Creatinine Levels In Blood And Organs

Creatine allows for increased storage of ATP. “The transfer of a molecule of phosphorous from creatine phosphate to adenosine diphosphate(ADP) results in the formation of ATP. …since the muscle creatine phosphate concentrations can fall to almost zero, it(creatine consumption) can make a significant contribution to the energy supply needed for brief bursts of very high-intensity exercise,” says Dr. Bolotte. The equation for the synthesis of ATP from creatine phosphate and ADP is as follows: PCr + ADP forms ATP + Cr. (http://www.lsms.org/journal/98creat.html) Also, lactic acid levels, which cause muscles to burn during workouts, are lowered by the consumption of creatine. Without the burning sensation, athletes don’t feel the need to stop exercising. Athletes begin their creatine process with a loading phase of twenty grams per day for five days. Then, they consume three to five grams per day. (http://www.mothernature.com/ency/supp/creatine_monohydrate.asp) Many studies have exhibited gains after this process of consumption.

Creatine phosphate has been heavily experimented upon to show that it is an important effector towards muscle activity. When creatine phosphate is present in a solution containing muscle fibers without the presence of ATP, it serves as the energy supplier due to the fact that it absorbs bound adenine nucleotide, which is firmly linked to the contractile elements on muscle fibers (Bozler, 1953). Even in low concentrations this nucleotide can be considered an energy transfer mechanism, for it takes full advantage of the creatine phosphates energy supply, thus acting as a substrate for the enzymatic activity of the contractile elements of a muscle group. Consumption of this nucleotide leads to an increase in the strength of contraction. Creatine phosphate also speeds up rate of relaxation of muscles, for it induces the relaxing effect of ATP (Bozler, 1953). Thus, this research suggests that creatine phosphate is directly linked to instigate muscle contractibility.

     How does Creatine work? When somebody is exercising, his or her muscles demand energy. The energy that the muscle gets is called adenosine triphosphate (ATP). As the muscles keep contracting, the ATP is turned into adenosine diphosphate (ADP). ADP causes your muscles to fatigue. Creatine Phosphate helps to convert ADP into ATP when the ATP is gone. In doing this, the athlete has better endurance during his of her workout or event.

Although creatine is fairly expensive (fifty dollars for a one month supply), the original results of creatine testing and usage were very positive. Creatine supplementation helps the body by increasing the amount of creatine in the muscles, thus enabli ng the body to put out more energy more quickly. It was first discovered in the early 1900s, before creatine supplements were available, that increasing dietary creatine in turn increases the amount of creatine in the muscles (Jenkins). Supplementation of creatine in the diet leads to even higher levels of muscular creatine. Research has confirmed this. Current data indicate that muscle creatine levels increase, on average, 20% after six days of creatine supplementation at twenty grams per day (Eichne r 76). This increase of creatine in the muscles in turn increases the body's potential for exertion. Once creatine supplements were tested in humans, those increases were

Creatine (Cr) is a popular dietary supplement used by athletes to increase sports performance, muscle mass, and strength. Creatine was first discovered in “1835, when a French scientist reported finding this constituent of meat” (Demant & Rhodes, 1999). This organic compound is manufactured endogenously by the liver and kidneys “from the amino acids glycine, arginine and methionine” for energy stipulation during muscular contraction. (Arazi, Rahmaninia, Hoseini, & Asadi, 2011). Creatine is either converted into free form Cr or phosphorylated form as known as creatine phosphate (CP). The endogenous production and exogenous consumption of Cr yields about 1 gram a day for the average person (Cooper, Naclerio, Allfrove , & Jimenez, 2012). In

From a very early age sports are introduced upon both young boys and girls. Although it begins with sportsmanship and teamwork, it begins to evolve into new objectives when these young athletes enter high school. In fact, high school sports are vastly different. Your mind is trained to obliterate the opponent and win at all costs. This mentality can often lead many young athletes to turn to supplements to assist in muscle building. The most common supplement in use currently is Creatine. While athletic departments and sports nutrition stores claim that it is harmless, why do so many high school athletes end up with severe muscular and pulmonary damage? The answer has yet to be clearly

The first article starts off by giving a detailed biochemical explanation on the function of creatine in the body. It describes how creatine is used to make up ATP molecules which are used by our body for energy. Creatine is most commonly found in skeletal muscle and is synthesized from amino acids by the liver, the pancreas and the kidneys.

Creatine is a “metabolite” that occurs innately in the human anatomy. It occupies red muscle tissue, and

Creatine is the primary metabolic fuel for high intensity, short duration movements such as sprinting, lifting heavy weights, and jumping to maximal heights (Smith-Ryan & Antonio, 2013), and a significant body of research (it is the most extensively studied ergogenic aid) reports supplementation during training can optimize muscle creatine stores, increased high-intensity intermittent work output, and promote greater gains in strength and muscle mass, plus Cr has been demonstrated to provide some therapeutic benefits in clinical populations (Kreider, 2008, p. 430). Cr is also known as methylguanidinoacetic acid, which is an amino acid derived compound chemically classified as a non-protein nitrogen (Smith-Ryan & Antonio, 2013). Cr can be

In the human body, there are systems that provide different functions and help the body to operate more efficiently. The urinary system is one in particular designed to help the body remain free of excess that we no longer need. “The urinary tract is the drainage system used for removing wastes and extra water. The urinary tract includes two kidneys, two ureters, a bladder, and a urethra. The kidneys are a pair of “bean-shaped” organs, each about the size of a fist. The kidneys are located below the ribs, one on each side of the spine, towards the middle of the back.” (NIDDK, 2013) Every several minutes, your kidneys filter around three ounces of blood, also then removing wastes and extra water. That extra water and

The basics of creatine are a compound formed in the protein metabolism and are present in most living tissue. It is involved in the supply of energy for muscular contraction.

There are also a few tests that will show whether or not the kidneys are filtering the body’s fluids as they should. A simple urinalysis can be done to detect protein or blood in the urine. This will alert the medical professionals to a possible problem with the proper functioning of the kidneys. There are also Blood Urea Nitrogen (BUN), creatinine, and glomerular filtration rate (GFR) tests that will measure the

In Kidney failure cases urea, creatine, uric acids and electrolytes move from the blood to the dialysate with the net effect of lowering their concentration in the blood. RBC s WBC s and plasma proteins are too large to diffuse through the pores of the membrane. Hemodialysis patient are exposed to 120 to 130 L of water during each dialysis treatment. Small molecular weight substances can pass from the dialysate in to patient’s blood. So the purity of water used for dialysis is monitored and controlled.

Creatine helps in increasing speed, power, and size of the muscles, strength endurance and tolerance to fatigue.

Mr. Armstrong has a history of renal insufficiency and uncontrolled hypertension, along with symptoms of fatigue, pedal edema, and occasional shortness of breath. He does not have a history of trauma or obstruction to his kidneys, but his creatinine and BUN levels are currently at 3.5 mg/dl and 40 mg/dl. Normal creatinine concentration values are 0.7 to 1.2 mg/dl and normal BUN values are 10 to 20 mg/dl; this reveals that Mr. Armstrong’s kidneys are not removing wastes properly (McCance, Huether, Brashers, & Rote, 2014).  Mr. Armstrong’s history of renal insufficiency and uncontrolled hypertension is commonly found in patients diagnosed with intrarenal (intrinsic) acute renal failure. Intrarenal acute renal failure can be categorized as