1 g was performed 0, 1, 3, 5, and 10 min after light curing.

2 uency: 30 KHz) during and up to 10 min after light curing.

3  degrees C (general linear model: p < 0.05); light-curing adhesives increased temperature up to 55 de

4 ed by FTIR and ranged between 55% for 9 s of light-curing and 67% for 40 s of light-curing followed b

5 l-ene chemistry is employed to achieve rapid light-curing and minimize residual monomer of the lead m

6                          Many of the current light-curing composite restorative techniques are ration

7 luding dental amalgam, dental composites and light curing, dental adhesives and dental cements, ceram

8  gaps continued to propagate after composite light curing finished.

9  for 9 s of light-curing and 67% for 40 s of light-curing followed by heat application.

10 ht-curing to a low of 36 microm with 40 s of light-curing followed by heat.

11 hermal and dynamic temperature scan DSC with light-curing occurring immediately, or at 5 or 10 minute

12                     Unlike GSE that hindered light-curing of HEMA, MAGSE accelerated the rate of poly

13 se-sensitive hydrogel during the ultraviolet light curing process.

14 nto an adhesive system is detrimental to the light-curing thereof.

15 ranged from a high of 144 microm with 9 s of light-curing to a low of 36 microm with 40 s of light-cu

16                            The output from a light-curing unit (LCU) is commonly characterized by its