhance patient-centered care and system efficiency, particularly by facilitating earlier identification of unmet supportive care needs. Multimodal pain management strategies combining pharmacologic therapy, rehabilitation, and psychosocial support have demonstrated cost-effectiveness in prior studies and may merit greater emphasis in clinical guidelines and payment models.29 Finally, persistent structural inequities affecting racial and ethnic minority populations underscore the importance of evaluating targeted policy approaches, including culturally competent pain management protocols, provider education initiatives, and financial protection mechanisms that may help mitigate out-of-pocket burden and access gaps.

Integrating evidence from international contexts further supports these recommendations. For example, Scandinavian studies demonstrate that early palliative interventions and multimodal pain approaches reduce hospitalizations and healthcare costs,5,16 while low- and middle-income countries face disproportionate OOP burdens and inequitable access to analgesics.18 These comparisons highlight the need for context-specific strategies while emphasizing universal principles: equitable access, early intervention, and integration of PROs into care delivery.

Our findings also have implications for survivorship care. Chronic pain is a persistent and often under-recognized challenge for long-term survivors, and it is associated with consequences for adherence to ongoing therapies, quality of life, and functional independence.6,7 Incorporating systematic pain assessment and management into survivorship care plans may help mitigate long-term economic and clinical burdens, particularly for vulnerable populations.

Several limitations should be acknowledged. First, the use of MEPS data relies on self-reported measures, which may be subject to recall bias. Second, pain was captured as a patient-reported experience rather than a clinically validated measure, potentially introducing variability. Third, while MEPS provides nationally representative data, it does not capture institutionalized populations, such as nursing home residents, who may experience higher pain prevalence and associated costs. Finally, causality cannot be inferred given the cross-sectional design, and all policy or clinical implications should be interpreted as informative rather than prescriptive.

Conclusion

Cancer-related pain continues to impose profound clinical, financial, and equity challenges. Evidence consistently demonstrates that disparities in pain outcomes are driven by structural, socioeconomic, and racial inequities. Policy and practice initiatives that strengthen pain coverage, integrate PRO-based monitoring, expand multimodal care, and address systemic barriers may help improve equity and outcomes in oncology care. The findings provide informative guidance for resource allocation and pain management strategies, while acknowledging the observational nature of the data. High-quality, longitudinal, and pragmatic studies are essential to guide effective interventions and optimize survivorship care while mitigating the broader economic and societal burden of cancer-related pain.

Funding Statement

Ongoing Research Funding Program, (ORF-2026-76), King Saud University Riyadh, Saudi Arabia.

Institutional Review Board Statement

This study did not require ethical review or approval because it utilized a publicly accessible secondary database, the Medical Expenditure Panel Survey (MEPS) database.

Data Sharing Statement

Researchers can access the publicly accessible dataset used in this study from the MEPS database at this URL: https://meps.ahrq.gov/data_stats/download_data_files.jsp (accessed on 25 December 2024).

Informed Consent Statement

Due to the fact that this study employed a secondary database, the Medical Expenditure Panel Survey (MEPS) database, which is publicly accessible, patient consent was waived for this research.

Disclosure

The author declares no conflicts of interest in this work.

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Associated Data

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

Data Availability Statement

Researchers can access the publicly accessible dataset used in this study from the MEPS database at this URL: https://meps.ahrq.gov/data_stats/download_data_files.jsp (accessed on 25 December 2024).


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