TY - JOUR
T1 - System for the automated photothermal treatment of cutaneous vascular lesions
AU - Andersen, Dan E.
AU - Niczyporuk, Marek A.
AU - Wiltberger, Michael W.
AU - Angeley, David G.
PY - 2004/3
Y1 - 2004/3
N2 - It is well known that the use of tightly focused continuous wave lasers can be an effective treatment of common telangiactasia. In general, the technique requires the skills of a highly dexterous surgeon using the aid of optical magnification. Due to the nature of this approach, it has proven to be largely impractical. To overcome this, we have developed an automated system that alleviates the strain on the user associated with the manual tracing method. The device makes use of high contrast illumination, simple monochromatic imaging, and machine vision to determine the location of blood vessels in the area of interest. The vessel coordinates are then used as input to a two-dimensional laser scanner via a near real-time feedback loop to target, track, and treat. Such mechanization should result in increased overall treatment success, and decreased patient morbidity. Additionally, this approach enables the use of laser systems that are considerably smaller than those currently used, and consequently the potential for significant cost savings. Here we present an overview of a proofof-principle system, and results using examples involving in vivo imaging of human skin.
AB - It is well known that the use of tightly focused continuous wave lasers can be an effective treatment of common telangiactasia. In general, the technique requires the skills of a highly dexterous surgeon using the aid of optical magnification. Due to the nature of this approach, it has proven to be largely impractical. To overcome this, we have developed an automated system that alleviates the strain on the user associated with the manual tracing method. The device makes use of high contrast illumination, simple monochromatic imaging, and machine vision to determine the location of blood vessels in the area of interest. The vessel coordinates are then used as input to a two-dimensional laser scanner via a near real-time feedback loop to target, track, and treat. Such mechanization should result in increased overall treatment success, and decreased patient morbidity. Additionally, this approach enables the use of laser systems that are considerably smaller than those currently used, and consequently the potential for significant cost savings. Here we present an overview of a proofof-principle system, and results using examples involving in vivo imaging of human skin.
KW - Lasers in medicine
KW - Machine vision
KW - Real-time imaging
KW - Robotics
UR - https://www.scopus.com/pages/publications/2442660485
U2 - 10.1117/1.1644117
DO - 10.1117/1.1644117
M3 - Article
C2 - 15065896
AN - SCOPUS:2442660485
SN - 1083-3668
VL - 9
SP - 308
EP - 314
JO - Journal of Biomedical Optics
JF - Journal of Biomedical Optics
IS - 2
ER -