Everything below concerns Anhydrous creatine. We keep the language plain, cite what the science says, and separate well-supported claims from open questions.
Updated 2025-12-05. Numbers and descriptions here follow the published literature rather than marketing material.
Creatine is synthesized endogenously in humans, mainly in the liver, kidney, and pancreas, from the amino acids arginine, glycine, and methionine. Skeletal muscle stores much of the body's creatine, where it participates in the phosphocreatine system that buffers adenosine triphosphate during short, intense contractions. Dietary sources include meat and fish, so omnivorous diets provide additional creatine beyond endogenous production. Supplemental creatine monohydrate supplies the same molecule found in food and tissues, not a distinct drug or hormone. Research interest centers on its role in cellular energy transfer and its effects on muscle and other tissues.
Several creatine forms are sold, including monohydrate, anhydrous, hydrochloride, nitrate, citrate, and blends. Once dissolved, these forms deliver creatine, but they differ in molar mass, solubility, counterions, and water content. Creatine monohydrate has the largest body of published human data among these forms. Questions remain about whether any alternative form offers meaningful advantages in absorption, tolerability, or tissue uptake under practical conditions. The hydrate form's lower creatine content by mass is a compositional fact, not a statement about effectiveness.
Creatine monohydrate is a crystalline compound formed when one molecule of creatine associates with one molecule of water in the solid lattice. Its molecular formula is C4H11N3O3, and its molar mass is about 149.15 grams per mole. The material appears as a white, odorless powder that dissolves sparingly in water at room temperature. The monohydrate designation distinguishes it from anhydrous creatine, which lacks the bound water and has a lower molar mass. This hydrate is the most common commercial form of creatine used in nutritional and research settings.
Creatine was first identified in skeletal muscle extracts in the nineteenth century, and its role in phosphagen energy buffering was clarified in the twentieth century. The monohydrate salt became widely studied after methods for inexpensive synthesis and crystallization were developed. Modern research examines its effects on muscle energetics, recovery, and cognitive performance under specific conditions. Findings vary with population, exercise protocol, baseline creatine status, and measurement method. Studies often compare supplementation with placebo during controlled training or testing schedules.
Creatine monohydrate is a hydrated form of creatine, a nitrogen-containing compound involved in cellular energy metabolism. Its molecular formula is C4H9N3O2·H2O, with a molar mass around 149.15 g/mol. The monohydrate is the most common solid form used in research and commercial settings because it crystallizes readily and remains stable under ordinary conditions. The term monohydrate indicates one water molecule per creatine molecule in the crystal lattice. It appears as a white crystalline powder with low odor.
In the body, creatine is synthesized from arginine, glycine, and methionine, mainly in the liver and kidneys, and is also obtained from foods such as meat and fish. About 95% of body creatine is stored in skeletal muscle, where a fraction is phosphorylated to phosphocreatine. Phosphocreatine serves as a rapid reserve of high-energy phosphate for short bursts of ATP regeneration. The monohydrate form supplies creatine after dissolution and absorption, but it is not itself the active phosphorylated species.
| Property | Value | Notes |
|---|---|---|
| Chemical formula | C4H11N3O3 | Often written C4H9N3O2·H2O |
| Molar mass | 149.15 g/mol | Anhydrous creatine is 131.13 g/mol |
| Appearance | White crystalline powder | Odorless, fine or granular |
| Water solubility | About 13 g/L at 25 °C | Low; increases with temperature |
| Common synonyms | Creatine hydrate; N-carbamimidoylsarcosine monohydrate | CAS 6020-87-7 |
In aqueous solution, creatine monohydrate exists mainly as a zwitterion, carrying both a positive guanidinium charge and a negative carboxylate charge. This charge separation raises water solubility relative to many neutral organic solids and helps explain its behavior in analytical separations. The monohydrate can lose its water of crystallization under sustained heat or low humidity, converting toward anhydrous creatine. Such transitions matter for mass balance calculations because the hydrate contributes water mass that is not part of the active creatine molecule.
The term creatine monohydrate is often shortened to creatine in casual usage, though other creatine forms exist, including citrate, nitrate, and hydrochloride salts. These alternative forms differ in solubility, pH behavior, and the amount of creatine delivered per unit mass. Regulatory categories vary by country: some jurisdictions treat it as a food ingredient, while others place it under supplement or drug frameworks depending on claims and presentation. Standard reference texts list it as a naturally occurring nitrogenous organic acid rather than a vitamin or mineral.
Creatine monohydrate is stable under dry, cool conditions but can degrade when exposed to moisture and heat. In solution, it undergoes hydrolysis to creatinine, a cyclic derivative with little role in phosphagen energy transfer. The rate of conversion increases with temperature, storage time, and acidic or alkaline pH. Solid material kept in a sealed container at room temperature generally retains its composition for extended periods. Moisture uptake is a primary concern because it can accelerate breakdown and caking.
Analytical laboratories commonly use high-performance liquid chromatography to separate creatine from creatinine and related impurities. Ion chromatography, nuclear magnetic resonance, and titration assays can also quantify the compound. Water content is measured by Karl Fischer titration or loss on drying, because the monohydrate has a defined theoretical water fraction. Particle size, bulk density, and flowability are physical properties that affect blending and capsule filling. These measurements support quality control and help verify that a lot matches its specification.
Laboratory analysis of creatine monohydrate typically uses high-performance liquid chromatography to separate creatine from creatinine and other impurities. Detection may be ultraviolet, refractive index, or mass spectrometric, depending on the laboratory's equipment and the required sensitivity. Nuclear magnetic resonance spectroscopy can quantify the main component and identify related substances. Water content is measured by Karl Fischer titration, which is important because the monohydrate has a defined theoretical hydration level. Heavy metals, residual solvents, and microbial limits are also checked in quality control programs.
Commercial creatine monohydrate is produced mainly by chemical synthesis rather than extraction from animal tissue. Suppliers provide a certificate of analysis listing assay, water content, and impurity limits, and some products undergo third-party testing. Verification of identity can use infrared or Raman spectroscopy alongside chromatographic methods. Storage recommendations generally call for a cool, dry place and a tightly closed container to limit moisture uptake. Open questions include how packaging, flavoring agents, and long-term storage affect the stability of finished products.
Dry creatine monohydrate is generally stable when kept sealed and protected from heat and moisture. In solution, however, creatine undergoes a slow cyclization to creatinine, a related compound with no role in phosphocreatine storage. The rate of this conversion increases with temperature and is influenced by pH. Because creatinine is a common impurity in liquid or poorly stored products, analytical testing often measures both compounds. The crystalline monohydrate is less prone to degradation than aqueous preparations, though caking can occur if moisture enters the container.
Alkanes form a small portion of the atmospheres of the outer gas planets such as Jupiter (0.1% methane, 2 ppm ethane), Saturn (0.2% methane, 5 ppm ethane), Uranus (1.99% methane, 2.5 ppm ethane) and Neptune (1.5% methane, 1.5 ppm ethane). Titan (1.6% methane), a satellite of Saturn, was examined by the Huygens probe, which indicated that Titan's atmosphere periodically rains liquid methane onto the moon's surface. Also on Titan, the Cassini mission has imaged seasonal methane/ethane lakes near the polar regions of Titan. Methane and ethane have been detected in the tail of the comet Hyakutake. Chemical analysis showed that the abundances of ethane and methane were roughly equal, which is thought to imply that its ices formed in interstellar space, away from the Sun, which would have evaporated these volatile molecules. Alkanes have been detected in meteorites such as carbonaceous chondrites.
Fränzi Mägert-Kohli (born 1982), Swiss snowboarder. Kabir Kohli (born 2000), Indian footballer. Palak Kohli (born 2002), Indian professional Para-badminton player. Parth Kohli (born 1996), Indian cricketer. Nikhil Kohli (born 1996), Indian cricketer. Shah Kohli (born 1976), Indian Judo player. Shashwat Kohli (born 1997), Indian cricketer. Sushil Kohli (born 1953), Indian swimmer and water polo player, Asian Games bronze medalist. Taruwar Kohli (born 1988), Indian cricketer.
=== Max Braverman === Max Braverman (Max Burkholder) is Adam and Kristina's son (age 8 in the series pilot episode, although he is 14 in season 5) who is diagnosed with Asperger's syndrome at the beginning of the first season. His struggles and triumphs with this syndrome affect much of what happens in his family. Max is unaware of his diagnosis in the early episodes (although he is enthusiastic about participating in a "Walk for Autism"), but during the second season he learns about it after witnessing an argument between Adam and Crosby. His parents decide to transfer him to a mainstream school after being told that Max is very intelligent. In the season 2 finale, while at the hospital Max becomes very angry, saying that he wants pancakes more than he cares about Amber, even going as far as saying that doesn't care about her. Adam scolds Max for his hurtful comments, but Max believes he didn't do anything wrong, though at the end he apologizes to Sarah for what he said. In season 3, Max has been mainstreamed into a normal school, to challenge him academically. He is trying hard to make friends, though it proves difficult. He does make a friend in season 3, a boy with spina bifida named Micah, whose parents are thrilled because, like Max, he's never had a friend before. It is also discovered that Max is academically gifted. Though socially behind others his age, he is academically far above most others his age and older. In the fourth season, he is elected class president of Cedar Knoll Middle School with some help from his older sister Haddie.
== Cause == The cause of lipedema is still unknown. There are various hypotheses about its pathophysiology, including altered adipogenesis, microangiopathy, and damage to the lymphatic system disturbing its microcirculation. Lipedema has been described in familial clusters, suggesting a genetic component. It often appears around times of hormonal change such as puberty, pregnancy, and menopause, suggesting a potential hormonal component. Having obesity does not cause lipedema, but more than half of people with the condition have a BMI higher than 35.
== Dietary sources == NMN is found in fruits and vegetables such as edamame, broccoli, cabbage, cucumber and avocado at a concentration of about 1 mg per 100g, making these natural sources impractical to acquire the quantities needed to accomplish the dosing.
Sources: en.wikipedia.org
Bali in Indonesia Bengaluru the capital of Karnataka, India Chennai the capital of Tamil Nadu, India Chiang Mai in Thailand Loma Linda, California in the United States Shashamane in Oromia Region, Ethiopia Varanasi in Uttar Pradesh, India
Vitamin B12 is included in multivitamin pills; in some countries grain-based foods, such as bread and pasta, are fortified with B12. In the US, non-prescription products can be purchased providing up to 1,000 μg each, and it is a common ingredient in energy drinks and energy shots, usually at many times the recommended dietary allowance of B12. The vitamin can also be supplied on prescription and delivered via injection or other means. When used in supplementation, all of the vitamin B12 vitamers have been argued to be beneficial, with there not being clear evidence that any are relatively more or less effective. The amount of cyanide in cyanocobalamin is generally not considered a health risk, since even in a 1,000 μg dose, the 20 μg of cyanide it contains is less than the daily consumption of cyanide from food.
==== Attention deficit hyperactivity disorder ==== Modafinil is occasionally prescribed off-label for individuals with attention deficit hyperactivity disorder (ADHD). It has not consistently shown efficacy in treating adult ADHD, especially when compared to other treatments such as lisdexamfetamine. In children, modafinil shows efficacy for ADHD symptoms in clinical trials, though it is less effective than first-line treatments such as methylphenidate and amphetamines. Modafinil was investigated for ADHD because of its lower abuse potential than conventional psychostimulants, but evidence for adult ADHD is mixed. A 2016 systematic review did not recommend its use, and a large Phase III trial found modafinil ineffective with a high rate of side effects (86%) and discontinuation (47%), possibly due to high doses (210–510 mg/d). A 2008 US Food and Drug Administration application for pediatric ADHD was denied due to concerns about rare but serious dermatological toxicity. Modafinil is considered a second-line treatment for comorbid ADHD and bipolar disorder, after psychostimulants and bupropion.
In 2014 the same team from the Scripps Research Institute reported that they synthesized a stretch of circular DNA known as a plasmid containing natural T-A and C-G base pairs along with the best-performing UBP Romesberg's laboratory had designed, and inserted it into cells of the common bacterium E. coli that successfully replicated the unnatural base pairs through multiple generations. This is the first known example of a living organism passing along an expanded genetic code to subsequent generations. This was in part achieved by the addition of a supportive algal gene that expresses a nucleotide triphosphate transporter which efficiently imports the triphosphates of both d5SICSTP and dNaMTP into E. coli bacteria. Then, the natural bacterial replication pathways use them to accurately replicate the plasmid containing d5SICS–dNaM. The successful incorporation of a third base pair into a living micro-organism is a significant breakthrough toward the goal of greatly expanding the number of amino acids which can be encoded by DNA, thereby expanding the potential for living organisms to produce novel proteins. The artificial strings of DNA do not encode for anything yet, but scientists speculate they could be designed to manufacture new proteins which could have industrial or pharmaceutical uses.
Sources: en.wikipedia.org
It is the hydrated crystalline form of creatine, containing one bound water molecule per creatine unit. The compound is commonly used as a nutritional ingredient and as a research material.
Yes, endogenous synthesis occurs mainly in the liver, kidney, and pancreas. Meat and fish also contribute creatine to the diet.
Other forms contain creatine paired with different counterions or lacking water, so their mass and solubility differ. After dissolution, creatine itself is the shared active molecule.
Creatine is the base compound, while creatine monohydrate is a solid crystalline form that contains one water molecule per creatine molecule. Once dissolved, the monohydrate dissociates and releases creatine, which can participate in cellular energy metabolism. The monohydrate is the form most commonly used in research and commercial products.