A method and apparatus are disclosed for
skin wrinkle removal. After applying a tube encircling a relatively small
skin area along the wrinkled line, a set of
laser beams will be activated. The
laser beams are mounted around the tube, pointing to its center to create a mutual point of
irradiation located just below the
skin's
wrinkle line.
Optical energy from lasers is directed to a point under the skin by radiating through the transparent tube. For ease of use, the encircled skin portion is lifted, preferably by vacuum, enabling
laser radiation to penetrate under the skin from outside the lifting tube. The apparatus is suitable for treating skin wrinkles by targeting the sub skin
melanin without damaging
skin surface. The apparatus may also be used for other aesthetic face treatments, including disorders located around the eye. The used laser
radiation is in the
wavelength region of 1500 to 1800 nm, which is regarded to be eye safe. Other laser
wavelength could be used, especially in the 700 nm region with confidence, since most
radiation is enclosed within the skin portion on the transparent tube. The treatment
energy density level on the
skin penetration point is relatively low and thus not harmful to the epidermis. However,
heating effect is maximized at the central point just beneath the
wrinkle—which causes damage to the collagen. Later on, when healing occurs, the skin will be stretched and wrinkles will be diminished. This technology is less damaging to the skin than that of the prior and targets only the under wrinkle collagen. Statistically, most of the recent clinical trials showed a histological evidence of new
collagen formation and significant improvement in facial rhytides. Direct, under the skin
irradiation, as in our art, will be less damaging to the skin epidermis yielding improved overall results.