RxPG News Feed for RxPG News

Medical Research Health Special Topics World
  Home
 
   Health
 Aging
 Asian Health
 Events
 Fitness
 Food & Nutrition
 Happiness
 Men's Health
 Mental Health
 Occupational Health
 Parenting
 Public Health
 Sleep Hygiene
 Women's Health
 
   Healthcare
 Africa
 Australia
 Canada Healthcare
 China Healthcare
 India Healthcare
 New Zealand
 South Africa
 UK
 USA
 World Healthcare
 
 Latest Research
 Aging
 Alternative Medicine
 Anaethesia
 Biochemistry
 Biotechnology
 Cancer
 Cardiology
 Clinical Trials
 Cytology
 Dental
 Dermatology
 Embryology
 Endocrinology
 ENT
 Environment
 Epidemiology
 Gastroenterology
 Genetics
 Gynaecology
 Haematology
 Immunology
 Infectious Diseases
 Medicine
 Metabolism
 Microbiology
 Musculoskeletal
 Nephrology
 Neurosciences
 Obstetrics
 Ophthalmology
 Orthopedics
 Paediatrics
 Pathology
 Pharmacology
 Physiology
 Physiotherapy
 Psychiatry
 Radiology
 Rheumatology
 Sports Medicine
 Surgery
 Toxicology
 Urology
 
   Medical News
 Awards & Prizes
 Epidemics
 Launch
 Opinion
 Professionals
 
   Special Topics
 Ethics
 Euthanasia
 Evolution
 Feature
 Odd Medical News
 Climate

Last Updated: Oct 11, 2012 - 10:22:56 PM
Research Article
Latest Research Channel

subscribe to Latest Research newsletter
Latest Research

   EMAIL   |   PRINT
Scientists closer to understanding how to control high blood sugar

Mar 18, 2009 - 4:00:00 AM
The muscles seems to have the machinery to respond to exercise, even though they aren't responding to insulin normally, he said. If we understood how exercise worked we could develop more effective exercise protocols. In others who can't exercise, we could figure out a drug therapy or something else for insulin control.

 
[RxPG] ANN ARBOR, Mich.---Scientists are closer to understanding which proteins help control blood sugar, or glucose, during and after exercise. This understanding could lead to new drug therapies or more effective exercise to prevent Type 2 diabetes and other health problems associated with having high blood sugar.

Insulin resistance happens when insulin produced by the body doesn't properly stimulate the transport of glucose into the cells for energy. Too much glucose in the bloodstream can cause a host of medical problems, including Type 2 diabetes, said Gregory Cartee, professor at the University of Michigan School of Kinesiology.

Insulin and muscle contractions are the two most important stimuli to increase glucose transport into muscle cells. Cells then use the glucose for energy. However, scientists aren't entirely sure how this works.

Cartee and colleague Katsuhiko Funai, a graduate student researcher in kinesiology, looked at how two different proteins believed to be important in stimulating glucose transport react to two different enzymes also related to glucose transport. The goal of the study was to understand the contribution of the two proteins, AS160 and TBC1D1, in skeletal muscle stimulated by insulin.

We're trying to rule out or rule in which proteins are important with exercise, Cartee said.

The results suggest that the protein TBC1D1 was more important for exercise-stimulated glucose transport and suggested that the second protein, AS160, might be less important for this effect of exercise. By focusing on the protein that works best---in this case, TBC1D---scientists can develop ways to make that protein work better for insulin-resistant people.

Insulin resistance is a huge public health problem that affects millions of people, Cartee said.

Almost all people with Type 2 diabetes have muscle insulin resistance, he said. This doesn't cause diabetes by itself, but it's an essential component that contributes to Type 2 diabetes. This impacts millions of people. Even for people who aren't diabetic, insulin resistance is associated with lots of health problems.

In the longer term, people who are insulin resistant, or whose muscle don't respond normally to insulin, are more likely to get Type 2 diabetes, Cartee said.

The muscles seems to have the machinery to respond to exercise, even though they aren't responding to insulin normally, he said. If we understood how exercise worked we could develop more effective exercise protocols. In others who can't exercise, we could figure out a drug therapy or something else for insulin control.

The next step is to study what exactly TBC1D1 does to promote glucose transport during and after exercise.




Advertise in this space for $10 per month. Contact us today.


Related Latest Research News


Subscribe to Latest Research Newsletter

Enter your email address:


 Feedback
For any corrections of factual information, to contact the editors or to send any medical news or health news press releases, use feedback form

Top of Page

 
Contact us

RxPG Online

Nerve

 

    Full Text RSS

© All rights reserved by RxPG Medical Solutions Private Limited (India)