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Creatine

14 benefits mapped to clinical evidence across supplements.

Dose per serving from products

201 products in our catalogue print how much Creatine a serving holds.

Most common: 2.5 g to 5 g, 45% of 201 products.

Dose per servingProducts
50 mg or less
7
50 mg to 100 mg
5
100 mg to 250 mg
12
250 mg to 500 mg
15
500 mg to 1 g
28
1 g to 2.5 g
42
2.5 g to 5 g
91
over 5 g
1

Dose per serving from research

219 study groups in 167 studies say how much Creatine participants took a day.

These are the doses the studies gave. They are not a recommendation.

Most common: 10 g to 25 g, 43% of 219 study groups.

Daily doseStudy groups
1 g or less
5
1 g to 2.5 g
20
2.5 g to 5 g
63
5 g to 10 g
30
10 g to 25 g
95
over 25 g
6

See every study group

Commonly used together

80 of 262 study groups took Creatine with something else. Shown: what 3 or more different studies gave. The 10 most common of 13.

What was given together, not what works together.

Taken withStudy groups
Folic Acid
11
Whey Protein
8
Beta-Alanine
7
Caffeine
7
glucose
7
Dextrose
6
Vitamin D
6
Calcium
4
HMB
4
Sodium Bicarbonate
4

Benefit Evidence

Strength/fatigue power +

Muscle creatine+PCr boosts

8,781 people

Strength/lean mass +10–30%

Sprint power/endurance +8–35%

2,687 people
Strength
Strong

Strength +1RM

Strength + sprint power

2,575 people
Endurance
Strong

Strength/power +10-30%

Less fatigue; water +1 kg

2,347 people

Strength + lean mass

~+2–6 kg

1,324 people

Muscle mass +0.5-3.3 kg

Strength/power +5-62%

Bone/functional gains

1,147 people

Less soreness, faster recovery

CK↓, strength/power↑

652 people
Hydration
Moderate

TBW/ICW +0.5–2.3L

Lean mass +1–6%

493 people

Focus/attention +5-10%

Concentration under stress

Stroop/working memory ↑

683 people
Bone health
Moderate

Bone loss −3.5→−1.3%

Bone density/geometry +

714 people
Mood balance
Moderate

Mood boost; +26% remission

Brain energy/connectivity; symptom relief

372 people

Repair+size; +15% MVC

Damage+inflammation; -40% CK

249 people
Blood sugar
Moderate

Glucose↓, HOMA↓

HbA1c−1.1%

263 people
Memory
Moderate

Memory improved

Creatine 20 g/day

Oxidative damage down

263 people

Research sources

Energy & Fatigue (90)
  1. Creatine supplementation combined with resistance training in older men

    PubMed ID: 11740307

    Older men RCT: creatine+training improved average power and functional performance—consistent with reduced fatigue during high‑intensity efforts.

  2. Effect of creatine and beta-alanine supplementation on performance and endocrine responses in strength/power athletes

    PubMed ID: 17136944

    Creatine's mechanism directly supports cellular ATP resynthesis; the trial's performance/strength gains are consistent with improved cellular energy availability.

  3. The effects of beta alanine plus creatine administration on performance during repeated bouts of supramaximal exercise in sedentary men

    PubMed ID: 25289715

    Creatine directly increased short‑duration peak power, consistent with improved immediate/high‑power energy provision.

  4. Changing to a vegetarian diet reduces the body creatine pool in omnivorous women, but appears not to affect carnitine and carnosine homeostasis: a randomised trial

    PubMed ID: 29569535

    Daily low‑dose creatine (1 g/day) prevented declines in plasma and muscle total creatine in vegetarians—direct evidence for maintaining cellular creatine/phosphagen pool.

  5. Association of skeletal muscle and serum metabolites with maximum power output gains in response to continuous endurance or high-intensity interval training programs: The TIMES study - A randomized controlled trial

    PubMed ID: 30742692

    Direct measurement of muscle/serum creatine-related metabolites and their association with training-induced power gains supports creatine's role in cellular energy metabolism (correlational evidence).

  6. The Effect of Beta-Alanine versus Alkaline Agent Supplementation Combined with Branched-Chain Amino Acids and Creatine Malate in Highly-Trained Sprinters and Endurance Athletes: A Randomized Double-Blind Crossover Study

    PubMed ID: 31438535

    Creatine malate + beta‑alanine reduced peak post‑exercise ammonia and improved FFM in sprinters—physiologic signals linked to lower fatigue during repeated sprints.

  7. The Effect of Acute Pre-Workout Supplement Ingestion on Basketball-Specific Performance of Well-Trained Athletes

    PubMed ID: 37242187

    Acute pre‑workout formula including creatine improved repeated‑sprint anaerobic power (RAST) and related measures, indicating reduced fatigue during repeated high‑intensity efforts.

  8. Effects of Combined Versus Single Supplementation of Creatine, Beta-Alanine, and L-Citrulline During Short Sprint Interval Training on Basketball Players' Performance: A Double-Blind Randomized Placebo-Controlled Trial

    PubMed ID: 40010353

    Creatine groups improved Wingate anaerobic power and sprint outcomes during training vs placebo — strong direct evidence for reduced peripheral muscle fatigue in high‑intensity tasks.

  9. Effects of creatine monohydrate and polyethylene glycosylated creatine supplementation on muscular strength, endurance, and power output

    PubMed ID: 19387397

    Wingate mean power increases indicate improved short‑term (anaerobic) energy provision with creatine.

  10. The effects of polyethylene glycosylated creatine supplementation on anaerobic performance measures and body composition

    PubMed ID: 23897021

    PEG‑creatine improved explosive power and endurance over short-duration tasks — consistent with improved short-term energy (ATP/PCr driven).

  11. Betaine and choline status modify the effects of folic acid and creatine supplementation on arsenic methylation in a randomized controlled trial of Bangladeshi adults

    PubMed ID: 32918135

    Randomized trial: 3 g/day oral creatine lowered plasma GAA (marker of endogenous creatine synthesis) and changed arsenic methylation—direct evidence creatine supplementation affects endogenous creatine synthesis and the creatine biosynthetic pathway (strong biochemical support).

  12. Effects of 12 Weeks of Essential Amino Acids (EAA)-Based Multi-Ingredient Nutritional Supplementation on Muscle Mass, Muscle Strength, Muscle Power and Fatigue in Healthy Elderly Subjects: A Randomized Controlled Double-Blind Study

    PubMed ID: 31021358

    Creatine included in multi-ingredient supplement that increased power and lean mass — consistent with improved cellular energy provision (co-ingredients present).

  13. The effect of L-arginine and creatine on vascular function and homocysteine metabolism

    PubMed ID: 19651674

    Short-term creatine markedly raised plasma creatine (~15–20×), demonstrating increased systemic creatine substrate availability.

  14. The effects of tesamorelin on phosphocreatine recovery in obese subjects with reduced GH

    PubMed ID: 24178787

    Tesamorelin trial: PCr recovery on 31P‑MRS improved and correlated with IGF‑I—directly measures cellular phosphocreatine kinetics (relevant to energy production).

  15. Effects of Creatine Monohydrate Augmentation on Brain Metabolic and Network Outcome Measures in Women With Major Depressive Disorder

    PubMed ID: 26822799

    Prefrontal NAA increases with creatine augmentation in MDD suggest improved neuronal integrity/energy state (RCT evidence).

  16. Biochemical and functional effects of creatine phosphate in cardioplegic solution during aortic valve surgery--a clinical study

    PubMed ID: 1631861

    Direct addition of creatine phosphate to cardioplegia had mechanistic effects on early cardiac function — supports energetic role of creatine phosphate.

  17. Dynamic phosphorus-31 magnetic resonance spectroscopy of the quadriceps muscle: effects of age and sex on spectroscopic results

    PubMed ID: 9951791

    Large MRS study showing age/sex effects on Pi/PCr and ATP ratios—important baseline information on cellular energy metrics.

  18. Effect of creatine monohydrate in improving cellular energetics and muscle strength in ambulatory Duchenne muscular dystrophy patients: a randomized, placebo-controlled 31P MRS study

    PubMed ID: 20395096

    Creatine raised muscle PCr/Pi in DMD patients — direct biochemical evidence of increased phosphagen energy reserve in muscle.

  19. Creatine target engagement with brain bioenergetics: a dose-ranging phosphorus-31 magnetic resonance spectroscopy study of adolescent females with SSRI-resistant depression

    PubMed ID: 26907087

    Dose-dependent increases in frontal lobe PCr after oral creatine indicate direct brain target engagement of cellular energy stores.

  20. The effects of phosphocreatine disodium salts plus blueberry extract supplementation on muscular strength, power, and endurance

    PubMed ID: 34503541

    Phosphocreatine‑containing product and creatine monohydrate increased strength/power measures consistent with enhanced short‑term cellular energy.

  21. Caffeine and Progression of Parkinson Disease: A Deleterious Interaction With Creatine

    PubMed ID: 26366971

    Large creatine clinical trial context demonstrates systemic creatine exposure in humans (though interactions with caffeine and clinical outcomes complicate interpretation).

  22. The use of exogenous creatine phosphate for myocardial protection in patients undergoing coronary artery bypass surgery

    PubMed ID: 10064355

    Perioperative phosphocreatine infusion reduced arrhythmias/inotrope need and sarcolemmal damage — direct evidence that exogenous phosphocreatine supports cellular energy in stressed myocardium.

  23. St. Thomas' Hospital cardioplegia: enhanced protection with exogenous creatine phosphate

    PubMed ID: 8561641

    Adding creatine phosphate to cardioplegia improved multiple perioperative outcomes—supports myocardial cellular energy supplementation benefit.

  24. Creatine monohydrate enhances strength and body composition in Duchenne muscular dystrophy

    PubMed ID: 15159476

    Increased handgrip strength and FFM in Duchenne boys consistent with reduced fatigability.

  25. Low-dose creatine combined with protein during resistance training in older men

    PubMed ID: 18685526

    Older men given creatine+protein showed greater strength and reduced protein‑breakdown markers, compatible with less fatigue.

  26. Biochemical changes induced in the myocardial cell during cardioplegic arrest supplemented with creatine phosphate

    PubMed ID: 1932652

    Addition of creatine phosphate to cardioplegia increased enzyme activities and improved myocardial recovery—direct support for augmented cellular energy handling in tissue preservation.

  27. [The use of systemic phosphocreatine in heart surgery]

    PubMed ID: 1620416

    IV phosphocreatine perioperatively reduced enzyme release and dysrhythmias, consistent with enhanced cellular energetic protection in myocardium.

  28. Effects of oral creatine loading on single and repeated maximal short sprints

    PubMed ID: 8599745

    Performance gains in short sprints are consistent with increased phosphocreatine availability and improved short-term ATP resynthesis.

  29. [Use of creatine phosphate in treatment of cardiocerebral syndrome associated with acute myocardial infarct in the aged]

    PubMed ID: 7712526

    IV creatine phosphate is a direct high‑energy phosphate donor; the AMI trial demonstrates a clinically measurable effect on cognition, supporting an effect on short‑term cellular energy in vivo, though setting differs from exercise.

  30. Creatine supplementation and swimming performance

    PubMed ID: 10477361

    In trained swimmers (men), creatine helped maintain faster pace across repeated ~30s efforts, indicating reduced fatigue in that context.

  31. The effect of continuous low dose creatine supplementation on force, power, and total work

    PubMed ID: 10997950

    Improved total work until fatigue and maintained peak power indicate reduced fatigability during high-intensity tasks.

  32. Creatine supplementation alters the response to a graded cycle ergometer test

    PubMed ID: 11072779

    Raised ventilatory threshold and lower submaximal VO2/HR imply shifts in energy metabolism consistent with creatine's cellular energy role.

  33. Effect of creatine supplementation and a lacto-ovo-vegetarian diet on muscle creatine concentration

    PubMed ID: 12432177

    Directly measured muscle total creatine increases after supplementation, indicating improved cellular creatine/PCr stores.

  34. Effect of recovery interval on multiple-bout sprint cycling performance after acute creatine supplementation

    PubMed ID: 11834115

    Acute creatine loading improved mean and peak power and attenuated fatigue index in short-recovery repeated sprints — direct evidence of reduced performance fatigue.

  35. Effect of creatine and weight training on muscle creatine and performance in vegetarians

    PubMed ID: 14600563

    Directly increased muscle total creatine and phosphocreatine with supplementation, supporting cellular ATP resynthesis capacity.

  36. Combined creatine and protein supplementation in conjunction with resistance training promotes muscle GLUT-4 content and glucose tolerance in humans

    PubMed ID: 12524381

    Increased muscle GLUT‑4 and glycogen with creatine during retraining supports energetic substrate handling in muscle.

  37. Mg2+-creatine chelate and a low-dose creatine supplementation regimen improve exercise performance

    PubMed ID: 15142029

    Low-dose creatine increased total work during a bench-press fatigue test, indicating reduced performance fatigue.

  38. Low dose creatine supplementation enhances sprint phase of 400 meters swimming performance

    PubMed ID: 16083193

    Seven days of low-dose creatine improved final-sprint time, anaerobic test performance and reduced perceived exertion in swimmers, indicating reduced peripheral fatigue.

  39. Effect of creatine phosphate supplementation on anaerobic working capacity and body weight after two and six days of loading in men and women

    PubMed ID: 16287344

    Rapid increases in anaerobic working capacity after creatine/CrP loading reflect improved short-term (phosphagen) energy availability.

  40. Effect of low-dose, short-duration creatine supplementation on anaerobic exercise performance

    PubMed ID: 15903359

    Primary finding: low-dose creatine (6 g/day ×6 days) significantly lowered fatigue rate in repeated short sprints despite no increase in peak/mean power.

  41. [The influence of induced severe myocardial ischemia on coronary disease course]

    PubMed ID: 16353868

    IV creatine phosphate provided high‑availability phosphagen and improved exercise tolerance — supports immediate cellular energy replenishment.

  42. Creatine in Huntington disease is safe, tolerable, bioavailable in brain and reduces serum 8OH2'dG

    PubMed ID: 16434666

    Direct evidence that oral creatine increases brain creatine concentrations and lowers oxidative damage — strong support for cellular energy substrate loading.

  43. Prevention of complications related to traumatic brain injury in children and adolescents with creatine administration: an open label randomized pilot study

    PubMed ID: 16917445

    Six-month creatine in pediatric TBI improved cognitive/behavioral outcomes; supports reduced cognitive burden/mental fatigue post-injury though study is open-label pilot.

  44. Creatine supplementation and multiple sprint running performance

    PubMed ID: 16686553

    Measured body-mass increase indicates creatine uptake into tissues, consistent with cellular energy substrate loading despite absent performance gains.

  45. Creatine supplementation and cognitive performance in elderly individuals

    PubMed ID: 17828627

    One-week creatine improved multiple cognitive tasks in older adults, suggesting reduced mental effort/fatigue in cognitive tasks (small sample, short duration).

  46. Creatine supplements in patients with idiopathic inflammatory myopathies who are clinically weak after conventional pharmacologic treatment: Six-month, double-blind, randomized, placebo-controlled trial

    PubMed ID: 17471547

    Increased phosphocreatine/B‑NTP ratio in muscle after creatine directly demonstrates support for cellular (muscle) energy reserves.

  47. Effects of a drink containing creatine, amino acids, and protein combined with ten weeks of resistance training on body composition, strength, and anaerobic performance

    PubMed ID: 17313263

    Improved anaerobic power after supplementation/training implies better immediate (short-term) energy for high‑power efforts.

  48. Prevention of traumatic headache, dizziness and fatigue with creatine administration. A pilot study

    PubMed ID: 18053002

    In children after traumatic brain injury, daily creatine for 6 months markedly reduced fatigue (and related symptoms), suggesting reduced mental/overall fatigue (small, nonblinded trial).

  49. Randomized controlled trial of dietary creatine as an adjunct therapy to physical training in chronic obstructive pulmonary disease

    PubMed ID: 18420964

    COPD RCT directly demonstrated muscle creatine uptake, supporting creatine's role in cellular energy storage even though functional benefits were not seen.

  50. A pilot clinical trial of creatine and minocycline in early Parkinson disease: 18-month results

    PubMed ID: 18520981

    Large randomized PD trial was predicated on creatine's potential to support cellular energy/mitochondrial function; trial provides clinical testing of this mechanism (no clear benefit).

  51. Comparison of creatine monohydrate and carbohydrate supplementation on repeated jump height performance

    PubMed ID: 18545204

    Creatine preserved repeated jump height vs placebo → implies reduced peripheral muscle fatigue during repeated efforts.

  52. Effects of four weeks of high-intensity interval training and creatine supplementation on critical power and anaerobic working capacity in college-aged men

    PubMed ID: 19675499

    Four weeks HIIT+creatine increased critical power (~6.7%), indicating improved ability to sustain high‑intensity work before fatigue.

  53. [Effects of phosphocreatine on plasma brain natriuretic peptide level in elderly patients with chronic congestive heart failure]

    PubMed ID: 19218138

    Phosphocreatine (a creatine derivative) infusion directly targets cellular energy stores and improved cardiac energetic/function markers—strong support for cellular-energy support in this clinical context.

  54. The influence of creatine supplementation on the cognitive functioning of vegetarians and omnivores

    PubMed ID: 21118604

    5‑day creatine improved memory in vegetarians and reduced reaction-time variability overall — supports reduced cognitive/mental fatigue.

  55. The effects of creatine loading and gender on anaerobic running capacity

    PubMed ID: 20543729

    Anaerobic capacity gains reflect improved immediate (short‑term) energy provision during intense exercise.

  56. Short term effects of various water immersions on recovery from exhaustive intermittent exercise

    PubMed ID: 21132438

    Water immersion protocols improved short-term recovery of power and strength after intermittent exercise, implying reduced muscle fatigue post-exercise.

  57. Effect of different frequencies of creatine supplementation on muscle size and strength in young adults

    PubMed ID: 21512399

    Large leg-press strength gains and increased regional thickness with creatine indicate improved resistance to fatigue during high-intensity efforts.

  58. Creatine ingestion effects on oxidative stress in a steady-state test at 75% VO(2max)

    PubMed ID: 22525652

    Short creatine loading attenuated oxidative stress during a hard aerobic test—biologically plausible mechanism to reduce fatigue during/after exercise.

  59. Assessment of the effect of high or low protein diet on the human urine metabolome as measured by NMR

    PubMed ID: 22413065

    Dietary study measured urinary creatine/creatinine and NMR metabolomics showing strong correlations with protein intake—directly informative about creatine metabolism/biomarkers.

  60. Supplementation of guanidinoacetic acid to broiler diets: effects on performance, carcass characteristics, meat quality, and energy metabolism

    PubMed ID: 22252354

    GAA supplementation in broilers increased tissue creatine content, supporting enhanced cellular creatine/energy stores in an animal model.

  61. The effect of exogenous creatine phosphate on myocardial injury after percutaneous coronary intervention

    PubMed ID: 24368725

    IV creatine phosphate given after PCI reduced cardiac enzyme rises—consistent with acute support of cellular/mitochondrial energy during ischemic stress.

  62. PRECREST: a phase II prevention and biomarker trial of creatine in at-risk Huntington disease

    PubMed ID: 24510496

    High-dose creatine slowed brain atrophy in prodromal Huntington disease, consistent with a cellular-energy preserving/neuroprotective effect.

  63. Dose-response effects of oral guanidinoacetic acid on serum creatine, homocysteine and B vitamins levels

    PubMed ID: 24535415

    GAA supplementation significantly increased serum and urinary creatine—direct biochemical evidence that precursor supplementation raises peripheral creatine, supporting cellular energetics.

  64. Creatine supplementation prevents acute strength loss induced by concurrent exercise

    PubMed ID: 24840857

    Short‑term creatine prevented acute strength‑endurance decline after concurrent aerobic exercise, indicating reduced fatigue during subsequent resistance efforts.

  65. Effects of plyometric training and creatine supplementation on maximal-intensity exercise and endurance in female soccer players

    PubMed ID: 26778661

    Creatine plus plyometrics improved repeated‑sprint and jump outcomes in soccer players, reflecting reduced performance decrement/fatigue during high‑intensity bouts.

  66. Low-Dose Creatine Supplementation Lowers Plasma Guanidinoacetate, but Not Plasma Homocysteine, in a Double-Blind, Randomized, Placebo-Controlled Trial

    PubMed ID: 26311810

    3 g/day creatine reduced guanidinoacetate (GAA), showing feedback suppression of endogenous synthesis and implying increased cellular creatine availability (mechanistic evidence).

  67. Folic Acid and Creatine as Therapeutic Approaches to Lower Blood Arsenic: A Randomized Controlled Trial

    PubMed ID: 25978852

    Large RCT showed marked increases in plasma creatine and reductions in GAA with 3 g/day supplementation—direct biochemical support for enhanced creatine supply to cells.

  68. Single-dose oral guanidinoacetic acid exhibits dose-dependent pharmacokinetics in healthy volunteers

    PubMed ID: 25622538

    GAA substantially increased plasma creatine in a dose-dependent manner—strong mechanistic evidence that creatine stores and cellular energy substrate are increased.

  69. Six-Week Oral Guanidinoacetic Acid Administration Improves Muscular Performance in Healthy Volunteers

    PubMed ID: 26079223

    GAA is a creatine precursor; supplementation increased strength/endurance outcomes consistent with enhanced cellular energy via the creatine pathway.

  70. Acute and chronic safety and efficacy of dose dependent creatine nitrate supplementation and exercise performance

    PubMed ID: 27034623

    CrM significantly raised intramuscular creatine (phosphocreatine substrate) over 28 days—direct mechanistic support for short-term cellular energy supply.

  71. Effect of creatine supplementation and drop-set resistance training in untrained aging adults

    PubMed ID: 27523919

    Chronic creatine supplementation with training increases intramuscular creatine/PCr over time (mechanistic support inferred from functional gains).

  72. The Effects of Creatine Supplementation on Explosive Performance and Optimal Individual Postactivation Potentiation Time

    PubMed ID: 26959056

    Short-term creatine loading increased maximal squat strength and altered PAP timing, indicating reduced neuromuscular fatigue in heavy efforts.

  73. Creatine Loading Does Not Preserve Muscle Mass or Strength During Leg Immobilization in Healthy, Young Males: A Randomized Controlled Trial

    PubMed ID: 28054322

    Muscle total creatine content rose substantially with loading (~+19%), directly supporting creatine's role in cellular phosphagen energy storage.

  74. Creatine supplementation elicits greater muscle hypertrophy in upper than lower limbs and trunk in resistance-trained men

    PubMed ID: 29214923

    Longer-term oral creatine supplementation increased lean tissue in trained men, consistent with increased muscle creatine stores and cellular energy capacity.

  75. Effect of creatine phosphate sodium on bispectral index and recovery quality during the general anaesthesia emergence period in elderly patients: A randomized, double-blind, placebo-controlled trial

    PubMed ID: 29332430

    IV creatine phosphate produced faster emergence and higher early BIS/Steward scores after anesthesia, indicating reduced acute central/mental fatigue post‑anesthesia.

  76. Repeated Application of a Novel Creatine Cream Improves Muscular Peak and Average Power in Male Subjects

    PubMed ID: 32865944

    Topical creatine increased sprint power after 7 days in men — suggests local enhancement of phosphocreatine/energy availability.

  77. Efficacy of Creatine Supplementation and Resistance Training on Area and Density of Bone and Muscle in Older Adults

    PubMed ID: 34107512

    Long‑term creatine + RT increased muscle density — supports improved short‑term energy capacity in older adults indirectly.

  78. Short-term co-ingestion of creatine and sodium bicarbonate improves anaerobic performance in trained taekwondo athletes

    PubMed ID: 33478522

    Creatine (± bicarbonate) yielded large increases in peak and mean anaerobic power — strong evidence for enhanced short‑term anaerobic energy.

  79. Impact of Optimal Timing of Intake of Multi-Ingredient Performance Supplements on Sports Performance, Muscular Damage, and Hormonal Behavior across a Ten-Week Training Camp in Elite Cyclists: A Randomized Clinical Trial

    PubMed ID: 34836002

    Multi‑ingredient supplement including creatine improved performance and reduced lactate/markers — supports an effect on cellular energy production (though multiple ingredients present).

  80. Protection of Exogenous Phosphocreatine for Myocardium in Percutaneous Coronary Intervention Related to Inflammation

    PubMed ID: 35345256

    IV phosphocreatine reduced cardiac troponin and IL‑6 after PCI, demonstrating that a creatine phosphate compound supports cellular high‑energy phosphate buffering in ischemic tissue.

  81. The role of resistance training and creatine supplementation on oxidative stress, antioxidant defense, muscle strength, and quality of life in older adults

    PubMed ID: 37206869

    Creatine added to RT in older adults produced larger strength increases and antioxidant benefits that plausibly reduce muscular fatigue during/after exertion.

  82. The Effects of Creatine Monohydrate Loading on Exercise Recovery in Active Women throughout the Menstrual Cycle

    PubMed ID: 37630756

    Short creatine loading in active women reduced the repeated‑sprint fatigue index in the high‑hormone menstrual phase (Δ −5.8% vs placebo), directly indicating reduced sprint fatigue.

  83. The Effects of Protein and Carbohydrate Supplementation, with and without Creatine, on Occupational Performance in Firefighters

    PubMed ID: 38140393

    Ergogenic improvements in short tasks are consistent with increased phosphocreatine availability and short‑term energy provision.

  84. Myocardial protection with phosphocreatine in high-risk cardiac surgery patients: a randomized trial

    PubMed ID: 38030971

    Perioperative phosphocreatine administration directly targets cellular energy stores (PCr) though this trial did not show clinical endpoint benefits.

  85. Efficacy and safety profile of oral creatine monohydrate in add-on to cognitive-behavioural therapy in depression: An 8-week pilot, double-blind, randomised, placebo-controlled feasibility and exploratory trial in an under-resourced area

    PubMed ID: 39488067

    RCT of creatine added to CBT reduced depressive symptoms — could reflect reduced mental fatigue and improved mental energy in depressed patients.

  86. Supplementing With Which Form of Creatine (Hydrochloride or Monohydrate) Alongside Resistance Training Can Have More Impacts on Anabolic/Catabolic Hormones, Strength and Body Composition?

    PubMed ID: 39545789

    Longer training RCT showed strength/mass gains attributed to creatine’s role in cellular energy and anabolic responses.

  87. The Effect of Creatine Supplementation on Lean Body Mass with and Without Resistance Training

    PubMed ID: 40292479

    Creatine wash-in increased LBM and likely PCr stores, with modest training benefits — supports cellular energetic capacity.

  88. The Effects of Creatine Monohydrate Supplementation on Recovery from Eccentric Exercise-Induced Muscle Damage: A Double-Blind, Randomized, Placebo-Controlled Trial Considering Sex and Age Differences

    PubMed ID: 40507040

    RCT showed lower objective and subjective muscle fatigue after eccentric exercise with creatine versus placebo.

  89. A nitroalkene derivative of salicylate, SANA, induces creatine-dependent thermogenesis and promotes weight loss

    PubMed ID: 40527924

    SANA acts via creatine‑dependent adipose thermogenesis (mechanistic evidence linking creatine pathways to cellular energy/thermogenesis) — not a creatine supplement but mechanistic relevance.

  90. Acute creatine supplementation enhances technical performance in adolescent basketball players under cognitive-motor dual-task condition

    PubMed ID: 40758095

    Short-term creatine improved sport performance under cognitive load and lowered perceived exertion/HR — indicates mental-load resilience.

Workout performance (60)
  1. Effects of four weeks of high-intensity interval training and creatine supplementation on critical power and anaerobic working capacity in college-aged men

    PubMed ID: 19675499

    HIIT combined with creatine improved critical power (~6.7%), demonstrating meaningful enhancement in sustained high‑intensity performance capacity.

  2. Comparison of creatine monohydrate and carbohydrate supplementation on repeated jump height performance

    PubMed ID: 18545204

    Direct finding: creatine improved sustainment of repeated jump height (repeated high-intensity efforts).

  3. Effects of a drink containing creatine, amino acids, and protein combined with ten weeks of resistance training on body composition, strength, and anaerobic performance

    PubMed ID: 17313263

    After 10 weeks of training, the creatine/protein/AA drink increased anaerobic power, a key component of overall physical performance.

  4. Creatine supplements in patients with idiopathic inflammatory myopathies who are clinically weak after conventional pharmacologic treatment: Six-month, double-blind, randomized, placebo-controlled trial

    PubMed ID: 17471547

    Creatine plus exercise improved aggregate high‑intensity functional time and muscle phosphocreatine in patients, indicating overall performance gains in that context.

  5. [The influence of induced severe myocardial ischemia on coronary disease course]

    PubMed ID: 16353868

    IV creatine phosphate plus ischemic training led to better exercise tolerance and fewer angina attacks — indicates enhanced overall physical function in cardiac patients.

  6. Effect of low-dose, short-duration creatine supplementation on anaerobic exercise performance

    PubMed ID: 15903359

    Low-dose short loading reduced the fatigue rate during repeated short sprints, directly improving repeat-sprint tolerance.

  7. Creatine supplementation during pulmonary rehabilitation in chronic obstructive pulmonary disease

    PubMed ID: 15994258

    Increased lean mass and peripheral muscle strength/endurance in COPD patients indicate improved aspects of physical performance, though whole-body capacity did not change.

  8. Effect of creatine phosphate supplementation on anaerobic working capacity and body weight after two and six days of loading in men and women

    PubMed ID: 16287344

    Strong, rapid increases in anaerobic work capacity after short-term loading translate to improved overall performance in short-duration high-intensity tasks.

  9. Low dose creatine supplementation enhances sprint phase of 400 meters swimming performance

    PubMed ID: 16083193

    Improvements in sprint and anaerobic measures in swimmers demonstrate clear overall performance enhancement in sport-specific tasks.

  10. Mg2+-creatine chelate and a low-dose creatine supplementation regimen improve exercise performance

    PubMed ID: 15142029

    Increased total work during fatigue protocol suggests practical performance benefits in resistance training contexts.

  11. Effect of creatine and weight training on muscle creatine and performance in vegetarians

    PubMed ID: 14600563

    Creatine + resistance training raised muscle PCr and power and improved strength, supporting overall performance gains.

  12. Effect of recovery interval on multiple-bout sprint cycling performance after acute creatine supplementation

    PubMed ID: 11834115

    Well-controlled trial: creatine increased mean and peak power in repeated-sprint cycling with short recovery periods — strong direct evidence.

  13. Creatine supplementation combined with resistance training in older men

    PubMed ID: 11740307

    Strong RCT in older men: creatine + resistance training produced substantial gains in lean mass, strength and power—clear improvement in overall physical performance.

  14. The effect of whey protein supplementation with and without creatine monohydrate combined with resistance training on lean tissue mass and muscle strength

    PubMed ID: 11591884

    Additive gains in lean mass and some strength with creatine+whey suggest improved overall performance vs whey/placebo.

  15. Comparison of creatine ingestion and resistance training on energy expenditure and limb blood flow

    PubMed ID: 11735088

    Creatine increased body water, muscle mass and strength (especially with RT), supporting broad performance benefits.

  16. Creatine and beta-hydroxy-beta-methylbutyrate (HMB) additively increase lean body mass and muscle strength during a weight-training program

    PubMed ID: 11448573

    Clear increases in lean mass and strength (and additive effects with HMB) indicate broad performance enhancement.

  17. Creatine supplementation alters the response to a graded cycle ergometer test

    PubMed ID: 11072779

    Improvements in ventilatory threshold and reduced submaximal oxygen cost help overall exercise performance at submaximal intensities.

  18. Acute creatine loading increases fat-free mass, but does not affect blood pressure, plasma creatinine, or CK activity in men and women

    PubMed ID: 10694109

    Acute increases in fat-free mass/body mass can contribute to improved physical capacity, though short-term.

  19. The effect of continuous low dose creatine supplementation on force, power, and total work

    PubMed ID: 10997950

    Improvements in peak force/power and total work reflect meaningful performance gains in trained athletes.

  20. Creatine supplementation and swimming performance

    PubMed ID: 10477361

    Men showed maintained faster velocity across multiple ~30 s repeated swims after creatine loading—clear repeated-sprint benefit in that subgroup.

  21. Effects of oral creatine loading on single and repeated maximal short sprints

    PubMed ID: 8599745

    Primary outcome: creatine loading increased total work and peak power across multiple short sprints (direct, high-quality evidence for repeated‑sprint ability).

  22. Conjugated linoleic acid combined with creatine monohydrate and whey protein supplementation during strength training

    PubMed ID: 19403955

    Creatine-containing combination increased 1‑RM strength and lean mass and reduced muscle-breakdown marker during resistance training — supports improved overall physical performance but multi-ingredient design reduces certainty.

  23. Low-dose creatine combined with protein during resistance training in older men

    PubMed ID: 18685526

    Notable increases in lean mass and bench strength in older men translate to improved overall physical performance.

  24. Creatine monohydrate enhances strength and body composition in Duchenne muscular dystrophy

    PubMed ID: 15159476

    Handgrip strength and FFM gains support improved functional performance in Duchenne boys.

  25. Coenzyme Q10 terclatrate and creatine in chronic heart failure: a randomized, placebo-controlled, double-blind study

    PubMed ID: 21462215

    Combined creatine + CoQ10 increased peak VO2 in stable systolic heart-failure patients versus placebo — a direct improvement in an objective physical-performance metric (confounded by combination supplement).

  26. A whey protein-based multi-ingredient nutritional supplement stimulates gains in lean body mass and strength in healthy older men: A randomized controlled trial

    PubMed ID: 28719669

    Combined supplement (including creatine) with exercise produced clinically meaningful increases in lean mass and strength and improved metabolic markers in older men — supports improved overall physical performance though multiple ingredients and training contributed.

  27. Effects of in-season (5 weeks) creatine and pyruvate supplementation on anaerobic performance and body composition in American football players

    PubMed ID: 10362452

    Randomized trial in college football players showing increased body mass, lean mass and 1RM strength—broad improvement in physical performance metrics.

  28. The effects of phosphocreatine disodium salts plus blueberry extract supplementation on muscular strength, power, and endurance

    PubMed ID: 34503541

    Short trial showed meaningful increases in peak torque and average power vs placebo, indicating improved physical performance.

  29. Effect of creatine monohydrate in improving cellular energetics and muscle strength in ambulatory Duchenne muscular dystrophy patients: a randomized, placebo-controlled 31P MRS study

    PubMed ID: 20395096

    Increased muscle PCr/Pi and preserved strength in DMD patients support improved functional performance in compromised muscle, though population-specific.

  30. The effects of polyethylene glycosylated creatine supplementation on anaerobic performance measures and body composition

    PubMed ID: 23897021

    PEG‑creatine improved power and agility metrics that map onto repeated-sprint and change-of-direction performance.

  31. Effects of creatine monohydrate and polyethylene glycosylated creatine supplementation on muscular strength, endurance, and power output

    PubMed ID: 19387397

    Different creatine forms yielded overall gains in body mass and anaerobic power/strength—supporting modest overall performance enhancement.

  32. Effects of Combined Versus Single Supplementation of Creatine, Beta-Alanine, and L-Citrulline During Short Sprint Interval Training on Basketball Players' Performance: A Double-Blind Randomized Placebo-Controlled Trial

    PubMed ID: 40010353

    Randomized trial showing creatine (alone/combined) produced greater improvements in jump, sprint and anaerobic power during training vs placebo — strong evidence of enhanced overall physical performance.

  33. The Effect of Acute Pre-Workout Supplement Ingestion on Basketball-Specific Performance of Well-Trained Athletes

    PubMed ID: 37242187

    Study specifically reported better repeated‑sprint anaerobic power (RAST average power) with an acute creatine‑containing preworkout in well‑trained basketball players.

  34. The Effect of Beta-Alanine versus Alkaline Agent Supplementation Combined with Branched-Chain Amino Acids and Creatine Malate in Highly-Trained Sprinters and Endurance Athletes: A Randomized Double-Blind Crossover Study

    PubMed ID: 31438535

    Sprint subgroup showed physiological improvements (reduced ammonia) with creatine malate + beta‑alanine suggesting better repeated‑sprint performance.

  35. The effects of beta alanine plus creatine administration on performance during repeated bouts of supramaximal exercise in sedentary men

    PubMed ID: 25289715

    Clear improvements in short‑duration power outputs indicate enhanced acute physical performance in high‑power tasks.

  36. Effect of creatine and beta-alanine supplementation on performance and endocrine responses in strength/power athletes

    PubMed ID: 17136944

    Demonstrated increases in strength and lean mass in athletes support an overall physical-performance benefit.

  37. Supplementation with Qter(®) and Creatine improves functional performance in COPD patients on long term oxygen therapy

    PubMed ID: 30170808

    CoQ10+creatine improved 6‑minute walk distance and body composition in COPD patients, indicating enhanced overall physical capacity (combination therapy).

  38. The Effects of Creatine Monohydrate Supplementation on Recovery from Eccentric Exercise-Induced Muscle Damage: A Double-Blind, Randomized, Placebo-Controlled Trial Considering Sex and Age Differences

    PubMed ID: 40507040

    Improved recovery, reduced soreness and fatigue after eccentric exercise supports better overall performance capacity in the short term.

  39. Effect of Creatine Supplementation on Body Composition and Malnutrition-Inflammation Score in Hemodialysis Patients: An Exploratory 1-Year, Balanced, Double-Blind Design

    PubMed ID: 38474743

    Sustained increases in lean mass/SMMI over 12 months imply improved physical capacity in a clinical population.

  40. Supplementing With Which Form of Creatine (Hydrochloride or Monohydrate) Alongside Resistance Training Can Have More Impacts on Anabolic/Catabolic Hormones, Strength and Body Composition?

    PubMed ID: 39545789

    8‑week resistance training RCT showed increased 1RM strength and skeletal muscle mass with creatine — translates to improved physical performance.

  41. The Effects of Protein and Carbohydrate Supplementation, with and without Creatine, on Occupational Performance in Firefighters

    PubMed ID: 38140393

    Performance on multiple short, intense occupational tasks improved with creatine, suggesting better ability across repeated high‑intensity bouts.

  42. The Effects of Creatine Monohydrate Loading on Exercise Recovery in Active Women throughout the Menstrual Cycle

    PubMed ID: 37630756

    Creatine loading decreased repeated‑sprint fatigue index in the high‑hormone menstrual phase, showing improved repeat‑sprint performance in that context.

  43. The role of resistance training and creatine supplementation on oxidative stress, antioxidant defense, muscle strength, and quality of life in older adults

    PubMed ID: 37206869

    Creatine added to resistance training produced larger strength gains and antioxidant benefits in older adults, translating to meaningful improvements in overall physical function.

  44. Impact of Optimal Timing of Intake of Multi-Ingredient Performance Supplements on Sports Performance, Muscular Damage, and Hormonal Behavior across a Ten-Week Training Camp in Elite Cyclists: A Randomized Clinical Trial

    PubMed ID: 34836002

    Multi‑ingredient supplement including creatine improved multiple performance markers and lowered damage markers in elite cyclists — supports enhanced overall physical performance (though multi‑ingredient limits attribution solely to creatine).

  45. Short-term co-ingestion of creatine and sodium bicarbonate improves anaerobic performance in trained taekwondo athletes

    PubMed ID: 33478522

    Creatine (± bicarbonate) generated large increases in anaerobic power and reduced lactate in taekwondo athletes — strong evidence for improved overall physical (anaerobic) performance.

  46. Efficacy of Creatine Supplementation and Resistance Training on Area and Density of Bone and Muscle in Older Adults

    PubMed ID: 34107512

    1‑year creatine + RT in older adults improved muscle density and bone area — supports improved overall physical function in aging.

  47. Repeated Application of a Novel Creatine Cream Improves Muscular Peak and Average Power in Male Subjects

    PubMed ID: 32865944

    Topical creatine improved leg peak/average power after 7 days in men — contributes to overall physical performance in this context.

  48. A Randomized, Double-Blind, Placebo-Controlled Study to Evaluate the Effectiveness of a Food Supplement Containing Creatine and D-Ribose Combined with a Physical Exercise Program in Increasing Stress Tolerance in Patients with Ischemic Heart Disease

    PubMed ID: 31861049

    Combined creatine-containing supplement + exercise increased maximal workload and myocardial work indices in cardiac patients — performance benefit but confounded by multi-ingredient formula and supervised exercise.

  49. Effects of 4-Week Creatine Supplementation Combined with Complex Training on Muscle Damage and Sport Performance

    PubMed ID: 30400221

    Creatine + complex training increased maximal strength and improved recovery markers—evidence for improved overall physical performance in this trial.

  50. Creatine supplementation elicits greater muscle hypertrophy in upper than lower limbs and trunk in resistance-trained men

    PubMed ID: 29214923

    Creatine led to substantial region-specific lean mass gains in resistance-trained men over 8 weeks, supporting improved overall physical performance potential.

  51. The Effects of Creatine Supplementation on Explosive Performance and Optimal Individual Postactivation Potentiation Time

    PubMed ID: 26959056

    Increased maximal squat strength and altered PAP timing after creatine loading suggest better overall strength performance in heavy lifts.

  52. Acute and chronic safety and efficacy of dose dependent creatine nitrate supplementation and exercise performance

    PubMed ID: 27034623

    Improvements in intramuscular creatine, power and lifting workload indicate enhanced overall short-term physical performance.

  53. Six-Week Oral Guanidinoacetic Acid Administration Improves Muscular Performance in Healthy Volunteers

    PubMed ID: 26079223

    GAA supplementation produced statistically significant gains in handgrip and bench‑press repetitions and some anaerobic measures — overall performance improvements tied to the creatine pathway.

  54. Effects of plyometric training and creatine supplementation on maximal-intensity exercise and endurance in female soccer players

    PubMed ID: 26778661

    Plyometric training with creatine produced larger improvements in repeated‑sprint performance in female soccer players versus placebo.

  55. Strategic creatine supplementation and resistance training in healthy older adults

    PubMed ID: 25993883

    Older adults experienced substantial improvements in strength and lean mass with creatine plus training, reflecting enhanced overall physical performance capacity.

  56. Effects of Creatine and Resistance Training on Bone Health in Postmenopausal Women

    PubMed ID: 25386713

    Long‑term creatine plus resistance training improved strength and bone geometry in postmenopausal women—meaningful improvements in functional performance and musculoskeletal health.

  57. Creatine supplementation prevents acute strength loss induced by concurrent exercise

    PubMed ID: 24840857

    Short‑term creatine prevented acute losses in strength‑endurance after aerobic exercise, preserving performance capacity in mixed‑modality contexts.

  58. Creatine supplementation and resistance training in vulnerable older women: a randomized double-blind placebo-controlled clinical trial

    PubMed ID: 24530883

    Large improvements in 1‑RM and lean mass with creatine + RT in older women indicate meaningful enhancement in overall physical performance.

  59. Effect of different frequencies of creatine supplementation on muscle size and strength in young adults

    PubMed ID: 21512399

    Randomized trial showed substantial strength and hypertrophy improvements with creatine during RT, translating to clear overall physical-performance gains.

  60. The effects of creatine loading and gender on anaerobic running capacity

    PubMed ID: 20543729

    Substantial increase in anaerobic running capacity in men represents an overall physical performance improvement for short, intense activities.

Strength (59)
  1. Supplementing With Which Form of Creatine (Hydrochloride or Monohydrate) Alongside Resistance Training Can Have More Impacts on Anabolic/Catabolic Hormones, Strength and Body Composition?

    PubMed ID: 39545789

    8‑week resistance‑training RCT: both creatine HCl and creatine monohydrate increased 1RM strength and skeletal muscle mass vs placebo.

  2. The Effects of Protein and Carbohydrate Supplementation, with and without Creatine, on Occupational Performance in Firefighters

    PubMed ID: 38140393

    Firefighter trial showed faster rescue and forcible entry task times with creatine + protein compared with protein alone — improves short powerful efforts.

  3. The role of resistance training and creatine supplementation on oxidative stress, antioxidant defense, muscle strength, and quality of life in older adults

    PubMed ID: 37206869

    Resistance training plus creatine in older adults produced substantially larger strength gains (~57% vs ~36%) compared with training alone.

  4. Impact of Optimal Timing of Intake of Multi-Ingredient Performance Supplements on Sports Performance, Muscular Damage, and Hormonal Behavior across a Ten-Week Training Camp in Elite Cyclists: A Randomized Clinical Trial

    PubMed ID: 34836002

    Multi‑ingredient supplement including creatine increased peak power and VO2 in elite cyclists — supports improved overall power/performance.

  5. Short-term co-ingestion of creatine and sodium bicarbonate improves anaerobic performance in trained taekwondo athletes

    PubMed ID: 33478522

    Short‑term creatine ± bicarbonate in taekwondo athletes produced very large increases in peak and mean anaerobic power — strong evidence for improved sprint/power.

  6. Efficacy of Creatine Supplementation and Resistance Training on Area and Density of Bone and Muscle in Older Adults

    PubMed ID: 34107512

    One‑year creatine + RT improved lower‑leg muscle density and some bone measures — supports maintained/improved power capacity in older adults.

  7. Repeated Application of a Novel Creatine Cream Improves Muscular Peak and Average Power in Male Subjects

    PubMed ID: 32865944

    Topical creatine applied daily for 7 days improved peak and average leg power in men — direct evidence of improved sprint/power (topical form).

  8. Effects of 4-Week Creatine Supplementation Combined with Complex Training on Muscle Damage and Sport Performance

    PubMed ID: 30400221

    Randomized double-blind creatine + training trial showed large increases in 1‑RM strength vs placebo.

  9. Creatine supplementation elicits greater muscle hypertrophy in upper than lower limbs and trunk in resistance-trained men

    PubMed ID: 29214923

    Resistance‑trained men on creatine gained substantially more upper-limb lean mass over 8 weeks; strength gains are commonly linked to such hypertrophy (strength measures not the primary reported outcome).

  10. The Effects of Creatine Supplementation on Explosive Performance and Optimal Individual Postactivation Potentiation Time

    PubMed ID: 26959056

    Short-term creatine loading produced a significant increase in maximal squat (1RM) strength (~3.4%).

  11. Effect of creatine supplementation and drop-set resistance training in untrained aging adults

    PubMed ID: 27523919

    12‑week creatine + resistance training produced greater mass and some strength gains vs placebo (especially in males).

  12. Acute and chronic safety and efficacy of dose dependent creatine nitrate supplementation and exercise performance

    PubMed ID: 27034623

    Increased bench-press average and peak power and lifting workload after CrN-High/CrM supplementation indicate improved short-term power capacity.

  13. Six-Week Oral Guanidinoacetic Acid Administration Improves Muscular Performance in Healthy Volunteers

    PubMed ID: 26079223

    Six weeks of oral GAA (a creatine precursor) improved handgrip strength and bench-press repetitions vs placebo — direct functional strength benefit related to creatine pathway.

  14. Effects of plyometric training and creatine supplementation on maximal-intensity exercise and endurance in female soccer players

    PubMed ID: 26778661

    Female soccer players on creatine + plyometrics showed greater improvements in jumping and repeated‑sprint performance versus placebo—direct support for sprint/power gains.

  15. Strategic creatine supplementation and resistance training in healthy older adults

    PubMed ID: 25993883

    Randomized trial in adults 50–71 showed large, significant increases in muscle strength (leg press, chest press) with creatine plus training versus placebo.

  16. Effects of Creatine and Resistance Training on Bone Health in Postmenopausal Women

    PubMed ID: 25386713

    Twelve months of creatine with supervised resistance training increased bench‑press relative strength substantially versus placebo in postmenopausal women.

  17. Creatine supplementation and resistance training in vulnerable older women: a randomized double-blind placebo-controlled clinical trial

    PubMed ID: 24530883

    Randomized DBPC trial: creatine + resistance training produced large, significant increases in bench- and leg-press 1‑RM vs controls.

  18. Creatine supplementation associated or not with strength training upon emotional and cognitive measures in older women: a randomized double-blind study

    PubMed ID: 24098469

    In older women, creatine combined with strength training led to substantially larger leg-press 1-RM gains vs non-trained groups.

  19. Effect of different frequencies of creatine supplementation on muscle size and strength in young adults

    PubMed ID: 21512399

    Randomized trial showed large leg-press strength increases (men +62%) and regional strength gains with creatine during resistance training.

  20. The effects of creatine loading and gender on anaerobic running capacity

    PubMed ID: 20543729

    Short‑term creatine loading produced a large (+23%) improvement in anaerobic running capacity in men, supporting sprint/power gains.

  21. Effects of four weeks of high-intensity interval training and creatine supplementation on critical power and anaerobic working capacity in college-aged men

    PubMed ID: 19675499

    HIIT+creatine raised critical power (sustained high‑intensity output) though anaerobic working capacity was unchanged; supports improved high‑intensity power endurance.

  22. Comparison of creatine monohydrate and carbohydrate supplementation on repeated jump height performance

    PubMed ID: 18545204

    Creatine helped sustain repeated jump power, supporting short-term power/sprint ability in repeated efforts.

  23. Effects of a drink containing creatine, amino acids, and protein combined with ten weeks of resistance training on body composition, strength, and anaerobic performance

    PubMed ID: 17313263

    Multi-ingredient drink containing creatine increased peak and mean anaerobic power after 10 weeks of training.

  24. Creatine supplements in patients with idiopathic inflammatory myopathies who are clinically weak after conventional pharmacologic treatment: Six-month, double-blind, randomized, placebo-controlled trial

    PubMed ID: 17471547

    Creatine improved high‑intensity functional performance in inflammatory myopathies, consistent with power improvements in affected muscles.

  25. Creatine supplementation augments the increase in satellite cell and myonuclei number in human skeletal muscle induced by strength training

    PubMed ID: 16581862

    Creatine with strength training increased fiber size, satellite cells and myonuclei; these cellular adaptations are consistent with meaningful strength gains.

  26. Creatine supplementation during pulmonary rehabilitation in chronic obstructive pulmonary disease

    PubMed ID: 15994258

    COPD randomized trial demonstrated increases in peripheral (leg) muscle strength following creatine supplementation.

  27. Effect of creatine phosphate supplementation on anaerobic working capacity and body weight after two and six days of loading in men and women

    PubMed ID: 16287344

    Short-term loading markedly increased anaerobic working capacity (CrP +23.8% to +49.8%; Cr modestly), consistent with enhanced power output.

  28. Low dose creatine supplementation enhances sprint phase of 400 meters swimming performance

    PubMed ID: 16083193

    Creatine improved final 50 m sprint time and Wingate/anaerobic measures in swimmers (P<0.05), directly supporting sprint/power improvements.

  29. Magnesium-creatine supplementation effects on body water

    PubMed ID: 14506619

    Mg–creatine supplementation produced modest increases in knee extension peak torque over two weeks.

  30. Effect of creatine and weight training on muscle creatine and performance in vegetarians

    PubMed ID: 14600563

    RCT showed creatine + training raised muscle creatine/PCr and improved bench‑press strength versus placebo (largest effects in vegetarians).

  31. Effect of recovery interval on multiple-bout sprint cycling performance after acute creatine supplementation

    PubMed ID: 11834115

    Acute creatine loading increased mean and peak power in repeated-sprint cycling when recovery was short — direct ergogenic effect on power.

  32. Creatine supplementation combined with resistance training in older men

    PubMed ID: 11740307

    Robust RCT in older men: creatine + resistance training produced large, significant increases in leg 1‑RM and power vs placebo.

  33. The effect of whey protein supplementation with and without creatine monohydrate combined with resistance training on lean tissue mass and muscle strength

    PubMed ID: 11591884

    Whey+creatine group had greater bench press 1RM gains than whey or placebo alone.

  34. Comparison of creatine ingestion and resistance training on energy expenditure and limb blood flow

    PubMed ID: 11735088

    Creatine (with and without RT) increased muscular strength measures (bench, leg press), especially with training.

  35. Creatine and beta-hydroxy-beta-methylbutyrate (HMB) additively increase lean body mass and muscle strength during a weight-training program

    PubMed ID: 11448573

    Randomized trial showed clear, additive increases in muscle strength with creatine (and with creatine+HMB).

  36. The effect of continuous low dose creatine supplementation on force, power, and total work

    PubMed ID: 10997950

    Increases in peak power and maintained mean peak power indicate improved sprint/power capacity.

  37. Creatine monohydrate in muscular dystrophies: A double-blind, placebo-controlled clinical study

    PubMed ID: 10802796

    Direct trial in muscular dystrophies reported mild but significant improvements in measured muscle strength versus placebo.

  38. Creatine supplementation and swimming performance

    PubMed ID: 10477361

    Men maintained faster repeated ~30 s swim intervals after creatine—evidence of improved sprint/power in that context.

  39. Effects of oral creatine loading on single and repeated maximal short sprints

    PubMed ID: 8599745

    Randomized creatine loading significantly increased peak power and total work during repeated short sprints (direct, strong evidence).

  40. Conjugated linoleic acid combined with creatine monohydrate and whey protein supplementation during strength training

    PubMed ID: 19403955

    Creatine-containing multi-ingredient group had substantially greater bench and leg-press 1‑RM increases versus non-creatine groups over 5 weeks — strong but confounded evidence for creatine's role in strength gains.

  41. Low-dose creatine combined with protein during resistance training in older men

    PubMed ID: 18685526

    Low‑dose creatine+protein produced a large (+25%) bench‑press strength increase in older men.

  42. Creatine monohydrate enhances strength and body composition in Duchenne muscular dystrophy

    PubMed ID: 15159476

    Four months creatine increased dominant‑hand grip strength in boys with Duchenne muscular dystrophy.

  43. A Five-Ingredient Nutritional Supplement and Home-Based Resistance Exercise Improve Lean Mass and Strength in Free-Living Elderly

    PubMed ID: 32785021

    Multi‑ingredient supplement including creatine increased leg‑press strength (~+16.6%) and handgrip in older men (direct strength gains in a creatine‑containing regimen).

  44. Impact of differing protein sources and a creatine containing nutritional formula after 12 weeks of resistance training

    PubMed ID: 17679046

    Resistance‑trained subjects receiving creatine‑containing formulas had greater 1RM strength gains vs non‑creatine controls (supports strength increase).

  45. Obesity and Metabolic Disease Impair the Anabolic Response to Protein Supplementation and Resistance Exercise: A Retrospective Analysis of a Randomized Clinical Trial with Implications for Aging, Sarcopenic Obesity, and Weight Management

    PubMed ID: 39771028

    Multi-ingredient supplement that included creatine produced clinically meaningful improvements in grip and leg-press strength vs collagen placebo in older men; effect plausibly partly due to creatine but confounded.

  46. A whey protein-based multi-ingredient nutritional supplement stimulates gains in lean body mass and strength in healthy older men: A randomized controlled trial

    PubMed ID: 28719669

    Multi-ingredient supplement that included creatine produced meaningful increases in lean mass and summed 1RMs in older men — strong practical signal though causality to creatine alone is confounded.

  47. Effects of in-season (5 weeks) creatine and pyruvate supplementation on anaerobic performance and body composition in American football players

    PubMed ID: 10362452

    Randomized trial in college football players: creatine (±pyruvate) significantly increased 1RM strength vs placebo/pyruvate.

  48. The effects of phosphocreatine disodium salts plus blueberry extract supplementation on muscular strength, power, and endurance

    PubMed ID: 34503541

    Phosphocreatine/creatine intervention produced ~10–16% increases in peak torque and average power vs placebo.

  49. Effect of creatine monohydrate in improving cellular energetics and muscle strength in ambulatory Duchenne muscular dystrophy patients: a randomized, placebo-controlled 31P MRS study

    PubMed ID: 20395096

    In boys with DMD, creatine preserved/improved manual muscle test scores alongside improved PCr/Pi — moderate evidence for strength preservation/improvement in diseased muscle.

  50. Effects of 12 Weeks of Essential Amino Acids (EAA)-Based Multi-Ingredient Nutritional Supplementation on Muscle Mass, Muscle Strength, Muscle Power and Fatigue in Healthy Elderly Subjects: A Randomized Controlled Double-Blind Study

    PubMed ID: 31021358

    Multi-ingredient supplement including creatine increased appendicular lean mass and maximal voluntary contraction in older adults — supports strength gains (co-ingredients present).

  51. The effects of polyethylene glycosylated creatine supplementation on anaerobic performance measures and body composition

    PubMed ID: 23897021

    PEG‑creatine produced significant improvements in vertical jump power and agility compared with placebo over 28 days — direct support for sprint/power.

  52. Effects of creatine monohydrate and polyethylene glycosylated creatine supplementation on muscular strength, endurance, and power output

    PubMed ID: 19387397

    Creatine conditions showed statistically significant increases in mean power (Wingate) and some anaerobic power measures over 30 days.

  53. Effects of Combined Versus Single Supplementation of Creatine, Beta-Alanine, and L-Citrulline During Short Sprint Interval Training on Basketball Players' Performance: A Double-Blind Randomized Placebo-Controlled Trial

    PubMed ID: 40010353

    Direct randomized trial where creatine (alone/with others) plus sprint‑interval training increased vertical jump, 20‑m sprint and Wingate anaerobic power vs placebo — strong direct support.

  54. The Effect of Acute Pre-Workout Supplement Ingestion on Basketball-Specific Performance of Well-Trained Athletes

    PubMed ID: 37242187

    Acute pre‑workout (contains creatine) yielded small improvements in CMJ and moderate gains in RAST average power — supports improved sprint/power in the short term.

  55. The Effect of Beta-Alanine versus Alkaline Agent Supplementation Combined with Branched-Chain Amino Acids and Creatine Malate in Highly-Trained Sprinters and Endurance Athletes: A Randomized Double-Blind Crossover Study

    PubMed ID: 31438535

    Sprint subgroup taking creatine malate + beta‑alanine showed FFM increase and reduced post‑exercise ammonia—supports improved sprint/power adaptations.

  56. Effects of ingesting a pre-workout dietary supplement with and without synephrine for 8 weeks on training adaptations in resistance-trained males

    PubMed ID: 28096757

    Multi-ingredient supplement including creatine nitrate yielded larger bench-press and leg-press 1RM gains vs placebo; creatine is a plausible contributor though product contained multiple actives.

  57. The effects of beta alanine plus creatine administration on performance during repeated bouts of supramaximal exercise in sedentary men

    PubMed ID: 25289715

    Direct: creatine alone produced large increases in peak sprint power (~28–31%) in sedentary men.

  58. Effect of creatine and beta-alanine supplementation on performance and endocrine responses in strength/power athletes

    PubMed ID: 17136944

    Direct randomized trial showed clear strength improvements with creatine (alone and with beta‑alanine).

  59. Effect of Creatine Supplementation on Body Composition and Malnutrition-Inflammation Score in Hemodialysis Patients: An Exploratory 1-Year, Balanced, Double-Blind Design

    PubMed ID: 38474743

    Year-long creatine in hemodialysis patients increased skeletal muscle mass index and FFM — a substrate for strength gains (population-specific).

Endurance (54)
  1. Creatine and beta-hydroxy-beta-methylbutyrate (HMB) additively increase lean body mass and muscle strength during a weight-training program

    PubMed ID: 11448573

    Increased lean mass and strength improve ability to tolerate higher training loads.

  2. Short-term co-ingestion of creatine and sodium bicarbonate improves anaerobic performance in trained taekwondo athletes

    PubMed ID: 33478522

    Creatine (± bicarbonate) produced substantial increases in peak/mean anaerobic power in taekwondo athletes — strong evidence for better high‑intensity performance.

  3. Impact of Optimal Timing of Intake of Multi-Ingredient Performance Supplements on Sports Performance, Muscular Damage, and Hormonal Behavior across a Ten-Week Training Camp in Elite Cyclists: A Randomized Clinical Trial

    PubMed ID: 34836002

    Multi‑ingredient supplement including creatine improved peak power and VO2 in cyclists — supports enhanced high‑intensity performance.

  4. The role of resistance training and creatine supplementation on oxidative stress, antioxidant defense, muscle strength, and quality of life in older adults

    PubMed ID: 37206869

    Creatine plus resistance training in older adults produced larger strength improvements, implying greater capacity to train/progress compared with training alone.

  5. The Effects of Creatine Monohydrate Loading on Exercise Recovery in Active Women throughout the Menstrual Cycle

    PubMed ID: 37630756

    Creatine loading reduced fatigue index in repeated sprints (phase‑specific), indicating improved ability to sustain high‑intensity efforts.

  6. The Effects of Protein and Carbohydrate Supplementation, with and without Creatine, on Occupational Performance in Firefighters

    PubMed ID: 38140393

    Randomized occupational trial found statistically significant improvements in short, high‑intensity job tasks with creatine supplementation.

  7. Supplementing With Which Form of Creatine (Hydrochloride or Monohydrate) Alongside Resistance Training Can Have More Impacts on Anabolic/Catabolic Hormones, Strength and Body Composition?

    PubMed ID: 39545789

    8‑week RCT showed greater increases in 1RM and muscle mass during training with creatine, indicating higher capacity to train/progress.

  8. The Effects of Creatine Monohydrate Supplementation on Recovery from Eccentric Exercise-Induced Muscle Damage: A Double-Blind, Randomized, Placebo-Controlled Trial Considering Sex and Age Differences

    PubMed ID: 40507040

    Faster recovery and less fatigue after eccentric exercise would plausibly allow higher training frequency/intensity (RCT evidence).

  9. Effect of creatine and beta-alanine supplementation on performance and endocrine responses in strength/power athletes

    PubMed ID: 17136944

    Creatine produced measurable strength and lean-mass gains in athletes, aligning with improved high-intensity work capacity.

  10. Efficacy of Creatine Supplementation and Resistance Training on Area and Density of Bone and Muscle in Older Adults

    PubMed ID: 34107512

    One‑year oral creatine + RT improved muscle density and some bone measures in older adults — supports greater training capacity/ability to benefit from RT with aging.

  11. Comparison of creatine ingestion and resistance training on energy expenditure and limb blood flow

    PubMed ID: 11735088

    Creatine (with RT) enhanced strength and mass, consistent with improved capacity to train/progress.

  12. The effect of whey protein supplementation with and without creatine monohydrate combined with resistance training on lean tissue mass and muscle strength

    PubMed ID: 11591884

    Additive lean mass and strength gains with whey+creatine suggest enhanced training adaptations and capacity.

  13. Creatine supplementation combined with resistance training in older men

    PubMed ID: 11740307

    Creatine+resistance training in older men led to greater gains in strength and power, implying higher effective training capacity.

  14. Effect of recovery interval on multiple-bout sprint cycling performance after acute creatine supplementation

    PubMed ID: 11834115

    Duplicate entry: strong direct evidence for improved high-intensity efforts (kept for emphasis).

  15. Effect of creatine and weight training on muscle creatine and performance in vegetarians

    PubMed ID: 14600563

    Increased PCr and power with training supports improved capacity for high‑intensity efforts.

  16. Mg2+-creatine chelate and a low-dose creatine supplementation regimen improve exercise performance

    PubMed ID: 15142029

    Greater total work at 70% 1RM indicates an increased training volume/capacity during resistance sessions.

  17. Low dose creatine supplementation enhances sprint phase of 400 meters swimming performance

    PubMed ID: 16083193

    Improved sprint and anaerobic test performance in swimmers supports enhanced high-intensity performance.

  18. Effect of creatine phosphate supplementation on anaerobic working capacity and body weight after two and six days of loading in men and women

    PubMed ID: 16287344

    Marked increases in anaerobic work capacity after short-term loading indicate better high-intensity performance capability.

  19. Effect of low-dose, short-duration creatine supplementation on anaerobic exercise performance

    PubMed ID: 15903359

    Reduced fatigue during repeated short sprints suggests improved capacity to sustain high-intensity work, despite no peak power rise.

  20. [The influence of induced severe myocardial ischemia on coronary disease course]

    PubMed ID: 16353868

    Study reported better exercise tolerance and fewer angina attacks with IV creatine phosphate plus training — directly relevant to training capacity in cardiac patients.

  21. Creatine supplementation augments the increase in satellite cell and myonuclei number in human skeletal muscle induced by strength training

    PubMed ID: 16581862

    Enhanced satellite-cell response and larger fiber CSA with creatine + training imply greater capacity to respond/adapt to continued training stimuli.

  22. Creatine supplements in patients with idiopathic inflammatory myopathies who are clinically weak after conventional pharmacologic treatment: Six-month, double-blind, randomized, placebo-controlled trial

    PubMed ID: 17471547

    In patients with inflammatory myopathies creatine+exercise improved aggregate high‑intensity function and increased muscle phosphocreatine.

  23. Effects of a drink containing creatine, amino acids, and protein combined with ten weeks of resistance training on body composition, strength, and anaerobic performance

    PubMed ID: 17313263

    Creatine-containing drink improved anaerobic power after training, reflecting better high-intensity performance.

  24. Comparison of creatine monohydrate and carbohydrate supplementation on repeated jump height performance

    PubMed ID: 18545204

    Sustained repeated jump performance indicates benefit for high‑intensity, short‑duration repeated work.

  25. Effects of four weeks of high-intensity interval training and creatine supplementation on critical power and anaerobic working capacity in college-aged men

    PubMed ID: 19675499

    Significant ~6.7% increase in critical power with HIIT+creatine indicates greater capacity to perform sustained high‑intensity training.

  26. The effects of creatine loading and gender on anaerobic running capacity

    PubMed ID: 20543729

    Marked improvement in anaerobic running capacity indicates better high‑intensity performance.

  27. Effect of different frequencies of creatine supplementation on muscle size and strength in young adults

    PubMed ID: 21512399

    Creatine led to greater strength and hypertrophy gains with the same training, indicating increased capacity to train and adapt.

  28. Creatine supplementation and resistance training in vulnerable older women: a randomized double-blind placebo-controlled clinical trial

    PubMed ID: 24530883

    Significant strength and lean mass increases with creatine + RT imply increased capacity to train and perform progressive overload.

  29. Creatine supplementation prevents acute strength loss induced by concurrent exercise

    PubMed ID: 24840857

    Acute creatine supplementation maintained strength‑endurance after aerobic exercise, enabling greater capacity for subsequent training sessions in the short term.

  30. Strategic creatine supplementation and resistance training in healthy older adults

    PubMed ID: 25993883

    Creatine around training produced notably larger strength and lean mass gains in older adults, indicating improved capacity to benefit from training over weeks.

  31. Effects of plyometric training and creatine supplementation on maximal-intensity exercise and endurance in female soccer players

    PubMed ID: 26778661

    Creatine augmented plyometric training gains in repeated‑sprint and jump tasks—direct evidence for improved high‑intensity performance.

  32. Acute and chronic safety and efficacy of dose dependent creatine nitrate supplementation and exercise performance

    PubMed ID: 27034623

    CrM produced robust intramuscular creatine loading and CrN-High improved power/workload—consistent with better high-intensity performance.

  33. The Effects of Creatine Supplementation on Explosive Performance and Optimal Individual Postactivation Potentiation Time

    PubMed ID: 26959056

    Improved 1RM and earlier PAP suggest enhanced ability to perform repeated high-intensity efforts, although jump performance unchanged.

  34. Creatine supplementation elicits greater muscle hypertrophy in upper than lower limbs and trunk in resistance-trained men

    PubMed ID: 29214923

    Creatine supplementation produced greater lean-mass gains during 8 weeks of resistance training, implying increased training capacity and adaptive potential.

  35. Effects of 4-Week Creatine Supplementation Combined with Complex Training on Muscle Damage and Sport Performance

    PubMed ID: 30400221

    Creatine + training increased maximal strength and reduced CK, enabling higher achievable training loads—moderate direct trial evidence.

  36. A Randomized, Double-Blind, Placebo-Controlled Study to Evaluate the Effectiveness of a Food Supplement Containing Creatine and D-Ribose Combined with a Physical Exercise Program in Increasing Stress Tolerance in Patients with Ischemic Heart Disease

    PubMed ID: 31861049

    Combined creatine-containing supplement + exercise increased maximal workload and exercise duration in ischemic heart disease patients — suggests higher training capacity (confounded).

  37. Repeated Application of a Novel Creatine Cream Improves Muscular Peak and Average Power in Male Subjects

    PubMed ID: 32865944

    Topical creatine improved sprint power in men after repeated daily use — relevant to high‑intensity efforts.

  38. The effects of beta alanine plus creatine administration on performance during repeated bouts of supramaximal exercise in sedentary men

    PubMed ID: 25289715

    Direct improvement in peak sprint outputs and, with beta‑alanine co‑supplementation, mean power across repeated sprints.

  39. The Effect of Beta-Alanine versus Alkaline Agent Supplementation Combined with Branched-Chain Amino Acids and Creatine Malate in Highly-Trained Sprinters and Endurance Athletes: A Randomized Double-Blind Crossover Study

    PubMed ID: 31438535

    Sprint athletes improved physiological markers and FFM with creatine malate regimens, supporting high‑intensity performance.

  40. The Effect of Acute Pre-Workout Supplement Ingestion on Basketball-Specific Performance of Well-Trained Athletes

    PubMed ID: 37242187

    Acute preworkout including creatine improved repeated‑sprint anaerobic measures and agility in trained athletes — supports better high‑intensity performance.

  41. Effects of Combined Versus Single Supplementation of Creatine, Beta-Alanine, and L-Citrulline During Short Sprint Interval Training on Basketball Players' Performance: A Double-Blind Randomized Placebo-Controlled Trial

    PubMed ID: 40010353

    Creatine supplementation produced greater improvements in anaerobic power and short sprint/jump outcomes during high‑intensity sprint-interval training vs placebo.

  42. Effects of creatine monohydrate and polyethylene glycosylated creatine supplementation on muscular strength, endurance, and power output

    PubMed ID: 19387397

    Demonstrated improvements in anaerobic power/strength (Wingate/short maximal efforts) consistent with better high‑intensity performance.

  43. The effects of polyethylene glycosylated creatine supplementation on anaerobic performance measures and body composition

    PubMed ID: 23897021

    PEG‑creatine improved measures (jump power, agility, upper-body endurance) relevant to high-intensity performance.

  44. Effects of 12 Weeks of Essential Amino Acids (EAA)-Based Multi-Ingredient Nutritional Supplementation on Muscle Mass, Muscle Strength, Muscle Power and Fatigue in Healthy Elderly Subjects: A Randomized Controlled Double-Blind Study

    PubMed ID: 31021358

    Older adults on multi-ingredient (including creatine) increased strength and peak power, implying improved capacity to train/load.

  45. The effects of phosphocreatine disodium salts plus blueberry extract supplementation on muscular strength, power, and endurance

    PubMed ID: 34503541

    Observed improvements in peak torque and average power under short‑duration, high‑intensity testing.

  46. Effects of in-season (5 weeks) creatine and pyruvate supplementation on anaerobic performance and body composition in American football players

    PubMed ID: 10362452

    Improved 1RM, lean mass and body mass over a season indicate greater capacity to train harder/longer (practical outcome in athletes).

  47. A Five-Ingredient Nutritional Supplement and Home-Based Resistance Exercise Improve Lean Mass and Strength in Free-Living Elderly

    PubMed ID: 32785021

    Older men on a creatine‑containing supplement achieved greater strength and lean mass with home resistance bands, suggesting improved training responsiveness/capacity.

  48. Creatine monohydrate enhances strength and body composition in Duchenne muscular dystrophy

    PubMed ID: 15159476

    Increased handgrip strength and FFM suggest improved capacity to perform/recover from training.

  49. Low-dose creatine combined with protein during resistance training in older men

    PubMed ID: 18685526

    Larger gains in lean mass and bench strength with creatine+protein in older men indicate increased capacity for training overload.

  50. Conjugated linoleic acid combined with creatine monohydrate and whey protein supplementation during strength training

    PubMed ID: 19403955

    Creatine-containing group gained more strength and showed reduced 3‑MH (less muscle breakdown) during heavy resistance training — implies higher capacity to train, though confounded.

  51. Effects of oral creatine loading on single and repeated maximal short sprints

    PubMed ID: 8599745

    Direct improvement in repeated short-sprint performance after creatine loading supports enhanced high-intensity performance.

  52. Creatine supplementation and swimming performance

    PubMed ID: 10477361

    Improved maintenance of pace across repeated ~30 s high-intensity swims in men.

  53. The effect of continuous low dose creatine supplementation on force, power, and total work

    PubMed ID: 10997950

    Greater total work to fatigue and maintained power extend training capacity in high-intensity sessions.

  54. Creatine supplementation alters the response to a graded cycle ergometer test

    PubMed ID: 11072779

    Raised ventilatory threshold allows higher submaximal workloads for longer—supports greater training capacity.

Muscle growth (33)
  1. Effects of in-season (5 weeks) creatine and pyruvate supplementation on anaerobic performance and body composition in American football players

    PubMed ID: 10362452

    Creatine increased body mass and lean body mass in college football players vs controls (direct evidence for increased size).

  2. The effect of short-term creatine loading on active range of movement

    PubMed ID: 20725117

    Five days of high-dose creatine loading increased body mass by ~1.6 kg in healthy men — common proxy for increased intracellular water and early increases in apparent muscle size.

  3. Effects of 12 Weeks of Essential Amino Acids (EAA)-Based Multi-Ingredient Nutritional Supplementation on Muscle Mass, Muscle Strength, Muscle Power and Fatigue in Healthy Elderly Subjects: A Randomized Controlled Double-Blind Study

    PubMed ID: 31021358

    Supplement containing creatine produced a between-group increase in appendicular lean mass (+0.53 kg) in older adults (multi-ingredient).

  4. Effects of creatine monohydrate and polyethylene glycosylated creatine supplementation on muscular strength, endurance, and power output

    PubMed ID: 19387397

    Some creatine groups had small but significant increases in body mass over 30 days (may reflect lean mass increases or water).

  5. Effect of creatine and beta-alanine supplementation on performance and endocrine responses in strength/power athletes

    PubMed ID: 17136944

    Trial reported increases in lean body mass (especially with combination), supporting muscle size gains with creatine.

  6. The Effect of Creatine Supplementation on Lean Body Mass with and Without Resistance Training

    PubMed ID: 40292479

    Short creatine wash-in produced measurable DXA lean mass gains (∆LBM) and maintenance-phase advantage over 12 weeks.

  7. Effect of Creatine Supplementation on Body Composition and Malnutrition-Inflammation Score in Hemodialysis Patients: An Exploratory 1-Year, Balanced, Double-Blind Design

    PubMed ID: 38474743

    12-month double-blind RCT in hemodialysis patients produced consistent increases in FFM and SMMI versus placebo.

  8. Supplementing With Which Form of Creatine (Hydrochloride or Monohydrate) Alongside Resistance Training Can Have More Impacts on Anabolic/Catabolic Hormones, Strength and Body Composition?

    PubMed ID: 39545789

    8‑week resistance training trial reported increases in skeletal muscle mass and limb CSA with creatine supplementation.

  9. Creatine supplementation elicits greater muscle hypertrophy in upper than lower limbs and trunk in resistance-trained men

    PubMed ID: 29214923

    Randomized trial in resistance‑trained men showed significant increases in upper-limb (+7.1%), lower-limb and trunk lean soft tissue with creatine vs placebo.

  10. Effect of creatine supplementation and drop-set resistance training in untrained aging adults

    PubMed ID: 27523919

    Direct RCT evidence: creatine + 12 weeks resistance training increased muscle mass vs placebo (P=0.007).

  11. Acute and chronic safety and efficacy of dose dependent creatine nitrate supplementation and exercise performance

    PubMed ID: 27034623

    CrM and CrN-High produced modest increases in fat-free mass over 28 days (CrN-High ≈+1.1 kg), consistent with increased muscle size.

  12. Can Creatine Supplementation Improve Body Composition and Objective Physical Function in Rheumatoid Arthritis Patients? A Randomized Controlled Trial

    PubMed ID: 26414681

    Twelve weeks of oral creatine in rheumatoid arthritis significantly increased appendicular lean mass (+0.52 kg).

  13. Strategic creatine supplementation and resistance training in healthy older adults

    PubMed ID: 25993883

    Creatine around training produced a clear, clinically meaningful increase in lean tissue mass (~+2.5 kg greater than placebo) in older adults.

  14. Creatine supplementation and resistance training in vulnerable older women: a randomized double-blind placebo-controlled clinical trial

    PubMed ID: 24530883

    Creatine + RT increased appendicular lean mass versus placebo or creatine alone in older women (statistically significant).

  15. Feasibility and efficacy of progressive resistance training and dietary supplements in radiotherapy treated head and neck cancer patients--the DAHANCA 25A study

    PubMed ID: 23190359

    Creatine+protein group gained more lean body mass (+2.6 vs +1.3 kg), suggesting an effect on muscle size, though protein and training confound attribution.

  16. Effect of different frequencies of creatine supplementation on muscle size and strength in young adults

    PubMed ID: 21512399

    Significant increases in elbow flexor thickness and leg muscle hypertrophy signals with creatine + RT in a randomized trial.

  17. Creatine fails to augment the benefits from resistance training in patients with HIV infection: a randomized, double-blind, placebo-controlled study

    PubMed ID: 19242554

    RCT in HIV‑positive adults: creatine increased lean body mass more than placebo (+2.3 kg vs +0.9 kg), direct evidence of increased muscle (or lean) size.

  18. Effect of creatine supplementation and resistance-exercise training on muscle insulin-like growth factor in young adults

    PubMed ID: 18708688

    Large intramuscular IGF‑I increases with creatine are consistent with a hypertrophic signal supporting increased muscle size.

  19. Creatine supplementation augments the increase in satellite cell and myonuclei number in human skeletal muscle induced by strength training

    PubMed ID: 16581862

    Randomized study showed creatine + training produced large increases in muscle fiber area (+14–17%) and cellular markers of hypertrophy — strong direct evidence for increased size.

  20. Effects of creatine supplementation on nutritional status, muscle function and quality of life in patients with colorectal cancer--a double blind randomised controlled trial

    PubMed ID: 16701923

    Modest increases in body cell mass and phase angle in a subgroup of colorectal cancer patients indicate a measurable anabolic/body‑composition effect.

  21. Creatine supplementation during pulmonary rehabilitation in chronic obstructive pulmonary disease

    PubMed ID: 15994258

    Creatine increased fat-free mass (lean mass) in COPD patients (≈+1.09 to +1.62 kg), indicating an increase in muscle size/lean tissue.

  22. Creatine supplementation combined with resistance training in older men

    PubMed ID: 11740307

    Older men RCT: creatine + resistance training increased lean tissue mass substantially vs placebo.

  23. The effect of whey protein supplementation with and without creatine monohydrate combined with resistance training on lean tissue mass and muscle strength

    PubMed ID: 11591884

    Whey+creatine produced larger gains in lean tissue mass vs whey or placebo.

  24. Comparison of creatine ingestion and resistance training on energy expenditure and limb blood flow

    PubMed ID: 11735088

    Creatine increased body mass and (with RT) muscle mass vs control.

  25. Creatine and beta-hydroxy-beta-methylbutyrate (HMB) additively increase lean body mass and muscle strength during a weight-training program

    PubMed ID: 11448573

    Lean body mass increased significantly with creatine (and additively with HMB) in resistance-trained subjects.

  26. Acute creatine loading increases fat-free mass, but does not affect blood pressure, plasma creatinine, or CK activity in men and women

    PubMed ID: 10694109

    Five-day high-dose creatine significantly increased fat-free mass and body mass — strong evidence for acute size/lean-mass gain.

  27. Conjugated linoleic acid combined with creatine monohydrate and whey protein supplementation during strength training

    PubMed ID: 19403955

    Creatine-containing multi-ingredient group had greater increases in lean tissue mass over 5 weeks versus non-creatine groups — supports muscle-size benefit though confounded by other supplements.

  28. Low-dose creatine combined with protein during resistance training in older men

    PubMed ID: 18685526

    Creatine+protein increased lean tissue mass by ~5.6% versus control in older men.

  29. Creatine monohydrate enhances strength and body composition in Duchenne muscular dystrophy

    PubMed ID: 15159476

    Four months creatine increased fat‑free mass in boys with Duchenne muscular dystrophy.

  30. A Five-Ingredient Nutritional Supplement and Home-Based Resistance Exercise Improve Lean Mass and Strength in Free-Living Elderly

    PubMed ID: 32785021

    Supplement (contains creatine 3 g/d) increased total lean mass (+1.09 kg) and appendicular lean mass in older men and increased Type II fiber CSA.

  31. Impact of differing protein sources and a creatine containing nutritional formula after 12 weeks of resistance training

    PubMed ID: 17679046

    Creatine‑containing formulas produced larger increases in fat‑free mass and total body mass over 12 weeks vs non‑creatine controls.

  32. Obesity and Metabolic Disease Impair the Anabolic Response to Protein Supplementation and Resistance Exercise: A Retrospective Analysis of a Randomized Clinical Trial with Implications for Aging, Sarcopenic Obesity, and Weight Management

    PubMed ID: 39771028

    Participants receiving a whey/casein multi-ingredient supplement that included creatine had increases in total and appendicular lean mass compared with collagen placebo — supports greater muscle size, though creatine-specific contribution cannot be isolated.

  33. A whey protein-based multi-ingredient nutritional supplement stimulates gains in lean body mass and strength in healthy older men: A randomized controlled trial

    PubMed ID: 28719669

    Whole-body lean mass increased with the multi-ingredient supplement containing creatine in older men — supports greater muscle size though contribution of creatine cannot be isolated.

Healthy aging (20)
  1. Effects of 12 Weeks of Essential Amino Acids (EAA)-Based Multi-Ingredient Nutritional Supplementation on Muscle Mass, Muscle Strength, Muscle Power and Fatigue in Healthy Elderly Subjects: A Randomized Controlled Double-Blind Study

    PubMed ID: 31021358

    Trial in older adults: supplement containing creatine increased appendicular lean mass, strength and peak power — directly relevant to sarcopenia prevention (multinutrient context).

  2. Effect of Creatine Supplementation on Body Composition and Malnutrition-Inflammation Score in Hemodialysis Patients: An Exploratory 1-Year, Balanced, Double-Blind Design

    PubMed ID: 38474743

    One-year RCT in clinically vulnerable adults increased FFM and SMMI, suggesting benefit for preserving/augmenting muscle mass.

  3. The role of resistance training and creatine supplementation on oxidative stress, antioxidant defense, muscle strength, and quality of life in older adults

    PubMed ID: 37206869

    In older adults, adding creatine to resistance training produced greater strength gains and antioxidant improvements versus training alone — direct support for aging muscle health.

  4. A 2-yr Randomized Controlled Trial on Creatine Supplementation during Exercise for Postmenopausal Bone Health

    PubMed ID: 37144634

    Two‑year creatine plus exercise in postmenopausal women preserved lean tissue in compliers and improved femoral bone geometry measures — long‑term direct evidence for musculoskeletal aging support.

  5. Creatine supplementation and resistance training in vulnerable older women: a randomized double-blind placebo-controlled clinical trial

    PubMed ID: 24530883

    RCT in older vulnerable women showed creatine + RT substantially improved strength and lean mass—direct evidence for aging-muscle support.

  6. Creatine supplementation associated or not with strength training upon emotional and cognitive measures in older women: a randomized double-blind study

    PubMed ID: 24098469

    Randomized trial in older women: creatine alone did not change cognition/mood but combined with strength training produced larger leg-press gains — relevant to sarcopenia/aging muscle support when paired with exercise.

  7. Effect of different frequencies of creatine supplementation on muscle size and strength in young adults

    PubMed ID: 21512399

    Creatine enhanced hypertrophy and strength gains during RT, outcomes relevant to sarcopenia prevention and healthy aging muscle maintenance.

  8. Creatine supplementation during pulmonary rehabilitation in chronic obstructive pulmonary disease

    PubMed ID: 15994258

    In a clinical population (COPD) with muscle impairment, creatine increased lean mass and muscle strength; this supports the concept of preserving/rehabilitating muscle in older or clinical populations.

  9. Creatine supplementation combined with resistance training in older men

    PubMed ID: 11740307

    Direct RCT in older men: creatine + resistance training produced clinically meaningful increases in lean mass, strength and power—strong support for healthy aging muscles.

  10. Low-dose creatine combined with protein during resistance training in older men

    PubMed ID: 18685526

    Older men experienced meaningful increases in lean mass and strength and reductions in muscle/bone breakdown with creatine+protein.

  11. Supplementation with Qter(®) and Creatine improves functional performance in COPD patients on long term oxygen therapy

    PubMed ID: 30170808

    CoQ10+creatine improved 6MWD and body composition in COPD patients (older population likely), but combination prevents clear attribution.

  12. A Five-Ingredient Nutritional Supplement and Home-Based Resistance Exercise Improve Lean Mass and Strength in Free-Living Elderly

    PubMed ID: 32785021

    Randomized double‑blind trial in older men: creatine‑containing supplement increased lean mass, Type II fiber CSA and strength—direct evidence for supporting aging muscle.

  13. Creatine plus β-Hydroxy-β-Methylbutyrate supplementation is associated with preserved glutathione redox-balance and redox-function associations in older adults: a secondary analysis of a randomized crossover trial

    PubMed ID: 41712056

    Randomized trial in active older adults showing preservation of glutathione redox indices with creatine+HMB—direct relevance to muscle health in aging (biomarker-level evidence).

  14. Obesity and Metabolic Disease Impair the Anabolic Response to Protein Supplementation and Resistance Exercise: A Retrospective Analysis of a Randomized Clinical Trial with Implications for Aging, Sarcopenic Obesity, and Weight Management

    PubMed ID: 39771028

    Multi-ingredient supplement (including creatine) improved lean mass and strength in older men at risk for sarcopenic obesity — evidence supports a role for the regimen in healthy aging muscles; creatine likely contributed but cannot be isolated.

  15. A whey protein-based multi-ingredient nutritional supplement stimulates gains in lean body mass and strength in healthy older men: A randomized controlled trial

    PubMed ID: 28719669

    Trial in older men: multi-ingredient supplement including creatine increased lean mass and strength and improved insulin sensitivity — supports sarcopenia-related outcomes though effects are not isolated to creatine.

  16. Dynamic phosphorus-31 magnetic resonance spectroscopy of the quadriceps muscle: effects of age and sex on spectroscopic results

    PubMed ID: 9951791

    Large MRS study showing Pi/PCr and ATP ratio changes with age—highly relevant baseline data for aging muscle energetics.

  17. Efficacy of Creatine Supplementation and Resistance Training on Area and Density of Bone and Muscle in Older Adults

    PubMed ID: 34107512

    One‑year randomized creatine (0.1 g·kg‑1·d‑1) + supervised RT in older adults produced modest but significant improvements in tibial bone area and lower‑leg muscle density — direct evidence supporting healthy aging muscles.

  18. Effect of creatine supplementation and drop-set resistance training in untrained aging adults

    PubMed ID: 27523919

    Study in untrained older adults: creatine + training increased muscle mass/body mass vs placebo — direct relevance to aging muscle support.

  19. Strategic creatine supplementation and resistance training in healthy older adults

    PubMed ID: 25993883

    Direct randomized study in adults 50–71 showed substantial increases in lean mass and strength with creatine plus training, strongly supporting muscle health in aging.

  20. Effects of Creatine and Resistance Training on Bone Health in Postmenopausal Women

    PubMed ID: 25386713

    12‑month creatine + resistance training preserved femoral neck BMD and improved bone geometry and strength in postmenopausal women—supports musculoskeletal health with aging.

Exercise recovery (15)
  1. Creatine monohydrate enhances strength and body composition in Duchenne muscular dystrophy

    PubMed ID: 15159476

    Four months creatine increased handgrip strength and FFM, consistent with improved recovery capacity.

  2. Low-dose creatine combined with protein during resistance training in older men

    PubMed ID: 18685526

    Low-dose creatine+protein reduced muscle‑breakdown markers and increased lean mass in older men, consistent with improved recovery.

  3. Creatine supplementation combined with resistance training in older men

    PubMed ID: 11740307

    Older men RCT: creatine+resistance training produced greater strength/lean mass and functional improvements—consistent with faster functional recovery.

  4. Combined creatine and protein supplementation in conjunction with resistance training promotes muscle GLUT-4 content and glucose tolerance in humans

    PubMed ID: 12524381

    Raised muscle glycogen and GLUT‑4 during retraining, which supports faster replenishment/recovery.

  5. Effect of low-dose, short-duration creatine supplementation on anaerobic exercise performance

    PubMed ID: 15903359

    Reduced fatigue rate during repeated short sprints (6 g/day ×6 days) — implies faster recovery between bouts.

  6. Effect of creatine supplementation and resistance-exercise training on muscle insulin-like growth factor in young adults

    PubMed ID: 18708688

    Creatine during resistance training raised intramuscular IGF‑I (growth/repair signal), plausibly aiding post-exercise repair.

  7. Short term effects of various water immersions on recovery from exhaustive intermittent exercise

    PubMed ID: 21132438

    Cold/contrast water immersion reduced CK and hastened short-term recovery of strength/power after exhaustive intermittent exercise (direct recovery outcome).

  8. Creatine supplementation prevents acute strength loss induced by concurrent exercise

    PubMed ID: 24840857

    Randomized creatine trial showed short-term creatine prevented acute strength‑endurance loss after aerobic exercise, directly supporting faster recovery of performance.

  9. Acute and chronic safety and efficacy of dose dependent creatine nitrate supplementation and exercise performance

    PubMed ID: 27034623

    CrM/CrN trial showed increased intramuscular creatine, power and workload over 28 days, which can translate to better acute recovery between efforts.

  10. Effects of 4-Week Creatine Supplementation Combined with Complex Training on Muscle Damage and Sport Performance

    PubMed ID: 30400221

    Randomized trial of creatine + training showed reduced post-exercise CK and faster recovery markers vs placebo.

  11. Effects of Combined Versus Single Supplementation of Creatine, Beta-Alanine, and L-Citrulline During Short Sprint Interval Training on Basketball Players' Performance: A Double-Blind Randomized Placebo-Controlled Trial

    PubMed ID: 40010353

    Randomized trial with creatine during sprint-interval training produced greater performance/adaptation vs placebo — supports faster recovery between/after sessions (direct creatine intervention).

  12. Effect of creatine phosphate sodium on bispectral index and recovery quality during the general anaesthesia emergence period in elderly patients: A randomized, double-blind, placebo-controlled trial

    PubMed ID: 29332430

    IV creatine phosphate sped emergence/recovery times after anesthesia (faster waking/extubation/PACU), analogous to faster physiological recovery.

  13. Short-term co-ingestion of creatine and sodium bicarbonate improves anaerobic performance in trained taekwondo athletes

    PubMed ID: 33478522

    Creatine (± bicarbonate) reduced post‑exercise lactate and improved power in taekwondo athletes — supports faster metabolic recovery.

  14. Impact of Optimal Timing of Intake of Multi-Ingredient Performance Supplements on Sports Performance, Muscular Damage, and Hormonal Behavior across a Ten-Week Training Camp in Elite Cyclists: A Randomized Clinical Trial

    PubMed ID: 34836002

    Multi‑ingredient supplement (contains creatine) reduced CK/LDH/myoglobin and improved recovery markers in elite cyclists (post‑workout benefits).

  15. The Effects of Creatine Monohydrate Supplementation on Recovery from Eccentric Exercise-Induced Muscle Damage: A Double-Blind, Randomized, Placebo-Controlled Trial Considering Sex and Age Differences

    PubMed ID: 40507040

    28‑day creatine loading then eccentric exercise showed faster MVC recovery and less soreness/fatigue (double‑blind RCT, n=40).

Hydration (13)
  1. The effect of short-term creatine loading on active range of movement

    PubMed ID: 20725117

    Rapid body mass gain (~1.6 kg) after 5-day creatine loading is consistent with intracellular water retention (commonly interpreted as improved muscle hydration).

  2. The Effect of Creatine Supplementation on Lean Body Mass with and Without Resistance Training

    PubMed ID: 40292479

    Wash-in creatine increased trunk LBM and body water metrics (DXA indicators of water/lean mass) — direct support for intracellular muscle hydration.

  3. Effect of Creatine Supplementation on Body Composition and Malnutrition-Inflammation Score in Hemodialysis Patients: An Exploratory 1-Year, Balanced, Double-Blind Design

    PubMed ID: 38474743

    Authors note FFM/SMMI increases may partly reflect intracellular water shifts, a known creatine effect on cell hydration.

  4. A Randomized Controlled Trial of Changes in Fluid Distribution across Menstrual Phases with Creatine Supplementation

    PubMed ID: 36678300

    Crossover RCT in women showed creatine loading significantly increased total, intracellular and extracellular body water vs placebo.

  5. Creatine supplementation elicits greater muscle hypertrophy in upper than lower limbs and trunk in resistance-trained men

    PubMed ID: 29214923

    Marked increases in lean soft tissue with creatine are often attributable in part to increased intracellular water; trial showed region-specific lean mass gains.

  6. Creatine Loading Does Not Preserve Muscle Mass or Strength During Leg Immobilization in Healthy, Young Males: A Randomized Controlled Trial

    PubMed ID: 28054322

    Muscle total creatine content increased ~19% after loading, which mechanistically implies increased intracellular osmotic load and water uptake (muscle hydration).

  7. The effects of creatine and whey protein supplementation on body composition in men aged 48 to 72 years during resistance training

    PubMed ID: 18309444

    Study measured intracellular/extracellular water; creatine is known to increase intracellular water and the trial showed ICW increases consistent with improved muscle hydration.

  8. Creatine supplementation and multiple sprint running performance

    PubMed ID: 16686553

    Small increase in body mass after creatine loading is commonly attributed to intracellular water retention (supporting hydration).

  9. Magnesium-creatine supplementation effects on body water

    PubMed ID: 14506619

    Mg–creatine supplementation increased intracellular water and shifted fluid compartments — direct evidence of creatine-associated cellular hydration.

  10. Effect of creatine and weight training on muscle creatine and performance in vegetarians

    PubMed ID: 14600563

    Creatine supplementation raised muscle total creatine/PCr, which is associated with cellular osmotic changes and increased cell water (muscle hydration).

  11. Comparison of creatine ingestion and resistance training on energy expenditure and limb blood flow

    PubMed ID: 11735088

    Total body water increased with creatine supplementation, supporting improved muscle hydration.

  12. Acute creatine loading increases fat-free mass, but does not affect blood pressure, plasma creatinine, or CK activity in men and women

    PubMed ID: 10694109

    Rapid increase in fat-free mass after loading is commonly attributed partly to intracellular water retention with creatine.

  13. Effects of in-season (5 weeks) creatine and pyruvate supplementation on anaerobic performance and body composition in American football players

    PubMed ID: 10362452

    Creatine increased body mass/lean mass over a season in footballers—consistent with intracellular water retention (typical creatine effect).

Focus & concentration (9)
  1. The effects of creatine supplementation on cognitive performance-a randomised controlled study

    PubMed ID: 37968687

    Six-week creatine (5 g/day) produced small, borderline improvements in working memory and reasoning in 125 adults — moderate evidence of modest effects on cognitive focus.

  2. Creatine in Huntington disease is safe, tolerable, bioavailable in brain and reduces serum 8OH2'dG

    PubMed ID: 16434666

    Increased brain creatine in Huntington disease supports a mechanistic basis for improved cognitive focus/processing.

  3. Prevention of complications related to traumatic brain injury in children and adolescents with creatine administration: an open label randomized pilot study

    PubMed ID: 16917445

    Six months of creatine in children/adolescents with TBI improved cognitive and behavioral outcomes in multiple domains (pilot study), supporting cognitive benefit in clinical population.

  4. Creatine supplementation and cognitive performance in elderly individuals

    PubMed ID: 17828627

    One-week creatine supplementation improved executive function and short-term memory tasks in older adults, consistent with improved cognitive focus (small sample).

  5. The influence of creatine supplementation on the cognitive functioning of vegetarians and omnivores

    PubMed ID: 21118604

    Creatine reduced reaction-time variability and improved some cognitive measures after 5 days, indicating better cognitive consistency/focus.

  6. Effect of creatine phosphate sodium on bispectral index and recovery quality during the general anaesthesia emergence period in elderly patients: A randomized, double-blind, placebo-controlled trial

    PubMed ID: 29332430

    Improved BIS and Steward recovery scores and faster emergence indicate better short-term cognitive/brain function after IV creatine phosphate in elderly patients.

  7. Acute creatine supplementation enhances technical performance in adolescent basketball players under cognitive-motor dual-task condition

    PubMed ID: 40758095

    Creatine improved ball-handling and passing under cognitive load and lowered perceived exertion — strong evidence for maintained focus under pressure.

  8. Effects of Creatine Monohydrate Augmentation on Brain Metabolic and Network Outcome Measures in Women With Major Depressive Disorder

    PubMed ID: 26822799

    Creatine augmentation raised prefrontal NAA and improved depressive symptoms (RCT), consistent with improved cognitive function/focus.

  9. Effects of a pre-workout supplement on lean mass, muscular performance, subjective workout experience and biomarkers of safety

    PubMed ID: 24465156

    Participants reported improved subjective energy and concentration after 6 weeks on a multi‑ingredient preworkout containing creatine (effect confounded by other ingredients).

Bone health (6)
  1. A 2-yr Randomized Controlled Trial on Creatine Supplementation during Exercise for Postmenopausal Bone Health

    PubMed ID: 37144634

    Two‑year creatine plus exercise did not increase femoral‑neck BMD but preserved/increased bone geometry measures (section modulus, cortical thickness) relative to placebo, supporting bone structural integrity.

  2. Efficacy of Creatine Supplementation and Resistance Training on Area and Density of Bone and Muscle in Older Adults

    PubMed ID: 34107512

    One‑year creatine + supervised RT produced small but significant increases in tibial total bone area and trabecular area (men) — direct evidence supporting bone outcomes.

  3. Effects of Creatine and Resistance Training on Bone Health in Postmenopausal Women

    PubMed ID: 25386713

    12‑month randomized trial in postmenopausal women showed creatine + resistance training preserved femoral neck BMD and improved femoral shaft geometry/strength versus placebo.

  4. Low-dose creatine combined with protein during resistance training in older men

    PubMed ID: 18685526

    NTx (bone breakdown) decreased ~27% with creatine+protein in older men, supporting bone benefit.

  5. Creatine monohydrate enhances strength and body composition in Duchenne muscular dystrophy

    PubMed ID: 15159476

    Creatine reduced N‑telopeptides (bone breakdown marker) in boys with Duchenne muscular dystrophy.

  6. Calcium supplementation reduces vertebral bone loss in perimenopausal women: a controlled trial in 248 women between 46 and 55 years of age

    PubMed ID: 1874931

    Study shows calcium reduced lumbar bone loss in perimenopausal women — evidence for bone support but unrelated to creatine supplementation.

Mood balance (7)
  1. Prevention of complications related to traumatic brain injury in children and adolescents with creatine administration: an open label randomized pilot study

    PubMed ID: 16917445

    Creatine supplementation for six months post-TBI produced improvements in personality/behavior and functional domains, suggesting mood/behavioral resilience benefits in that cohort.

  2. A randomized, double-blind placebo-controlled trial of oral creatine monohydrate augmentation for enhanced response to a selective serotonin reuptake inhibitor in women with major depressive disorder

    PubMed ID: 22864465

    Double-blind RCT showed faster and greater antidepressant response and higher remission rates when oral creatine was added to escitalopram in women with major depression.

  3. A randomized, double-blind, placebo-controlled, proof-of-concept trial of creatine monohydrate as adjunctive treatment for bipolar depression

    PubMed ID: 29177955

    Small RCT in bipolar depression found higher categorical response/remission rates with adjunctive creatine (noted mood benefit).

  4. Efficacy and safety profile of oral creatine monohydrate in add-on to cognitive-behavioural therapy in depression: An 8-week pilot, double-blind, randomised, placebo-controlled feasibility and exploratory trial in an under-resourced area

    PubMed ID: 39488067

    Randomized placebo-controlled trial: creatine adjunct to CBT produced clinically meaningful reductions in PHQ-9 vs placebo+CBT, directly supporting mood benefits.

  5. Effects of Creatine Monohydrate Augmentation on Brain Metabolic and Network Outcome Measures in Women With Major Depressive Disorder

    PubMed ID: 26822799

    Randomized trial: creatine added to SSRI produced greater improvement in depressive symptoms and neurochemical markers.

  6. Creatine target engagement with brain bioenergetics: a dose-ranging phosphorus-31 magnetic resonance spectroscopy study of adolescent females with SSRI-resistant depression

    PubMed ID: 26907087

    Adjunctive oral creatine in SSRI-resistant adolescent females increased frontal PCr and correlated with larger reductions in depression scores — reasonably strong signal for mood/resilience benefit in this population.

  7. Creatine supplementation in Parkinson disease: a placebo-controlled randomized pilot trial

    PubMed ID: 17030762

    Two‑year randomized PD trial reported mood improvement with creatine — direct clinical evidence for mood benefit.

Tissue repair (7)
  1. Low-dose creatine combined with protein during resistance training in older men

    PubMed ID: 18685526

    Reduced urinary 3‑methylhistidine and improved lean mass with creatine+protein indicate reduced muscle breakdown/repair benefit.

  2. The Effects of Creatine Monohydrate Supplementation on Recovery from Eccentric Exercise-Induced Muscle Damage: A Double-Blind, Randomized, Placebo-Controlled Trial Considering Sex and Age Differences

    PubMed ID: 40507040

    Creatine accelerated MVC recovery and reduced soreness/fatigue after eccentric exercise, indicating faster functional muscle repair.

  3. Creatine supplementation augments the increase in satellite cell and myonuclei number in human skeletal muscle induced by strength training

    PubMed ID: 16581862

    Creatine + training increased satellite cells and myonuclei and rapidly increased fiber area, implying enhanced muscle repair/adaptation when combined with resistance training.

  4. Effect of creatine supplementation and resistance-exercise training on muscle insulin-like growth factor in young adults

    PubMed ID: 18708688

    Marked increase in intramuscular IGF‑I with creatine during training supports muscle repair/growth signaling.

  5. Effects of 4-Week Creatine Supplementation Combined with Complex Training on Muscle Damage and Sport Performance

    PubMed ID: 30400221

    Creatine + training trial showed lower CK after bouts versus placebo, suggesting faster/less extensive muscle damage and potentially faster repair.

  6. Short-term co-ingestion of creatine and sodium bicarbonate improves anaerobic performance in trained taekwondo athletes

    PubMed ID: 33478522

    Creatine (± bicarbonate) reduced lactate and improved power in taekwondo athletes and is associated with reduced markers of fatigue — supports faster repair/return to function.

  7. Impact of Optimal Timing of Intake of Multi-Ingredient Performance Supplements on Sports Performance, Muscular Damage, and Hormonal Behavior across a Ten-Week Training Camp in Elite Cyclists: A Randomized Clinical Trial

    PubMed ID: 34836002

    Multi‑ingredient supplement including creatine markedly lowered CK/LDH/myoglobin versus control — evidence for enhanced muscle repair/reduced damage.

Blood sugar (4)
  1. Combined creatine and protein supplementation in conjunction with resistance training promotes muscle GLUT-4 content and glucose tolerance in humans

    PubMed ID: 12524381

    Creatine (with retraining) increased GLUT‑4 and glycogen; creatine+protein reduced oral glucose AUC significantly, directly supporting improved glucose handling.

  2. A whey protein-based multi-ingredient nutritional supplement stimulates gains in lean body mass and strength in healthy older men: A randomized controlled trial

    PubMed ID: 28719669

    The multi-ingredient whey/creatine-containing supplement improved HOMA-IR and reduced glucose/insulin AUC in older men — direct evidence of improved glucose handling in the trial context (attribution not exclusive to creatine).

  3. Effect of thiol antioxidant on body fat and insulin reactivity

    PubMed ID: 15007512

    Creatine co-treatment reversed NAC-induced insulin resistance and glucose intolerance in non-diabetics (clinical evidence of improved glucose handling in this context).

  4. A nitroalkene derivative of salicylate, SANA, induces creatine-dependent thermogenesis and promotes weight loss

    PubMed ID: 40527924

    Phase‑1 drug (SANA) improved insulin resistance via creatine‑dependent adipose thermogenesis (mechanistic link to creatine pathways; indirect to supplementation).

Memory (4)
  1. Creatine supplementation and cognitive performance in elderly individuals

    PubMed ID: 17828627

    Short-term creatine improved forward number recall and other memory tasks in older adults — direct evidence for memory improvement.

  2. The influence of creatine supplementation on the cognitive functioning of vegetarians and omnivores

    PubMed ID: 21118604

    Randomized double-blind trial: 5 days of creatine improved memory in vegetarians — direct positive evidence for memory enhancement.

  3. Creatine in Huntington disease is safe, tolerable, bioavailable in brain and reduces serum 8OH2'dG

    PubMed ID: 16434666

    Oral creatine raised brain creatine and reduced oxidative DNA damage in Huntington disease — mechanistic support for effects on memory/learning.

  4. Prevention of complications related to traumatic brain injury in children and adolescents with creatine administration: an open label randomized pilot study

    PubMed ID: 16917445

    Six-month creatine in pediatric TBI improved cognitive outcomes including communication and self-care, indicating a positive effect on memory/learning in a clinical group (pilot, open-label).

Forms of Creatine

The form a label may print instead of Creatine. Each is a different substance with its own identifier, and none of them has research of its own — the studies are the ones on this page.

Similar by evidence

Supplements the same benefits carry qualifying findings for — a fact about the evidence graph, not a recommendation to swap.

Products with Creatine

Search all

281 products whose verified label declares Creatine — not every bottle that mentions it in a title.

Being studied right now

Recruiting clinical trials registered on ClinicalTrials.gov. A trial in progress has no result yet — this is what the field is asking, not what it found.