Knowledge graphs are emerging as a transformative solution for interpreting and organizing vast amounts of unstructured data, offering structured representations that capture relationships between disparate data points. This method facilitates the integration of diverse data sources and uncovers hidden patterns, significantly reducing hallucinations in large language models (LLMs) and improving AI performance across domains such as healthcare, finance, and law. The construction of a knowledge graph involves a series of steps including goal definition, domain identification, data collection, semantic modeling, and schema creation. The choice between RDF triple stores and property graph databases plays a crucial role in determining the graph's flexibility and complexity, with the latter being preferred for dynamic domains due to its intuitive modeling capabilities. Knowledge graphs offer a powerful alternative to traditional databases by providing explainable and contextual insights, enabling cross-domain data integration, and supporting complex queries. FalkorDB, a high-throughput graph database, exemplifies how knowledge graphs can be efficiently implemented to enhance AI workflows, offering low-latency responses and integration with LLMs to improve the quality of AI applications.