Optical imaging technology in minimally invasive surgeryCurrent status and future directions

被引:0
|
作者
S. A. Boppart
T. F. Deutsch
D. W. Rattner
机构
[1] Harvard-MIT Division of Health Sciences and Technology,
[2] Department of Electrical Engineering and Computer Science,undefined
[3] Research Laboratory of Electronics,undefined
[4] Massachusetts Institute of Technology,undefined
[5] Cambridge,undefined
[6] MA 02139,undefined
[7] USA,undefined
[8] Wellman Laboratories of Photomedicine,undefined
[9] Massachusetts General Hospital,undefined
[10] Boston,undefined
[11] MA 02114,undefined
[12] USA,undefined
[13] Department of Surgery,undefined
[14] Center for Innovative Minimally Invasive Therapy (CIMIT),undefined
[15] Harvard Medical School,undefined
[16] Massachusetts General Hospital,undefined
[17] Boston,undefined
[18] MA 02114,undefined
[19] USA,undefined
来源
Surgical Endoscopy | 1999年 / 13卷
关键词
Key words: Imaging — Minimally invasive surgery — Noninvasive surgery — Laparoscopy — Endoscopy;
D O I
暂无
中图分类号
学科分类号
摘要
Optical engineering and imaging technology have played a major role in the evolving field of minimally invasive surgery (MIS) by making it possible to visualize the manipulation of tissue at remote internal sites. We assess and review the optical imaging technology used during a variety of MIS procedures from an engineering perspective. The field of MIS is evolving rapidly. Optic-based technologies have the potential to further improve diagnostic capabilities of MIS. Optical imaging technologies and instrument designs are discussed in relation to their current and future use in MIS procedures. Technical limitations in imaging technology are described, along with potential solutions. We review the current status and future role of optical imaging technology in MIS. In the future, synergistic benefits from engineering, imaging technology, and MIS are likely to improve diagnostic ability and patient care.
引用
收藏
页码:718 / 722
页数:4
相关论文
共 50 条
  • [31] Wireless ATM networks: Technology status and future directions
    Raychaudhuri, D
    PROCEEDINGS OF THE IEEE, 1999, 87 (10) : 1790 - 1806
  • [32] Cathode technology overview - Current status & future directions
    Green, Michael C.
    2008 IEEE INTERNATIONAL VACUUM ELECTRONICS CONFERENCE, 2008, : 3 - 4
  • [33] INVASIVE FETAL THERAPY - CURRENT STATUS AND FUTURE-DIRECTIONS
    CROMBLEHOLME, TM
    SEMINARS IN PERINATOLOGY, 1994, 18 (04) : 385 - 397
  • [34] Multimodal Molecular Imaging: Current Status and Future Directions
    Wu, Min
    Shu, Jian
    CONTRAST MEDIA & MOLECULAR IMAGING, 2018,
  • [35] Labeled leukocyte imaging: current status and future directions
    Palestro, C. J.
    Love, C.
    Bhargava, K. K.
    QUARTERLY JOURNAL OF NUCLEAR MEDICINE AND MOLECULAR IMAGING, 2009, 53 (01): : 105 - 123
  • [36] Molecular ultrasound imaging: current status and future directions
    Deshpande, N.
    Needles, A.
    Willmann, J. K.
    CLINICAL RADIOLOGY, 2010, 65 (07) : 567 - 581
  • [37] Clinical imaging of hypoxia: Current status and future directions
    Bonnitcha, Paul
    Grieve, Stuart
    Figtree, Gemma
    FREE RADICAL BIOLOGY AND MEDICINE, 2018, 126 : 296 - 312
  • [38] Imaging in spinal infections: Current status and future directions
    Dhodapkar, Meera M.
    Patel, Tamanna
    Rubio, Daniel R.
    NORTH AMERICAN SPINE SOCIETY JOURNAL, 2023, 16
  • [39] Minimally invasive surgery: national trends in adoption and future directions for hospital strategy
    Charlotte Tsui
    Rachel Klein
    Matthew Garabrant
    Surgical Endoscopy, 2013, 27 : 2253 - 2257
  • [40] Thyroid imaging in the dog: Current status and future directions
    Taeymans, O.
    Peremans, K.
    Saunders, J. H.
    JOURNAL OF VETERINARY INTERNAL MEDICINE, 2007, 21 (04) : 673 - 684