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. Author manuscript; available in PMC: 2023 Nov 9.
Published in final edited form as: Prev Med. 2022 Nov 9;164:107331. doi: 10.1016/j.ypmed.2022.107331

Association between Medicare annual wellness visits and prevention of falls and fractures in older adults in Texas, USA

Huey-Ming Tzeng a,b,*, Mukaila A Raji b,c, Md Ibrahim Tahashilder d, Yong-Fang Kuo b,c,d,e
PMCID: PMC9691561  NIHMSID: NIHMS1851196  PMID: 36334680

Abstract

Fall-related injuries contribute to increased frailty, disability, and premature death in older adults (≥65 years). The US Centers for Medicare and Medicaid Services began reimbursing annual wellness visits (AWVs) in 2011. In the present study, we assessed the effect of AWV receipt in 2017 on fall and fracture prevention through December 31, 2018. Using Texas Medicare data for 2014–2018, we identified cohorts of Medicare beneficiaries ≥68 years, matched for the presence/absence of an AWV in 2017 by propensity score, and observed two outcomes: fracture as a primary diagnosis, and fall occurrences. Rates of each outcome were estimated using the Kaplan–Meier method. Of the 2017 beneficiaries, 32.2% received an AWV. For the 742,494 beneficiaries in the matched cohort, conditional Cox proportional hazards models revealed that receiving an AWV in 2017 was associated with reduced risks for future falls (3.9%) and fractures (4%). The effect of the AWV was stronger on fall reduction in rural residents (HR: 0.799; 95% CI: 0.679 to 0.941) and on fracture reduction in beneficiaries with ≥4 morbidities (HR: 0.918; 95% CI: 0.867 to 0.972). Receipt of an AWV in three consecutive years (2015–2017) further lowered the risk of future falls. We conclude that the risks for future falls/fractures are lower in older adults receiving AWVs. Our study underscores the need for expanded public education programs that raise awareness about AWVs and the potential for AWV data to inform fall prevention interventions and other health promotion practices.

Keywords: Medicare, fractures, bone, accidental falls, aging, frail older adults

1. Introduction

Injuries from falls are known to contribute to increased frailty, disability, and premature death in community-dwelling older adults ≥65 years of age. Risk factors for falls include environmental conditions, medications, vision, cognition and mood, gait and balance, orthostatic hypotension, osteoporosis, and history of falls.14 Older adults with dementia or cognitive impairment might also have poor postural stability, increasing the risk for falls while walking or transferring.5 In 2018, 33.9% of older adults in Texas reported falling at least once, a rate that is higher than the 28% reported for the United States overall.6 About 25% of those who fell sustained moderate-to-severe injuries, with some injuries resulting in death, hospitalization, or an emergency department visit.6 The rate of injurious falls for community-dwelling older adults has not declined since 2015.1,2 Fall-related injuries in older adults are potentially preventable with evidence-based fall prevention strategies tailored to the individual’s risks, needs, and preferences.1,2,7 National policies, public health actions, and clinical practices are urgently needed to ensure that all older adults are engaged in health promotion and disease prevention, including fall prevention.8

The American Geriatrics Society (AGS) and the British Geriatrics Society (BGS) have recommended that healthcare providers screen older adults annually for a history of falls or balance impairment.9 An algorithm developed by the Centers for Disease Control and Prevention (CDC)10 implements the clinical practice guidelines for preventing falls published by the AGS and BGS and offers recommendations for risk screening, assessment, and intervention in community-dwelling older adults ≥65 years of age. The algorithm suggests routine fall risk assessment and multifactorial fall prevention interventions that can be provided to individuals who have experienced two or more falls or one fall-related injury.913

The Centers for Medicare and Medicaid Services (CMS) began reimbursing face-to-face annual wellness visits (AWVs) in 2011.1416 AWVs are provided free of charge to Medicare beneficiaries, with zero copayments. This preventive service covers brief cognitive impairment assessments, medication reconciliations, and personalized prevention plans such as fall risk assessment and prevention. AWVs could be the avenue for raising awareness in older adults about fall risks, mitigating their personal fall risks through evidence-based fall prevention approaches, and monitoring adherence to their individualized fall prevention plans established during the AWVs. Medicare reimburses fall risk assessment and fall prevention education for clients as part of the AWV.1113

To our knowledge, no prior research has examined the mitigating effects of AWVs on the risks for falls and fractures in older adults.11 We therefore set out to explore the effects of AWV services on preventing falls and fractures in community-dwelling older adults. The association of AWV receipt in 2017 with fall and fracture occurrences through December 31, 2018 was assessed. We hypothesized that the risk of experiencing falls and fractures would be lower for Medicare beneficiaries receiving than for those not receiving an AWV in 2017.

2. Methods

2.1. Data source

Using 100% Texas Medicare data, we selected individuals 68 years of age and older who were Medicare beneficiaries from 2014 to 2017 (Table 1; also see supplementary eTable S1 for cohort selection). Beneficiary characteristics and Medicare enrollment status were obtained from the Master Beneficiary Summary File. Outpatient AWVs were determined using the Outpatient Standard Analytic and Carrier files. Comorbidities and history of falls and fractures were obtained from the Medicare Provider Analysis and Review, Outpatient Standard Analytic, and Carrier files. The institutional review board of the University of Texas Medical Branch (Galveston, TX, USA) approved our study.

Table 1.

Characteristics of 1,153,744 Texas Medicare beneficiaries before propensity-score matching, 2017 data

Characteristic Overall (N) Annual wellness visit in 2017a p Valueb
No Yes
(n) (%) (n) (%)
Beneficiaries 1,153,744 782,436 67.8 371,308 32.2
Age group
 68–69 Years 99,252 69,396 8.87 29,856 8.04 0.0001
 70–74 Years 391,539 264,121 33.76 127,418 34.32
 75–79 Years 285,989 189,922 24.27 96,067 25.87
 80–84 Years 194,434 130,975 16.74 63,459 17.09
 ≥85 Years 182,530 128,022 16.36 54,508 14.68
Sex
 Male 507,836 354,094 45.26 153,742 41.41 0.0001
 Female 645,908 428,342 54.74 217,566 58.59
Race/ethnicity
 White 884,274 585,752 74.86 298,522 80.4 0.0001
 Black 72,282 52,534 6.71 19,748 5.32
 Hispanic 161,380 120,597 15.41 40,783 10.98
 Other 35,808 23,553 3.01 12,255 3.3
Original Medicare entitlement
 Age 1068,691 718,993 91.89 349,698 94.18 0.0001
 ESRD/disabled 85,053 63,443 8.11 21,610 5.82
Dual eligibility
 No 1053,641 710,454 90.8 343,187 92.43 0.0001
 Yes 100,103 71,982 9.20 28,121 5.82
Morbidities
 0 314,460 236,266 30.2 78,194 21.06 0.0001
 1 230,161 147,013 18.79 83,148 22.39
 2 209,776 135,146 17.27 74,630 20.1
 3 145,732 94,640 12.1 51,092 13.76
 ≥4 253,615 169,371 21.65 84,244 22.69
With ADRDs
 No 1051,860 711,626 90.95 340,234 91.63 0.0001
 Yes 101,884 70,810 9.05 31,074 8.37
Residential area
 Metropolitan 917,841 608,693 77.79 309,148 83.26 0.0001
 Nonmetropolitan urban 215,944 158,138 20.21 57,806 15.57
 Rural 19,959 15,605 1.99 4,354 1.17
a

Denominator for Beneficiaries percentages: 1,153,744. Denominator for other characteristic percentages (column percentages): in the annual wellness visit No column, 782,436; in the annual wellness visit Yes column, 371,308.

b

By the chi-squared test for the association between an annual wellness visit (yes/no) and the relevant characteristic. A p value < 0.05 was considered statistically significant.

ESRD = end-stage renal disease; ADRDs = Alzheimer disease and related dementias.

2.2. Cohort selection

The observation window included four Medicare coverage years from January 1, 2014, to December 31, 2017. Receipt of an AWV in 2017 was this study’s event of interest. The study population consisted of community-dwelling older Medicare beneficiaries, 68 years of age or older in 2017, who had been continuously enrolled in both fee-for-service Medicare Part A (insurance for inpatient care and home health care), and Part B (insurance for outpatient care) without Medicare advantage plan covered under Health Maintenance Organizations for the whole years of 2014–2017. Beneficiaries were excluded if they lacked a valid gender identity, were living in long-term nursing homes in 2017, or lacked valid residency information in Texas in 2017 (eTable S1 for cohort selection). Of the 1,153,744 beneficiaries thus included, 32.2% had received an AWV in 2017 (Table 1).

2.3. Measures

Medicare AWVs

A beneficiary covered by the CMS may receive an AWV once every 12 months provided that they have been enrolled in Medicare Part B medical insurance for more than 12 months and have not received an initial preventive physical examination or an AWV providing a personalized prevention plan within the preceding 12 months.

Beneficiaries pay nothing if a healthcare provider accepts the assignment.1416 Healthcare providers (i.e., physicians, qualified non-physician practitioners, or medical professionals directly supervised by a physician) can bill G0438 (for an initial AWV) or G0439 (a subsequent AWV) for a beneficiary once each year.1416

Identifying fractures and falls

The two outcomes considered in this study were fracture as a primary diagnosis and falls. “Fracture” was defined as an International Statistical Classification of Diseases and Related Health Problems, Tenth Revision (ICD-10), code (eTable S2 all fractures) as the primary diagnosis in either an inpatient, outpatient or carrier claim. “Fall” was defined as any fall (eTable S2 Fall Diagnosis Codes) associated with any position ICD-10 diagnosis code. We created a dichotomous variable to identify fracture as the primary diagnosis and another dichotomous variable to identify the experience of any fall after the index AWV through 12/31/2018.

Covariates

The beneficiary characteristics obtained for the analysis included demographics (age, gender identity, race/ethnicity, and residential area), original Medicare entitlement, dual eligibility, diagnosis of Alzheimer disease or related dementias, receipt of an AWV in 2015 or 2016, falls or fractures that occurred in the 12 months preceding the index AWV, the number of comorbidities in 2016 (using the Elixhauser Comorbidity Index),17 tobacco use, and osteoporosis in the 2 years preceding the index AWV (using definition from CMS chronic disease data warehous18). “Residential area” was defined as metropolitan, metropolitan urban, or rural according to the 2013 rural–urban continuum codes from the US Department of Agriculture.19

2.4. Statistical analyses

To control differences between the beneficiaries with and without an AWV, propensity-score matching was performed. The propensity score of receipt of an AWV was generated using a logistic regression model including age, gender identity, race/ethnicity, original entitlement, dual eligibility, number of comorbidities, Alzheimer disease and related dementias, and residential area.

For each beneficiary with an AWV, we performed greedy nearest neighbor matching to select one beneficiary without an AWV within a caliper equal to 0.2 standard deviations of the logit of the propensity score. The date of the AWV for the beneficiary receiving the AWV was assigned to the matched non-AWV beneficiate. Then, pairs in which the non-AWV beneficiary’s assigned index date fell after death were excluded. This resulted in 371,247 propensity-score matched pairs.

The frequencies of covariates for beneficiaries with and without an AWV were calculated before and after propensity-score matching and were compared using the chi-squared test. After propensity-score matching, standardized differences were also calculated to assess the balance of covariates between the groups. Separate Kaplan–Meier failure curves were generated for any falls and primary diagnoses of fractures by AWV status. Beneficiaries were censored at lost coverage, death, or study end (12/31/2018). The impacts of AWV receipt in 2017 on the two outcomes of interest were estimated as hazard ratios (HRs) obtained from a conditional Cox proportional hazards model adjusted for the specific study outcome in the year before the index date.

We tested the interaction between each covariate and the AWV in the conditional Cox proportional hazards models for each outcome. In addition, we tested the interaction between previous receipt of AWVs in 2015 and 2016, and receipt of an AWV in 2017. To compare beneficiaries receiving no AWVs during 2015–2017, we removed 73,897 pairs in which non-AWV 2017 beneficiaries received an AWV during 2015–2016. The remaining 297,350 pairs were entered into the sensitivity analyses examining interaction effects of the AWV in 2017 and the AWVs in 2015 and 2016 for falls and fractures. All analyses were performed in the SAS software application (version 9.4: SAS Institute, Cary, NC, USA).

3. Results

3.1. Characteristics of the Medicare fee-for-service beneficiaries

As shown in Table 1, beneficiaries receiving an AWV were younger; more likely to be female, White, eligible for Medicaid coverage, resident in a metropolitan area; also more likely to have more comorbidities and a Medicare original entitlement of Aging; and to be less likely to have Alzheimer disease and related dementias. Table 2 shows that the characteristics used to generate propensity scores were balanced in the groups, with a standardized difference of less than 10%. The AWV group was less likely than the non-AWV group to have experienced falls and fractures in the year before the index date. About 20% of beneficiaries in the non-AWV group, compared with 61.3% in the AWV group, had received an AWV during 2015–2016.

Table 2.

Characteristics of 742,494 Texas Medicare beneficiariesa after propensity-score matching, 2017 data

Characteristic Overall (N) Annual wellness visit in 2017 p Valueb Std. diff.c
No Yes
(n) (%) (n) (%)
Beneficiaries 742,494 371,247 50 371,247 50
Age group
 68–69 Years 59,709 29,854 8.04 29,855 8.04 0.9991 0.0005
 70–74 Years 254,838 127,434 34.33 127,404 34.32
 75–79 Years 192,123 96,063 25.88 96,060 25.87
 80–84 Years 126,940 63,495 17.1 63,445 17.09
 ≥85 Years 108,884 54,401 14.65 54,483 14.68
Sex
 Male 307,422 153,711 41.41 153,711 41.41 1 0
 Female 435,072 217,536 58.6 217,536 58.6
Race/ethnicity
 White 597,263 298,791 80.48 298,472 80.4 0.5597 0
 Black 39,368 19,622 5.29 19,746 5.32
 Hispanic 81,548 40,772 10.98 40,776 10.98
 Other 24,315 12,062 3.25 12,253 3.3
Original Medicare entitlement
 Age 693,687 344,048 92.67 349,639 94.18 0.0001 −0.0608
 ESRD/disabled 48,807 27,199 7.33 21,608 5.82
Dual eligibility
 No 686,451 343,320 92.48 343,131 92.43 0.4064 0.0019
 Yes 56,043 27,927 7.52 28,116 7.57
Morbidities
 0 156,535 78,344 21.1 78,191 21.06 0.995 0
 1 166,237 83,097 22.38 83,140 22.39
 2 149,225 74,607 20.1 74,618 20.1
 3 102,104 51,021 13.74 51,083 13.76
 ≥4 168,393 84,178 22.67 84,215 22.68
With ADRDs
 No 680,571 340,386 91.69 340,185 91.63 0.3989 0.002
 Yes 61,923 30,861 8.31 31,062 8.37
Residential area
 Metropolitan 618,175 309,078 83.25 309,097 83.26 0.9833 0
 Nonmetropolitan urban 115,594 57,798 15.57 57,796 15.57
 Rural 8,725 4,371 1.18 4,354 1.17
Tobacco used
 No 700,254 349,124 94.04 351,130 94.58 0.0001 −0.0233
 Yes 42,240 22,123 5.96 20,117 5.42
Osteoporosise
 No 683,485 345,616 93.1 337,869 91.01 0.0001 0.0772
 Yes 59,009 25,631 6.9 33,378 8.99
Previous fallf
 No 684,126 341,041 91.86 343,085 92.41 0.0001 −0.0205
 Yes 58,368 30,206 8.14 28,162 7.59
Previous fracturef
 No 729,348 364,158 98.09 365,190 98.37 0.0001 −0.0211
 Yes 13,146 7,089 1.91 6,057 1.63
Previous AWV
 Only in 2015 63,735 20,525 5.53 43,210 11.64 0.0001 0.9718
 Only in 2016 117,572 33,208 8.94 84,364 22.72
 In both 2015 and 2016 120,254 20,164 5.43 100,090 26.96
 None 440,933 297,350 80.09 143,583 38.68
a

Excludes 61 pairs with an event record after the recorded death date.

b

By the chi-squared test. A p value < 0.05 was considered statistically significant (the variable was significantly associated with case/control [i.e., annual wellness visits: 1/0]).

c

The propensity-score matching considered gender identity, ADRDs, dual eligibility, age, race/ethnicity, residence, and comorbidities. Because all standard differences for the covariates were <0.1, the propensity-score matching was accepted as well balanced.

d

For tobacco use, we included valid the International Statistical Classification of Diseases and Related Health Problems, 10th Revision (ICD-10)/CPT4/HCPCS codes3: DX F17.200, F17.201, F17.203, F17.208, F17.209, F17.210, F17.211, F17.213, F17.218, F17.219, F17.220, F17.221, F17.223, F17.228, F17.229, F17.290, F17.291, F17.293, F17.298, F17.299, O99.330, O99.331, O99.332, O99.333, O99.334, O99.335, T65.211A, T65.212A, T65.213A, T65.214A, T65.221A, T65.222A, T65.223A, T65.224A, T65.291A, T65.292A, T65.293A, T65.294A, Z72.0 (any DX on the claim); HCPCS codes: 99406, 99407, G9276, G9458; valid the International Statistical Classification of Diseases and Related Health Problems, 9th Revision (ICD-9)/MS DRG/HCPCS codes3: DX 305.1, 649.00, 649.01, 649.02, 649.03, 649.04, 989.84 (any DX on the claim); and HCPCS Codes: 99406, 99407.

e

For osteoporosis, we included ICD-10 codes: M81.0, M81.6, M81.8.

f

Within the 12 months preceding the index date.

ESRD = end-stage renal disease; ADRDs = Alzheimer disease and related dementias; AWV = annual wellness visit.

3.2. Associations between AWV receipt and falls

As shown in Figure 1a, the fall rates at 24 months of follow-up for the AWV and non-AWV groups from the Kaplan–Meier curves were 16.61% and 17.31% respectively. AWV receipt in 2017 was associated with a 3.9% reduction in the risk for falls (HR: 0.961; 95% confidence interval [CI]: 0.948 to 0.974) with adjustment for a previous fall (eTable S3, Models 1). Further control based on AWV receipt during 2015–2016, tobacco use, and osteoporosis, slightly attenuated the effect of AWV receipt in 2017 on falls (HR: 0.974; 95% CI: 0.958 to 0.991) (eTable S3, Models 2).

Figure 1.

Figure 1.

Kaplan–Meier failure graphs with customized y-axes (failure probability) for (a) falls and (b) fractures as a primary diagnosis. The p value of the log-rank test in both cases is significant at the 0.05 level. AWV = annual wellness visit.

Table 3, Model A, shows stratified results for the effect of 2017 AWV receipt on risk of fall at each level of a covariate for which a significant interaction between that covariate and AWV receipt was found in the conditional Cox proportional hazards models. The effect of 2017 AWV receipt on fall reduction was stronger for those receiving an AWV in both 2015 and 2016 or those receiving an AWV in 2016 (respectively, HR: 0.887; 95% CI: 0.799 to 0.985; HR: 0.899; 95% CI: 0.819 to 0.987), and rural residents (HR: 0.799; 95% CI: 0.679 to 0.941).

Table 3.

Cox model results for 742,494 propensity-score matched Medicare beneficiaries with or without an annual wellness visit (AWV) in 2017

Model Parameter Comparator HR 95% CI
A. Significant interaction effects for 2017 AWV receipt in predicting falls
Previous AWV AWV in both 2015 and 2016 0.887 0.799–0.985
No AWV in either 2015 or 2016 0.992 0.967–1.017
AWV in 2015 only 0.933 0.809–1.077
AWV in 2016 only 0.899 0.819–0.987
Comorbidities 0 1.073 1.022–1.126
1 0.943 0.907–0.981
2 0.97 0.934–1.008
3 0.947 0.908–0.988
≥4 0.969 0.942–0.996
Race/ethnicity White 0.971 0.953–0.989
Black 0.935 0.862–1.015
Hispanic 1.029 0.981–1.079
Other 0.858 0.766–0.961
Residence Metropolitan 0.974 0.956–0.992
Nonmetropolitan urban 0.983 0.942–1.025
Rural 0.799 0.679–0.941
B. Significant interaction effects for 2017 AWV receipt in predicting fracture as the primary diagnosis
Comorbidities 0 1.081 0.982–1.189
1 0.968 0.893–1.048
2 1.008 0.932–1.09
3 1.006 0.923–1.097
≥4 0.918 0.867–0.972

HR = hazard ratio; CI = confidence interval.

3.3. Associations AWV receipt and fractures

As shown in Figure 1b, the fracture rates at 24 months of follow-up for the AWV and non-AWV groups from the Kaplan–Meier curves were 3.87% and 3.98% respectively. AWV receipt in 2017 was associated with a 4% reduction in the risk for facture (HR: 0.960; 95% CI: 0.934 to 0.988) with adjustment for a previous facture. However, with further control based on AWV receipt during 2015–2016, tobacco use, and osteoporosis, that association became insignificant (HR: 0.978; 95% CI: 0.946 to 1.102; eTable S3, Models 3 and 4).

Table 3, Model B, shows stratified results for the effect of 2017 AWV receipt on risk on facture at each level of a covariate for which a significant interaction between that covariate and AWV receipt was found in the conditional Cox proportional hazards models. The effect of 2017 AWV receipt on fracture reduction was stronger for beneficiaries with ≥4 comorbidities (HR: 0.918; 95% CI: 0.867 to 0.972).

3.4. Sensitivity analyses

Table 4 shows comparing to beneficiaries without AWV in 2015–2017, the effect of 2017 AWV receipt on reduction in falls or fractures after adjusted for previous falls or previous fractures, tobacco use and osteoporosis. The effect was stronger for beneficiaries with an AWV in 2015 and 2016 (fall: HR: 0.898; 95% CI: 0.871 to 0.926; fracture: HR: 0.896; 95% CI: 0.842 to 0.954). The effect was also stronger for beneficiaries receiving an AWV in 2016 only (fall: HR: 0.944; 95% CI: 0.913 to 0.975; facture: HR: 0.905; 95% CI: 0.846 to 0.968).

Table 4.

Sensitivity analyses for 297,350 Medicare beneficiary pairs (594,700 observations) with and without an annual wellness visit (AWV) in 2017a

Analysis Parameter Comparator HR 95% CI
1. Predicting falls in 2017 and 2018: significant interaction effects for receiving an AWV in 2017 and receiving a previous AWV
Previous AWV AWV in both 2015 and 2016 0.898 0.871–0.926
No AWV in either 2015 or 2016 0.992 0.967–1.017
AWV in 2015 only 1.0 0.958–1.044
AWV in 2016 only 0.944 0.913–0.975
2. Predicting fracture as the primary diagnosis in 2017 and 2018: significant interaction effects for receiving an AWV in 2017 and receiving a previous AWV
Previous AWV AWV in both 2015 and 2016 0.896 0.842–0.954
No AWV in either 2015 or 2016 1.004 0.953–1.057
AWV in 2015 only 1.005 0.92–1.099
AWV in 2016 only 0.905 0.846–0.968
a

Excludes 73,897 pairs (147,794 observations) in which the control beneficiary received an AWV in either or both of 2015 and 2016.

HR = hazard ratio; CI = confidence interval.

3.5. Additional sensitivity analyses

To ensure our study results were robust for the definition of fall and fracture, we used CQ3 algorithm from Mintz et al. paper-the outpatient and provider claims with fall20 to identify fall, and searched for any diagnosis positions to identify fracture. The difference of fall and fracture between patients with and without AWV from these new definitions were quite similar to our main analyses (eTable S4, eTable S5) suggesting that the codes in eTable S2 produced robust results.

4. Discussion

4.1. Discussion and practical implications

We observed that, when community-dwelling older adults received an AWV in 2017, their risk of experiencing falls and fractures over the subsequent 24 months was about 4% lower than the risk for those who did not receive an AWV in 2017. The study findings thus support our hypothesis. The findings of this study align with the AGS and BGS recommendations that healthcare providers should screen adults ≥65 years of age annually for a history of falls.9 The US CDC encourage healthcare providers to use the AGS and BGS clinical practice guidelines for preventing falls and fall-related fractures, and provide recommendations for fall risk screening, assessment, and interventions for older adults ≥65 years of age.913

AWVs would be ideal for delivering fall prevention patient education and introducing interventions relevant to the risk factors faced by older adults (e.g., removing or replacing potentially inappropriate medications21,22). In our study, it shows that two or three consecutive years AWV receipt associated with a higher decreased risk of future falls and fractures. That finding highlights the value of assessing and addressing changes in risk factors annually and “nudging” community-dwelling older adults toward fall prevention self-care.

The effect size of the 2017 AWV on fall reduction was larger for rural residents, who experienced a 20.1% lower risk of falling. That observation further affirmed that rural and urban community-dwelling older adults might have different risk factors for falls. Intuitively, hospitals and medical clinics might be assumed to be more accessible for urban residents than rural residents. Our study findings did not support that assumption, however. Our result implies that, compared with urban residents, rural residents might have a more socially active and physically outdoor-focused lifestyle23 with a higher risk of falls; therefore, AWV was associated with a large effect on fall reduction. The wellbeing of older adults might link less to the density of medical care services in their residential areas, and more to their chosen lifestyle and wellness practice. Future research using Medicare beneficiary files and other health- and wellbeing-related databases (e.g., U.S. census data) is needed to verify this hypothesis.

Critical access hospitals and medical clinics in rural areas could have played a key role in promoting AWV delivery for rural residents. However, Medicare data do not capture how AWVs are marketed and implemented in rural areas versus metropolitan and nonmetropolitan urban areas. An important area for future study is a comprehensive examination of the campaign strategies that local governments in rural areas adopt to promote preventive health services and urge AWV delivery by prioritizing AWV receipt rates. Increasing AWV delivery could potentially be achieved by operating mobile clinics or stationing clinics at community events or harvest-related festivals in rural areas. We speculate that trust-building between health systems, local governments, and rural residents, and meeting older adults where they are (e.g., fall prevention strategies tailored to the individual’s risks, needs, and preferences1,2,7) could have contributed to the significant benefit of AWV receipt in lowering the risk of falls. Future research to identify effective implementation strategies for AWVs is needed.

The effect on fracture reduction of AWV receipt in 2017 was stronger for older adults with ≥4 comorbidities, who had an 8.2% lower risk of future fractures. Such individuals might have derived greater benefit from the AWV-required medication reconciliation of the multiple medications prescribed for their multiple comorbidities. Medication reconciliation—the process of comparing a patient’s medical conditions with all the prescribed and over-the-counter medications that the patient has been taking—intends to avoid medication errors resulting from omissions, duplications, dosing errors, or drug interactions.21,22 Additional research is warranted to confirm the benefit of person-centered AWVs related to tailored interventions for fall and fracture prevention.

4.2. Study limitations

Our study has some limitations. The analyses were limited to Medicare fee-for-service beneficiaries in Texas and to Medicare billing data, which do not capture how healthcare providers perform AWVs (e.g., actively engaging beneficiaries alone vs. engaging beneficiaries and their family caregivers together, using strategies to engage beneficiaries in self-care related to fall and fracture prevention). As a result, we could not determine whether appropriate discussions were held with the beneficiaries (e.g., whether the priorities and health goals of the beneficiaries to prevent falls and fractures were discussed).

Our observed association might possibly be attributed, at least in part, to residual confounding, in that beneficiaries with healthy behaviors would be more likely to have an AWV. We attempted to address that issue by using propensity-score matching. We also adjusted the conditional Cox proportional hazard regression model analysis for the previous AWVs, previous falls or fractures, tobacco use, and osteoporosis. Future study controlling for other health behaviors, such as physical activity from survey and Medicare linkage data, is needed. Another limitation is that potentially inappropriate medications21,22 before AWV, which could be associated with a higher risk of fractures, were not included as covariates in the analyses. Potentially inappropriate medication use could also reduce after medication reconciliation during AWV, which could mediate the association between AWV and fall/fracture. This topic deserves a separate study for Medicare enrollees with continuous enrollment in the Part D drug plan. Our study also did not capture minor falls not requiring medical services. In addition, information about the physical environment at home (e.g., presence or absence of ramps or railings, bathroom grab bars, and night lights) that might affect the study outcome was unavailable.

4.3. Future research

Future research using electronic health records and qualitative methods are needed to understand how AWVs are delivered, especially with respect to revealing the most effective strategies for educating older adults in self-care to prevent falls and fractures in various AWV delivery settings (e.g., health system–affiliated clinics, independent practices). Data from such studies can guide development and implementation of AWV protocols based in the strongest evidence for reduction of falls and fractures in community-dwelling older adults. An important focus would be a comprehensive examination of the strategies that local governments in rural areas have successfully adopted to promote preventive health services and fall prevention triggered by AWV receipt. Data from such a study could inform other communities about how to expand AWV delivery by all clinicians caring for the Medicare population.

5. Conclusions

During a 24-month follow-up period, older adults in Texas were less likely to experience falls and fractures when they had received a Medicare AWV than when they had not. Using the AWV to deliver fall and fracture education could be one strategy to address the current fall and fracture epidemic in Texas.6 Falls and fall-related injuries are potentially preventable in community-dwelling older adults, and thus awareness and use of Medicare AWVs in day-to-day clinical practice should be increased.1,2,7 National policies, public health actions, and clinical practices are vital to ensuring that all older adults are engaged in self-care for fall and fracture prevention.8

The US CMS could use public campaigns targeted at community-dwelling older adults and their family caregivers to raise awareness about the preventive medicine goals of AWVs. Such campaigns should focus on AWVs being free of charge to Medicare beneficiaries. The CMS could also potentially introduce incentives for healthcare providers (e.g., one of the new quality measures linked to Medicare payments) to deliver AWVs annually to every older adult who is eligible for Medicare Part B preventive services, which cover services to prevent or detect illness. Beneficiaries with Medicare Part B pay nothing for most preventive services. For example, to promote safety and prevent falls and fractures in older adults living in our communities, a “Have you had your free annual wellness visit this year?” slogan targeted to places where such individuals gather could be the gentle nudge needed. Development of such slogans should always consider local culture and customs (e.g., adding wellbeing-related Bible verses for faith-based communities, or role models for ethnic communities).

Supplementary Material

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HIGHLIGHTS.

  • Older adults having an annual wellness visits (AWV) had less fall and fracture risks.

  • Receiving an AWV was associated with reduced risks for future falls and fractures.

  • The effect of AWV was stronger on fall reduction in rural residents.

  • The AWV effect was stronger on fracture reduction in those with ≥4 morbidities.

  • Receipt of an AWV in 3 consecutive years further lowered the risk of future falls.

Funding

This work was supported by the US National Institutes of Health (grant number P30-AG024832). The funding source had no involvement in study design; in the collection, analysis, and interpretation of data; in the writing of the report; and in the decision to submit the article for publication.

Footnotes

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Conflicts of interest

All authors have no conflicts of interest to declare.

Data statement

The data used in this manuscript is a research identified file from the Centers for Medicare and Medicaid Services, which do not permit such submissions.

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Associated Data

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

Supplementary Materials

1

Data Availability Statement

The data used in this manuscript is a research identified file from the Centers for Medicare and Medicaid Services, which do not permit such submissions.

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