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Corn Syrup High Fructose

Corn syrup is glucose produced from corn starch in a process called wet milling. Wet milling isolates the components of the corn through chemical or biochemical separation. The sugars are further separated by the use of enzymes. Since fructose is sweeter but not naturally found in corn, scientists have ways to convert the glucose into fructose. High fructose corn syrup (HFCS), also known as corn sugar, is a combination of glucose and fructose. Depending on the level of sweetness, the glucose to fructose ratio is adjusted. For example HFCS 55 is 55% fructose and is usually used in soft drinks. HFCS 42 is 42% fructose and used in foods that require only a little sweetening. The chemical composition of high fructose corn syrup is similar to that of sucrose, or table sugar. Still, the Food and Drug Administration (FDA) declared that under the formal definition of “natural,” HFCS does not meet the requirements. The enzymes that are used to separate the sugars are synthetic, deeming HFCS unnatural. Also, there has been controversial evidence showing that the consumption of HFCS is associated with obesity.

Gutierrez, David. "FDA Says High Fructose Corn Syrup Cannot Be Considered "Natural"" Independent News on Natural Health, Nutrition and

More. 12 Jan. 2009. Web. 16 May 2011. .

Hofstrand, Don. "Specialty Grain Terms A3-50 December 2006." Iowa State University Extension. Dec. 2006. Web. 16 May 2011.

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Wilson, J. Justin. "Op-Ed." Center for Consumer Freedom. 15 June 2009. Web. 16 May 2011.

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Sugar produced from cornstarch; comprised of glucose (dextrose), maltose and higher sugars; 70 percent to 80 percent solids

Sugar based sweeteners are those such as that developed from corn starch. The development of the various types of corn syrups, maltodextrins, and high-fructose corn syrup from corn starch sources could be called one of the greatest changes in the sugar and sweetener industry over several centuries. In the late 1800s it was found that corn starch could be hydrolyzed and a sugar formed. It was not until the 1970s that it became commercially a major product bringing about changes in the food industry. Over-reliance in the food industry and over-indulgence by consumers of these processed sugers, particularly high fructose corn syrup, has most likly contributed to obesity in many western countries.



These sweeteners are processed and refined using a series of separation, and grinding processes. Finally, the products are converted and fermented. From this processing a five classes of corn sweeteners are formed. This does not include the corn syrup conversion into high-fructose corn syrup.

Water is the most abundant nutrient in our body and plays an important transmission function in every body cell and tissue. Sixty percent of our body weight is water. The fact that you can live without food for a long period of time, even months, but live only for a few days without water is true. Under normal conditions, the body releases about one quart of water daily. Therefore, replacement to equal the losses is very important for survival.

Dehydration is the most common problem of water imbalance due to water losses and deprivation. The effects of dehydration on nutrition can adversely affect ones health. Dehydration is the major cause of ones diminished ability to perform during endurance activities. Body water is lost through the stomach, respiration, sweat, and the kidneys. It is recomended that 24oz of water a day should be taken. This amount can double or even triple with endurance type exercise.



A note about water: More and more evidence shows the benifit of being well hydrated.

Studies show that 75% of Americans are chronically dehydrated (likely applies to half the world's population), leading to possible health problems such as fatigue. In 37% of Americans, the thirst mechanism is so weak that it is often mistaken for hunger, leading to over-eating. Even MILD dehydration will slow down one's metabolism as much as 3%.



Bottled Water: Some types of bottled water are not subject to the same regulations as tap water. These are regulated as food products, and their regulations are largely related to sanitary food handling and processing practices. Bottled water manufacturers will provide a detailed report on the quality of their product to consumers who call to request it.

Flavor(s) Natural & Artificial

A combination of both what is considered “natural” and “artificial” flavoring under the Federal Drug Administration(FDA) Regulations. Artificial flavoring “means any substance, the function of which is to impart flavor, which is not derived from a spice, fruit or fruit juice, vegetable or vegetable juice, edible yeast, herb, bark, bud, root, leaf or similar plant material, meat, fish, poultry, eggs, dairy products, or fermentation products thereof.” In other words, substances not found in nature to add flavor to a substance is considered artificial. See Artificial Flavor. Natural flavoring “means the essential oil, oleoresin, essence or extractive, protein hydrolysate, distillate, or any product of roasting, heating or enzymolysis, which contains the flavoring constituents derived from a spice, fruit or fruit juice, vegetable or vegetable juice, edible yeast, herb, bark, bud, root, leaf or similar plant material, meat, seafood, poultry, eggs, dairy products, or fermentation products thereof, whose significant function in food is flavoring rather than nutritional.” See Natural Flavor.

Code of Federal Regulations Title 21 of the Us. Food and Drug Administration. Title 21. Volume 2. Revised 1 April 2010.

Cellulose may be used in foods as a hydrocolloid. As a vegetable gum, it serves a major role as a stabilizer. Cellulose is also frequently used as a fat replacer or substitute. In foods, the cellulose ingredients are insoluble fibrous particles that are capable of holding water and suspending the dispersed particulates. It can replace fat because it gives an appropriate mouth feel and lends a glossy opaque appearance when used.

Cellulose is an excellent source of insoluble fiber. Unlike soluble fiber, insoluble fiber does not feed bacteria well and is not readily fermented into short chain fatty acids.

Salt is one of the most ubiquitous food ingredients around. Those who think of salt only as something used to perk up flavor might wonder what could possibly give this ingredient the level of importance it has gained through the ages. In reality, there is much more to this crystalline cube than first meets the eye.



Besides enhancing taste, salt has several other functions in food products. It acts as an antimicrobial or microbiological control agent. It contributes to certain chemical reactions that create a wide variety of food characteristics.



Sometimes the terms "salt" and "sodium" are used interchangeably, but technically this is not correct. "Salt" is sodium chloride. By weight, it is 40 percent sodium and 60 percent chloride.

Most foods and tap water contain sodium and chloride. Sodium is an essential nutrient, a mineral that the body cannot manufacture itself.

Because of sodium's importance to your body, the excretory and nervous systems guard against under-consumption of salt, which is a threat to your body's nerves and muscles. Other ions such as calcium, magnesium, and potassium are also very important. Concentrations of these ions are held in narrow ranges by the kidney.



The association between eating salt and the risk of blood pressure increasing is difficult to quantify. Some people are sensitive to changes in salt intake whereas others can adjust so that blood pressure does not rise at all.



Americans typically consume 4,000-8,000 mg each day, well above their daily needs. A goal for moderation for all adults, (including pregnancy and lactation) is approximately 2,400 mg of sodium per day.

Potassium sorbate is the potassium salt of sorbic acid, and is much more soluble in water than the acid. Potassium sorbate will produce sorbic acid once it is dissolved in water and is the most widely used food preservative in the world. It is effective up to pH 6.5 but effectiveness increases as the pH decreases.

One of the most widely used colors is caramel, the color of burnt sugar.



There are many different types of caramel color, each engineered to serve a particular purpose in food chemistry. They are all based on the cooking of sugars and starches. Sometimes acids such as acetic acid, citric acid, lactic acid, or phosphoric acid, are used to break the bonds between sugars to create invert sugars, or to make sugars from starches, before the sugars are raised to a higher temperature for carmelization.



The heat is carefully controlled during carmelization to get the right products from the reaction. Besides acids, alkalies and salts may be used to further control the process.



Caramel color is a colloid, a mixture in which solid particles are suspended in water. The particles in colloids have electric charges that keep the particles from clumping together and settling out of solution. The charges can be positive or negative. If a negative coloid is added to a product that has positive colloidal particles in it, the two will attract one another and clump up, making the product cloudy.



Caramel color can be made with either positively or negatively charged particles. This allows manufacturers to use negative colloidal caramel in acidic soft drinks, and positive in beers and soy sauces. Beer has positively charged proteins suspended in it, and soy sauce has a high salt content that requires the more salt-tolerant positive caramel color.



Caramel color is an emulsifying agent as well as a colorant. In soft drinks, it helps keep the flavor oils suspended in the solution.



In chocolate milk, the muddy color of caramel is darkened by the addition of FD&C Red #40 to give what the industry refers to as a "Dutch" chocolate shade. Blues and yellows are sometimes used to give a more brown color.



Caramel color is added to baked goods, to poultry, to milk to give an "eggnog" color, to malt vinegars, canned meats, syrups, and soups, stews, and gravies.



If caramel color is made in North America it is likely to be gluten-free.



The problem with caramel color is that it may or may not contain gluten depending on how it is manufactured. In the USA caramel color must conform with the FDA standard of identity from 21CFR CH.1. This statute says: "the color additive caramel is the dark-brown liquid or solid material resulting from the carefully controlled heat treatment of the following food-grade carbohydrates: Dextrose (corn sugar), invert sugar, lactose (milk sugar), malt syrup (usually from barley malt), molasses (from cane), starch hydrolysates and fractions thereof (can include wheat), sucrose (cane or beet)." Also, acids, alkalis and salts are listed as additives which may be employed to assist the caramelization process.



Source: http://sci-toys.com/ingredients/fdc_colors.html