Structured evidence table for Calcium Exercise Recovery Randomized Trial, generated from 2 reusable source documents in the Migaku knowledge base.
| topic | claim | evidence level | citation | source |
|---|---|---|---|---|
| Calcium Exercise Recovery Randomized Trial | Furthermore, we will provide a balanced and cautious discussion on the potential, yet complex, role of caffeine in post-exercise recovery, explicitly weighing preliminary mechanistic benefits against the well-established risk of sleep disruption. | 3 | Leng Jingzhi (2026) | Caffeine and human performance: from molecular mechanisms to exercise and recovery |
| Calcium Exercise Recovery Randomized Trial | By integrating this updated mechanistic framework with applied performance, recovery, and individual variability considerations, this review aims to offer a coherent and evidence-informed guide for optimizing caffeine use in athletic contexts. | 3 | Leng Jingzhi (2026) | Caffeine and human performance: from molecular mechanisms to exercise and recovery |
| Calcium Exercise Recovery Randomized Trial | This work is a comprehensive narrative review that synthesizes and critically evaluates the current evidence on the roles of caffeine in energy metabolism, exercise performance, and post-exercise recovery. | 3 | Leng Jingzhi (2026) | Caffeine and human performance: from molecular mechanisms to exercise and recovery |
| Calcium Exercise Recovery Randomized Trial | It holds the distinction of being the most widely consumed psychoactive substance worldwide, with its use spanning centuries and cultures. | 3 | Leng Jingzhi (2026) | Caffeine and human performance: from molecular mechanisms to exercise and recovery |
| Calcium Exercise Recovery Randomized Trial | Previous work has shown that these adaptations are at least partly mediated by enhanced mitochondrial bioenergetics, including increased mitochondrial Ca 2+ uptake and resulting pyruvate dehydrogenase (PDH) activation. | 4 | Lanfranchi C (2026) | Oleuropein-based olive leaf extract enhances muscle mitochondrial bioenergetics response to moderate - but not maximal - intensity exercise in humans. |
| Calcium Exercise Recovery Randomized Trial | OLE improved the decline of power output during the first sprint in SIE and reduced heart rate during MICE but did not affect knee extensor fatigability after both exercise modalities. | 4 | Lanfranchi C (2026) | Oleuropein-based olive leaf extract enhances muscle mitochondrial bioenergetics response to moderate - but not maximal - intensity exercise in humans. |
| Calcium Exercise Recovery Randomized Trial | Transcriptomic analyses revealed an effect of OLE on the mitochondrial and inflammatory response after MICE and SIE, while OLE increased PDH activity in combination with exercise only following MICE. | 4 | Lanfranchi C (2026) | Oleuropein-based olive leaf extract enhances muscle mitochondrial bioenergetics response to moderate - but not maximal - intensity exercise in humans. |
| Calcium Exercise Recovery Randomized Trial | Sprint interval exercise (SIE) induces skeletal muscle mitochondrial adaptations that are comparable to, or greater than, those observed with moderate-intensity continuous exercise (MICE), despite requiring a lower training volume. | 4 | Lanfranchi C (2026) | Oleuropein-based olive leaf extract enhances muscle mitochondrial bioenergetics response to moderate - but not maximal - intensity exercise in humans. |
Source documents