A very interesting foundation for this study is the creation of new methods for modifying compounds with a 1,2,3‒triazole and chalcones, as these compounds are significant in organic synthesis as bioactive organic compounds. To contribute to the development of an efficient method for the conversion of antimicrobial and anti‐TB drugs, a novel series of cyclohepta pyridinone fused 1,2,3–triazolyl chalcones were designed and synthesized. All the newly prepared scaffolds were characterized by IR, NMR (1H & 13C) and mass spectrometry. Among the tested compounds, hybrids 8b, 8d, and 8f exhibited exceptional antibacterial susceptibilities with zone of inhibition 27, 32, and 38 mm against the tested E. faecalis bacteria, whereas 8d had better antitubercular potency against M. tuberculosis H37Rv strain with MIC value 5.25 µg/mL. All the synthesized compounds were initially assessed in silico against the targeted protein i.e., DprE1 that indicated compound 8d, 8f and 8h along with several other 1,2,3‐triazole compounds as possible inhibitors. Based on docking results, 8d showed that the amino acids His74(A), Lys76(A), Cys332(A), Asp331(A), Val307(A), Tyr357(A), ect., exhibited highly stable binding to DprE1 receptor of M. tuberculosis (4G3U). Moreover, these scaffolds physicochemical characteristics, filtration molecular properties, assessment of toxicity, and bioactivity scores were assessed.