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The Lancet Regional Health: Western Pacific logoLink to The Lancet Regional Health: Western Pacific
. 2025 Mar 10;56:101242. doi: 10.1016/j.lanwpc.2024.101242

Incretin-based drugs and the risk of gallbladder or biliary tract diseases among patients with type 2 diabetes across categories of body mass index: a nationwide cohort study

Hwa Yeon Ko a, Sungho Bea a,b, Dongwon Yoon a,c, Bin Hong a, Jae Hyun Bae d, Young Min Cho e,f, Ju-Young Shin a,c,g,
PMCID: PMC11992583  PMID: 40226782

Summary

Background

Despite emerging evidence of gallbladder or biliary tract diseases (GBD) risk regarding incretin-based drugs, population-specific safety profile considering obesity is lacking. We aimed to assess whether stratification by body mass index (BMI) modifies the measures of association between incretin-based drugs and the risk of GBD.

Methods

We conducted an active-comparator, new-user cohort study using a nationwide claims data (2013–2022) of Korea. We included type 2 diabetes (T2D) patients stratified by Asian BMI categories: Normal, 18.5 to <23 kg/m2; Overweight, 23 to <25 kg/m2; Obese, ≥25 kg/m2. The primary outcome was a composite of GBD, including cholelithiasis, cholecystitis, obstruction of the gallbladder or bile duct, cholangitis, and cholecystectomy. We used 1:1 propensity score (PS) matching and estimated hazard ratios (HR) with 95% confidence intervals (CI) using Cox models.

Findings

New users of DPP4i and SGLT2i were 1:1 PS matched (n = 251,420 pairs; 186,697 obese, 39,974 overweight, and 24,749 normal weight pairs). The overall HR for the risk of GBD with DPP4i vs. SGLT2i was 1.21 (95% CI 1.14–1.28), with no effect modification by BMI (p-value: 0.83). For the second cohort, new users of GLP1RA and SGLT2i were 1:1 PS matched (n = 45,443 pairs; 28,011 obese, 8948 overweight, and 8484 normal weight pairs). The overall HR for the risk of GBD with GLP1RA vs. SGLT2i was 1.27 (1.07–1.50), with no effect modification by BMI (p-value: 0.73).

Interpretation

The increased risks of GBD were presented in both cohorts with no evidence of effect heterogeneity by BMI.

Funding

Ministry of Food and Drug Safety, Health Fellowship Foundation.

Keywords: Gallbladder or biliary tract diseases, Body mass index, Diabetes mellitus, Dipeptidyl-peptidase 4 inhibitors, Glucagon-like peptide 1 receptor agonists, Sodium-glucose cotransporter 2 inhibitors, Cohort study


Research in context.

Evidence before this study

Randomized clinical trials of glucagon-like peptide 1 receptor agonists (GLP1RA) for weight management or cardiovascular outcomes presented higher proportion of patients with acute gallstone diseases (e.g., cholelithiasis, cholecystitis) with liraglutide than with placebo. Meta-analyses of randomized clinical trials suggested increased risk of gallbladder or biliary tract diseases (GBD) after the use of GLP1RA or dipeptidyl peptidase 4 inhibitors (DPP4i). There has been no clinical trial specifically designed to evaluate the association between incretin-based drugs and risk of gallbladder or biliary tract diseases, and existing safety evidence has been generated based on populations with a majority of overweight and obese patients, and normal weight patients were often underrepresented.

Added value of this study

In this nationwide study of more than 1.8 million patients with type 2 diabetes, we assessed the comparative safety of incretin-based drugs vs. SGLT2i in large cohorts stratified by baseline body mass index (BMI) status. Use of either DPP4i or GLP1RA was significantly associated with an increased risk of gallbladder or biliary tract diseases compared to the use of sodium-glucose cotransporter 2 inhibitors (SGLT2i), respectively, on both relative and absolute scales among obese patients in both cohorts.

Implications of all the available evidence

SGLT2i may be the preferred option over the incretin-based drugs for obese patients at risk of gallbladder or biliary tract diseases. Prescribers should be aware of the risks for of gallbladder or biliary tract diseases when using incretin-based drugs among T2D patients regardless of BMI status given the no effect modification by BMI.

Introduction

Obesity and type 2 diabetes (T2D) are two of the most common chronic diseases caused by metabolic imbalances.1 The insulin resistance and excessive cholesterol synthesis by the liver seen in patients with these conditions are known to lead to supersaturation of bile and decreased gallbladder contractility, leading to various gallbladder or biliary tract diseases (GBD).2

Incretin-based drugs, namely dipeptidyl peptidase 4 inhibitors (DPP4i) and glucagon-like peptide 1 receptor agonists (GLP1RA), are widely used as glucose lowering regimen for T2D. However, randomized clinical trials of GLP1RA for weight management or cardiovascular outcomes presented higher proportion of patients with acute gallstone diseases (e.g., cholelithiasis, cholecystitis) with liraglutide (GLP1RA) than with placebo.3,4 Additionally, meta-analyses of randomized clinical trials suggested increased risk of GBD after the use of GLP1RA or DPP4i.4, 5, 6, 7 Biological mechanisms underlying the association between the use of incretin-based drugs and the risk of GBD are not clear, but might be attributed to gallbladder motility inhibition or delayed gallbladder emptying.8 However, there has been no clinical trial specifically designed to evaluate the association between incretin-based drugs and risk of GBD, and existing safety evidence regarding this clinical topic has been generated based on populations with a majority of overweight and obese patients, and normal weight patients were often underrepresented.3, 4, 5, 6, 7,9 Despite the fact that obesity itself is an independent risk factor for GBD, there is a lack of safety studies evaluating the heterogeneity in the risk of GBD associated with incretin-based drugs across obesity status.

We hypothesized that stratification of patients with type 2 diabetes taking antidiabetic drugs (incretin-based drugs or comparator drug) by body mass index (BMI) would modify the measures of association between the drugs and the risk of GBD. Therefore, we conducted a active-comparator, new-user cohort study to emulate a target trial stratifying individuals into three categories: normal weight, overweight, and obesity. We aimed to evaluate the association between the use of DPP4i and GLP1RA and the risk of GBD compared to the use of comparator drug within each BMI subgroup in large population based cohorts.

Methods

Data source

We utilized health administrative claims data from January 1, 2013, to December 31, 2022, provided by the National Health Insurance Service (NHIS), the sole health insurance provider in South Korea. The NHIS database includes claims data for approximately 97% of the Korean population, which exceeds 50 million individuals. Sociodemographic variables such as age, sex, residence, income level, health insurance types are included. Additionally, healthcare utilization information, including diagnoses, prescriptions, medical procedures, and health examinations records, was also available. Diagnoses were coded according to the International Classification of Diseases, 10th Revision (ICD-10), and drugs were coded based on domestic chemical codes mapped to the Anatomical Therapeutic Chemical (ATC) classification system of the World Health Organization (WHO). A range of clinical variables such as BMI (calculated as the ratio of weight [kg] and height squared [m2]), waist circumference, fasting blood glucose, blood pressure, and cholesterol levels were verified through biennial records from the National Health Screening Program (NHSP) for the entire population (non-mandatory). This study was approved by the institutional review board of Sungkyunkwan University (SKKU 2024-03-020) and followed the Strengthening the Reporting of Observational Studies in Epidemiology (STROBE) reporting guideline (Supplement 2).10

Study population and design

Pursuing the target trial emulation design framework,11 we emulated the analysis of a hypothetical trial to enhance the robustness of causal inference using an observational claims database. We conducted a cohort study based on pre-specified criteria, which included study participants eligibility, balance of baseline characteristics between treatment groups, start and end of follow-up, and assessment of outcome variables (eTable 1 in Supplement 1). Adult patients aged 18 years or older with type 2 diabetes were selected based on ICD-10 codes of E11 to E14 during the study period from January 1, 2013, to December 31, 2022. We constucted two distinct cohorts of new users for each type of incretin-based drug. The first cohort consist of new users of DPP4i (alogliptin, evogliptin, gemigliptin, linagliptin, saxagliptin, sitagliptin, teneligliptin, and vildagliptin) compared to new users of sodium-glucose cotransporter 2 inhibitors (SGLT2i). The second cohort comprised new users of GLP1RA (albiglutide, dulaglutide, exenatide, liraglutide, and lixisenatide) in comparison with new users of SGLT2i. We identified all individuals who initiated these study drugs between September 1, 2014, and December 31, 2022, accounting for the first date of SGLT2i reimbursement in Korea. The index date (time zero) was defined as the date of the first prescription of the study drug (eFigure 1 in Supplement 1).

Then, we excluded individuals diagnosed with end-stage renal disease or who received dialysis within a year prior to the index date considering contraindication to SGLT2i. To ensure the identification of incident cases, patients with a prior diagnosis of gallbladder or biliary disease, or biliary cancer any time before the index date were also excluded. Additionally, patients who had undergone bariatric surgery within the year before the index date were excluded, as rapid weight loss is a known risk factor for gallstone formation.12 Finally, we excluded patients who initiated both incretin-based drug and comparator SGLT2i on the same date to avoid exposure misclassification.

Eligible individuals were categorized into three groups based on BMI measured within 36 months prior to the index date: Normal weight, 18.5 to <23 kg/m2; Overweight, 23 to <25 kg/m2; Obesity, ≥25 kg/m2 (eFigure 2 and 3 in Supplement 1). The cutoffs for BMI were based on the WHO recommendations for Asian population.13 Those without BMI values within 36 months prior to the index date or with BMI <18.5 kg/m2 were excluded. We excluded underweight patients from our study population, since we could not rule out the potential impact of their underweight status on drug prescribing, nor the presence of associated unmeasured confounders (e.g., frailty, low muscle mass, severe illness, nutritional deficiencies).

Exposures and follow-up

The drugs of interest were DPP4i and GLP1RA. We selected SGLT2i (dapagliflozin, empagliflozin, ertugliflozin, ipragliflozin) as the active-comparator as it is not known to be associated with GBD and share the same line of therapy with incretin-based drugs in type 2 diabetes (i.e., second- or third-line antidiabetic drug). Patients were followed from the index date until the outcome occurrence, treatment change (either switching to or adding a comparator drug), treatment discontinuation, death, or end of the study period (December 31, 2022), whichever occurs earlier (eTables 2 and 3 in Supplement 1). We introduced a 90-day grace period to determine treatment discontinuation; therefore, patients were considered as exposed within 90 days after the most recent filled prescription days supply ran out.

Outcome definition

We considered a composite outcome of GBD comprised cholelithiasis (ICD-10: K80), cholecystitis (K81), obstruction of gallbladder or bile duct, cholangitis (K82–K83), major complications of gallstones (biliary acute pancreatitis [K85.1], disorders of gallbladder and biliary tract in diseases classfied elsewhere [K87.0], gallstone ileus [K56.3]) and cholecystectomy. All outcomes, except for cholecystectomy, were identified through diagnosis codes in the primary or secondary position in the inpatient setting. Cholecystectomy was identified through domestic procedural code (eTable 4 in Supplement 1). We also evaluated cholecystectomy as a separate outcome, considering that cholecystectomy is the preferred option for treatment of symptomatic cholelithiasis.14

Covariates

We assessed the calendar year and age at the index date, as well as the number of antidiabetic medications (other than incretin-based drugs and SGLT2i) prescribed in the year prior to the index date. We also defined three levels of diabetes treatment based on the number of antidiabetic medications (excluding the study drugs) prescribed in the year preceding the index date: level 1, taking none or only one class of antidiabetic medication other than insulin; level 2, taking ≥2 different classes of antidiabetic medications without insulin; and level 3, taking insulin with or without other classes of antidiabetic medications. Clinical characteristics, including the Charlson comorbidity index, comorbidities and comedications, were assessed within the year prior to the index date. Smoking (categorized as never, past, current, or unknown) and drinking behaviors (yes, no, or unknown) were also obtained from the NHSP survey results. Additionally, as proxies for health-seeking behavior, the number of outpatient visits, hospitalizations, visits to internal medicine specialists, endocrinologists, and cardiologists were evaluated within the year before the index date. The specialties of the physicians who prescribed the drugs of interest to each treatment group on the index date were also recorded. A complete list of covariates is provided in eTable 5 in Supplement 1.

Clinical variables from the NHSP were available for a subset of population, with missing rates ranging from 0.1% to 39.3% (eTables 6 and 7 in Supplement 1). We assessed waist circumference, blood pressure, and results from blood test conducted on venous samples after a fasting period of at least 8 h. These tests included fasting blood glucose, total cholesterol, low- and high-density cholesterol, triglycerides, hemoglobin, serum creatinine, estimated glomerular filtration rate calculated using the modification of diet in renal disease study equation, and liver enzymes levels (aspartate aminotransferase, alanine aminotransferase, and gamma glutamyl transferase). All clinical variables were assessed within three years prior to the index date and were only included in the propensity score model for sensitivity analysis.

Statistical analyses

Descriptive statistics were employed to compare patient's baseline characteristics in each cohort. Continuous variables were presented as means with standard deviations, while categorial variables were summarized as frequency and proportions. Propensity score (PS) matching (1:1) was utilized to control for potential confounders in each cohort (DPP4i vs. SGLT2i; GLP1RA vs. SGLT2i). We estimated the PS for each BMI stratum and then pooled the three matched BMI strata to create the total PS matched population for each cohort. Within each BMI stratum, patients from each treatement group were matched using the nearest neighbor method (without replacement) with a maximum caliper of 0.01 on the PS scale. This approach aimed to estimate the average treatment effect in the treated (ATT) for whom comparator matches could be found within the BMI strata. Multivariable logistic regression models were used to estimate the predicted probability of initiating incretin-based drugs (DPP4i or GLP1RA) vs. SGLT2i, given all the baseline covariates mentioned above. Absolute standardized differences greater than 0.1 were considered indicative of significant covariate imbalances between the treatment groups. Incidence rates (IRs) and incidence rate differences (RDs) per 1000 person-years with 95% confidence intervals (CIs) were estimated based on the Poisson distribution. Cumulative incidence curves for the primary outcome in each treatment group were plotted using the Kaplan–Meier method. Log-rank p-values were estimated to test differences between treatment groups. We also calculated the number needed to harm (NNH) over one and five years of follow-up for patients taking each incretin drug. Cox proportional hazard models (stratified by BMI strata) were employed to estimate hazard ratios (HRs) and 95% CIs for the risk of GBD associated with incretin-based drugs vs. SGLT2i. p-values for homogeneity were calculated on both the relative (HR) and absolute (RD) scales, and values less than 0.05 were considered indicative of treatment heterogeneity among BMI strata. To reconfirm the risk of GBD presented in stratified populations, we also modeled baseline BMI as a continuous variable using restricted cubic spline model with 5 knots placed on 5th, 27.5th, 50th, 72.5th, and 95th percentile.

Several additional analyses were conducted. First, we stratified patients by age (18–65 years, >65 years), sex (male, female), history of gastrointestinal (GI) diseases (gastric disease, irritable bowel disease, inflammatory bowel disease, pancreatitis, liver disease, diverticular disease, appendicitis), and history of diabetic neuropathy, and repeated the main analysis to test for potential effect modifications. p-value for interaction <0.05 was used to denote significant heterogeneity amongst subgroups. Second, we conducted an intention-to-treat analysis, carrying forward the initial treatment for 365 days without accounting for drug switching or discontinuation to address potential informative censoring. Third, the main analysis was repeated by varying the grace period to 60 days to consider for potential exposure misclassification. Fourth, we applied the PS fine stratification weighting method to control for potential confounders within each cohort and measured the average treatment effect (ATE) in whole population. Fifth, clinical variables from health examination results were additionally included in the PS model. This analysis was conducted for a subset of population with the variables available. Sixth, we conducted multiple imputation analysis based on the ‘multiple imputation by chained equations’ algorithm to impute missing clinical variables. The 5 imputed datasets using SAS MI procedure were analyzed separately to estimate the HRs, and then combined using MIANALYZE procedure. Finally, the main analysis was repeated in a restricted population with BMI records available within a year prior to index date. All statistical analyses were conducted using SAS software, version 9.4 (SAS Institute Inc., Cary, NC, USA).

Ethics approval

Ethical approval was obtained at from the Institutional Review Board of Sungkyunkwan University, where requirement of informed consent was waived as this study used anonymized administrative data (IRB No. SKKU 2024-03-020).

Role of the funding source

The funders had no role in the study design, collection, analysis, interpretation of data, writing of the report, and the decision to submit the article for publication.

Results

Characteristics of study cohorts

DPP4i vs. SGLT2i

A total of 1,619,901 and 252,037 new users of DPP4i and SGLT2i were identified, respectively, with a mean age of 59.8 years (eTable 8 in Supplement 1). After 1:1 PS matching, we identified 251,420 pairs in total; 24,749 pairs (9.8%) for normal weight, 39,974 pairs (15.9%) for overweight, and 186,697 pairs (74.3%) for obese group (eFigure 1 in Supplement 1). As detailed in Table 1, patients in the higher BMI groups were younger and more likely to have a history of liver disease, hypertension, and alcohol consumption. They also exhibited higher blood pressure, total cholesterol, triglycerides, and liver enzyme levels. Patients in the lower BMI groups were more frequently treated with insulin and metformin and had higher level of diabetes treatment and CCI scores.

Table 1.

Baseline characteristics of patients received DPP4 inhibitors or SGLT2 inhibitors after propensity score matching.

Baseline characteristics Normal (18.5 ≤ BMI<23 kg/m2)
Overweight (23 ≤ BMI <25 kg/m2)
Obese (BMI ≥25 kg/m2)
Overall
DPP4i (n = 24,749) SGLT2i (n = 24,749) ASD DPP4i (n = 39,974) SGLT2i (n = 39,974) ASD DPP4i (n = 186,697) SGLT2i (n = 186,697) ASD DPP4i (n = 251,420) SGLT2i (n = 251,420) ASD
Follow-up years; mean (SD) 2.25 (2.1) 1.59 (1.7) 2.27 (2.0) 1.76 (1.8) 2.02 (1.9) 1.88 (1.8) 2.08 (1.9) 1.84 (1.8)
Body mass index; mean (SD), kg/m2 21.6 (1.1) 21.6 (1.1) 0.001 24.03 (0.6) 24.03 (0.6) 0.003 29.38 (3.9) 29.42 (3.7) 0.009 27.77 (4.4) 27.79 (4.3) 0.006
Cohort entry year; n (%) 0.047 0.048 0.051 0.043
 2014 707 (2.9) 729 (3.0) 925 (2.3) 935 (2.3) 3025 (1.6) 3005 (1.6) 4657 (1.9) 4669 (1.9)
 2015 1926 (7.8) 1792 (7.2) 2662 (6.7) 2557 (6.4) 10,174 (5.5) 10,354 (5.6) 14,762 (5.9) 14,703 (5.9)
 2016 2450 (9.9) 2473 (10.0) 3595 (9.0) 3586 (9.0) 15,211 (8.2) 15,655 (8.4) 21,256 (8.5) 21,714 (8.6)
 2017 2823 (11.4) 2872 (11.6) 4557 (11.4) 4588 (11.5) 19,614 (10.5) 19,735 (10.6) 26,994 (10.7) 27,195 (10.8)
 2018 2600 (10.5) 2606 (10.5) 4227 (10.6) 4361 (10.9) 20,381 (10.9) 20,453 (11.0) 27,208 (10.8) 27,420 (10.9)
 2019 3438 (13.9) 3469 (14.0) 5910 (14.8) 5991 (15.0) 28,195 (15.1) 27,872 (14.9) 37,543 (14.9) 37,332 (14.9)
 2020 3507 (14.2) 3489 (14.1) 5990 (15.0) 5960 (14.9) 29,724 (15.9) 29,452 (15.8) 39,221 (15.6) 38,901 (15.5)
 2021 4144 (16.7) 4181 (16.9) 6778 (17.0) 6762 (16.9) 33,864 (18.1) 33,682 (18.0) 44,786 (17.8) 44,625 (17.8)
 2022 3154 (12.7) 3138 (12.7) 5330 (13.3) 5234 (13.1) 26,509 (14.2) 26,489 (14.2) 34,993 (13.9) 34,861 (13.9)
Age; mean (SD) 59.97 (11.8) 60.01 (11.5) 0.004 58.77 (11.2) 58.8 (10.9) 0.003 53.55 (12.5) 53.59 (12.1) 0.003 55.01 (12.5) 55.05 (12.1) 0.003
Age group; n (%) 0.001 0.002 0.005 0.004
 18–65 17,041 (68.9) 17,032 (68.8) 29,348 (73.4) 29,310 (73.3) 155,837 (83.5) 155,474 (83.3) 202,226 (80.4) 201,816 (80.3)
 >65 7708 (31.1) 7717 (31.2) 10,626 (26.6) 10,664 (26.7) 30,860 (16.5) 31,223 (16.7) 49,194 (19.6) 49,604 (19.7)
Sex; n (%) 0.001 0.010 0.004 0.002
 Male 13,905 (56.2) 13,965 (56.4) 23,804 (59.6) 23,884 (59.8) 111,669 (59.8) 111,846 (59.9) 149,378 (59.4) 149,695 (59.5)
 Female 10,844 (43.8) 10,784 (43.6) 16,170 (40.5) 16,090 (40.3) 75,028 (40.2) 74,851 (40.1) 102,042 (40.6) 101,725 (40.5)
Antihyperglycemic medications; n (%)
 Alpha-glucosidase inhibitors 1178 (4.8) 1176 (4.8) 0.001 1184 (3.0) 1157 (2.9) 0.004 2716 (1.5) 2745 (1.5) 0.001 5078 (2.0) 5078 (2.0) 0.001
 GLP1 RAs 73 (0.3) 64 (0.3) 0.007 88 (0.2) 93 (0.2) 0.003 602 (0.3) 685 (0.4) 0.008 763 (0.3) 842 (0.3) 0.006
 Insulin 2623 (10.6) 2621 (10.6) 0.001 3115 (7.8) 3202 (8.0) 0.008 11,651 (6.2) 11,697 (6.3) 0.001 17,389 (6.9) 17,520 (7.0) 0.002
 Meglitinides 146 (0.6) 143 (0.6) 0.002 168 (0.4) 168 (0.4) 0.001 436 (0.2) 422 (0.2) 0.002 750 (0.3) 733 (0.3) 0.001
 Metformin 13,786 (55.7) 13,720 (55.4) 0.005 21,384 (53.5) 21,428 (53.6) 0.002 88,395 (47.4) 88,759 (47.5) 0.004 123,565 (49.2) 123,907 (49.3) 0.003
 Sulfonylureas 6792 (27.4) 6632 (26.8) 0.015 9108 (22.8) 9048 (22.6) 0.004 32,122 (17.2) 32,053 (17.2) 0.001 48,022 (19.1) 47,733 (19.0) 0.003
 Thiazolidinediones 1474 (6.0) 1435 (5.8) 0.007 2142 (5.4) 2096 (5.2) 0.005 10,274 (5.5) 10,094 (5.4) 0.004 13,890 (5.5) 13,625 (5.4) 0.005
Number of antihyperglycemic medications being taken; n (%) 0.022 0.001 0.001 0.001
 0–1 16,872 (68.2) 17,045 (68.9) 29,386 (73.5) 29,438 (73.6) 147,415 (79.0) 147,508 (79.0) 193,673 (77.0) 193,991 (77.2)
 2–3 7597 (30.7) 7427 (30.0) 10,333 (25.9) 10,281 (25.7) 38,431 (20.6) 38,319 (20.5) 56,361 (22.4) 56,027 (22.3)
 4+ 280 (1.1) 277 (1.1) 255 (0.6) 255 (0.6) 851 (0.5) 870 (0.5) 1386 (0.6) 1402 (0.6)
Level of diabetes treatmenta; n (%) 0.037 0.001 0.001 0.001
 1 16,255 (65.7) 16,416 (66.3) 28,736 (71.9) 28,783 (72.0) 145,047 (77.7) 145,097 (77.7) 190,038 (75.6) 190,296 (75.7)
 2 5871 (23.7) 5712 (23.1) 8123 (20.3) 7989 (20.0) 29,999 (16.1) 29,903 (16.0) 43,993 (17.5) 43,604 (17.3)
 3 2623 (10.6) 2621 (10.6) 3115 (7.8) 3202 (8.0) 11,651 (6.2) 11,697 (6.3) 17,389 (6.9) 17,520 (7.0)
Diabetes related conditions; n (%)
 Diabetic nephropathy 908 (3.7) 881 (3.6) 0.006 1349 (3.4) 1355 (3.4) 0.001 5488 (2.9) 5477 (2.9) 0.001 7745 (3.1) 7713 (3.1) 0.001
 Diabetic neuropathy 3339 (13.5) 3200 (12.9) 0.017 4402 (11.0) 4384 (11.0) 0.001 16,139 (8.6) 15,985 (8.6) 0.003 23,880 (9.5) 23,569 (9.4) 0.004
 Diabetic retinopathy 4095 (16.6) 4124 (16.7) 0.003 5776 (14.5) 5682 (14.2) 0.007 19,990 (10.7) 20,151 (10.8) 0.003 29,861 (11.9) 29,957 (11.9) 0.001
 Hypoglycaemia 89 (0.4) 96 (0.4) 0.005 87 (0.2) 100 (0.3) 0.007 288 (0.2) 303 (0.2) 0.002 464 (0.2) 499 (0.2) 0.003
Gastrointestinal diseases; n (%)
 Gastric disease 15,341 (62.0) 15,350 (62.0) 0.001 24,886 (62.3) 24,799 (62.0) 0.004 112,185 (60.1) 112,523 (60.3) 0.004 152,412 (60.6) 152,672 (60.7) 0.002
 Irritable bowel disease 2337 (9.4) 2304 (9.3) 0.005 3622 (9.1) 3575 (8.9) 0.004 14,637 (7.8) 14,540 (7.8) 0.002 20,596 (8.2) 20,419 (8.1) 0.003
 Inflammatory bowel disease 37 (0.2) 39 (0.2) 0.002 59 (0.2) 62 (0.2) 0.002 254 (0.1) 253 (0.1) 0.001 350 (0.1) 354 (0.1) 0.001
 Pancreatitis 209 (0.8) 202 (0.8) 0.003 221 (0.6) 201 (0.5) 0.007 733 (0.4) 761 (0.4) 0.002 1163 (0.5) 1164 (0.5) 0.001
 Liver disease 3249 (13.1) 3212 (13.0) 0.004 5752 (14.4) 5675 (14.2) 0.006 33,663 (18.0) 33,773 (18.1) 0.002 42,664 (17.0) 42,660 (17.0) 0.001
 Diverticular disease 80 (0.3) 78 (0.3) 0.001 152 (0.4) 157 (0.4) 0.002 611 (0.3) 660 (0.4) 0.005 843 (0.3) 895 (0.4) 0.004
 Appendicitis 53 (0.2) 48 (0.2) 0.004 87 (0.2) 97 (0.2) 0.005 389 (0.2) 389 (0.2) 0.001 529 (0.2) 534 (0.2) 0.001
Comorbidities; n (%)
 Acute kidney injury 34 (0.1) 39 (0.2) 0.005 83 (0.2) 71 (0.2) 0.007 280 (0.2) 291 (0.2) 0.002 397 (0.2) 401 (0.2) 0.001
 Anxiety 1262 (5.1) 1268 (5.1) 0.001 1939 (4.9) 1977 (5.0) 0.004 7931 (4.3) 7993 (4.3) 0.002 11,132 (4.4) 11,238 (4.5) 0.002
 Asthma 1229 (5.0) 1286 (5.2) 0.010 2048 (5.1) 2015 (5.0) 0.004 9994 (5.4) 9895 (5.3) 0.002 13,271 (5.3) 13,196 (5.3) 0.001
 Atrial fibrillation 577 (2.3) 575 (2.3) 0.001 752 (1.9) 741 (1.9) 0.002 2698 (1.5) 2782 (1.5) 0.004 4027 (1.6) 4098 (1.6) 0.002
 Cancer 1123 (4.5) 1164 (4.7) 0.008 1717 (4.3) 1718 (4.3) 0.001 6634 (3.6) 6725 (3.6) 0.003 9474 (3.8) 9607 (3.8) 0.003
 Cardiomyopathy 166 (0.7) 162 (0.7) 0.002 192 (0.5) 199 (0.5) 0.003 691 (0.4) 720 (0.4) 0.003 1049 (0.4) 1081 (0.4) 0.002
 Chronic kidney disease 284 (1.2) 302 (1.2) 0.007 366 (0.9) 358 (0.9) 0.002 1407 (0.8) 1407 (0.8) 0.001 2057 (0.8) 2067 (0.8) 0.001
 Chronic obstructive pulmonary disease 1366 (5.5) 1324 (5.4) 0.007 1856 (4.6) 1819 (4.6) 0.004 6929 (3.7) 6899 (3.7) 0.001 10,151 (4.0) 10,042 (4.0) 0.002
 Congestive heart failure 985 (4.0) 925 (3.7) 0.013 1149 (2.9) 1194 (3.0) 0.007 5329 (2.9) 5434 (2.9) 0.003 7463 (3.0) 7553 (3.0) 0.002
 Dementia 664 (2.7) 671 (2.7) 0.002 775 (1.9) 789 (2.0) 0.003 2129 (1.1) 2199 (1.2) 0.004 3568 (1.4) 3659 (1.5) 0.003
 Depression 1108 (4.5) 1110 (4.5) 0.001 1602 (4.0) 1605 (4.0) 0.001 7252 (3.9) 7212 (3.9) 0.001 9962 (4.0) 9927 (4.0) 0.001
 Epilepsy 142 (0.6) 144 (0.6) 0.001 201 (0.5) 207 (0.5) 0.002 890 (0.5) 880 (0.5) 0.001 1233 (0.5) 1231 (0.5) 0.001
 Hyperlipidemia 9664 (39.1) 9667 (39.1) 0.001 16,849 (42.2) 16,859 (42.2) 0.001 79,227 (42.4) 79,394 (42.5) 0.002 105,740 (42.1) 105,920 (42.1) 0.001
 Hypertension 8915 (36.0) 8849 (35.8) 0.006 16,274 (40.7) 16,487 (41.2) 0.011 91,712 (49.1) 91,852 (49.2) 0.001 116,901 (46.5) 117,188 (46.6) 0.002
 Inflammatory arthritis 5451 (22.0) 5401 (21.8) 0.005 8795 (22.0) 8773 (22.0) 0.001 41,685 (22.3) 41,599 (22.3) 0.001 55,931 (22.3) 55,773 (22.2) 0.002
 Ischemic heart disease 2841 (11.5) 2825 (11.4) 0.002 4468 (11.2) 4478 (11.2) 0.001 15,782 (8.5) 15,905 (8.5) 0.002 23,091 (9.2) 23,208 (9.2) 0.002
 Obstructive sleep apnea 57 (0.2) 47 (0.2) 0.009 113 (0.3) 103 (0.3) 0.005 1199 (0.6) 1205 (0.7) 0.001 1369 (0.5) 1355 (0.5) 0.001
 Osteoarthritis 5254 (21.2) 5151 (20.8) 0.010 8409 (21.0) 8355 (20.9) 0.003 37,657 (20.2) 37,661 (20.2) 0.001 51,320 (20.4) 51,167 (20.4) 0.002
 Osteoporosis 1647 (6.7) 1636 (6.6) 0.002 2043 (5.1) 2047 (5.1) 0.001 6305 (3.4) 6291 (3.4) 0.001 9995 (4.0) 9974 (4.0) 0.001
 Parkinson's disease 55 (0.2) 69 (0.3) 0.011 116 (0.3) 103 (0.3) 0.006 303 (0.2) 286 (0.2) 0.002 474 (0.2) 458 (0.2) 0.001
 Pneumonia 1321 (5.3) 1300 (5.3) 0.004 2073 (5.2) 2017 (5.1) 0.006 9233 (5.0) 9245 (5.0) 0.001 12,627 (5.0) 12,562 (5.0) 0.001
 Psychosis 54 (0.2) 46 (0.2) 0.007 95 (0.2) 83 (0.2) 0.006 533 (0.3) 545 (0.3) 0.001 682 (0.3) 674 (0.3) 0.001
 Renal dysfunction 158 (0.6) 155 (0.6) 0.002 200 (0.5) 215 (0.5) 0.005 992 (0.5) 1008 (0.5) 0.001 1350 (0.5) 1378 (0.6) 0.002
 Stroke 893 (3.6) 927 (3.8) 0.007 1217 (3.0) 1251 (3.1) 0.005 4230 (2.3) 4177 (2.2) 0.002 6340 (2.5) 6355 (2.5) 0.001
 Thyroid disease 1750 (7.1) 1752 (7.1) 0.001 2700 (6.8) 2763 (6.9) 0.006 12,591 (6.7) 12,664 (6.8) 0.002 17,041 (6.8) 17,179 (6.8) 0.002
Comedications; n (%)
 ACE inhibitors or ARBs 8336 (33.7) 8367 (33.8) 0.003 15,602 (39.0) 15,792 (39.5) 0.010 90,311 (48.4) 90,552 (48.5) 0.003 114,249 (45.4) 114,711 (45.6) 0.004
 Anticoagulants 1473 (6.0) 1482 (6.0) 0.002 2121 (5.3) 2103 (5.3) 0.002 6889 (3.7) 6999 (3.8) 0.003 10,483 (4.2) 10,584 (4.2) 0.002
 Anticonvulsants 2611 (10.6) 2562 (10.4) 0.006 3797 (9.5) 3743 (9.4) 0.005 16,340 (8.8) 16,187 (8.7) 0.003 22,748 (9.1) 22,492 (9.0) 0.004
 Antidepressants 1387 (5.6) 1399 (5.7) 0.002 2060 (5.2) 2100 (5.3) 0.005 9563 (5.1) 9488 (5.1) 0.002 13,010 (5.2) 12,987 (5.2) 0.001
 Antipsychotics 4922 (19.9) 4913 (19.9) 0.001 7610 (19.0) 7564 (18.9) 0.003 33,767 (18.1) 33,454 (17.9) 0.004 46,299 (18.4) 45,931 (18.3) 0.004
 Benzodiazepines 7694 (31.1) 7689 (31.1) 0.001 12,203 (30.5) 12,083 (30.2) 0.007 49,503 (26.5) 49,802 (26.7) 0.004 69,400 (27.6) 69,574 (27.7) 0.002
 Beta-blockers 983 (4.0) 1003 (4.1) 0.004 1515 (3.8) 1486 (3.7) 0.004 6673 (3.6) 6625 (3.6) 0.001 9171 (3.7) 9114 (3.6) 0.001
 Bisphosphonates 869 (3.5) 913 (3.7) 0.010 1101 (2.8) 1126 (2.8) 0.004 3305 (1.8) 3388 (1.8) 0.003 5275 (2.1) 5427 (2.2) 0.004
 Calcium channel blockers 6733 (27.2) 6654 (26.9) 0.007 12,097 (30.3) 12,096 (30.3) 0.001 70,205 (37.6) 70,312 (37.7) 0.001 89,035 (35.4) 89,062 (35.4) 0.001
 Corticosteroids 8574 (34.6) 8517 (34.4) 0.005 14,035 (35.1) 13,899 (34.8) 0.007 65,025 (34.8) 65,433 (35.1) 0.005 87,634 (34.9) 87,849 (34.9) 0.002
 Diuretics 3482 (14.1) 3432 (13.9) 0.006 5808 (14.5) 5934 (14.8) 0.009 36,110 (19.3) 36,019 (19.3) 0.001 45,400 (18.1) 45,385 (18.1) 0.001
 Nitrates 518 (2.1) 500 (2.0) 0.005 667 (1.7) 670 (1.7) 0.001 2182 (1.2) 2203 (1.2) 0.001 3367 (1.3) 3373 (1.3) 0.001
 NSAIDs 14,315 (57.8) 14,217 (57.4) 0.008 23,397 (58.5) 23,344 (58.4) 0.003 109,926 (58.9) 109,870 (58.9) 0.001 147,638 (58.7) 147,431 (58.6) 0.002
 Opioids 2368 (9.6) 2360 (9.5) 0.001 3597 (9.0) 3707 (9.3) 0.010 15,602 (8.4) 15,719 (8.4) 0.002 21,567 (8.6) 21,786 (8.7) 0.003
 Platelet inhibitors 12,914 (52.2) 13,030 (52.7) 0.009 20,711 (51.8) 20,858 (52.2) 0.007 91,656 (49.1) 91,718 (49.1) 0.001 125,281 (49.8) 125,606 (50.0) 0.003
 Sedative hypnotics 2119 (8.6) 2143 (8.7) 0.003 3100 (7.8) 3141 (7.9) 0.004 11,670 (6.3) 11,691 (6.3) 0.001 16,889 (6.7) 16,975 (6.8) 0.001
 Tricyclic antidepressant 1311 (5.3) 1305 (5.3) 0.001 1863 (4.7) 1882 (4.7) 0.002 7682 (4.1) 7662 (4.1) 0.001 10,856 (4.3) 10,849 (4.3) 0.001
 Proton-pump inhibitors 9692 (39.2) 9796 (39.6) 0.009 15,526 (38.8) 15,519 (38.8) 0.001 69,466 (37.2) 69,561 (37.3) 0.001 94,684 (37.7) 94,876 (37.7) 0.002
 Histamine type 2 receptor antagonists 13,766 (55.6) 13,668 (55.2) 0.008 21,533 (53.9) 21,574 (54.0) 0.002 97,274 (52.1) 97,348 (52.1) 0.001 132,573 (52.7) 132,590 (52.7) 0.001
 Bile and liver medications 2260 (9.1) 2275 (9.2) 0.002 4142 (10.4) 4107 (10.3) 0.003 31,371 (16.8) 31,379 (16.8) 0.001 37,773 (15.0) 37,761 (15.0) 0.001
 Fibrates 1350 (5.5) 1360 (5.5) 0.002 2885 (7.2) 2865 (7.2) 0.002 16,396 (8.8) 16,401 (8.8) 0.001 20,631 (8.2) 20,626 (8.2) 0.001
 Statins 11,902 (48.1) 11,909 (48.1) 0.001 20,729 (51.9) 20,804 (52.0) 0.004 93,498 (50.1) 93,609 (50.1) 0.001 126,129 (50.2) 126,322 (50.2) 0.002
 Other lipid modifying drugs 2724 (11.0) 2714 (11.0) 0.001 5141 (12.9) 5088 (12.7) 0.004 24,727 (13.2) 24,574 (13.2) 0.002 32,592 (13.0) 32,376 (12.9) 0.003
Charlson Comorbidity Index; n (%) 0.037 0.001 0.001 0.001
 0 13,321 (53.8) 13,526 (54.7) 23,033 (57.6) 23,019 (57.6) 110,430 (59.2) 110,371 (59.1) 146,784 (58.4) 146,916 (58.4)
 1 5998 (24.2) 5840 (23.6) 8625 (21.6) 8600 (21.5) 35,407 (19.0) 35,072 (18.8) 50,030 (19.9) 49,512 (19.7)
 2 3279 (13.3) 3252 (13.1) 5368 (13.4) 5392 (13.5) 28,586 (15.3) 28,818 (15.4) 37,233 (14.8) 37,462 (14.9)
 ≥3 2151 (8.7) 2131 (8.6) 2948 (7.4) 2963 (7.4) 12,274 (6.6) 12,436 (6.7) 17,373 (6.9) 17,530 (7.0)
Number of outpatients visits; n (%) 0.001 0.001 0.001 0.001
 0–2 1625 (6.6) 1614 (6.5) 2424 (6.1) 2372 (5.9) 11,713 (6.3) 11,461 (6.1) 15,762 (6.3) 15,447 (6.1)
 3–5 2093 (8.5) 2080 (8.4) 3595 (9.0) 3513 (8.8) 17,796 (9.5) 17,837 (9.6) 23,484 (9.3) 23,430 (9.3)
 6+ 21,031 (85.0) 21,055 (85.1) 33,955 (84.9) 34,089 (85.3) 157,188 (84.2) 157,399 (84.3) 212,174 (84.4) 212,543 (84.5)
Number of hospitalizations; n (%) 0.001 0.001 0.082 0.001
 0 19,566 (79.1) 19,609 (79.2) 32,437 (81.2) 32,354 (80.9) 154,050 (82.5) 153,786 (82.4) 206,053 (82.0) 205,749 (81.8)
 1–2 4676 (18.9) 4631 (18.7) 6896 (17.3) 6955 (17.4) 30,166 (16.2) 30,385 (16.3) 41,738 (16.6) 41,971 (16.7)
 3+ 507 (2.1) 509 (2.1) 641 (1.6) 665 (1.7) 2481 (1.3) 2526 (1.4) 3629 (1.4) 3700 (1.5)
Number of internal medicine visits; mean (SD) 1.02 (3.3) 1.03 (3.6) 0.002 0.95 (3.7) 0.96 (3.7) 0.002 0.86 (3.2) 0.86 (3.4) 0.001 0.89 (3.3) 0.89 (3.4) 0.001
Number of gastroenterologist visits; mean (SD) 0.25 (1.3) 0.26 (1.3) 0.005 0.24 (1.1) 0.23 (1.2) 0.003 0.22 (1.1) 0.23 (1.1) 0.009 0.23 (1.1) 0.23 (1.1) 0.007
Number of cardiologist visits; mean (SD) 0.57 (1.9) 0.56 (1.7) 0.005 0.53 (1.7) 0.53 (1.6) 0.002 0.45 (1.6) 0.46 (1.5) 0.004 0.48 (1.6) 0.48 (1.5) 0.003
Number of endocrinologist visits; mean (SD) 0.51 (1.7) 0.51 (1.6) 0.001 0.5 (1.7) 0.5 (1.6) 0.003 0.48 (1.6) 0.5 (1.6) 0.011 0.48 (1.6) 0.5 (1.6) 0.009
Prescriber specialty; n (%)
 Internal medicine 2720 (11.0) 2708 (10.9) 0.002 4170 (10.4) 4199 (10.5) 0.002 18,769 (10.1) 18,691 (10.0) 0.001 25,659 (10.2) 25,598 (10.2) 0.001
 Gastroenterologist 393 (1.6) 410 (1.7) 0.005 700 (1.8) 682 (1.7) 0.003 3830 (2.1) 3963 (2.1) 0.005 4923 (2.0) 5055 (2.0) 0.004
 Endocrinologist 2999 (12.1) 3020 (12.2) 0.003 5554 (13.9) 5590 (14.0) 0.003 28,745 (15.4) 29,787 (16.0) 0.015 37,298 (14.8) 38,397 (15.3) 0.012
 Others 18,798 (76.0) 18,772 (75.9) 0.002 29,885 (74.8) 29,857 (74.7) 0.002 137,780 (73.8) 136,800 (73.3) 0.012 186,463 (74.2) 185,429 (73.8) 0.009
Smoking; n (%) 0.031 0.001 0.001 0.001
 Never 14,363 (58.0) 14,254 (57.6) 22,665 (56.7) 22,597 (56.5) 104,279 (55.9) 104,123 (55.8) 141,307 (56.2) 140,974 (56.1)
 Past smoker 4747 (19.2) 4840 (19.6) 9016 (22.6) 9071 (22.7) 42,176 (22.6) 42,179 (22.6) 55,939 (22.3) 56,090 (22.3)
 Current smoker 5635 (22.8) 5650 (22.8) 8283 (20.7) 8298 (20.8) 40,212 (21.5) 40,359 (21.6) 54,130 (21.5) 54,307 (21.6)
 Unknown 4 (0.0) 5 (0.0) 10 (0.0) 8 (0.0) 30 (0.0) 36 (0.0) 44 (0.0) 49 (0.0)
Drinking; n (%) 0.022 0.001 0.001 0.001
 Yes 7724 (31.2) 7822 (31.6) 13,640 (34.1) 13,680 (34.2) 69,090 (37.0) 69,376 (37.2) 90,454 (36.0) 90,878 (36.2)
 No 17,015 (68.8) 16,918 (68.4) 26,320 (65.8) 26,283 (65.8) 117,559 (63.0) 117,264 (62.8) 160,894 (64.0) 160,465 (63.8)
 Unknown 10 (0.0) 9 (0.0) 14 (0.0) 11 (0.0) 48 (0.0) 57 (0.0) 72 (0.0) 77 (0.0)
Clinical variablesb; mean (SD)
 Waist circumference [cm] 78.1 (5.8) 78.2 (5.9) 0.009 83.3 (5.4) 83.43 (7.1) 0.021 93.93 (9.5) 94.14 (10.7) 0.021 90.69 (10.4) 90.87 (11.3) 0.017
 Fasting blood glucose [mg/dL] 160.2 (66.9) 157.6 (64.8) 0.040 155.83 (59.1) 153.38 (57.2) 0.042 153.61 (55.8) 150.52 (53.3) 0.057 154.61 (57.5) 151.67 (55.2) 0.052
 Systolic blood pressure [mmHg] 125.5 (15.7) 125.4 (15.5) 0.007 127.67 (15.0) 127.38 (15.0) 0.020 131.39 (15.4) 131.27 (15.3) 0.008 130.22 (15.5) 130.07 (15.4) 0.009
 Diastolic blood pressure [mmHg] 76.4 (10.1) 76.4 (10.2) 0.007 78.12 (10.0) 77.89 (10.0) 0.023 81.44 (10.9) 81.4 (10.8) 0.004 80.42 (10.8) 80.35 (10.8) 0.007
 Total cholesterol. [mg/dL] 193.9 (49.5) 193.7 (50.7) 0.005 197.34 (50.8) 197.22 (52.4) 0.002 200.96 (50.9) 200.39 (51.9) 0.011 199.63 (50.8) 199.17 (51.9) 0.009
 Low density lipoprotein cholesterol [mg/dL] 109.7 (44.7) 109.7 (43.6) 0.001 112.14 (65.7) 111.34 (43.3) 0.014 113.04 (53.1) 112.68 (45.6) 0.007 112.53 (54.6) 112.14 (45.0) 0.008
 High density lipoprotein cholesterol [mg/dL] 54.5 (50.4) 54.0 (16.1) 0.012 51.42 (16.1) 51.38 (13.6) 0.002 49.29 (15.1) 49.36 (13.5) 0.005 50.17 (21.8) 50.17 (13.9) 0.001
 Triglycerides [mg/dL] 161.4 (158.3) 158.5 (167.9) 0.018 182.89 (163.2) 184 (169.0) 0.007 212.02 (189.8) 209.78 (193.0) 0.012 201.98 (183.4) 200.2 (187.6) 0.010
 Serum creatinine [mg/dL] 0.9 (0.3) 0.9 (0.8) 0.002 0.88 (0.7) 0.87 (0.6) 0.009 0.87 (0.4) 0.87 (0.4) 0.017 0.87 (0.5) 0.87 (0.5) 0.013
 eGFR [mL/min/1.73 m2] 91.2 (27.9) 91.2 (27.1) 0.001 90.35 (25.8) 90.09 (24.4) 0.010 91.94 (26.2) 92.05 (25.6) 0.004 91.61 (26.3) 91.66 (25.6) 0.002
 Hemoglobin [g/dL] 14.2 (1.7) 14.2 (1.6) 0.016 14.51 (1.6) 14.54 (1.6) 0.019 14.8 (1.6) 14.82 (1.6) 0.014 14.69 (1.6) 14.72 (1.6) 0.015
 AST (SGOT) [IU/L] 28.4 (25.8) 28.6 (27.2) 0.010 29.73 (23.2) 29.94 (31.2) 0.008 37.23 (40.4) 37.44 (33.9) 0.006 35.16 (37.1) 35.38 (33.1) 0.006
 ALT (SGPT) [IU/L] 27.6 (25.1) 27.9 (24.2) 0.013 32.3 (26.9) 32.7 (27.4) 0.015 47.04 (43.2) 47.53 (43.5) 0.012 42.79 (40.2) 43.25 (40.4) 0.012
 GGT [IU/L] 55.3 (100.9) 54.4 (115.7) 0.008 55.94 (79.8) 54.56 (74.7) 0.018 65.94 (75.3) 64.89 (68.9) 0.014 63.3 (79.0) 62.22 (75.8) 0.014

Abbreviations: ACE, angiotensin converting enzyme; ARBs, angiotensin receptor blockers; ASD, absolute standardized difference; AST, aspartate aminotransferase; ALT, alanine aminotransferase; DPP4i, dipeptidyl peptidase 4 inhibitors; eGFR, estimated glomerular filtration rate; GGT, gamma glutamyl transferase; GLP1RA, glucagon like peptide 1 receptor agonists; IQR, interquartile range; NSAIDs, nonsteroidal anti-inflammatory drugs; SD, standard deviation; SGLT2i, sodium glucose cotransporter 2 inhibitors; SGOT, serum glutamic oxaloacetic transaminase; SGPT, serum glutamic pyruvate transaminase.

a

Defined depending on the number of antidiabetic medication (excluding the study drugs of interest), prescribed in the year preceding the index date: level 1, as taking none or only one class of antidiabetic medication other than insulin, level 2, as taking ≥2 different classes of antidiabetic medication without insulin, and level 3, as taking insulin with or without other classes of antidiabetic medication.

b

Clinical variables were not included in the multivariable logistic regression model for propensity score estimation. Presented descriptive statistics (mean [SD]) here were based on patients with information on these variables available.

GLP1RA vs. SGLT2i

A total of 45,457 and 728,047 new users of GLP1RA and SGLT2i were identified, respectively, with a mean age of 57.4 years (eTable 9 in Supplement 1). After 1:1 PS matching, we identified 45,443 pairs in total; 8484 pairs (18.7%) for normal weight, 8948 pairs (19.7%) for overweight, and 28,011 pairs (61.6%) for obese group (eFigure 2 in Supplement 1). As presented in Table 2, patients in the higher BMI groups were younger and more likely to have a history of hypertension and alcohol consumption. They also presented higher blood pressure, triglycerides, and liver enzyme but lower fasting blood glucose levels.

Table 2.

Baseline characteristics of patients received GLP-1 receptor agonists or SGLT2 inhibitors after propensity score matching.

Baseline characteristics Normal (18.5 ≤ BMI<23 kg/m2)
Overweight (23 ≤ BMI<25 kg/m2)
Obese (BMI≥25 kg/m2)
Overall
GLP1RA (n = 8484) SGLT2i (n = 8484) ASD GLP1RA (n = 8948) SGLT2i (n = 8948) ASD GLP1RA (n = 28,011) SGLT2i (n = 28,011) ASD GLP1RA (n = 45,443) SGLT2i (n = 45,443) ASD
Follow-up years; mean (SD) 0.87 (1.0) 1.38 (1.4) 0.95 (1.1) 1.59 (1.5) 1 (1.1) 1.83 (1.6) 0.97 (1.1) 1.7 (1.6)
Body mass index; mean (SD), kg/m2 21.4 (1.2) 21.4 (1.1) 0.001 23.98 (0.6) 23.99 (0.6) 0.016 29.18 (3.8) 29.19 (3.7) 0.002 26.7 (4.4) 26.71 (4.4) 0.002
Cohort entry year; n (%) 0.036 0.034 0.036 0.036
 2014 0 (0.0) 0 (0.0) 5 (0.1) 1 (0.0) 53 (0.2) 54 (0.2) 58 (0.1) 55 (0.1)
 2015 33 (0.4) 21 (0.3) 27 (0.3) 22 (0.3) 241 (0.9) 220 (0.8) 301 (0.7) 263 (0.6)
 2016 350 (4.1) 342 (4.0) 442 (4.9) 458 (5.1) 1598 (5.7) 1658 (5.9) 2390 (5.3) 2458 (5.4)
 2017 1137 (13.4) 1226 (14.5) 1242 (13.9) 1249 (14.0) 4158 (14.8) 4262 (15.2) 6537 (14.4) 6737 (14.8)
 2018 1503 (17.7) 1441 (17.0) 1516 (16.9) 1465 (16.4) 4670 (16.7) 4628 (16.5) 7689 (16.9) 7534 (16.6)
 2019 1504 (17.7) 1485 (17.5) 1558 (17.4) 1603 (17.9) 4912 (17.5) 4858 (17.3) 7974 (17.6) 7946 (17.5)
 2020 1120 (13.2) 1141 (13.5) 1203 (13.4) 1174 (13.1) 3767 (13.5) 3802 (13.6) 6090 (13.4) 6117 (13.5)
 2021 1459 (17.2) 1455 (17.2) 1532 (17.1) 1537 (17.2) 4553 (16.3) 4556 (16.3) 7544 (16.6) 7548 (16.6)
 2022 1378 (16.2) 1373 (16.2) 1423 (15.9) 1439 (16.1) 4059 (14.5) 3973 (14.2) 6860 (15.1) 6785 (14.9)
Age; mean (SD) 62.17 (11.2) 62.21 (11.2) 0.003 61.69 (11.1) 61.75 (11.1) 0.006 56.35 (12.8) 56.26 (12.5) 0.007 58.49 (12.5) 58.45 (12.3) 0.003
Age group; n (%) 0.001 0.001 0.004 0.003
 18–65 5170 (60.9) 5175 (61.0) 5602 (62.6) 5608 (62.7) 20,981 (74.9) 21,025 (75.1) 31,753 (69.9) 31,808 (70.0)
 >65 3314 (39.1) 3309 (39.0) 3346 (37.4) 3340 (37.3) 7030 (25.1) 6986 (24.9) 13,690 (30.1) 13,635 (30.0)
Sex; n (%) 0.032 0.025 0.034 0.032
 Male 4572 (53.9) 4625 (54.5) 5114 (57.2) 5110 (57.1) 15,102 (53.9) 15,144 (54.1) 24,788 (54.6) 24,879 (54.8)
 Female 3912 (46.1) 3859 (45.5) 3834 (42.9) 3838 (42.9) 12,909 (46.1) 12,867 (45.9) 20,655 (45.5) 20,564 (45.3)
Antihyperglycemic medications; n (%)
 Alpha-glucosidase inhibitors 348 (4.1) 344 (4.1) 0.002 255 (2.9) 279 (3.1) 0.016 587 (2.1) 587 (2.1) 0.001 1190 (2.6) 1210 (2.7) 0.003
 DPP4 inhibitors 7000 (82.5) 6971 (82.2) 0.009 7307 (81.7) 7292 (81.5) 0.004 21,877 (78.1) 22,054 (78.7) 0.015 36,184 (79.6) 36,317 (79.9) 0.007
 Insulin 4543 (53.6) 4603 (54.3) 0.014 4586 (51.3) 4652 (52.0) 0.015 12,465 (44.5) 12,383 (44.2) 0.006 21,594 (47.5) 21,638 (47.6) 0.002
 Meglitinides 113 (1.3) 113 (1.3) 0.001 124 (1.4) 120 (1.3) 0.004 252 (0.9) 224 (0.8) 0.011 489 (1.1) 457 (1.0) 0.007
 Metformin 7389 (87.1) 7359 (86.7) 0.010 7850 (87.7) 7856 (87.8) 0.002 23,801 (85.0) 24,066 (85.9) 0.027 39,040 (85.9) 39,281 (86.4) 0.015
 Sulfonylureas 5603 (66.0) 5652 (66.6) 0.012 5999 (67.0) 6079 (67.9) 0.019 17,206 (61.4) 17,528 (62.6) 0.024 28,808 (63.4) 29,259 (64.4) 0.021
 Thiazolidinediones 1914 (22.6) 1963 (23.1) 0.014 1893 (21.2) 1928 (21.6) 0.010 5791 (20.7) 5831 (20.8) 0.004 9598 (21.1) 9722 (21.4) 0.007
Number of antihyperglycemic medications being taken; n (%) 0.001 0.044 0.036 0.039
 0–1 484 (5.7) 487 (5.7) 473 (5.3) 473 (5.3) 2462 (8.8) 2240 (8.0) 3419 (7.5) 3200 (7.0)
 2–3 5216 (61.5) 5188 (61.2) 5774 (64.5) 5681 (63.5) 18,759 (67.0) 18,929 (67.6) 29,749 (65.5) 29,798 (65.6)
 4+ 2784 (32.8) 2809 (33.1) 2701 (30.2) 2794 (31.2) 6790 (24.2) 6842 (24.4) 12,275 (27.0) 12,445 (27.4)
Level of diabetes treatment; n (%)a 0.001 0.020 0.042 0.021
 1 256 (3.0) 242 (2.9) 264 (3.0) 247 (2.8) 1856 (6.6) 1615 (5.8) 2376 (5.2) 2104 (4.6)
 2 3685 (43.4) 3639 (42.9) 4098 (45.8) 4049 (45.3) 13,690 (48.9) 14,013 (50.0) 21,473 (47.3) 21,701 (47.8)
 3 4543 (53.6) 4603 (54.3) 4586 (51.3) 4652 (52.0) 12,465 (44.5) 12,383 (44.2) 21,594 (47.5) 21,638 (47.6)
Diabetes related conditions; n (%)
 Diabetic nephropathy 1010 (11.9) 1002 (11.8) 0.003 1138 (12.7) 1117 (12.5) 0.007 3433 (12.3) 3340 (11.9) 0.010 5581 (12.3) 5459 (12.0) 0.008
 Diabetic neuropathy 2785 (32.8) 2770 (32.7) 0.004 2753 (30.8) 2792 (31.2) 0.009 7171 (25.6) 7156 (25.6) 0.001 12,709 (28.0) 12,718 (28.0) 0.000
 Diabetic retinopathy 3356 (39.6) 3310 (39.0) 0.011 3500 (39.1) 3505 (39.2) 0.001 8823 (31.5) 8764 (31.3) 0.005 15,679 (34.5) 15,579 (34.3) 0.005
 Hypoglycaemia 113 (1.3) 119 (1.4) 0.006 72 (0.8) 84 (0.9) 0.014 127 (0.5) 127 (0.5) 0.001 312 (0.7) 330 (0.7) 0.005
Gastrointestinal diseases; n (%)
 Gastric disease 5429 (64.0) 5485 (64.7) 0.014 5745 (64.2) 5756 (64.3) 0.003 17,310 (61.8) 17,261 (61.6) 0.004 28,484 (62.7) 28,502 (62.7) 0.001
 Irritable bowel disease 788 (9.3) 830 (9.8) 0.017 784 (8.8) 782 (8.7) 0.001 2202 (7.9) 2207 (7.9) 0.001 3774 (8.3) 3819 (8.4) 0.004
 Inflammatory bowel disease 10 (0.1) 7 (0.1) 0.011 14 (0.2) 17 (0.2) 0.008 43 (0.2) 52 (0.2) 0.008 67 (0.2) 76 (0.2) 0.005
 Pancreatitis 120 (1.4) 129 (1.5) 0.009 70 (0.8) 78 (0.9) 0.010 145 (0.5) 152 (0.5) 0.003 335 (0.7) 359 (0.8) 0.006
 Liver disease 1027 (12.1) 976 (11.5) 0.019 1105 (12.4) 1115 (12.5) 0.003 4542 (16.2) 4604 (16.4) 0.006 6674 (14.7) 6695 (14.7) 0.001
 Diverticular disease 21 (0.3) 20 (0.2) 0.002 27 (0.3) 31 (0.4) 0.008 61 (0.2) 69 (0.3) 0.006 109 (0.2) 120 (0.3) 0.005
 Appendicitis 13 (0.2) 12 (0.1) 0.003 10 (0.1) 6 (0.1) 0.015 53 (0.2) 50 (0.2) 0.003 76 (0.2) 68 (0.2) 0.004
Comorbidities; n (%)
 Acute kidney injury 61 (0.7) 68 (0.8) 0.009 66 (0.7) 74 (0.8) 0.010 188 (0.7) 180 (0.6) 0.004 315 (0.7) 322 (0.7) 0.002
 Anxiety 499 (5.9) 506 (6.0) 0.003 485 (5.4) 502 (5.6) 0.008 1429 (5.1) 1459 (5.2) 0.005 2413 (5.3) 2467 (5.4) 0.005
 Asthma 411 (4.8) 429 (5.1) 0.010 500 (5.6) 510 (5.7) 0.005 1737 (6.2) 1772 (6.3) 0.005 2648 (5.8) 2711 (6.0) 0.006
 Atrial fibrillation 144 (1.7) 135 (1.6) 0.008 137 (1.5) 120 (1.3) 0.016 437 (1.6) 451 (1.6) 0.004 718 (1.6) 706 (1.6) 0.002
 Cancer 545 (6.4) 523 (6.2) 0.011 564 (6.3) 590 (6.6) 0.012 1638 (5.9) 1692 (6.0) 0.008 2747 (6.0) 2805 (6.2) 0.005
 Cardiomyopathy 26 (0.3) 35 (0.4) 0.018 26 (0.3) 35 (0.4) 0.017 104 (0.4) 98 (0.4) 0.004 156 (0.3) 168 (0.4) 0.004
 Chronic kidney disease 415 (4.9) 413 (4.9) 0.001 482 (5.4) 427 (4.8) 0.028 1365 (4.9) 1291 (4.6) 0.012 2262 (5.0) 2131 (4.7) 0.013
 Chronic obstructive pulmonary disease 476 (5.6) 495 (5.8) 0.010 481 (5.4) 497 (5.6) 0.008 1370 (4.9) 1448 (5.2) 0.013 2327 (5.1) 2440 (5.4) 0.011
 Congestive heart failure 247 (2.9) 268 (3.2) 0.014 284 (3.2) 289 (3.2) 0.003 984 (3.5) 988 (3.5) 0.001 1515 (3.3) 1545 (3.4) 0.004
 Dementia 389 (4.6) 391 (4.6) 0.001 385 (4.3) 398 (4.5) 0.007 708 (2.5) 706 (2.5) 0.001 1482 (3.3) 1495 (3.3) 0.002
 Depression 504 (5.9) 498 (5.9) 0.003 465 (5.2) 493 (5.5) 0.014 1520 (5.4) 1502 (5.4) 0.003 2489 (5.5) 2493 (5.5) 0.000
 Epilepsy 79 (0.9) 90 (1.1) 0.013 72 (0.8) 77 (0.9) 0.006 196 (0.7) 196 (0.7) 0.001 347 (0.8) 363 (0.8) 0.004
 Hyperlipidemia 4429 (52.2) 4441 (52.4) 0.003 4649 (52.0) 4571 (51.1) 0.017 14,048 (50.2) 14,000 (50.0) 0.003 23,126 (50.9) 23,012 (50.6) 0.005
 Hypertension 3243 (38.2) 3251 (38.3) 0.002 3925 (43.9) 4014 (44.9) 0.020 13,980 (49.9) 14,027 (50.1) 0.003 21,148 (46.5) 21,292 (46.9) 0.006
 Inflammatory arthritis 2071 (24.4) 2120 (25.0) 0.013 2289 (25.6) 2351 (26.3) 0.016 7071 (25.2) 7147 (25.5) 0.006 11,431 (25.2) 11,618 (25.6) 0.009
 Ischemic heart disease 935 (11.0) 950 (11.2) 0.006 1170 (13.1) 1208 (13.5) 0.013 2992 (10.7) 3062 (10.9) 0.008 5097 (11.2) 5220 (11.5) 0.009
 Obstructive sleep apnea 5 (0.1) 4 (0.1) 0.005 26 (0.3) 27 (0.3) 0.002 178 (0.6) 186 (0.7) 0.004 209 (0.5) 217 (0.5) 0.003
 Osteoarthritis 2050 (24.2) 2136 (25.2) 0.024 2307 (25.8) 2371 (26.5) 0.016 6966 (24.9) 7050 (25.2) 0.007 11,323 (24.9) 11,557 (25.4) 0.012
 Osteoporosis 591 (7.0) 614 (7.2) 0.011 505 (5.6) 502 (5.6) 0.001 1162 (4.2) 1182 (4.2) 0.004 2258 (5.0) 2298 (5.1) 0.004
 Parkinson's disease 66 (0.8) 56 (0.7) 0.014 66 (0.7) 60 (0.7) 0.008 108 (0.4) 100 (0.4) 0.005 240 (0.5) 216 (0.5) 0.007
 Pneumonia 539 (6.4) 566 (6.7) 0.013 517 (5.8) 533 (6.0) 0.008 1658 (5.9) 1719 (6.1) 0.009 2714 (6.0) 2818 (6.2) 0.010
 Psychosis 21 (0.3) 22 (0.3) 0.002 28 (0.3) 32 (0.4) 0.008 111 (0.4) 115 (0.4) 0.002 160 (0.4) 169 (0.4) 0.003
 Renal dysfunction 65 (0.8) 69 (0.8) 0.005 66 (0.7) 77 (0.9) 0.014 224 (0.8) 209 (0.8) 0.006 355 (0.8) 355 (0.8) 0.000
 Stroke 474 (5.6) 507 (6.0) 0.017 524 (5.9) 523 (5.8) 0.001 1203 (4.3) 1185 (4.2) 0.003 2201 (4.8) 2215 (4.9) 0.001
 Thyroid disease 699 (8.2) 679 (8.0) 0.009 696 (7.8) 679 (7.6) 0.007 2246 (8.0) 2230 (8.0) 0.002 3641 (8.0) 3588 (7.9) 0.004
Comedications; n (%)
 ACE inhibitors or ARBs 3603 (42.5) 3637 (42.9) 0.008 4668 (52.2) 4715 (52.7) 0.011 17,118 (61.1) 17,059 (60.9) 0.004 25,389 (55.9) 25,411 (55.9) 0.001
 Anticoagulants 542 (6.4) 559 (6.6) 0.008 556 (6.2) 608 (6.8) 0.024 1502 (5.4) 1584 (5.7) 0.013 2600 (5.7) 2751 (6.1) 0.014
 Anticonvulsants 1915 (22.6) 2016 (23.8) 0.028 1934 (21.6) 1944 (21.7) 0.003 5544 (19.8) 5614 (20.0) 0.006 9393 (20.7) 9574 (21.1) 0.010
 Antidepressants 679 (8.0) 671 (7.9) 0.003 766 (8.6) 770 (8.6) 0.002 2308 (8.2) 2324 (8.3) 0.002 3753 (8.3) 3765 (8.3) 0.001
 Antipsychotics 1741 (20.5) 1767 (20.8) 0.008 1866 (20.9) 1901 (21.2) 0.010 5659 (20.2) 5685 (20.3) 0.002 9266 (20.4) 9353 (20.6) 0.005
 Benzodiazepines 2936 (34.6) 3042 (35.9) 0.026 3023 (33.8) 3050 (34.1) 0.006 8692 (31.0) 8705 (31.1) 0.001 14,651 (32.2) 14,797 (32.6) 0.007
 Beta-blockers 353 (4.2) 365 (4.3) 0.007 340 (3.8) 345 (3.9) 0.003 1188 (4.2) 1178 (4.2) 0.002 1881 (4.1) 1888 (4.2) 0.001
 Bisphosphonates 367 (4.3) 378 (4.5) 0.006 323 (3.6) 355 (4.0) 0.019 682 (2.4) 719 (2.6) 0.008 1372 (3.0) 1452 (3.2) 0.010
 Calcium channel blockers 2423 (28.6) 2444 (28.8) 0.005 3069 (34.3) 3064 (34.2) 0.001 11,759 (42.0) 11,761 (42.0) 0.001 17,251 (38.0) 17,269 (38.0) 0.001
 Corticosteroids 2652 (31.3) 2691 (31.7) 0.010 2876 (32.1) 2894 (32.3) 0.004 9014 (32.2) 9076 (32.4) 0.005 14,542 (32.0) 14,661 (32.3) 0.006
 Diuretics 1154 (13.6) 1174 (13.8) 0.007 1504 (16.8) 1554 (17.4) 0.015 6162 (22.0) 6084 (21.7) 0.007 8820 (19.4) 8812 (19.4) 0.000
 Nitrates 148 (1.7) 165 (1.9) 0.015 188 (2.1) 196 (2.2) 0.006 486 (1.7) 511 (1.8) 0.007 822 (1.8) 872 (1.9) 0.008
 NSAIDs 5276 (62.2) 5300 (62.5) 0.006 5687 (63.6) 5700 (63.7) 0.003 17,844 (63.7) 18,030 (64.4) 0.014 28,807 (63.4) 29,030 (63.9) 0.010
 Opioids 1062 (12.5) 1099 (13.0) 0.013 1129 (12.6) 1206 (13.5) 0.026 3360 (12.0) 3603 (12.9) 0.026 5551 (12.2) 5908 (13.0) 0.024
 Platelet inhibitors 5407 (63.7) 5419 (63.9) 0.003 5867 (65.6) 5902 (66.0) 0.008 17,377 (62.0) 17,593 (62.8) 0.016 28,651 (63.1) 28,914 (63.6) 0.012
 Sedative hypnotics 953 (11.2) 938 (11.1) 0.006 973 (10.9) 993 (11.1) 0.007 2531 (9.0) 2499 (8.9) 0.004 4457 (9.8) 4430 (9.8) 0.002
 Tricyclic antidepressant 761 (9.0) 771 (9.1) 0.004 714 (8.0) 742 (8.3) 0.011 2044 (7.3) 2026 (7.2) 0.002 3519 (7.7) 3539 (7.8) 0.002
 Proton-pump inhibitors 3910 (46.1) 3970 (46.8) 0.014 4070 (45.5) 4130 (46.2) 0.013 12,129 (43.3) 12,155 (43.4) 0.002 20,109 (44.3) 20,255 (44.6) 0.006
 Histamine type 2 receptor antagonists 5137 (60.6) 5159 (60.8) 0.005 5346 (59.8) 5411 (60.5) 0.015 16,337 (58.3) 16,383 (58.5) 0.003 26,820 (59.0) 26,953 (59.3) 0.006
 Bile and liver medications 869 (10.2) 838 (9.9) 0.012 1003 (11.2) 1057 (11.8) 0.019 5440 (19.4) 5546 (19.8) 0.010 7312 (16.1) 7441 (16.4) 0.008
 Fibrates 614 (7.2) 586 (6.9) 0.013 958 (10.7) 976 (10.9) 0.006 3852 (13.8) 3881 (13.9) 0.003 5424 (11.9) 5443 (12.0) 0.001
 Statins 6281 (74.0) 6245 (73.6) 0.010 7063 (78.9) 7012 (78.4) 0.014 21,374 (76.3) 21,375 (76.3) 0.001 34,718 (76.4) 34,632 (76.2) 0.004
 Other lipid modifying drugs 1589 (18.7) 1588 (18.7) 0.001 1816 (20.3) 1800 (20.1) 0.004 5907 (21.1) 5879 (21.0) 0.002 9312 (20.5) 9267 (20.4) 0.002
Charlson Comorbidity Index; n (%) 0.001 0.046 0.041 0.031
 0 2716 (32.0) 2688 (31.7) 2822 (31.5) 2705 (30.2) 10,166 (36.3) 10,139 (36.2) 15,704 (34.6) 15,532 (34.2)
 1 3786 (44.6) 3809 (44.9) 4027 (45.0) 4113 (46.0) 10,982 (39.2) 10,929 (39.0) 18,795 (41.4) 18,851 (41.5)
 2 694 (8.2) 717 (8.5) 743 (8.3) 742 (8.3) 2947 (10.5) 2934 (10.5) 4384 (9.7) 4393 (9.7)
 ≥3 1288 (15.2) 1270 (15.0) 1356 (15.2) 1388 (15.5) 3916 (14.0) 4009 (14.3) 6560 (14.4) 6667 (14.7)
Number of outpatients visits; n (%) 0.001 0.001 0.001 0.001
 0–2 74 (0.9) 68 (0.8) 62 (0.7) 60 (0.7) 254 (0.9) 237 (0.9) 390 (0.9) 365 (0.8)
 3–5 181 (2.1) 191 (2.3) 196 (2.2) 181 (2.0) 769 (2.8) 780 (2.8) 1146 (2.5) 1152 (2.5)
 6+ 8229 (97.0) 8225 (97.0) 8690 (97.1) 8707 (97.3) 26,988 (96.4) 26,994 (96.4) 43,907 (96.6) 43,926 (96.7)
Number of hospitalizations; n (%) 0.053 0.023 0.062 0.062
 0 5781 (68.1) 5629 (66.4) 6194 (69.2) 6046 (67.6) 20,073 (71.7) 19,732 (70.4) 32,048 (70.5) 31,407 (69.1)
 1–2 2268 (26.7) 2386 (28.1) 2376 (26.6) 2509 (28.0) 7001 (25.0) 7309 (26.1) 11,645 (25.6) 12,204 (26.9)
 3+ 435 (5.1) 469 (5.5) 378 (4.2) 393 (4.4) 937 (3.4) 970 (3.5) 1750 (3.9) 1832 (4.0)
Number of internal medicine visits; mean (SD) 1.76 (5.1) 1.8 (4.9) 0.009 1.81 (6.1) 1.72 (5.3) 0.016 1.56 (5.3) 1.59 (4.9) 0.006 1.64 (5.4) 1.65 (5.0) 0.002
Number of gastroenterologist visits; mean (SD) 0.4 (1.6) 0.42 (1.7) 0.015 0.39 (1.6) 0.43 (1.9) 0.022 0.41 (1.6) 0.42 (1.7) 0.006 0.4 (1.6) 0.42 (1.7) 0.011
Number of cardiologist visits; mean (SD) 0.45 (1.5) 0.46 (1.5) 0.012 0.53 (1.6) 0.56 (1.6) 0.020 0.52 (1.6) 0.53 (1.6) 0.011 0.51 (1.6) 0.53 (1.6) 0.013
Number of endocrinologist visits; mean (SD) 2.04 (3.1) 1.99 (3.1) 0.016 2.12 (3.1) 2.04 (3.1) 0.025 2.14 (3.2) 2.08 (3.1) 0.017 2.11 (3.2) 2.06 (3.1) 0.018
Prescriber specialty; n (%)
 Internal medicine 939 (11.1) 959 (11.3) 0.007 897 (10.0) 923 (10.3) 0.010 2699 (9.6) 2777 (9.9) 0.009 4535 (10.0) 4659 (10.3) 0.009
 Gastroenterologist 167 (2.0) 182 (2.2) 0.012 190 (2.1) 202 (2.3) 0.009 697 (2.5) 693 (2.5) 0.001 1054 (2.3) 1077 (2.4) 0.003
 Endocrinologist 3108 (36.6) 3049 (35.9) 0.014 3582 (40.0) 3491 (39.0) 0.021 12,079 (43.1) 12,030 (43.0) 0.004 18,769 (41.3) 18,570 (40.9) 0.009
 Others 4365 (51.5) 4400 (51.9) 0.008 4407 (49.3) 4459 (49.8) 0.012 13,084 (46.7) 13,083 (46.7) 0.001 21,856 (48.1) 21,942 (48.3) 0.004
Smoking 0.001 0.001 0.001 0.001
 Never 5159 (60.8) 5176 (61.0) 5378 (60.1) 5344 (59.7) 17,065 (60.9) 17,022 (60.8) 27,602 (60.7) 27,542 (60.6)
 Past smoker 1521 (17.9) 1521 (17.9) 1868 (20.9) 1891 (21.1) 5662 (20.2) 5680 (20.3) 9051 (19.9) 9092 (20.0)
 Current smoker 1800 (21.2) 1782 (21.0) 1701 (19.0) 1712 (19.1) 5276 (18.8) 5300 (18.9) 8777 (19.3) 8794 (19.4)
 Unknown 4 (0.1) 5 (0.1) 1 (0.0) 1 (0.0) 8 (0.0) 9 (0.0) 13 (0.0) 15 (0.0)
Drinking 0.024 0.023 0.001 0.001
 Yes 1902 (22.4) 1965 (23.2) 2204 (24.6) 2170 (24.3) 8084 (28.9) 8207 (29.3) 12,190 (26.8) 12,342 (27.2)
 No 6576 (77.5) 6514 (76.8) 6740 (75.3) 6774 (75.7) 19,920 (71.1) 19,798 (70.7) 33,236 (73.1) 33,086 (72.8)
 Unknown 6 (0.1) 5 (0.1) 4 (0.0) 4 (0.0) 7 (0.0) 6 (0.0) 17 (0.0) 15 (0.0)
Clinical variablesb; mean (SD)
 Waist circumference [cm] 78.2 (6.0) 78.1 (6.0) 0.030 84.19 (5.5) 84.03 (5.5) 0.028 94.58 (10.9) 94.28 (9.3) 0.029 89.48 (11.4) 89.23 (10.5) 0.023
 Fasting blood glucose [mg/dL] 174.1 (73.8) 169.5 (71.1) 0.063 168.42 (66.1) 163.48 (63.4) 0.076 166.61 (62.8) 161.2 (59.3) 0.088 168.36 (65.7) 163.2 (62.5) 0.081
 Systolic blood pressure [mmHg] 123.3 (15.6) 124.1 (15.6) 0.047 126.03 (15.0) 126.84 (15.0) 0.055 129.69 (14.8) 130.15 (14.9) 0.031 127.78 (15.2) 128.37 (15.3) 0.038
 Diastolic blood pressure [mmHg] 73.4 (9.7) 73.9 (9.8) 0.044 74.83 (9.6) 75.63 (9.7) 0.083 78.41 (10.3) 78.91 (10.2) 0.048 76.78 (10.2) 77.32 (10.3) 0.053
 Total cholesterol. [mg/dL] 170.3 (60.1) 171.9 (49.1) 0.029 167.49 (44.1) 172.03 (47.0) 0.100 173.91 (46.3) 178.05 (50.0) 0.086 171.95 (48.8) 175.71 (49.3) 0.077
 Low density lipoprotein cholesterol [mg/dL] 90.9 (54.0) 92.3 (43.3) 0.028 87.89 (36.6) 91.28 (38.6) 0.090 91.2 (40.8) 94.72 (85.8) 0.052 90.48 (42.9) 93.58 (71.9) 0.052
 High density lipoprotein cholesterol [mg/dL] 52.4 (15.6) 52.9 (16.0) 0.037 49.21 (13.3) 49.4 (12.6) 0.015 47.63 (13.1) 48.37 (15.2) 0.052 48.83 (13.8) 49.42 (15.0) 0.041
 Triglycerides [mg/dL] 137.8 (107.2) 138.2 (118.6) 0.003 158.39 (122.5) 162.97 (133.7) 0.036 188.57 (161.8) 189.82 (165.0) 0.008 173.03 (147.0) 174.96 (152.8) 0.013
 Serum creatinine [mg/dL] 0.9 (0.4) 0.9 (0.3) 0.061 0.94 (0.4) 0.92 (0.3) 0.042 0.93 (0.4) 0.9 (0.4) 0.063 0.93 (0.4) 0.91 (0.4) 0.059
 eGFR [mL/min/1.73 m2] 86.9 (30.3) 87.8 (28.2) 0.032 84.58 (27.8) 85.3 (28.7) 0.025 87.2 (29.4) 88.21 (29.3) 0.034 86.63 (29.3) 87.57 (29.0) 0.032
 Hemoglobin [g/dL] 13.7 (1.7) 13.7 (1.7) 0.033 13.92 (1.7) 14 (1.6) 0.045 14.23 (1.7) 14.3 (1.7) 0.040 14.06 (1.7) 14.13 (1.7) 0.039
 AST (SGOT) [IU/L] 26.6 (26.0) 26.9 (25.1) 0.012 27.48 (19.9) 28.94 (67.9) 0.029 33.69 (26.7) 33.82 (27.1) 0.005 31.14 (25.6) 31.57 (38.6) 0.013
 ALT (SGPT) [IU/L] 25.7 (28.4) 25.7 (23.9) 0.001 28.47 (28.6) 29.09 (28.1) 0.022 38.8 (34.2) 39.48 (36.7) 0.019 34.32 (32.7) 34.87 (33.6) 0.016
 GGT [IU/L] 37.6 (67.7) 41.8 (82.2) 0.056 41.58 (81.0) 44.87 (71.6) 0.043 52.5 (61.6) 54.23 (63.4) 0.028 47.57 (67.3) 50.08 (69.1) 0.037

Abbreviations: ACE, angiotensin converting enzyme; ARBs, angiotensin receptor blockers; ASD, absolute standardized difference; AST, aspartate aminotransferase; ALT, alanine aminotransferase; DPP4i, dipeptidyl peptidase 4 inhibitors; eGFR, estimated glomerular filtration rate; GGT, gamma glutamyl transferase; GLP1RA, glucagon like peptide 1 receptor agonists; IQR, interquartile range; NSAIDs, nonsteroidal anti-inflammatory drugs; SD, standard deviation; SGLT2i, sodium glucose cotransporter 2 inhibitors; SGOT, serum glutamic oxaloacetic transaminase; SGPT, serum glutamic pyruvate transaminase.

a

Defined depending on the number of antidiabetic medication (excluding the study drugs of interest), prescribed in the year preceding the index date: level 1, as taking none or only one class of antidiabetic medication other than insulin, level 2, as taking ≥2 different classes of antidiabetic medication without insulin, and level 3, as taking insulin with or without other classes of antidiabetic medication.

b

Clinical variables were not included in the multivariable logistic regression model for propensity score estimation. Presented descriptive statistics (mean [SD]) here were based on patients with information on these variables available.

All baseline characteristics, including clinical variables not included in the PS model, were balanced between treatment groups within each BMI group for both cohorts presenting ASD less than 0.1 (eTables 8 and 9 in Supplement 1). Also, PS distributions were overlapped between treatment groups after PS matching (eFigures. 4 and 5 in Supplement 1).

Comparative GBD safety for each cohort

DPP4i vs. SGLT2i

During a mean follow-up of 2.0 years, the risk of GBD increased with DPP4i vs. SGLT2i in total cohort (HR 1.21, 95% CI 1.14–1.28), overweight (1.26, 1.09–1.47) and obese (1.20, 1.13–1.29) groups, while the risk was not significant in the normal weight group (1.17, 0.97–1.42). The incidence rates of GBD per 1000 person-years were 5.00 (95% CI 4.81–5.19) for DPP4i and 4.14 (95% CI 3.96–4.33) for SGLT2i, corresponding to RD of 0.85 (95% CI 0.59–1.12). Increased risk of GBD was also observed on the absolute scale in the overweight (RD 0.96, 95% CI 0.32–1.61) and obese group (RD 0.86, 95% CI 0.55–1.17). The cubic spline analysis also presented a significant risk of GBD around BMI value of 22.5, with continued risk in the obese range (eFigure 6). However, no evidence of effect heterogeneity among the BMI strata was found on either the absolute (p for homogeneity = 0.866) or relative scales (p for homogeneity = 0.826) (Fig. 1). The NNH at 5 year was 247 for obese, 233 for overweight, and 310 for normal weight group. Kaplan–Meier curves for the cumulative incidence of GBD were consistent with these findings across all BMI strata (Fig. 2).

Fig. 1.

Fig. 1

Association between the use of DPP4i vs. SGLT2i (A) and the use of GLP1RA vs. SGLT2i (B) and the risk of gallbladder and biliary tract diseases compared with the use of SGLT2i across categories of body mass index. Abbreviations: CI, confidence interval; DPP4i, dipeptidyl peptidase 4 inhibitors; GLP1RA, glucagon like peptide 1 receptor agonists; HR, hazard ratio; IR, incidence rate; SGLT2i, sodium glucose cotransporter 2 inhibitors.

Fig. 2.

Fig. 2

Cumulative incidence of gallbladder and biliary tract diseases among PS matched populations for the (A) DPP4 inhibitor vs. SGLT2 inhibitor, and (B) GLP-1 receptor agonist vs. SGLT2 inhibitor. Abbreviations: CI, confidence interval; DPP4, dipeptidyl peptidase 4; GLP, glucagon like peptide; HR, hazard ratio; NNH, number needed to harm; SGLT2, sodium glucose cotransporter 2.

GLP1RA vs. SGLT2i

During a mean follow-up of 1.3 years, the risk of GBD increased with GLP1RA vs. SGLT2i in total cohort (1.27, 1.07–1.50) and obese (1.24, 1.01–1.54) group. The risk was not significant in the overweight (1.19, 0.82–1.73) and normal (1.46, 0.98–2.18) groups. The incidence rates of GBD per 1000 person-years were 5.66 (95% CI 5.00–6.41) for GLP1RA and 4.30 (95% CI 3.86–4.79) for SGLT2i, corresponding to RD of 1.36 (95% CI 0.52–2.20). Increased risk of GBD was also observed on the absolute scale in the obese (RD 1.17, 95% CI 0.15–2.20) and normal groups (2.22, 0.03–4.41). The cubic spline analysis presented the point estimate of HR higher than 1 across all BMI range but with a wide confidence interval (eFigure 6). There was no evidence for effect heterogeneity among the BMI strata on either the absolute (p for homogeneity = 0.690) or relative scales (p for homogeneity = 0.731) (Fig. 1). The NNH at 5 year was 198 for obese, 248 for overweight, and 141 for normal weight group. Kaplan–Meier curves for the cumulative incidence of GBD were consistent with these results across all BMI strata (Fig. 2).

Subgroup and sensitivity analyses

Subgroup analyses revealed no significant effect modification for the first cohort (DPP4i vs. SGLT2i), with a consistently increased risk remaining across all subgroups of the obese group. For the second cohort (GLP1RA vs. SGLT2i), an effect modification by GI history was presented in overweight group, with a higher risk observed in patients with a history of GI diseases (HR 1.40, 95% CI 0.91–2.13) than their counterpart (0.45, 0.19–1.05; p for interaction = 0.0125). In addition, an effect modification by age group was presented in obese group, with a higher risk observed in older patients (1.61, 1.13–2.29) than their counterpart (1.03, 0.79–1.34; p for interaction = 0.0185) (Fig. 3). Assessing cholecystectomy as a separate outcome yielded consistent results with the composite GBD outcome (eTable 10 in Supplement 1). A range of sensitivity analyses supported the main findings, with detailed descriptions provided in eTables 11–16 in Supplement 1.

Fig. 3.

Fig. 3

Results of subgroup analyses with hazard ratios and 95% CIs for the association between the use of DPP4i vs. SGLT2i (A) and the use of GLP1RA vs. SGLT2i (B) and the risk of gallbladder and biliary tract diseases Abbreviations: BMI, body mass index; CI, confidence interval; DPP4i, dipeptidyl peptidase 4 inhibitors; GI, gastrointestinal; GLP1RA, glucagon like peptide 1 receptor agonists; HR, hazard ratio; IR, incidence rate; SGLT2i, sodium glucose cotransporter 2 inhibitors.

Discussion

In this nationwide study of more than 1.8 million patients with diabetes, we assessed the comparative safety of incretin-based drugs vs. SGLT2i in large cohorts stratified by BMI status. Both DPP4i and GLP1RA were associated with an increased risk of GBD compared to SGLT2i. There was no evidence of effect heterogeneity by BMI status in either cohort. The increased risk of GBD remained significant on both relative and absolute scales among obese patients in both cohorts.

The increased risk of GBD has been raised in randomized clinical trials of GLP1RA (HR 1.60, 95% CI 1.23–2.09)4 and subsequent safety evidence has been presented for GLP1RA and DPP4i, another incretin-based drug that inhibits degradation of naturally occurring GLP1. A meta-analysis of 76 randomized clinical trials of GLP1RA presented an increased risk of GBD (RR, 1.37, 95% CI 1.23–1.52),5 and two meta-analyses of clinical trials of DPP4i presented an increased risk of GBD in terms of relative risk (RR 1.20, 95% CI 1.01–1.42)7 and odds ratio (1.22, 95% CI 1.04–1.43).6 However, results from observational studies were inconclusive. An observational cohort study using the United Kingdom Clinical Practice Research Datalink assessed each incretin-based drug compared to other oral antidiabetic drugs and found a significant risk of GBD for GLP1RA (HR 2.08, 95% CI 1.08–4.02), but not for DPP4i (HR 0.99, 95% CI 0.75–1.32).9 Another cohort study using nationwide claims data from Taiwan compared GLP1RA vs. SGLT2i presented a non-significant risk of GBD for GLP1RA (HR 1.20, 95% CI 0.93–1.56).15 Contrary to uncertainty presented in previous observational studies, we observed increased risk with both incretin-based drugs, with sufficient statistical power using large population cohorts. It is worth to note that the increased risk of GBD associated with DPP4i, which has been signaled until recently,16,17 has also been confirmed in our large cohort, with a range of subgroup and sensitivity analyses demonstrating its robustness. Furthermore, results from clinical trials involving Asians are often presented in subgroups with insufficient sample sizes or through the findings of multiple conflicting meta-analyses. Given the low prevalence of GBD and underrepresentation of Asians in both relevant clinical trials and observational studies, the significance of our study lies in utilizing a large Asian real-world data to generate more precise estimates and to complement current body of evidence, which lacks ethnic diversity.

In addition, we specifically assessed the risk of GBD among stratified populations across categories BMI. Obesity is widely recognized as a predisposing factor for the formation and growth of cholesterol gallstones, increasing the likelihood of symptomatic gallstones through mechanisms such as gallbladder stasis, dyslipidemia, bile supersaturation with cholesterol, impaired gallbladder emptying, or insulin resistance.14 Furthermore, it is well established that type 2 diabetes is strongly associated with cholesterol gallstones regardless of obesity.18 Although we hypothesized that the risk of GBD associated with incretin-based drugs would vary across BMI status, our findings did not support this hypothesis. We also found that incidence rates of GBD were comparable across BMI strata, even in the normal weight group, which lacks a predisposing factor for obesity. Notably, patients in the lower BMI group exhibited higher fasting blood glucose levels, higher levels of diabetes treatment, and a greater prevalence of diabetic complications in our study. This suggests that individuals maintaining normal weight but suffering from type 2 diabetes may already be sufficiently predisposed to GBD risk.19 The heightened severity of diabetes in normal weight individuals suggests the possibility of an opposing influence on the effect modification by BMI.

Furthermore, the high prevalence of comorbidities that are known to be risk factors for gallstone formation in both cohorts of obese patients underscores the importance of considering comorbid risk factors when prescribing incretin-based drugs. We found a higher prevalence of hypertension20 and liver disease,21 correspondingly higher blood pressure and liver enzyme levels among patients in higher BMI groups. Although our findings presented no effect modification by obesity for the association between GBD risk and incretin-based drugs, obese patients with these higher prevalence of risk factors might be vulnerable to progression from asymptomatic to symptomatic GBD.22 Further caution should be taken to ensure that the use of incretin-based drugs in these patients does not induce progression to symptomatic GBD.

There are several potential biological mechanisms that suggest an association between incretin-based drugs and an increased risk of GBD; however, these are still under investigation. The gut-derived incretin hormone GLP1 functions as an enterogastrone, eliciting a wide range of GI responses.23 Both GLP1RA and DPP4i have been shown to alter the composition and function of the gut microbiota, potentially influencing endogenous GLP1 signaling and bile acid metabolism through crosstalk with gut microbiota metabolites.24,25 Some gut microbiota metabolites promote the secretion of GLP1, which in turn suppresses the secretion of cholecystokinin, delaying gallbladder emptying,26 refilling,27 and decreasing gallbladder motility.8 In addition, the activation of GLP1 receptors expressed in cholangiocytes is known to enhance proliferative reaction to cholestasis.28 Biologic response of cholangiocytes to cholestasis could lead to pro-inflammatory secretions, subsequently developing gallbladder inflammation. Nevertheless, it remains uncertain whether incretin-based drugs elicit a sufficiently robust activation to induce inflammation, necessitating further research.29

Strengths and limitations of this study

Notably, our study presents a novel finding in assessing the impact of obesity among heterogeneous diabetic patients. Through stratification, we controlled for the confounding by obesity, a major risk factor for GBD. No effect modification by BMI was observed. Additionally, we reassessed the risk of GBD associated with incretin-based drugs in a large-scale cohort, employing a methodology that emulates randomized controlled trials by utilizing an active-comparator, new-user design and adjusting for a range of confounders.

This study has several limitations that should be considered. First, residual confounding due to unmeasured covariates cannot be ruled out. However, we adjusted for a wide range of covariates in the PS model, including comorbidities, comedications, and smoking/drinking behaviors. Sensitivity analysis that added clinical variables such as fasting blood glucose and cholesterol levels to the PS model presented consistent results. Second, there exists potential for outcome misclassification. Diagnosing GBD can be challenging due to mild or non-specific symptoms, often leading to misdiagnoses. Furthermore, identifying the nuanced gradation of severity and implications of GBD through ICD-10 codes in the claims database lacks validation and cannot be equated with the algorithmic categorization employed to assess GBD events in clinical trials.4 Also, we cannot rule out the possibility of ascertainment bias induced by more intense surveillance among GLP1RA users after the publication of the RCTs4 suggesting the risk of GBD for GLP1RA users. However, the significant increase in HRs and RDs observed as a separate outcome of cholecystectomy warrants attention, as this procedure is the preferred treatment of symptomatic GBD, which does not require intense surveillance. Lastly, the study population was not large enough in the second cohort (GLP1RA vs. SGLT2i) to stratify by BMI due to the limited number of GLP1RA users in Korea. Moreover, all GLP1RA drugs are currently indicated only for T2D. Given the emerging safety issues around semaglutide30 or tirzepatide,31 it is also crucial to ascertain the risks of GBD in high-dose GLP1RA indicated for obesity. If a larger study population using GLP1RA and reimbursement for obesity become available, conducting a follow-up safety study on GBD focusing on these agents would be beneficial.

Conclusion

In this nationwide cohort study emulating a target trial, the use of incretin-based drugs was significantly associated with an increased risk of GBD compared to the use of SGLT2i among patients with T2D. The increased risk remained significant in obese patients in both cohorts, although there was no evidence of effect heterogeneity by BMI status. Prescribers should be aware of the risk of GBD when using incretin-based drugs in patients with T2D regardless of BMI status. Given the increasing usage of incretin-based drugs in routine clinical practice, further studies, including randomized controlled trials that consider the heterogenous nature of individuals with T2D, on the association between the risk of GBD and drugs, would be beneficial.

Contributors

JYS had full access to all the data in the study and takes responsibility for the integrity of the data and the accuracy of the data analysis.

Concept and design: HYK, SB, DY, BH, JYS.

Acquisition, analysis, or interpretation of data: All authors.

Drafting of the manuscript: HYK, SB, DY, BH.

Critical revision of the manuscript for important intellectual content: All authors.

Statistical analysis: HYK.

Administrative, technical, or material support: All authors.

Supervision: JYS, YMC, JHB.

Data sharing statement

No additional data are available to the public.

Declaration of interests

JYS received grants from the Ministry of Food and Drug Safety, the Ministry of Health and Welfare, the National Research Foundation of Korea, and pharmaceutical companies, including LG Chem, UCB, Pfizer, Celltrion, and SK Bioscience, outside the submitted work.

Acknowledgements

This research was supported by a grant (23212MFDS230) from the Ministry of Food and Drug Safety, South Korea, in 2023–2024. This research was supported by a grant (RS-2024-00332632) from the Ministry of Food and Drug Safety, South Korea, in 2024–2028. The study was conducted with the support of the 2023 Health Fellowship Foundation.

Footnotes

Appendix A

Supplementary data related to this article can be found at https://doi.org/10.1016/j.lanwpc.2024.101242.

Appendix A. Supplementary data

Supplementary Figures and Tables
mmc1.docx (959.3KB, docx)

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Supplementary Materials

Supplementary Figures and Tables
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