Fat-Buster Makes Burgers
Healthier and May Prevent Diabetes
posted March 31, 2005
A new form of soluble cellulose
that, if added to high-fat food items, appears to slow down fat absorption to a
healthier rate and reduce the likelihood of developing insulin resistance, a
precursor to type 2 diabetes.
Called HPMC (hydroxypropylmethylcellulose), the cellulose-derivative has been
used for half-a-century as an additive in many foods and drugs, mostly to
provide texture, but the researchers believe this is the first study to
demonstrate its potential as a functional food ingredient. HPMC, which is
tasteless and odorless, could one day be added to hamburgers, pizza, hot dogs
and other high-fat foods as a novel line of defense against diabetes, which is
on the rise in this country, the researchers say.
Tasteless and odorless HPMC has been used for 50 years as a food additive to
improve texture. But the ingredient could one day be added to fast foods to help
prevent diabetes, say scientists.
While it is not likely to affect obesity, HPMC may reduce obese people's chances
of developing diabetes and its complications, especially heart disease.
Dr Wallace Yokoyama, a research chemist at the US Department of Agriculture in
Albany, California, said: "Obviously the less fat you eat, the better off you
are. But if you're going to eat high-fat foods, then adding HPMC to it might
help limit the damage.
"In our studies with hamsters, adding HPMC to the animals' high-fat diet
prevented development of insulin resistance."
He predicted the compound making its way into human food within one or two
years. Over a four-week period, Dr Yokoyama's team fed hamsters meals containing
the same amount of fat as typical American fast food.
Results were then compared with those from a group of animals fed a low-fat
diet. Only animals fed on high-fat diets developed insulin resistance. But when
soluble cellulose in the form of HPMC replaced the insoluble fiber normally
found in high-fat foods, insulin resistance was prevented.
Yokoyama believes HPMC acts as a fat regulator. It appears to slow down the
absorption of fats, either in the stomach, the small intestine or both, to
prevent them overwhelming the digestive system.
The compound also seems to facilitate the normal transport of fat into adipose
tissue, where it is normally stored. Fats taken into the body too quickly tend
to be shunted into non-adipose tissues such as the liver, heart and pancreas
where they can do extensive damage to cells. Pancreatic damage can lead to
diabetes.
The preliminary animal study was described at the 229th national meeting of the
American Chemical Society, the world’s largest scientific society.
Source: Diabetes In Control.com.
March 2005 News Article Index