Optimization of the non-contact fiber delivery systems for clinical laser applications

被引:0
|
作者
Denisov, NA [1 ]
Griffin, SE [1 ]
机构
[1] Natl Tech Univ Ukraine, Kyiv Polytech Inst, UA-252056 Kiev, Ukraine
关键词
fiber delivery system; optimization; non-contact fiber probe; steady beam distance; steady beam ratio;
D O I
10.1117/12.432018
中图分类号
R318 [生物医学工程];
学科分类号
0831 ;
摘要
The objective of the study was to design, to investigate and to optimize non-contact fiber delivery system for different clinical applications. This system eliminate the main disadvantages both applied contact and non-contact probes, namely surface contamination with further probe's thermal deterioration and large beam divergence, respectively. The main part of the proposed non-contact fiber delivery system is probe made in fused silica or synthetic sapphire which produces quasi-collimated beam with specific outside diameter and power distribution along this beam. These probes were designed for different laser clinical applications, especially for interstitial thermotherapy and photodynamic therapy. Five different types of them were manufactured by InnovaQuartz, Inc. (Phoenix, AZ, USA) and Tochpribor (Kharkiv, Ukraine). To provide comparative analysis and optimization of the optical properties of the novel fiber delivery systems with commercially available ones "steady beam distance"; "steady beam ratio" and "power density efficiency" coefficients are proposed. The improved versions of the commercial urologic devices "transurethral optical laser knife" (Mayo Clinic), TULIP (Intrasonics), UroLase (Bard), SideFire (Myriadlase), ADD (Laserscope), UltraLine (Heraeus Lasersonics), ProLase II (Cytocare) are examined. The received results could provide a tool useful to designers of non-contact fiber delivery systems intended for different clinical applications with cw and pulse lasers..
引用
收藏
页码:148 / 158
页数:11
相关论文
共 50 条
  • [1] Non-contact laser fiber delivery system for endoscopic medical applications
    Denisov, NA
    Griffin, SE
    OPTICAL AND IMAGING TECHNIQUES FOR BIOMONITORING IV, PROCEEDINGS OF, 1999, 3567 : 2 - 9
  • [2] New Topologies for Fiber Laser Non-contact Vibrometers
    Jackson, D. A.
    Posada-Roman, J. E.
    Garcia-Souto, J. A.
    2014 IEEE SENSORS, 2014,
  • [3] Laser non-contact drug delivery methods: Mathematical and experimental substantiation
    Zharov, VP
    Latyshev, AS
    CRITICAL REVIEWS IN BIOMEDICAL ENGINEERING, 2001, 29 (01) : 142 - 156
  • [4] Non-contact all-fiber optic laser Doppler accelerometer
    Zhang, Xiongxing
    Jing, Yadong
    Wang, Wei
    Chen, Haibin
    Ma, Zhibo
    Feng, Jiashuang
    Guo, Zilong
    OPTICS EXPRESS, 2019, 27 (14): : 19887 - 19895
  • [5] Laser ultrasonics for non-contact materials characterization of fiber reinforced materials
    Burgholzer, P.
    Hofer, C.
    Reitinger, B.
    Degischer, H. P.
    Loidl, D.
    Schulz, P.
    Nuster, R.
    Paltauf, G.
    EMERGING TECHNOLOGIES IN NON-DESTRUCTIVE TESTING, 2008, : 121 - 127
  • [6] Endoluminal Non-Contact Soft Tissue Ablation using Fiber-based Er:YAG Laser Delivery
    Kundrat, Dennis
    Fuchs, Alexander
    Schoob, Andreas
    Kahrs, Lueder Alexander
    Ortmair, Tobias
    OPTICAL FIBERS AND SENSORS FOR MEDICAL DIAGNOSTICS AND TREATMENT APPLICATIONS XVI, 2016, 9702
  • [8] Non-contact fiber optic vibrometer
    Davis, P
    Bush, J
    FIBER OPTIC SENSOR TECHNOLOGY AND APPLICATIONS, 1999, 3860 : 390 - 399
  • [9] Non-contact dispensing systems
    不详
    FLEISCHWIRTSCHAFT, 2010, 90 (10): : 79 - 79
  • [10] Non-contact precision laser probe
    Zhang, Y
    Zhang, JJ
    Zhang, GY
    Xu, XP
    Yang, JX
    Zhang, LC
    ISTM/2003: 5TH INTERNATIONAL SYMPOSIUM ON TEST AND MEASUREMENT, VOLS 1-6, CONFERENCE PROCEEDINGS, 2003, : 3636 - 3638