Structured evidence table for Curcumin Exercise Performance Randomized Trial, generated from 2 reusable source documents in the Migaku knowledge base.
| topic | claim | evidence level | citation | source |
|---|---|---|---|---|
| Curcumin Exercise Performance Randomized Trial | Accumulation of hydrogen ion (i.e., lactic acidosis) and heat (i.e., hyperthermia) are the main adverse effects of extreme and prolonged oxidative metabolism associated with endurance exercise (Coyle, ). | 3 | Nosrati‐Oskouie Mohammad (2022) | Curcumin: A dietary phytochemical for boosting exercise performance and recovery |
| Curcumin Exercise Performance Randomized Trial | Evidence suggests that this damage can lead to fatigue, muscle soreness, onset of muscle damage, decreased muscle strength and range of motion (ROM), and an increase in creatine kinase (CK) activity as determined in the blood (Basham et al., ; Vincent, ). | 3 | Nosrati‐Oskouie Mohammad (2022) | Curcumin: A dietary phytochemical for boosting exercise performance and recovery |
| Curcumin Exercise Performance Randomized Trial | The beneficial therapeutic properties of curcumin have been associated with its chemical structure, which enable it to interact with molecules inside the cell and mediate a variety of biological outcomes such as anti‐oxidant and anti‐inflammatory effects (Stanić, ). | 3 | Nosrati‐Oskouie Mohammad (2022) | Curcumin: A dietary phytochemical for boosting exercise performance and recovery |
| Curcumin Exercise Performance Randomized Trial | 2018 2018 2016 1999 2019 2017 2019 2004 Exercise is generally divided into two categories: aerobic/endurance and power/strength (Hughes et al., ). | 3 | Nosrati‐Oskouie Mohammad (2022) | Curcumin: A dietary phytochemical for boosting exercise performance and recovery |
| Curcumin Exercise Performance Randomized Trial | Exercise‐induced muscle damage is commonly characterized by increased creatine kinase, lactate dehydrogenase, myoglobin, delayed‐onset muscle soreness, reduced maximal voluntary contraction, impaired range of motion, and decreased jump, sprint, or strength performance. | 4 | Farzana Haydar Rafsya (2026) | From Macronutrients to Functional Foods: Nutritional Strategies for Recovery Following High‐Intensity Exercise |
| Curcumin Exercise Performance Randomized Trial | Rather than proposing new efficacy rankings, the review synthesizes current evidence into a hierarchical and periodized conceptual model that prioritizes nutritional interventions according to the dominant physiological stressor, practical recovery objective, and the relative strength of the available evidence. | 4 | Farzana Haydar Rafsya (2026) | From Macronutrients to Functional Foods: Nutritional Strategies for Recovery Following High‐Intensity Exercise |
| Curcumin Exercise Performance Randomized Trial | The primary research question guiding this review was: Which nutritional strategies, ranging from foundational macronutrients to functional foods and bioactive compounds, have evidence for supporting biochemical, perceptual, and functional recovery following high‐intensity exercise in athletes and physically active adults? | 4 | Farzana Haydar Rafsya (2026) | From Macronutrients to Functional Foods: Nutritional Strategies for Recovery Following High‐Intensity Exercise |
| Curcumin Exercise Performance Randomized Trial | 2026 2019 2023 2025 2019 High‐intensity exercise, including high‐intensity interval training (HIIT), sprint interval exercise, repeated‐sprint training, resistance exercise, eccentric exercise, and intermittent sport‐specific activity, is a central component of modern athletic conditioning (Chang et al. ). | 4 | Farzana Haydar Rafsya (2026) | From Macronutrients to Functional Foods: Nutritional Strategies for Recovery Following High‐Intensity Exercise |
Source documents