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Annals of Surgery Open logoLink to Annals of Surgery Open
. 2026 Feb 26;7(1):e647. doi: 10.1097/AS9.0000000000000647

Bridging the Gap: Implementation and Uptake of AUDIT-C Alcohol Screening for Inpatient Surgery

Toby Chen *,✉, Dominic Alessio *,†, Anne Fernandez ‡, Sarah Evilsizer *, Chiao-Li Chan *, Vidhya Gunaseelan *,§, Jennifer F Waljee *,†, Mark C Bicket *,§,✉
PMCID: PMC13016196  PMID: 41890526

Abstract

Objective:

To evaluate the feasibility of Alcohol Use Disorders Identification Test-Consumption (AUDIT-C) screening among surgical inpatients following hospital-wide implementation of a quality improvement initiative.

Background:

Risky alcohol use increases postoperative complications, yet alcohol screening for surgery remains inconsistently applied. As a brief, validated screening tool, the AUDIT-C may improve risk assessment and guide timely intervention, but its adoption in surgical settings is understudied.

Methods:

We retrospectively analyzed electronic health record data from inpatient surgical admissions between April 2021 and September 2023. The primary outcome was completion of a valid AUDIT-C score during admission. Scores were categorized as no use (0), low-risk (1–4), moderate-risk (5–8), and high-risk (9–12). Multivariable logistic regression assessed independent associations with AUDIT-C screening completion.

Results:

Among 30,714 encounters, 9540 (31.1%) had a completed AUDIT-C score. Screening completion varied by surgical service (15.2%–52.4%) and was higher in emergent (51.7%) and urgent (48.4%) cases than elective (29.1%) cases. The 3 most frequently performed procedures screened 53.8% (cesarean), 42.8% (free flap), and 11.6% (aortic valve) of patients. In multivariable models, emergent case status [marginal effect (ME): 0.14], urgent case status (ME: 0.09), and Medicare insurance (ME: 0.03) were independently associated with higher odds of screening completion. Among those screened, 6.5% were classified as moderate- or high-risk.

Conclusions:

Perioperative alcohol screening using AUDIT-C is feasible but inconsistently implemented. System-wide integration could support identification of at-risk patients and improve perioperative outcomes.

Keywords: alcohol drinking, health disparities, implementation science, inpatients, operative procedures, perioperative care, screening

INTRODUCTION

Alcohol use is a significant contributor to adverse health outcomes worldwide, with higher levels of intake strongly associated with increased mortality.1 Nevertheless, in the United States, rates of risky alcohol use and alcohol use disorder have steadily increased from 1990 to 2019, and increases surged by more than 20% during the COVID-19 pandemic.1–3 Within surgical populations, high preoperative alcohol consumption, typically defined as ≥2 drinks/d or Alcohol Use Disorders Identification Test-Consumption (AUDIT-C) ≥5, has been linked to a range of negative outcomes, including increased infection rates, prolonged hospital stays, higher rates of intensive care unit (ICU) admissions, and elevated postoperative mortality.4–7 These risks underscore the need for systematic screening to identify and mitigate alcohol-related complications in surgical patients.

Despite the well-known negative impact of alcohol intake on surgical outcomes, alcohol screening in perioperative settings is poorly characterized, with no universal guideline dictating when, how, or for whom screening should be performed. Some health systems incorporate screenings into preoperative visits, while others rely on informal clinician inquiries or omit screening entirely. Further, while early outpatient screening offers the opportunity to optimize care, it may not capture recent changes in alcohol consumption that influence perioperative risk, and it fails to account for patients undergoing emergent surgeries.8,9 Same-day or inpatient screening plays a more essential role for patients undergoing emergent surgeries, where preoperative screening is not feasible, and the ability to identify hazardous use is still critical for anticipating withdrawal and managing complications.10 Additionally, previous studies on alcohol screening for surgery have primarily relied on data collected via mailed questionnaires, often administered up to a year before surgery, limiting their applicability to real-time clinical decision-making.11,12 Research on structured alcohol screening in surgical populations has largely been conducted within the Veterans Health Administration (VHA) system.13–16 Outside the VHA, the feasibility of screening remains largely unexamined in perioperative care. The lack of standardized screening approaches and generalizability across previous studies highlights gaps in understanding the feasibility and application of alcohol screening in surgical settings.

To address this gap in understanding alcohol screening feasibility and real-world uptake, we analyzed the recent real-world implementation of a hospital-wide alcohol screening initiative, which provides a unique opportunity to evaluate just-in-time alcohol screening associated with hospital admission for surgery. Unlike prior approaches, this initiative integrates AUDIT-C screening into routine admission workflows within the electronic health record (EHR), enabling an assessment of completion rates across diverse patient and procedural characteristics. This analysis aims to assess the adoption, feasibility, and reach of screening and compare patient characteristics by screening status at the time of hospital admission for surgery.

METHODS

This retrospective study utilized EHR data recorded during routine care, which was extracted from the Data Office of Clinical and Translational Research at the University of Michigan. This study was reviewed by the University of Michigan institutional review board and deemed exempt from the need to obtain patient-informed consent, as it evaluated a system-wide intervention implemented as part of routine clinical care. The study protocol and analytic approach were preregistered.

Study Population

The study population included all patients aged ≥18 years admitted for inpatient care on the same day as their surgical procedure at the University of Michigan Hospital between April 1, 2021 and September 30, 2023, when the screening initiative concluded. Patients were included if the admission date matched the surgery date. Exclusion criteria included admissions lasting <24 hours, given such encounters were unlikely to represent true inpatient surgical admissions. No other exclusions were made.

AUDIT-C Score

The primary outcome was the presence of a complete and valid AUDIT-C score recorded in the EHR during the surgical admission. The AUDIT-C is a concise 3-question screening tool derived from the longer World Health Organization AUDIT and has been shown to be effective in primary care settings.17,18 AUDIT-C is a valid and reliable screening tool for risky alcohol use recommended for outpatient clinical settings.18–20

As part of a hospital-wide alcohol screening initiative, AUDIT-C was integrated into the EHR and embedded within the admission navigator used by nursing staff. The initiative was implemented through institutional policy and disseminated via system-wide communications, including staff emails, daily huddles, and education campaigns.

A complete score required responses to all 3 AUDIT-C questions. A partial (completion of 1 or 2 questions) or declined response (ie, provider failed to administer screening, patient declined all questions) to any AUDIT-C question was considered incomplete and categorized as a nonrespondent. AUDIT-C scores were grouped into risk categories for use as follows: no alcohol use (0), low-risk (1–4), moderate-risk (5–8), and high-risk (9–12).14

Covariates

Additional chart-extracted measures included patient demographic and surgical characteristics. Demographic characteristics included: age in years, sex (male, female, and other/unknown), race (American Indian/Alaska Native, Asian/Pacific Islander, Black, Middle Eastern/North African, Unknown/Other, and White), ethnicity (Hispanic, non-Hispanic, and unknown), insurance type (Medicare, Medicaid, private, and unknown), and relationship status (partnered, nonpartnered, and unknown/other). Surgical characteristics included: hospital site (cardiovascular center, children’s hospital, university hospital, and women’s hospital), procedure type, American Society of Anesthesiologists (ASA) classification score (I, II, III, IV, V, and other/unknown), Elixhauser comorbidity index, and surgical urgency (emergent, urgent, elective, and multiple types).

Statistical Analysis

The primary analysis evaluated the feasibility of implementing the AUDIT-C screening tool by assessing the proportion of patients with completed scores and comparing the characteristics of patients with versus without a recorded AUDIT-C score. Descriptive statistics were used to evaluate the proportion of the sample with complete AUDIT-C scores and the subsequent distribution of scores. Continuous variables were summarized as medians and interquartile ranges (IQRs) and assessed for normality. Ordinal groupings were reported descriptively for interpretability but not used in comparative testing. Given the large sample size, between-group comparisons were conducted using standardized mean differences (SMDs). A threshold of 0.10 was used to indicate a meaningful imbalance. For comparisons restricted to AUDIT-C responders, χ2 tests and Wilcoxon rank-sum tests were applied accordingly.

Subgroup analyses were also performed. Characteristics of AUDIT-C responders were stratified by surgical service, procedure type, hospital site, and case urgency (elective, urgent, and emergent procedures). Additionally, we calculated adjusted odds multivariable logistic regression with AUDIT-C completion (yes/no) as the dependent variable. Predictor variables included age, sex, race, insurance type, comorbidity index, ASA class, case urgency, hospital site, and surgical service. Marginal effects (MEs) were reported.

RESULTS

Among 30,714 unique admissions, patients had a median age of 61 years (IQR: 28) with the largest age group being 65–74 years [7713 (25.1%)] (Fig. 1). The sample included admissions for 15,970 (52.0%) female and 14,738 (48.0%) male patients. Most admissions were for patients identified as White [25,385 (82.6%)], followed by Black [2622 (8.5%)], and smaller proportions of other racial groups (Table 1). Most admissions were for Medicare or Medicaid beneficiaries [17,152 (55.8%)], and 11,532 (37.5%) were partnered at the time of surgery. Detailed demographic characteristics, stratified by AUDIT-C screening status, are presented in Table 1.

FIGURE 1.

FIGURE 1.

Study cohort creation. *Among 21,174 nonrespondent encounters, 182 (0.86%) of them had a partial score with only 1 question completed, and 308 (1.45%) of them had a partial score with only 2 questions completed.

TABLE 1.

Completion of a Valid AUDIT-C Score Recorded in the EHR During Surgical Admission by Patient Characteristics

Patient Characteristic Overall Alcohol Screening With AUDIT-C SMDs*
Yes No
(n = 30,714) [n = 9540 (31.1%)] [n = 21,174 (68.9%)]
Continuous Variable Median IQR Median IQR Median IQR
Age, mean, in years 57.0 17.7 54.1 18.4 58.2 17.3 0.234
Elixhauser comorbidity index 5.0 5.0 5.0 7.0 6.0 6.0 0.209
Categorical Variable Frequency % Frequency % Screening Rate Frequency % Nonresponse Rate
Age category N/A
 18–24 1470 4.8 524 5.5 35.6 946 4.5 64.4
 25–34 3234 10.5 1432 15.0 44.3 1802 8.5 55.7
 35–44 3421 11.1 1305 13.7 38.1 2116 10.0 61.9
 45–54 3745 12.2 1120 11.7 29.9 2625 12.4 70.1
 55–64 6232 20.3 1764 18.5 28.3 4468 21.1 71.7
 65–74 7713 25.1 2068 21.7 26.8 5645 26.7 73.2
 75+ 4899 16.0 1327 13.9 27.1 3572 16.9 72.9
Sex 100.0 0.147
 Male 14,738 48.0 4098 43.0 27.8 10,640 50.3 72.2
 Female 15,970 52.0 5440 57.0 34.1 10,530 49.7 65.9
 Unknown/other 6 0.0 2 0.0 33.3 4 0.0 66.7
Race 100.0 0.084
 White/Caucasian 25,385 82.6 7680 80.5 30.3 17,705 83.6 69.7
 Black/African American 2622 8.5 914 9.6 34.9 1708 8.1 65.1
 Asian/Pacific Islander 731 2.4 269 2.8 36.8 462 2.2 63.2
 American Indian/Alaska Native 132 0.4 38 0.4 28.8 94 0.4 71.2
 Middle Eastern/North African 70 0.2 26 0.3 37.1 44 0.2 62.9
 Unknown/other 1774 5.8 613 6.4 34.6 1161 5.5 65.4
Ethnicity 100.0 0.021
 Hispanic 921 3.0 305 3.2 33.1 616 2.9 66.9
 Non-Hispanic 28,822 93.8 8920 93.5 30.9 19,902 94.0 69.1
 Unknown 971 3.2 315 3.3 32.4 656 3.1 67.6
Insurance type 100.0 0.183
 Medicare 13,430 43.7 3750 39.3 27.9 9680 45.7 72.1
 Medicaid 3722 12.1 1352 14.2 36.3 2370 11.2 63.7
 Private 12,898 42.0 4098 43.0 31.8 8800 41.6 68.2
 Unknown 664 2.2 340 3.6 51.2 324 1.5 48.8
Relationship status 100.0 0.069
 Partnered 11,532 37.5 3376 35.4 29.3 8156 38.5 70.7
 Nonpartnered 7220 23.5 2262 23.7 31.3 4958 23.4 68.7
 Unknown/other 11,962 38.9 3902 40.9 32.6 8060 38.1 67.4
Elixhauser comorbidity index score 100.0 N/A
 0 1408 4.6 617 6.5 43.8 791 3.7 56.2
 1–5 14,766 48.1 5063 53.1 34.3 9703 45.8 65.7
 6–13 12,762 41.6 3389 35.5 26.6 9373 44.3 73.4
 14+ 1778 5.8 471 4.9 26.5 1307 6.2 73.5
*

Standardized mean difference comparing the mean or proportion of the characteristics among the group with an AUDIT-C score versus the group without and AUDIT-C score, using 0.10 to indicate meaningful imbalance.

EHR indicates electronic health record.

AUDIT-C Screening Completion (Primary Outcome)

A valid, complete AUDIT-C score was recorded for 9540 (31.1%) admissions, while 21,174 (68.9%) admissions did not complete AUDIT-C screening (Table 1). Among nonrespondent encounters, 182 (0.86%) of them had a partial score with only 1 question completed and 308 (1.45%) of them had a partial score with only 2 questions completed; the rest (20,684, 97.7%) either declined responses or were not screened by their provider. Reasons for nonresponse were not collected.

Between-group comparisons revealed that admissions with screening had a higher proportion of female patients (57.0% vs 49.7%; SMD = 0.15). On average, screened patients were younger than those not screened (54.1 vs 58.2 years; SMD = 0.23). Younger patients, particularly those aged 25–34 and 35–44 years, had the highest screening rates (44.3%), whereas screening was lowest among those aged 65–74 years (26.8%) and 75 years and older (27.1%) (Table 1).

Insurance status was also associated with differences in screening completion. Patients with unknown insurance had the highest screening rate (51.2%, SMD = 0.428), followed by those with Medicaid (36.3%, SMD = 0.127), private insurance (29.6%, SMD = 0.026), and Medicare (26.0%, SMD = 0.121) (Table S1, https://links.lww.com/AOSO/A569). Racial and ethnic differences were observed: 34.9% of Black patients, 30.3% of White patients, and 28.8% of American Indian/Alaska Native patients completed screening (Table S1, https://links.lww.com/AOSO/A569). Additionally, AUDIT-C scores were recorded in 43.8% of admissions for patients with Elixhauser comorbidity index scores of 0, compared to 34.3% for scores 1–5, 26.6% for scores 6–13, and 26.5% for scores ≥14 (SMD = 0.21).

Screening Completion by Surgical Characteristic

Screening completion varied by service, ranging from 15.0% for surgical admissions in internal medicine to 52.4% for Obstetrics and Gynecology (SMD = 0.59) (Table 2). Other high-screening specialties included ophthalmology (49.3%), acute care surgery (43.5%), and dental/oral surgery (37.5%). Cardiac (15.2%), internal medicine (15.0%), thoracic (17.7%), and vascular surgery (15.4%) had the lowest screening rates. Statistical differences in screening rates within the responder population are reported in Table S2, https://links.lww.com/AOSO/A569. Site-specific screening mirrored this variability, with the cardiovascular center reporting the lowest screening completion (15.1%, SMD = 0.55) and the women’s hospital the highest (53.8%, SMD = 0.52). Comprehensive surgical characteristics are detailed in Table 2.

TABLE 2.

Completion of a Valid AUDIT-C Score Recorded in the EHR During Surgical Admission by Surgical Characteristics

Surgical Characteristics Overall Has an AUDIT-C Score Recorded Has no AUDIT-C Score Recorded SMD*
(n = 30,714) [n = 9540 (31.1%)] [n = 21,174 (68.9%)]
Frequency % Frequency % Screening Rate Frequency % Nonresponse Rate
Location of procedure 0.592
 University Hospital 16,514 53.8 5968 62.6 36.1 10,546 49.8 63.9
 Cardiovascular center 9861 32.1 1492 15.6 15.1 8369 39.5 84.9
 Women’s Hospital 2532 8.2 1361 14.3 53.8 1171 5.5 46.2
 Children’s Hospital 1793 5.8 714 7.5 39.8 1079 5.1 60.2
 Multiple locations 14 0.0 5 0.1 35.7 9 0.0 64.3
Surgical service 0.593
 Internal medicine† 4679 15.2 700 7.3 15.0 3979 18.8 85.0
 Obstetrics and Gynecology 3382 11.0 1772 18.6 52.4 1610 7.6 47.6
 Orthopedic surgery 3164 10.3 1080 11.3 34.1 2084 9.8 65.9
 Neurosurgery 3106 10.1 1176 12.3 37.9 1930 9.1 62.1
 Cardiac surgery 2401 7.8 366 3.8 15.2 2035 9.6 84.8
 General surgery‡ 2164 7.0 788 8.3 36.4 1376 6.5 63.6
 Radiology 1700 5.5 584 6.1 34.4 1116 5.3 65.6
 Thoracic surgery 1558 5.1 276 2.9 17.7 1282 6.1 82.3
 Otolaryngology 1537 5.0 569 6.0 37.0 968 4.6 63.0
 Urology surgery 1508 4.9 552 5.8 36.6 956 4.5 63.4
 Colorectal surgery 1232 4.0 353 3.7 28.7 879 4.2 71.3
 Vascular surgery 1124 3.7 173 1.8 15.4 951 4.5 84.6
 Plastic surgery 857 2.8 306 3.2 35.7 551 2.6 64.3
 Dental surgery, oral surgery 739 2.4 277 2.9 37.5 462 2.2 62.5
 Minimally invasive surgery 567 1.8 163 1.7 28.7 404 1.9 71.3
 Acute care surgery 531 1.7 231 2.4 43.5 300 1.4 56.5
 Pediatric surgery 164 0.5 48 0.5 29.3 116 0.5 70.7
 Pediatric internal medicine§ 154 0.5 63 0.7 40.9 91 0.4 59.1
 Ophthalmology 75 0.2 37 0.4 49.3 38 0.2 50.7
 Podiatric surgery 6 0.0 1 0.0 16.7 5 0.0 83.3
 Anesthesia 2 0.0 0 0.0 0.0 2 0.0 100.0
 Multiple services 64 0.2 25 0.3 34.4 39 0.2 65.6
*

Standardized mean difference comparing the mean or proportion of the characteristics among the group with an AUDIT-C score versus the group without and AUDIT-C score, using 0.10 to indicate meaningful imbalance.

†

Internal medicine includes cardiology, gastrointestinal, nephrology, and pulmonary.

‡

General surgery includes endocrine, hepatopancreatobiliary, oncology, and transplant surgery.

§

Pediatric internal medicine includes pediatric cardiology, pediatric GI medicine, pediatric hematology/oncology, pediatric nephrology, and pediatric pulmonary medicine.

EHR indicates electronic health record.

Screening Completion by Case Status, Anesthesia Type, and Procedure Frequency

Among patients with a recorded AUDIT-C score, 14.7% were emergent or urgent cases, compared to 6.6% among those without a recorded score (SMD = 0.27) (Table 3). Similarly, a higher proportion of patients with recorded AUDIT-C scores underwent regional anesthesia (13.6%) compared to those without recorded scores (7.5%) (SMD = 0.26). General anesthesia was the most common technique in both groups, but was slightly less frequent among those with a recorded AUDIT-C score (71.3% vs 75.4%).

TABLE 3.

Completion of a Valid AUDIT-C Score Recorded in the EHR During Surgical Admission by Case Status and Anesthesia Status

Surgical Characteristics Overall Has an AUDIT-C Score Recorded Has no AUDIT-C Score Recorded SMD*
(n = 30,714) [n = 9540 (31.1%)] [n = 21,174 (68.9%)]
Frequency % Frequency % Screening Rate Frequency % Nonresponse Rate
Case status 0.265
 Elective 27,791 90.5 8097 84.9 29.1 19,694 93.0 70.9
 Urgent 1449 4.7 702 7.4 48.4 747 3.5 51.6
 Emergent 1351 4.4 699 7.3 51.7 652 3.1 48.3
 Multiple statuses 123 0.4 42 0.4 34.1 81 0.4 65.9
Principal anesthesia technique 0.260
 General 22,777 74.2 6803 71.3 29.9 15,974 75.4 70.1
 Regional 2887 9.4 1293 13.6 44.8 1594 7.5 55.2
 MAC 1887 6.1 348 3.6 18.4 1539 7.3 81.6
 Moderate sedation 875 2.8 250 2.6 28.6 625 3.0 71.4
 Multiple techniques 28 0.1 11 0.1 39.3 17 0.1 60.7
 None 778 2.5 290 3.0 37.3 488 2.3 62.7
 Unknown/other 1482 4.8 545 5.7 36.8 937 4.4 63.2
ASA class 0.179
 I 337 1.1 131 1.4 38.9 206 1.0 61.1
 II 5654 18.4 2113 22.1 37.4 3541 16.7 62.6
 III 13,369 43.5 3857 40.4 28.9 9512 44.9 71.1
 IV 2804 9.1 691 7.2 24.6 2113 10.0 75.4
 V 92 0.3 43 0.5 46.7 49 0.2 53.3
 Unknown/other 8458 27.5 2705 28.4 32.0 5753 27.2 68.0
*

Standardized mean difference comparing the mean or proportion of the characteristics among the group with an AUDIT-C score versus the group without and AUDIT-C score, using 0.10 to indicate a meaningful imbalance.

EHR indicates electronic health record.

Correspondingly, screening rates varied when stratified by case status and anesthesia technique. Approximately half of emergent (51.7%) and urgent (48.4%) cases recorded AUDIT-C scores. On the other hand, for elective cases, 8097 patients out of 27,791 total cases recorded AUDIT-C scores (29.1%) (Table 3). Screening also differed by anesthesia type, with regional anesthesia associated with the highest completion rate (44.8%) and monitored anesthesia care (MAC) with the lowest (18.4%). Screening completion declined with increasing ASA class, from 38.9% (ASA I) to 24.6% (ASA IV). Statistical significance of within-group screening rate is reported in Table S3, https://links.lww.com/AOSO/A569.

Among the top 10 most common surgical procedures, completion rates varied from 53.8% for cesarean sections to 11.6% for aortic valve replacements (SMD = 0.64), which were the most and second-most common procedures, respectively. The top 10 most common frequencies and completion rates are listed in Table 4.

TABLE 4.

Completion of a Valid AUDIT-C Score Recorded in the EHR During Surgical Admission by Top 10 Most Common Procedures

Primary Procedure (Listed by Overall N) Overall N Encounter With Completed AUDIT-C SMD*
Frequency %
C-section 2088 1124 53.83 0.645
Aortic valve repair or replacement 673 78 11.59 −0.558
Free flap – tumor resection 594 254 42.76 −0.380
Total knee arthroplasty 583 181 31.05 0.301
EP ablation atrial fibrillation 565 21 3.72 0.939
Total hip arthroplasty 532 164 30.83 −0.294
Cath transcatheter aortic valve replacement 502 115 22.91 −0.164
Cath left heart catheterization w/coronary angiography 443 234 52.82 0.597
Mitral valve repair or replacement 443 55 12.42 0.108
Exploratory laparotomy 402 197 49.00 0.103
*

Standard mean differences comparing the mean or proportion of the characteristics among the group with an AUDIT-C score versus the group without and AUDIT-C score, using 0.10 to indicate meaningful imbalance.

EHR indicates electronic health record.

Multivariable Analysis of Factors Associated With AUDIT-C Completion

Medicare insurance (ME: 0.03), Elixhauser index (ME: 0.00), emergent case status (ME: 0.14), various surgical services, and urgent case status (ME: 0.09) were each independently associated with significantly higher odds of screening completion (P < 0.001). Age, sex, race, ethnicity, and ASA class did not show statistical significance after adjusting for covariates. All adjusted odds ratios (ORs) are outlined in Table 5.

TABLE 5.

Multivariable Marginal Effects of Factors Associated With Completion of a Valid AUDIT-C Score Recorded in the EHR During Surgical Admission

Characteristic Marginal Effects for AUDIT-C Completion P
Marginal Effects 95% CI
Age, mean, in years 0.00 1.00 1.00 0.340
Sex (reference: female)
 Male 0.00 0.95 1.07 0.738
 Unknown/other 0.02 0.19 6.03 0.931
Race (reference: White/Caucasian)
 Black/African American 0.00 0.92 1.11 0.790
 Asian/Pacific Islander 0.01 0.88 1.22 0.628
 Middle Eastern/North African 0.03 0.68 1.90 0.619
 American Indian/Alaska Native −0.03 0.58 1.27 0.456
 Unknown/other 0.00 0.89 1.13 0.937
Ethnicity (reference: non-Hispanic)
 Hispanic −0.03 0.75 1.02 0.085
 Unknown 0.01 0.88 1.20 0.721
Insurance type (reference: private)
 Medicare 0.03 1.07 1.23 <0.001
 Medicaid 0.02 1.01 1.19 0.036
 Unknown 0.05 1.11 1.55 0.001
Relationship status (reference: partnered)
 Nonpartnered 0.00 0.95 1.09 0.616
 Unknown/other 0.03 1.11 1.25 <0.001
 Elixhauser comorbidity index score 0.00 0.98 0.99 <0.001
Location of procedure (reference: University Hospital)
 Cardiovascular center −0.18 0.32 0.46 <0.001
 Mott Children’s Hospital −0.01 0.84 1.13 0.686
 Von Voitlander Women’s Hospital 0.04 0.92 1.49 0.200
 Multiple locations −0.05 0.23 2.66 0.703
Surgical service (reference: obstetrics and gynecology)
 Acute care surgery −0.12 0.45 0.74 <0.001
 Cardiac surgery −0.19 0.30 0.52 <0.001
 Colorectal surgery −0.18 0.35 0.53 <0.001
 Dental surgery, oral surgery −0.12 0.46 0.71 <0.001
 General surgery* −0.11 0.49 0.73 <0.001
 Internal medicine† −0.24 0.23 0.39 <0.001
 Minimally invasive surgery −0.17 0.35 0.58 <0.001
 Neurosurgery −0.11 0.50 0.73 <0.001
 Ophthalmology −0.08 0.43 1.15 0.160
 Orthopedic surgery −0.13 0.45 0.66 <0.001
 Otolaryngology −0.12 0.47 0.71 <0.001
 Pediatric internal medicine†, ‡ −0.07 0.52 1.07 0.111
 Pediatric surgery −0.18 0.30 0.62 <0.001
 Plastic surgery −0.12 0.46 0.73 <0.001
 Podiatric surgery −0.34 0.01 1.15 0.066
 Radiology −0.13 0.44 0.68 <0.001
 Thoracic surgery −0.16 0.38 0.63 <0.001
 Urology surgery −0.12 0.47 0.71 <0.001
 Vascular surgery −0.17 0.34 0.62 <0.001
 Multiple services −0.11 0.31 1.15 0.123
Principal anesthesia technique (reference: general)
 Regional 0.00 0.90 1.16 0.692
 MAC 0.02 0.98 1.31 0.096
 Moderate sedation 0.04 0.98 1.46 0.071
 Multiple techniques 0.32 0.59 3.43 0.436
 None −0.05 3.72 5.51 <0.001
 Unknown/other 0.07 0.64 0.90 0.002
ASA class (reference: I)
 II 0.00 0.78 1.25 0.899
 III 0.00 0.79 1.28 0.943
 IV 0.07 1.07 1.81 0.013
 V 0.14 1.16 3.18 0.011
 Unknown/other 0.01 0.83 1.34 0.677
Case status (reference: scheduled)
 Emergent 0.14 1.75 2.24 <0.001
 Urgent 0.09 1.39 1.76 <0.001
 Multiple statuses 0.01 0.67 1.58 0.887

Standard mean differences comparing the mean or proportion of the characteristics among the group with an AUDIT-C score versus the group without and AUDIT-C score, using 0.10 to indicate a meaningful imbalance.

*

General surgery includes endocrine, hepatopancreatobiliary, oncology, and transplant surgery.

†

Internal medicine includes cardiology, gastrointestinal, nephrology, and pulmonary.

‡

Pediatric internal medicine includes pediatric cardiology, pediatric GI medicine, pediatric hematology/oncology, pediatric nephrology, and pediatric pulmonary medicine.

EHR indicates electronic health record.

Distribution of AUDIT-C Scores

Among patients with a valid AUDIT-C score (n = 9540), 3660 (38.4%) reported some level of alcohol use, with the largest group [3041 (31.9%)] classified as low-risk. A smaller proportion of patients fell into the moderate-risk [488 (5.1%)] and high-risk [131 (1.4%)] categories. The median AUDIT-C score among all screened patients was 0, with a mean score of 1.12 (SD: 1.97). The full distribution of AUDIT-C scores is shown in Table 6 and Figure 2.

TABLE 6.

Distribution of Valid, Complete AUDIT-C Score Recorded in the EHR During Surgical Admission Among Study Cohort (N = 9540)

AUDIT-C Score N % of AUDIT-C Responders
0 5880 61.6%
1 1164 12.2%
2 816 8.6%
3 586 6.1%
4 475 5.0%
Total 1–4 3041 31.9%
5 219 2.3%
6 123 1.3%
7 77 0.8%
8 69 0.7%
Total 5–8 488 5.1%
9 43 0.5%
10 42 0.4%
11 24 0.3%
12 22 0.2%
Total 9–12 131 1.4%

EHR indicates electronic health record.

FIGURE 2.

FIGURE 2.

Distribution of AUDIT-C scores. *This figure represents the distribution of AUDIT-C scores among surgical admissions with a valid AUDIT-C recorded during hospitalization (N = 9540). Scores were categorized into 4 risk strata based on standard cutoffs: No risk (AUDIT-C: 0), low-risk (AUDIT-C: 1–4), moderate-risk (AUDIT-C: 5–8), and high-risk (AUDIT-C: 9–12).

DISCUSSION

In this analysis of real-world data on the implementation of perioperative AUDIT-C screening among surgical patients admitted to a large tertiary care system, approximately 1 in 3 surgical inpatients (31.1%) were successfully screened. Multivariable analysis identified several factors that were independently associated with AUDIT-C screening completion, underscoring the multifactorial nature of screening uptake. Emergent case status (OR: 1.98), urgent case status (OR: 1.56), Medicare insurance (OR: 1.15), and Elixhauser comorbidity index (OR: 0.99) had significant ORs, which aligns with our prior discussion. Together, these findings reinforce that successful integration of alcohol screening in perioperative care is shaped by a complex interplay of demographic, procedural, and organizational drivers, rather than any single factor alone.

These findings align with broader implementation efforts, suggesting that standardized alcohol screening using the AUDIT-C is both feasible and effective when integrated into routine workflows. For example, a multihospital study in London embedded AUDIT-C into admission workflows with automated referrals and educational materials, resulting in high uptake and sustainability.21 Similarly, Fernandez et al. reported that up to 95% of eligible patients record an AUDIT-C score when EHR systems incorporated screening with support from nursing workflows.22,23 Despite the adaptability of AUDIT-C, our results reveal persistent disparities in screening completion, highlighting areas where further attention is needed. In our study, patient characteristics significantly influenced AUDIT-C screening completion. Although unadjusted analyses suggested that older adults (≥65 years) had lower screening rates than younger patients, age was not independently associated with screening completion in the multivariable model. This finding indicates that observed age-related differences may be partly attributable to other factors, such as surgical service, case urgency, or comorbidity burden. Nonetheless, consistent screening in older populations remains important given their elevated risk for alcohol-related complications.24 National data show that 12.0% of adults ≥65 reported binge drinking and 3.3% reported heavy alcohol use in the past month, underscoring the ongoing need for risk assessment in this group.25–29 Stigma and discomfort discussing alcohol use may also be heightened in older patients, potentially contributing to incomplete or deferred screening.19,27,30 Similarly, while raw comparisons showed decreasing screening rates with higher ASA class (from 38.9% in ASA I to 24.6% in ASA IV), ASA class was not an independent predictor of screening in multivariable analyses, suggesting that organizational and workflow factors may have a greater influence on screening completion than physiological status alone. While this could reflect clinical prioritization of medically complex patients and less time for ancillary screening, it may also signal missed opportunities to identify risky alcohol use among patients at elevated baseline risk for postoperative complications. These findings underscore the need for consistent, system-level screening workflows that are not deprioritized in the context of either low-acuity or high-acuity surgical cases. In contrast, Medicare and Medicaid beneficiaries had significant MEs of being screened, consistent with national estimates showing a higher prevalence of alcohol use disorder (5.6%) and greater alcohol-related healthcare utilization, including hospitalizations, Emergency Department visits, and barriers to follow-up care.31–35 Patients with an “unknown” insurance designation had the highest screening rate of 51.2% (ME: 0.05). When insurance status is unknown, care teams may prioritize comprehensive risk assessment, such as alcohol screening, to ensure holistic evaluation and mitigate potential health risks in the absence of a complete social or medical history.

From an organizational standpoint, screening varied widely across surgical services, reflecting a multifaceted set of clinical, structural, and systemic influences. 490 (2.3%) patients had partial responses, which may reflect patient discomfort, time constraints, or inconsistent administration, offering a potential proxy for patient- or workflow-level barriers. In particular, the absence of a “hard stop” in the EHR for AUDIT-C screening, unlike required fields for other assessments, was identified by hospital leadership as a key implementation barrier. Without a hard stop, staff could bypass the AUDIT-C questions without documenting a reason. Leadership reported that screening was frequently missed in cases where patients were unable to respond at the time of admission, such as those recovering from anesthesia, with altered mental status, or admitted to the ICU, and that no automated reminders prompted staff to return to complete the screening once patients stabilized. This gap was further substantiated by variability in how admission documentation was completed. For example, patients unable to respond at the time of admission due to anesthesia recovery, altered mental status, or ICU transfer were often missed. Even among the most common procedures, screening rates varied from nearly half Cesarean-sections (53.8%), to 1 in 9 aortic valve replacement patients (11.6%). These differences likely reflect variation in unit-level workflows, patient acuity, and perceived relevance of alcohol screening to postoperative outcomes. For example, behavioral health screening may be more culturally embedded in services like OBGYIN, which often use multidisciplinary care models, compared to more procedurally focused specialties. Obstetrics and Gynecology units may prioritize comprehensive behavioral risk assessment given potential fetal or neonatal implications, while cardiac units may prioritize physiological stabilization, especially in urgent or complex surgical cases. Procedures such as hysterectomies and free flap reconstructions also showed moderate screening rates, possibly reflecting service-level commitment to holistic preoperative assessment. Fostering a culture of routine preventive screening may have positive spillover effects.22 Establishing standardized workflows across services could help reinforce a culture that prioritizes comprehensive risk assessment and early intervention, ultimately enhancing perioperative care and patient safety.

Feasibility in this study reflects successful integration rather than universal completion; over 9500 AUDIT-C scores were documented without external incentive, embedded into perioperative admission workflows across more than 30 surgical services. This successful integration of AUDIT-C screening in perioperative settings has important clinical implications. Although most surgical patients reported no or low-risk alcohol use, a meaningful subset of 6.5% admissions had patients who were screened as moderate- or high-risk, highlighting a critical opportunity for targeted intervention. While preoperative screening may offer the advantage of informing intraoperative management and facilitating optimization before surgery, postoperative or same-day inpatient screening still provides considerable clinical value. In unscheduled or emergent cases where advance screening is not feasible, inpatient screening can support the early recognition and management of alcohol withdrawal, guide postoperative monitoring, and serve as a touchpoint for longer-term engagement in alcohol use treatment. These interventions may mitigate alcohol-related complications including impaired wound healing, infection, prolonged hospitalization, or acute alcohol withdrawal, which can significantly affect surgical recovery.36–38 These implications are particularly relevant in emergent and urgent surgical settings. However, mandatory risk assessments in the EHR, such as those for fall risk and infection control, can create opportunity costs, where prioritizing 1 screening may divert resources from another. Thus, time-sensitive environments often rely on biochemical tests like blood or urine alcohol levels to detect acute intoxication but may overlook chronic high-risk alcohol use, which poses persistent perioperative risks. Despite logistical challenges in these scenarios, incorporating AUDIT-C could support clinicians in anticipating complications and tailoring perioperative management.

This study has several limitations. First, the analysis considers the conduct of a single tertiary care academic health system, which may limit generalizability to other settings with different patient populations, resources, and clinical workflows. The analysis also focused on inpatient surgical admissions, where screening practices may differ from outpatient and ambulatory procedures. As surgical care continues to shift toward outpatient settings, further evaluation of screening feasibility in these environments will be required. It is also important to note that the AUDIT-C cutoff of ≥5, used in this study to define moderate- or high-risk drinking, was originally validated among male surgical patients within the VHA.13 While this threshold has been shown to correlate with adverse postoperative outcomes in that population, it may not capture risk as accurately among women, who often experience alcohol-related harms at lower levels of consumption. Optimal AUDIT-C risk stratification for women in surgery is unknown. Future research should evaluate whether sex-specific AUDIT-C thresholds are warranted in surgical populations to ensure accurate risk stratification and similar intervention across patient groups.39,40 Additionally, this study examined screening uptake but did not assess associations between AUDIT-C scores and postoperative outcomes or whether screening led to clinical intervention. Finally, although we identified differences in screening rates across patient demographics and surgical services, we did not explore the underlying drivers; future research should investigate structural, provider-level, and patient-related factors that influence screening.

CONCLUSION

This study demonstrates that the AUDIT-C is a feasible tool for alcohol screening in perioperative clinical settings. While screening completion varied substantially across surgical services and patient subgroups, adjusted analyses indicate that differences were driven by a complex set of system- and workflow-level factors, with some higher-risk groups (Medicaid and Medicare, emergent and urgent) achieving higher completion rates. These patterns highlight that variability in screening is not solely attributable to patient demographics but also reflects organizational priorities, service-specific culture, and the degree of EHR integration. Sustaining and expanding implementation will require standardized, system-wide processes that ensure all surgical patients, across services, insurance types, and patient populations, receive consistent screening. Without such standardization, alcohol-related risks may go unrecognized, leading to missed opportunities to improve surgical outcomes. Future efforts should expand implementation, address screening disparities, and link results to targeted interventions to mitigate alcohol-related surgical risks and improve outcomes.

ACKNOWLEDGMENTS

This project was supported by the Michigan Department of Health and Human Services under award E20242492-002. The authors would like to thank the Data Office for Clinical and Translational Research (DOCTR) at the University of Michigan for their assistance with data acquisition and extraction. We also acknowledge the contributions of the care teams at the University of Michigan who performed screening for patients admitted to the hospital. No medical writer or editorial assistant was used in the preparation of this manuscript.

Supplementary Material

as9-7-e647-s001.pdf (594.3KB, pdf)

Footnotes

Supplemental digital content is available for this article. Direct URL citations appear in the printed text and are provided in the HTML and PDF versions of this article on the journal’s Web site (www.annalsofsurgery.com).

Disclosure: The authors declare that they have nothing to disclose.

This work was funded by the Michigan Department of Health and Human Services under award E20242492-002. M.C.B. received funding unrelated to this work from the Michigan Department of Health and Human Services, Substance Abuse and Mental Health Services Administration, Centers for Disease Control and Prevention, National Institutes of Health, Patient-Centered Outcomes Research Institutes, Food and Drug Administration, and Blue Cross Blue Shield of Michigan. Otherwise, the authors have no individual funding support to declare.

T.C.: Led manuscript writing, interpreted results, and coordinated communication with the statistical analysis team. D.A.: Contributed to the initial manuscript draft and supported coordination of early statistical analyses. A.F.: Assisted with study conceptualization and provided critical feedback on manuscript drafts. S.E.: Contributed to study design and manuscript revision. C.-L.C.: Performed statistical analyses and contributed to manuscript editing. V.G.: Performed statistical analyses and contributed to manuscript editing. J.F.W.: Contributed to study design and critically revised manuscript drafts. M.C.B.: Principal investigator; contributed to study design, data acquisition, and manuscript drafting and revision.

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