A 12-week RCT shows creatine supplementation enhances power training benefits, improving neuroplasticity, oxidative stress, physical function, and cognition in adults aged 60–80.
New research reveals that combining creatine with high-velocity resistance training significantly improves both muscle power and cognitive performance in older adults.
A groundbreaking randomized controlled trial published in Experimental Gerontology (2025) demonstrates that creatine monohydrate supplementation synergistically enhances the effects of velocity-intentional resistance training (power training) in older adults. The 12-week study, conducted on 48 participants aged 60–80, found significant improvements in serum brain-derived neurotrophic factor (BDNF), reductions in oxidative stress markers (malondialdehyde, protein carbonyls), and notable gains in lower-body power and working memory.
The Study Design and Results
Participants were randomized into four groups: placebo + traditional resistance training, creatine + traditional training, placebo + power training, and creatine + power training. The power training group performed exercises with an emphasis on explosive concentric movements (e.g., leg press at 70% 1RM with maximal intended velocity). Creatine dosage was 5g per day. Results showed that the creatine + power training group had the greatest increase in BDNF (mean +34%), the largest reduction in oxidative markers (MDA decreased by 28%), and the highest improvement in lower-body power measured by sit-to-stand and jumping performance. Additionally, working memory assessed via digit span tests improved by 18% in that group, compared to 6% in the placebo + power training group.
How Creatine Works in Aging Muscles and Brain
Creatine is well known for its role in ATP regeneration during high-intensity exercise. In aging, intramuscular creatine levels decline, contributing to sarcopenia and reduced explosive strength. The study suggests that creatine supplementation restores energy availability, allowing older adults to train at higher intensities and with greater velocity. Beyond muscle, creatine also acts as a neuroprotective agent by stabilizing cellular membranes and reducing oxidative stress. BDNF, a key neurotrophin, promotes synaptic plasticity and neurogenesis. The combination of creatine and power training appears to amplify BDNF release, likely via enhanced muscle–brain crosstalk through myokines and improved cerebral blood flow.
Practical Implications for Healthy Aging
These findings have direct clinical relevance. The loss of muscle power—not just strength—is a stronger predictor of falls and functional decline in older adults. Power training emphasizes speed of movement, which better translates to daily activities like stepping off a curb or rising from a chair. Adding creatine to such training could accelerate gains and reduce the risk of frailty. The authors recommend that clinicians consider prescribing creatine (5g/day) alongside a structured power training program for older patients, especially those with early signs of sarcopenia or mild cognitive impairment.
Limitations and Future Research
The study had a small sample size (n=48) and a relatively short duration (12 weeks). No long-term follow-up was conducted, so sustainability of benefits remains unknown. Optimal dosing may vary by body weight and gender; the 5g dose may be insufficient for individuals with higher lean mass. Ongoing trials are exploring doses up to 0.1 g/kg/day and gender-specific responses. A recent meta-analysis in Nutrients (2025) confirmed that creatine improves grip strength and gait speed in seniors when combined with resistance training, but more data are needed on cognition and functional outcomes.
The interest in combining nutritional supplements with targeted exercise modalities has grown significantly in recent years. Before creatine, other supplements like beta-alanine and HMB were studied for aging muscle, but creatine’s dual benefit on muscle and brain is unique. The concept of “power training” itself evolved from sports science, where velocity-based training was used to improve explosive performance in athletes. In the past decade, geriatric researchers have repurposed these protocols for fall prevention and cognitive preservation. For example, a 2018 trial by Marzetti et al. showed that power training alone improved mobility in frail elders, but the addition of creatine might amplify these effects by enhancing mitochondrial function and reducing inflammation.
From a public health perspective, implementing creatine-augmented power training in community centers and rehabilitation clinics could be a low-cost intervention to reduce the burden of fragility fractures and cognitive decline. The European Food Safety Authority (EFSA) is currently reviewing health claims related to creatine and musculoskeletal aging, and a positive opinion could pave the way for widespread recommendations. However, barriers include adherence to supplementation and the need for specialized equipment for power training. Additionally, long-term safety data on creatine in older populations with renal or cardiovascular conditions are still limited. Future research should include larger, diverse cohorts and examine interactions with common medications such as statins or antihypertensives.
