Effect of levulose containing sweets on blood and salivary glucose levels.

PubMed

Subramaniam, Priya; K L, Girish Babu; Gona, Harsha

2015-06-01

It is common that many diabetic patients crave for sweets which are normally prohibited. To satisfy their desire to have sweets, alternative sweeteners have been introduced to provide sweetness to some items of their diabetic diet. To (1) assess the effect of sweets containing levulose on glucose levels in blood and saliva, and (2) compare it with effect of sweets containing sucrose on blood and saliva levels of glucose. The study consisted of 20 healthy participants, aged 17-20 years. Two sweet preparations of 36 g each were selected for the study. One preparation was sweetened with levulose (diabetic sweet; Group I) and the other with sucrose (regular sweet; Group II). Blood sugar and salivary glucose levels were estimated before and after the consumption of diabetic and regular sweets. The mean increase in salivary glucose level was lower in Group I than in Group II. Similarly, increase in blood glucose levels in Group I was lower and highly significant. In comparison with regular sweets, consumption of levulose containing sweet resulted in significantly lower blood and salivary glucose levels.

The Halogen Demand of Commercial Beverage Powders, Drinks and Their Constituents

DTIC Science & Technology

1982-02-01

Corn Syrup . Best Foods,CPC International Inc., N.J. Ingredients: Light Corn Oil, Salt, Vanilla Fructose Corn Syrup . 67 Gatorade...Sucrose 58 Dextrose 59 d-Levulose 12 60 d-Xylose 61 Sorbitol 62 Mannitol 63 Sodium Saccharin 64 Sweet’n Low 65 Glucose Sucrose Syrup 66 Corn Syrup 9...Qt - - - - - - 64 Sweet’n Low 5 5.95 5.40 5.31 5.17 5.08 7.0 g/Qt - - - - - - 65 Glucose-Sucrose - - Syrup 85 g/Qt - - - - - - 66 Corn Syrup

Surface Modification Technique of Cathode Materials for LI-ION Battery

NASA Astrophysics Data System (ADS)

Jia, Yongzhong; Han, Jinduo; Jing, Yan; Jin, Shan; Qi, Taiyuan

Cathode materials for Li-ion battery LiMn2O4 and LiCo0.1Mn1.9O4 were prepared by soft chemical method. Carbon, which was made by decomposing organic compounds, was used as modifying agent. Cathode material matrix was mixed with water solution that had contained organic compound such as cane sugar, soluble amylum, levulose et al. These mixture were reacted at 150 200 °C for 0.5 4 h in a Teflon-lined autoclave to get a series of homogeneously C-coated cathode materials. The new products were analyzed by X-ray diffraction (XRD) and infrared (IR). Morphology of cathode materials was characterized by scanning electron microscope (SEM) and transition electron microscope (TEM). The new homogeneously C-coated products that were used as cathode materials of lithium-ion battery had good electrochemical stability and cycle performance. This technique has free-pollution, low cost, simpleness and easiness to realize the industrialization of the cathode materials for Li-ion battery.