Structured evidence table for Cacao Cardiovascular Meta-Analysis, generated from 2 reusable source documents in the Migaku knowledge base.
| topic | claim | evidence level | citation | source |
|---|---|---|---|---|
| Cacao Cardiovascular Meta-Analysis | Thus, this review aimed to provide an overview of the latest research results on the effects of cacao on the prevention of CVDs and on biomarkers associated with these mechanisms. | 3 | Lee YG (2026) | Cardiovascular Protective Effects and Mechanisms of Action of Cacao: A Comprehensive Review. |
| Cacao Cardiovascular Meta-Analysis | Cacao, the primary raw material for chocolate and certain beverages, is widely cultivated in the Americas and Asia. | 3 | Lee YG (2026) | Cardiovascular Protective Effects and Mechanisms of Action of Cacao: A Comprehensive Review. |
| Cacao Cardiovascular Meta-Analysis | Furthermore, various components of cacao, including phenolic compounds, have been shown to be effective in preventing numerous diseases. | 3 | Lee YG (2026) | Cardiovascular Protective Effects and Mechanisms of Action of Cacao: A Comprehensive Review. |
| Cacao Cardiovascular Meta-Analysis | However, despite its universal consumption, individuals exhibit striking variability in their responses to caffeine—ranging from heightened alertness and improved performance to debilitating anxiety, insomnia, and varied cardiovascular effects. | 3 | Liu Xinyi (2026) | Unraveling the complexities of caffeine: metabolism, genetics, evolution, and health |
| Cacao Cardiovascular Meta-Analysis | The complexity of this genetic architecture was recently underscored by a systematic review, which synthesized evidence from over 1.85 million individuals, confirming the roles of key genes like andand further highlighting the polygenic nature of caffeine intake, involving both metabolic and reward pathways []. | 3 | Liu Xinyi (2026) | Unraveling the complexities of caffeine: metabolism, genetics, evolution, and health |
| Cacao Cardiovascular Meta-Analysis | Finally, we synthesize these perspectives to discuss the personalized health implications of caffeine consumption as well as tea consumption as an alternative, with a focus on how genetic polymorphisms defining fast and slow metabolizer status can inform individual risk–benefit profiles. | 3 | Liu Xinyi (2026) | Unraveling the complexities of caffeine: metabolism, genetics, evolution, and health |
| Cacao Cardiovascular Meta-Analysis | 1 11 1 100 32 92 36 1 19 81 a b c Structure, properties, and natural abundance of caffeine.Chemical structure of caffeine;Chemical structure of adenosine, with the yellow highlight indicating structures similar to caffeine;Caffeine content in various natural sources, including coffee, tea, cocoa, and other beverages. | 3 | Liu Xinyi (2026) | Unraveling the complexities of caffeine: metabolism, genetics, evolution, and health |
Source documents