Structured evidence table for Bee Pollen Exercise Performance Randomized Trial, generated from 1 reusable source document in the Migaku knowledge base.
| topic | claim | evidence level | citation | source |
|---|---|---|---|---|
| Bee Pollen Exercise Performance Randomized Trial | 1 2 3–5 6 5 7–9 5 10–13 14–17 18 19 20–22 As a result of typical bodily functions and during periods of exercise, individuals innately produce reactive species. | 3 | Xu Xiaoying (2025) | Effects of propolis intake on endurance exercise and molecular signaling related to inflammation and oxidative stress |
| Bee Pollen Exercise Performance Randomized Trial | For example, oxidative damage has been linked to increased inflammatory response (), reduced exercise performance (e.g., force generation) reviewed in (), inflicted muscle damage (,), and accelerate fatigue (,) if it persists beyond a particular adaption threshold over a lengthy duration. | 3 | Xu Xiaoying (2025) | Effects of propolis intake on endurance exercise and molecular signaling related to inflammation and oxidative stress |
| Bee Pollen Exercise Performance Randomized Trial | Furthermore, the excessive generation of unstable atoms following vigorous physical exertion can result in permanent harm to the body’s inflammatory response, internal cell structures, and ultimately lead to muscular deterioration (). | 3 | Xu Xiaoying (2025) | Effects of propolis intake on endurance exercise and molecular signaling related to inflammation and oxidative stress |
| Bee Pollen Exercise Performance Randomized Trial | These reactive species, such as superoxide, hydrogen peroxide, oxygen singlet, hydroxyl reactive species, and others, are molecules that have unpaired electrons and can react with other substances, causing damage to them. | 3 | Xu Xiaoying (2025) | Effects of propolis intake on endurance exercise and molecular signaling related to inflammation and oxidative stress |
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