All branches of chemistry benefit from digital chemistry, including analytical, bio-, food, inorganic, material, medicinal, organic, pharmaceutical, physical, polymer, quantum, radio-, technical, and theoretical. Furthermore, the industrial impact of digital chemistry revolutionizes manufacturing processes, product development, and quality control by leveraging computational methods, automation, and data analytics to streamline operations, optimize formulations, and accelerate innovation. Digital chemistry also requires dedicated teaching on all levels. [101],[102], and specific notations of entities while setting new benchmarks. Digital chemistry, when integrated with digital biology, creates a synergistic platform for simulating complex biological systems and chemical interactions at the molecular level, enhancing drug discovery and biomaterials development. Coupling this with digital materials science, for example, with nano and micro 3D prints of materials that require digital blueprints, further expands the potential for designing novel materials with tailored properties, revolutionizing fields from sustainable energy to advanced manufacturing through predictive modeling and high-throughput computational experiments. Branching out digitalization -computer-aided chemistry and synthesis planning (CASP), pattern recognition in chemistry, virtual chemistry labs, digital sustainable chemistry, digital synthetic electrochemistry, digital twins curiosity-driven discovery, iterative chemical synthesizers, data-driven discovery, digitization of synthesis and chemical programming, Natural Language Processing (NLP), Chemical graph theory, computerbased automatic indexing, Neural Networks in Chemistry and Drug Design, , Chemometrics, and chemical 'Oracles' are other terms relevant to digital chemistry.