Abstract
Purpose:
Smoking and at-risk drinking are each associated with lower primary care utilization, but the influence of their co-occurrence is not known. The current study compared associations of endorsement of one behavior vs endorsement of both with primary care utilization.
Design:
Cross-sectional telephone survey.
Setting:
All United States and Territories.
Subjects:
246 801 adults aged 18–64.
Measures:
The outcome was endorsement of attending a past-year primary care visit. Predictor variables included drinking and smoking status examined individually and combined.
Analysis:
Multivariable logistic regressions, adjusted for socio-demographics and number of chronic health conditions.
Results:
The odds of attending a past-year primary care visit were 24% lower for persons who drank at risk levels compared to the odds of persons who did not drink and 36% lower for persons who smoked vs those who did not smoke. Among persons who endorsed at least one risk behavior, the odds of attending a past-year primary care visit were 25–35% lower for those who engaged in multiple behaviors compared to the odds of persons who engaged in one behavior.
Conclusion:
Substance use screening and intervention services in primary care may not be reaching individuals with the greatest need for services. Proactive outreach and identification of primary care utilization barriers are needed, with special consideration of those with co-occurring substance use.
Keywords: primary care, primary care utilization, alcohol, smoking, health risk behaviors, multiple health risk behaviors
In brief
Smoking and at-risk drinking are each associated with lower primary care utilization, but the influence of their co-occurrence on primary care utilization is not known. As such, the present study examined associations of at-risk drinking, current smoking, and their co-occurrence with attending a past-year primary care checkup using a nationally representative sample of adults aged 18–64. Results showed that at-risk drinking and current smoking were each associated with lower odds of attending a past-year primary care checkup. The key study finding is that their co-occurrence is associated with lower odds of attending a past-year primary care checkup compared to engaging in only one of these behaviors. Thus, substance use screening and intervention services in primary care may not be reaching individuals with the greatest need for services. Future research is needed to identify and alleviate barriers of primary care utilization among this population.
Purpose
Approximately 12.6% of adults in the United States (U.S.) engage in at-risk drinking (ie, either binge or heavy drinking).1 At-risk drinking is linked to numerous chronic health conditions such as heart disease,2 liver disease,3 and cancer.4 Approximately 13.7% of U.S. adults currently smoke,5 and smoking is the leading cause of preventable morbidity and mortality in the U.S.6 Smoking is a causal factor for numerous chronic health conditions, including heart disease, cancer, and asthma.7,8 The co-occurrence of smoking and at-risk drinking is significant,9,10 as over 43% of persons who smoke also meet criteria for at-risk drinking.11 Furthermore, the co-occurrence of at-risk drinking and smoking is associated with increased risk of chronic health conditions compared to engaging in one behavior.12−14
Many adults who drink excessively and/or smoke do not seek substance use treatment services.15–17 Primary care providers provide critical prevention, diagnosis, and treatment services for chronic health conditions that are disproportionately experienced by persons who drink excessively and/or smoke.18–21 Thus, they are well-positioned to identify and refer individuals who may need services for alcohol and tobacco use, but who may not otherwise seek services on their own.22,23 The World Health Organization (WHO) recommended the implementation of screening, brief intervention, and referral to treatment services (SBIRT) for alcohol, tobacco, and substance use in primary care settings to fill the gap between prevention and treatment services for substance use.22,24,25 SBIRT is widely implemented in primary care settings in the U.S.,25 and has demonstrated effectiveness in identifying and treating individuals who drink above moderate levels (ie, at-risk drinking) or smoke.15,26,27 However, screening and intervention services for health risk behaviors in primary care settings are reliant on individuals presenting to their healthcare providers,28 and the relationship between at-risk drinking, smoking, and their co-occurrence with primary care utilization is largely understudied.
The role of primary care settings for identifying and serving persons who drink at-risk levels and smoke may be limited by the extent to which these persons use primary care services. Prior studies indicate mixed findings regarding associations of at-risk drinking with attending a primary care checkup.29–32 One nationally representative U.S. study found that persons who drink at-risk levels had lower rates of attending a checkup than those who do not drink.29 However, two U.S. studies that also used nationally representative samples found that the likelihood of past-year primary care attendance did not significantly differ by at-risk drinking status.30,31 Finally, one German study found that, compared to not drinking, at-risk drinking was associated with higher odds of attending a past-year primary care visit among women, but not among men.32
Persons who smoke are generally less likely to use primary care services than persons who do not smoke.33–38 However, few U.S. studies have examined the relationship between smoking status and primary care attendance. One study found daily smoking to be associated with lower odds of attending a primary care checkup than non-smoking.33 A study of Colorado primary care patients found that persons who do not smoke have significantly higher odds of attending a past-year primary care visit compared to persons who smoke.34 Kahende et al.’s36 study of a nationally representative sample of U.S. adults found that current smoking was not associated with primary care attendance. Prior studies have found that having previously smoked is associated with a higher likelihood of primary care attendance compared to never having smoked,33,36 but some studies found no such association.37,38
Research on health risk behaviors and primary care utilization has focused on individual health risk behaviors. In addition to the increased risk of chronic health conditions associated with multiple health risk behaviors,12–14,39 those who engage in co-occurring at-risk drinking and smoking report more frequent alcohol and tobacco use and have greater difficulty in cessation of these behaviors.40–42 Given the greater need for preventive services by persons who engage in these behaviors, the absence of research examining the association of multiple risk behaviors with primary care attendance is a significant gap in the literature. Therefore, the purpose of the current study is to explore the associations between at-risk drinking, current smoking, and their co-occurrence with primary care attendance. The primary research question examined is: Among those who engage in at least one health risk behavior, is engagement in multiple health risk behaviors associated with a past-year checkup? Secondary research questions examined include whether each individual behavior (drinking status and smoking status) is associated with attending a past-year checkup. Due to the mixed findings regarding associations between at-risk drinking and smoking with primary care attendance and the dearth of evidence surrounding associations between engagement in multiple health risk behaviors with primary care attendance, we refrain from making formal hypotheses with regard to the associations examined in the current study.
Methods
Design
Study data comes from the 2018 Behavioral Risk Factor Surveillance System (BRFSS),43 which is a nationally representative survey of health behaviors, chronic health conditions, and healthcare access among U.S. adults. Data is collected through cellular and landline phone calls in all 50 states, the District of Columbia, Guam, and Puerto Rico.43 A raking weighting methodology is used to improve the sample’s generalizability to individual states and territories.43 BRFSS contains optional modules and state-added questions, which are administered to subsets of respondents. BRFSS core items are those administered to every survey respondent.43 This study exclusively utilized data from core items because of their administration to respondents in all fifty states and participating territories.43
Sample
The present study’s sample was composed of respondents between 18–64 years old with complete data on key variables (N = 246 801). Analyses examining engagement in multiple health risk behaviors included the subsample of adults who endorsed engagement in either current drinking or current smoking and adults who endorsed engagement in both behaviors (N = 158 162).
Measures
Attending a checkup in the past year was the outcome variable of this study. Past-year checkup was a dichotomous variable computed from responses to the following BRFSS item: “About how long has it been since you last visited a doctor for a routine checkup? [A routine checkup is a general physical exam, not an exam for a specific injury, illness, or condition.].” Item responses included “within past year”; “within past 2 years”; “within past 5 years”; or “5 or more years ago.” Responses of “within past year” were recoded as “yes” and other responses were recoded as “no.”
Drinking was a computed three-category variable of drinking behavior in the past-month that denoted at-risk drinking, non-at-risk drinking (ie, past-month drinking that did not meet criteria for at-risk drinking), and no drinking. Engagement in at-risk drinking in the past month was operationalized consistent with National Institute on Alcohol Abuse and Alcoholism (NIAAA) criteria44: consumption of 4 or more drinks on one occasion or 8 or more drinks per week for women, and; consumption of 5 or more drinks on one occasion or 15 or more drinks per week for men.45
Smoking status was a computed three-category variable that indicated if a respondent endorsed current smoking, former smoking, or non-smoking. Current smoking was operationalized as self-report of having smoked at least 100 cigarettes in one’s lifetime and currently smoking “some days” or “every day.” Participants who reported smoking 100 or more cigarettes and answered “not at all” to the current smoking item were coded as being a former smoker. Those who did not report smoking 100 cigarettes or more in their lifetime were coded as never having smoked (ie, non-smoking).
Covariates included sociodemographic characteristics and chronic health conditions that could confound the relationship between health risk behaviors and attending primary care. The referent category for each of the categorical variables included in multivariable logistic regression analyses are presented in Table 3. Sex was defined as male or female. Race/ethnicity classifications were Black non-Hispanic, Hispanic, Other Race non-Hispanic, and White non-Hispanic. Age was a five-category variable as follows: 18–24, 25–34, 35–44, 45–54, and 55–64. Educational attainment was a three-category variable representing high school diploma/GED or less, some college or technical school, or completed college or technical school. Marital status indicated whether a respondent was married/partnered or not married/partnered. Employment status indicated whether a respondent was employed (full or part time) or not employed. Metropolitan area refers to the participant’s county of residence and was coded as metropolitan (counties in a metropolitan statistical area with a population ≥50 000) or non-metropolitan (counties in a micropolitan statistical area or counties that are not in proximity to an urban core).46 Health insurance status denoted whether a respondent reported any form of health insurance or was uninsured. Individual items from the BRFSS capture lifetime diagnosis of following chronic health conditions: heart attack, angina or coronary heart disease, stroke, asthma, skin cancer, other types of cancer, chronic obstructive pulmonary disease (or emphysema or chronic bronchitis), arthritis, depressive disorder, kidney disease, and diabetes. Positive responses to each of these items were summed to obtain the total number of chronic health conditions. Less than 1% of respondents reported 6 or more chronic health conditions. Thus, total number of chronic health conditions was coded with a truncated range of 0 to 5 or more. Income was considered but excluded due to multicollinearity with marital status and education in the adjusted models (variance inflation factors >4), which resulted in overfit models.
Table 3.
Multivariable logistic regression analyses of attending a past-year checkup, 2018 Behavioral Risk Factor Surveillance System.
| Predictor | Adjusted odds ratios and 95% confidence intervals |
|||||
|---|---|---|---|---|---|---|
| Model 1 (N = 246 801) | Model 2 (N = 246 801) | Model 3 (N = 158 162) | ||||
|
| ||||||
| Sex (men) | ||||||
| Women | 1.43 | (1.37–1.48) | 1.44 | (1.38–1.49) | 1.41 | (1.34–1.48) |
| Race (white non-Hispanic) | ||||||
| Black non-Hispanic | 2.07 | (1.93–2.21) | 2.07 | (1.93–2.22) | 2.08 | (1.91–2.27) |
| Hispanic | 1.28 | (1.20–1.36) | 1.23 | (1.16–1.32) | 1.23 | (1.13–1.33) |
| Other race | 1.09 | (1.01–1.18) | 1.12 | (1.03–1.21) | 1.06 | (.96–1.17) |
| Age (55–64) | ||||||
| 18–24 | .62 | (.57–.66) | .58 | (.54–.62) | .55 | (.50–.60) |
| 25–34 | .51 | (.48–.54) | .51 | (.48–.54) | .49 | (.46–.53) |
| 35–44 | .59 | (.56–.63) | .60 | (.56–.64) | .60 | (.56–.64) |
| 45–54 | .80 | (.75–.85) | .80 | (.76–.86) | .79 | (.73–.85) |
| Education (graduated college/technical school) | ||||||
| High school graduate or less | .89 | (.85–.93) | .99 | (.94–1.04) | .88 | (.83–.93) |
| Some college/technical school | .92 | (.88–.96) | .97 | (.93–1.02) | .94 | (.89–.99) |
| Marital status (married/Partnered) | ||||||
| Not married/partnered | .91 | (.87–.95) | .93 | (.90–.97) | .90 | (.85–.94) |
| Employment status (employed) | ||||||
| Unemployed | .83 | (.79–.87) | .81 | (.77–.84) | .82 | (.77–.87) |
| Metropolitan area (metropolitan) | ||||||
| Nonmetropolitan | .96 | (.92–1.00) | .99 | (.94–1.03) | .96 | (.91–1.01) |
| Health insurance status (insured) | ||||||
| Uninsured | .30 | (.28–.31) | .31 | (.29–.32) | .29 | (.27–.31) |
| Number chronic health conditions | 1.29 | (1.26–1.31) | 1.32 | (1.29–1.35) | 1.28 | (1.25–1.32) |
| At-risk drinking (non-drinking) | ||||||
| Non-at-risk drinking | .89 | (.85–.93) | ||||
| At-risk drinking | .76 | (.72–.80) | ||||
| Smoking status (non-smoking) | ||||||
| Former smoking | .97 | (.92–1.02) | ||||
| Current smoking | .64 | (.60–.67) | ||||
| Multiple behaviors (one behavior)a | ||||||
| Current smoking + non-at-risk drinking | .75 | (.69–.82) | ||||
| Current smoking + at-risk drinking | .65 | (.60–.70) | ||||
Note: Boldface indicates statistical significance. Reference groups are denoted in parentheses.
Engagement in one behavior refers to engaging in only one of the following behaviors: at-risk drinking, non-at-risk drinking, or current smoking.
Analysis
Analyses were performed using Mplus (v. 7.4) and Stata 16. All estimates were weighted by employing BRFSS cluster, stratification, and individual person weights. Descriptive statistics included univariate frequencies for participant descriptive characteristics and unadjusted rates of attending a past-year checkup by health behavior status. Multivariable logistic regression analyses were conducted to examine associations between drinking status with a past-year checkup (Model 1); associations between smoking status with a past-year checkup (Model 2); and associations of co-occurring drinking and current smoking (vs engagement in one behavior) with a past-year checkup among adults who engaged in at least one of these behaviors (Model 3). In Model 1, no past month drinking was coded as the referent category and non-at-risk drinking and at-risk drinking were coded as indicators (ie, 0 = no drinking; 1 = non-at-risk drinking; 2 = at-risk drinking. In Model 2, non-smoking was coded as the referent category and former smoking and current smoking were coded as indicators (ie, 0 = non-smoking; 1 = former smoking; 2 = current smoking. Because persons who formerly and never smoked did not differ significantly from each other, these two categories were combined in Model 3. Thus, engagement in multiple health risk behaviors was represented by two dichotomous variables wherein “current smoking + non-at-risk drinking” and “current smoking + at-risk drinking” were each compared to “one behavior.” In Model 3, engagement in only one behavior (current smoking or non-at-risk drinking or at-risk drinking only) was coded as the referent category and engagement in non-at-risk drinking and current smoking and engagement in at-risk drinking and current smoking were coded as indicators, respectively, (ie, 0 = one behavior; 1 = non-at-risk drinking and current smoking; 2 = at-risk drinking and current smoking).
Adjusted rates of attending a primary care checkup were computed from the estimated models. All multivariable analyses adjusted for sociodemographics and chronic health conditions.
Results
Sample Characteristics
Table 1 shows that 72.5% of U.S. adults aged 18–64 attended a past-year checkup in 2018. Additionally, 21.1% of respondents engaged in at-risk drinking, and 17.2% reported current smoking. One-third of respondents reported either at-risk drinking or current smoking, of which 17.6% reported co-occurring at-risk drinking and current smoking. Table 2 shows the unadjusted rates of attending a past-year checkup. A lower percentage of persons who engaged in at-risk drinking (65.7%) attended a past-year check-up than persons who did not drink (75.2%) and persons who engaged in non-at-risk drinking (73.2%). Additionally, 65.1% of persons who currently smoked attended a past-year checkup compared to 74.9% of persons who formerly smoked and 73.8% of those who never smoked. Among persons who reported current drinking or smoking, 58.0% of persons who engaged in at-risk drinking and current smoking attended a past-year checkup, vs 65.6% of persons who engaged in non-at-risk drinking and current smoking, and 72.2% of persons who engaged in only one behavior.
Table 1.
Participant Characteristics, 2018 Behavioral Risk Factor Surveillance System (N = 246 801).
| Characteristics | Prevalence (95% CI) |
|---|---|
|
| |
| Past-year checkup | |
| Did not attend | 27.5 (27.1–27.8) |
| Attended | 72.5 (72.2–72.9) |
| Sex | |
| Women | 50.5 (50.1–50.9) |
| Men | 49.5 (49.1–49.9) |
| Race/Ethnicity | |
| Black non-Hispanic | 12.0 (11.8–12.3) |
| Hispanic | 18.7 (18.4–19.1) |
| Other race | 8.7 (8.4–8.9) |
| White non-Hispanic | 59.1 (58.8–59.5) |
| Age | |
| 18–24 | 15.8 (15.5–16.1) |
| 25–34 | 22.2 (21.9–22.6) |
| 35–44 | 20.3 (20.0–20.6) |
| 45–54 | 20.2 (19.9–20.5) |
| 55–64 | 21.6 (21.3–21.9) |
| Education | |
| High school graduate or less | 39.8 (39.4–40.2) |
| Attended college or technical school | 31.3 (30.9–31.7) |
| Graduated from college or technical school | 29.0 (28.6–29.3) |
| Marital status | |
| Married/Partnered | 55.2 (54.9–55.6) |
| Not married | 44.8 (44.4–45.2) |
| Employment status | |
| Employed | 68.8 (68.4–69.1) |
| Unemployed | 31.2 (30.9–31.6) |
| Metropolitan area | |
| Metropolitan | 85.6 (85.4–85.8) |
| Nonmetropolitan | 14.4 (14.2–14.6) |
| Health insurance status | |
| Insured | 85.7 (85.3–86.0) |
| Uninsured | 14.4 (14.0–14.7) |
| Mean number of chronic health conditions | .9 (.8–.9) |
| At-risk drinking status | |
| Non-drinking | 44.7 (44.3–45.1) |
| Non-at-risk drinking | 34.3 (33.9–34.7) |
| At-risk drinking | 21.1 (20.7–21.4) |
| Smoking status | |
| Non-smoking | 62.7 (62.3–63.1) |
| Former smoking | 20.1 (19.8–20.4) |
| Current smoking | 17.2 (16.9–17.5) |
| Drinking and current smoking behaviors | |
| None | 37.7 (37.3–38.1) |
| Non-at-risk drinking, at-risk drinking, or current smoking | 62.3 (61.9–62.7) |
| Co-occurring drinking and current smokinga | |
| One behavior only | 83.5 (83.1–83.9) |
| Current smoking + non-at-risk drinking | 7.3 (7.1–7.6) |
| Current smoking + at-risk drinking | 9.2 (8.9–9.5) |
| At-risk drinking and current smoking behaviors | |
| None | 67.5 (67.1–67.8) |
| At-risk drinking or current smoking | 32.5 (32.2–32.9) |
| Co-occurring at-risk drinking and current smokingb | |
| One behavior only | 82.4 (81.9–83.0) |
| Current smoking + at-risk drinking | 17.6 (17.1–18.1) |
Among those who engaged in either non-at-risk drinking, at-risk drinking, or current smoking.
Among those who engaged in either at-risk drinking, or current smoking.
Table 2.
Prevalence Rates of Attending A Past-Year Checkup by Health Risk Behaviors (N = 246 801), 2018 Behavioral Risk Factor Surveillance System.
| Rates of attending a past-year checkup (95% confidence interval) |
||
|---|---|---|
| Unadjusted | Adjusted | |
|
| ||
| Drinking status | ||
| Non-drinking | 75.2 (74.7–75.8) | 74.3 (73.8–74.9) |
| Non-at-risk drinking | 73.2 (72.6–73.8) | 72.3 (71.7–72.9) |
| At-risk drinking | 65.7 (64.9–66.5) | 69.3 (68.6–70.1) |
| Smoking status | ||
| Non-smoking | 73.8 (73.4–74.3) | 74.1 (73.6–74.5) |
| Former smoking | 74.9 (74.2–75.7) | 73.5 (72.8–74.3) |
| Current smoking | 65.1 (64.2–65.9) | 65.5 (64.6–66.4) |
| Multiple health risk behaviorsa | ||
| One behaviorb | 72.2 (71.7–72.7) | 71.6 (71.1–72.1) |
| Current smoking + non-at-risk drinking | 65.6 (63.9–67.3) | 66.0 (64.3–67.7) |
| Current smoking + at-risk drinking | 58.0 (56.3–59.6) | 63.1 (61.6–64.6) |
Note: Adjusted rates are adjusted for for sociodemographic characteristics and number of chronic health conditions.
Among those who engaged in non-at-risk drinking, at-risk drinking, or current smoking.
Engagement in one behavior refers to engaging in only one of the following behaviors: at-risk drinking, non-risk drinking, or current smoking.
Associations of Drinking, Smoking, and Their Co-Occurrence With Attending a Past-Year Checkup
Table 3 summarizes model results. Model 1 shows that persons who drank at non-at-risk levels (adjusted odds ratio [AOR] = .89, 95% confidence interval [CI] = .85–.93) and persons who drank at risk levels (AOR = .76,95% CI =.72–.80) had lower odds of attending a past-year checkup relative to the odds of those who did not drink, adjusting for socio-demographics and chronic health conditions. As shown in Table 2, adjusted rates of attendance were significantly lower for persons who drank at risk levels compared to persons in either of the other two drinking categories. The rate of attendance for persons who drank at non-at-risk levels was significantly lower than that of persons who did not drink.
Model 2 shows those who currently smoked had lower odds of attending a past-year checkup relative to the odds of persons who had never smoked (AOR = .64, 95% CI = .60–.67). Odds of attending a past-year checkup did not differ between persons who had formerly smoked and never smoked (AOR = .97, 95% CI = .92–1.02; Table 3). Table 2 shows that adjusted rates of a past-year checkup were significantly lower for persons who currently smoked compared to persons who formerly and never smoked, but rates did not differ between persons who formerly smoked and never smoked.
Table 3 shows that in Model 3, adults who engaged in more than one health risk behavior had lower odds of attending a past-year checkup than the odds of persons who engaged in one behavior: current smoking + non-at-risk drinking, AOR = .75, 95% CI = .69–.82; current smoking + at-risk drinking, AOR = .65, 95% CI = .60–.70. Adjusted rates of a past-year checkup were significantly lower among persons who engaged in more than one health risk behavior compared to those who engaged in one (Table 2).
Discussion
The present study used data from a large nationally representative sample to examine associations of drinking, current smoking, and their co-occurrence with attending a past-year checkup. This study builds upon the extant research because, to our knowledge, this is the first study to examine associations between co-occurring health risk behaviors and primary care utilization. Odds of attending an annual checkup were lower for persons who engaged in a health risk behavior compared to persons who did not engage in that behavior. These differences persisted even when adjusting for chronic health conditions and sociodemographic characteristics. New to the literature is the finding that persons who concurrently engaged in both drinking and smoking had lower odds of attending a past-year checkup than persons who engaged in only one of these behaviors.
The finding that at-risk drinking was associated with a lower likelihood of attending a primary care check-up is consistent with Naimi et al’s findings.29 However, Heise30 and Cherpitel and Ye31 found no association, and Hoebel et al32 found that at-risk drinking was associated with higher odds of attendance among women but not men. Previous null findings may have been a function of different time frames for alcohol consumption used across studies. Specifically, Heise30 and Cherpitel and Ye31 examined past-year alcohol consumption. Similarly, Hoebel et al32 measured alcohol consumption with the AUDIT-C, which has been validated to screen for past-year at-risk drinking and alcohol use disorder.47 Past-year recall of one’s drinking patterns should be less reliable than past-month recall, which could in turn introduce error that would obscure any associations with alcohol consumption. Another possible source of error could lie in the operationalization of alcohol consumption in these studies. Although Hoebel et al32 used recommended cut-off scores for the AUDIT-C to classify at-risk drinking (≥4 for women, ≥5 for men),47 scores as low as 1 on items 2 and 3 are also indicative of at-risk drinking.48 Heise30 designated the range of 1–11 days of binge-drinking in the past year as “low at-risk” (vs ≥ 12 days, “high at risk”). This operationalization does not reflect standard criteria for at-risk drinking and divides those who would otherwise be considered “at-risk” in the past year into two arbitrarily defined at-risk drinking categories. Thus, both Hoebel et al’s32 and Heise’s30 operationalizations could have resulted in moderate-risk categories that were not meaningfully different from their high-risk categories.
That those who currently smoked had lower odds of at-tending a primary care checkup than those who had never smoked is consistent with extant research.33,34,37,38 That the odds of attending a checkup did not differ between persons who formerly smoked and persons who never smoked is consistent with Asada and Kephart38 and Wacker et al37; however, Culica et al33 and Kahende et al36 found that persons who formerly smoked were more likely to attend a checkup than those who never smoked. Studies have consistently found a negative association between smoking and primary care attendance even after adjusting for sociodemographic characteristics, insurance status, and numerous health conditions and health behaviors. Although many of these factors were significantly associated with primary care use across studies, they did not fully account for the relationship between smoking and primary care use; thus, additional research on what accounts for this association is needed.
The key finding of this study is that the co-occurrence of drinking (at at-risk and non-at-risk levels) and smoking is a more substantial risk factor for not attending a primary care checkup than engaging in only one behavior. This is important given that co-occurring at-risk drinking and smoking is linked to poorer overall health and chronic health conditions than engaging in only one or the other.12–14,39 Co-occurring at-risk drinking and smoking is also linked to higher levels of alcohol and tobacco use severity and greater difficulty in cessation.40–42 Thus, these persons are likely in the greatest need of primary care screening, intervention, and referral services, but they are also at higher risk of underutilizing primary care services than persons who engage in one of these behaviors.
One potential driver of the inverse relationships of drinking and smoking with primary care use is an avoidance of care among those who are most in need.49,50 Although this is speculative, it is consistent with the extant research on barriers to help-seeking. Persons who engage in health-risk behaviors perceive their behaviors as low-risk or do not view themselves as susceptible to the harmful effects of at-risk drinking and smoking.17,35,51 These individuals may avoid primary care services because of feelings of shame and embarrassment surrounding their drinking and smoking.49,50 Furthermore, evidence suggests a link between polysubstance use and increased shame and internal stigmatization (although these findings were not specific to co-occurring drinking and smoking).52,53 Thus, adults who engage in both health-risk behaviors may be less likely to attend primary care than those who engage in only one behavior due to higher levels of internal shame and stigmatization.
Moreover, persons who formerly drank at risk levels or smoked attend primary care and acute care settings at higher frequencies than persons who have not engaged in these health risk behaviors,36,50,54 and this may provide further context on the relationship between health-risk behaviors and underutilization of primary care. It has been argued that persons who engage in these behaviors may avoid routine and preventative health care until their health deteriorates to the point that they need to quit and seek medical care.50,54 Thus, the adverse health effects of at-risk drinking and smoking and the underutilization of routine care may contribute to worsening health which leads to frequent health care service engagement in the future. Although the dynamics that impede primary care utilization among persons who engage in these behaviors are multi-faceted, particular attention may need to be paid to the interpersonal and psychological barriers among these persons to increase their use of primary care services.
The current study focuses on patient characteristics as determinants of primary care attendance and, by extension, potential receipt of SBIRT services. However, it is important to recognize that receipt of SBIRT services is also determined by the proper delivery of these services in healthcare settings. While most persons who attend health care settings receive screening for alcohol and tobacco use, critical service delivery gaps have been identified.55–60 An estimated 23–29% of ambulatory care attendees may not be screened for alcohol use55,57 and 15–37% may not be screened for smoking.56,58 Moreover, rates of receiving advice to quit smoking,56,59 advice to quit drinking, and/or information about alcohol treatment55,57,60 are low in ambulatory care settings. Thus, reaching those most in need of SBIRT in primary care requires an understanding of barriers at multiple levels (eg, patient-, provider-, institution-level).
Limitations
Current study findings should be considered in light of the following limitations. Data obtained from BRFSS is cross-sectional, and this study design cannot speak to causal relationships. All responses were self-reported, and responses may have been influenced by social desirability and recall biases. Study findings are pertinent to primary care services utilization and may not be generalizable to other healthcare services, such as specialty clinics. Recommendations on the frequency of attending a checkup vary between demographic groups61; thus, the present study’s examination of attending an annual checkup may not be applicable to all respondents. This study was limited to examining drinking and smoking behaviors, and other health risk behaviors that are relevant to primary care services utilization were not captured in this study.
Conclusions
Engaging in both current smoking and drinking (at risk and non-at-risk) was associated with a significantly lower likelihood of attending a primary care visit in the past year relative to engaging in only one health risk behavior. As such, these findings indicate there is substantial room for improvement in the reach of SBIRT interventions in primary care. Psychological and interpersonal barriers may be major contributors to the lower attendance among this population, but increased research on the mechanisms of the relationship between health risk behaviors and primary care utilization is necessary to corroborate this speculation. Such research stands to identify targets of intervention for programs aimed to increase primary care utilization among this population. More generally, further study regarding ways to alleviate barriers to primary care utilization among this population is needed to increase utilization of SBIRT and other vital primary care services. Research that identifies alternative settings in which these persons may be as or more likely to frequent as their nondrinking and non-smoking counterparts may allow for opportunities for increasing the reach of SBIRT services. Finally, healthcare settings traditionally rely on individuals to initiate contact in order to provide services, but there is a need for proactive outreach interventions to increase contact with those in need of services.28
So What?
What is Already Known on this Topic?
Persons who smoke or drink at risk levels are a priority population for substance use screening and brief intervention services in primary care settings because they have an increased risk of chronic health conditions. However, they are generally less likely to use primary care services than persons who do not drink at risk levels or smoke.
What Does this Article Add?
Not only are at-risk drinking and smoking independent risk factors of not attending a primary care checkup, but their co-occurrence is incrementally associated with lower odds of attending a primary care checkup compared to engaging in only one of these behaviors.
What are the Implications for Health Promotion Practice or Research?
Persons with co-occurring at-risk drinking and smoking are in need of proactive outreach from healthcare professionals to increase contact. Research is needed to identify and reduce barriers of primary care attendance among this population.
Funding
The author(s) received no financial support for the research, authorship, and/or publication of this article.
Footnotes
Declaration of Conflicting Interests
The author(s) declared no potential conflicts of interest with respect to the research, authorship, and/or publication of this article.
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