Table 4.
Translational matrix of artificial intelligence (AI) methodologies in semaglutide-related type 2 diabetes mellitus research. Data statistics reflect the size of the underlying dataset (eg, claims records, EHRa entries, and imaging scans) as reported in the original study, not necessarily the number of unique semaglutide-treated patients.
| Author (year) | AI category | Algorithm | Input data type | Data statistics | Application domain | Deployment level |
| Beavers et al (2025) [28] | Meta-analysis | Bayesian modeling | DXAb RCTc data | 5 trials (n=2348) | Musculoskeletal | Concept |
| Vitorino (2025) [14] | Omics analysis | Proteomic profiling | Biomarker data | 112 proteins +68 metabolites | CVc modeling | Theoretical |
| Nelson et al (2024) [13] | Deep learning | 3D U-Net | Abdominal CTe | 1842 scans (614 patients) | Body composition | Pilot |
| Zhu et al (2024) [20] | Supervised MLf | LightGBMg | EHRh records | 34,589 patients | Treatment response | Scalable |
| Crea (2024) [22] | Literature review | N/Ai | 127 trials | 3187-3191 citations | CV mechanisms | Concept |
| Cheng et al (2024) [31] | Policy analysis | N/A | 52 health systems | Equity metrics | Health policy | Strategy |
| Warren et al (2024) [32] | Reinforcement Learning | d-Nav | Insulin data | 12,345 titrations | Diabetes management | Deployed |
| Barkas et al (2024) [33] | Ensemble ML | Random Forest | Multimodal data | 21,098 patients | CV risk | Clinical |
| Nguyen et al (2024) [34] | Cluster analysis | CDj markers | Immune data | 459 samples | Phenotyping | Experimental |
| Mozaffarian (2024) [9] | Cost analysis | N/A | 38 studies | Cost-benefit ratios | Therapy balance | N/A |
| Quddos et al (2023) [27] | Behavioral ML | K-means | Social media | 4562 posts + 893 surveys | Addiction | Research |
| Ansari et al (2023) [35] | Systematic review | Multiple models | 214 studies | Therapeutic trends | Innovation | Summary |
| Foer et al (2023) [25] | NLPk | ML pipeline | EHR text | 89,432 records | COPDl | Validated |
| Giorda et al (2023) [24] | Logic ML | LLMm | Clinical DB | 7812 patients | Treatment simulation | Simulation |
| Shao et al (2022) [36] | Risk modeling | BRAVOn | ACCORDo trial | 10,251 subjects | Complications | Validated |
| Armandi and Schattenberg (2022) [37] | Pathogenesis | N/A | 9 diagnostic tools | NAFLDp/NASHq | Liver disease | Background |
| Yamada et al (2020) [5] | DNNr | Deep learning | Claims data | 145,678 claims | MIs risk | Experimental |
| Kovatchev (2019) [3] | CGMt algorithms | LBGIu/HBGIv | CGM data | 2.1M measurements | Glycemic control | Implemented |
aEHR: electronic health record.
bDXA: dual-energy X-ray absorptiometry.
cRCT: randomized controlled trial.
dCV: cardiovascular.
eCT: computed tomography.
fML: machine learning.
gLightGBM: light gradient boosting machine.
hEHR: electronic health record.
iN/A: not applicable.
jCD: cluster of differentiation.
kNLP: natural language processing.
lCOPD: chronic obstructive pulmonary disease.
mLLM: logic learning machine.
nBRAVO: Building, Relating, Assessing, and Validating Outcomes.
oACCORD: Action to Control Cardiovascular Risk in Diabetes.
pNAFLD: nonalcoholic fatty liver disease.
qNASH: nonalcoholic steatohepatitis.
rDNN: deep neural network.
sMI: myocardial infarction.
tCGM: continuous glucose monitoring.
uLBGI: Low Blood Glucose Index.
vHBGI: High Blood Glucose Index.