Guiding neuronal growth with optical trap

被引:0
|
作者
Feng, XZ [1 ]
Xia, CL [1 ]
Zhu, TC [1 ]
Li, CP [1 ]
Wan, MH [1 ]
Zhang, Y [1 ]
机构
[1] Suzhou Univ, Dept Phys, Suzhou 215006, Peoples R China
来源
OPTICS IN HEALTH CARE AND BIOMEDICAL OPTICS: DIAGNOSTICS AND TREATMENT II , PTS 1 AND 2 | 2005年 / 5630卷
关键词
optical trap; guide; neuronal growth; growth cone; microtubule;
D O I
10.1117/12.574688
中图分类号
R446 [实验室诊断]; R-33 [实验医学、医学实验];
学科分类号
1001 ;
摘要
Neuronal growth cones navigate over long distances along specific pathways to find their correct targets. Pie prevailing opinion is that growth cones appear to be guided by four different mechanisms: contact attraction, chemoattraction, contact repulsion, and chemorepulsion. In contrast to existing methods, we use optical trap to guide: neuronal growth. The optical trap is a non-contact manipulation technology which is increasingly used for micromanipulation of living cells and organisms. An intense light gradient near the focal region of a near-infrared laser beam gives, rise to forces that make possible optical trapping and manipulation of a variety of micron-sized objects. In the developing nervous system, microtubule and actin play a fundamental role. To change the microtubule polymerization by control the density of tubulins or exerting a persistent force on the whole growth cone, we have shown experimentally that we can use optical trap to guide the growth direction of a neuron. In order to guide the neuronal growth direction, a self-contrived optical trap is placed in front of a specific area of the edge of the cell's growth cone. We turned the neuronal growth direction and guided it to the direction we expected. Control over neuronal growth is a fundamental objective in neuroscience and guiding neuronal growth with optical trap may be very important for the formation of neural circuits as well as nerve regeneration.
引用
收藏
页码:697 / 702
页数:6
相关论文
共 50 条
  • [31] Optical trap assisted laser nanostructuring in the near-field of microparticles
    Quentin, Ulf
    Leitz, Karl-Heinz
    Deichmann, Lutz
    Alexeev, Ilya
    Schmidt, Michael
    JOURNAL OF LASER APPLICATIONS, 2012, 24 (04)
  • [32] Influence of weak reflections from dielectric interfaces on properties of optical trap
    Sery, M
    Jákl, P
    Jezek, J
    Jonás, A
    Liska, M
    Zemánek, P
    PHOTONICS, DEVICES, AND SYSTEMS II, 2003, 5036 : 624 - 629
  • [33] Subwavelength, standing-wave optical trap based on photonic jets
    Minin, I. V.
    Minin, O. V.
    Pacheo-Pena, V.
    Beruete, M.
    QUANTUM ELECTRONICS, 2016, 46 (06) : 555 - 557
  • [34] A Biophotonic Study of Live, Flowing Red Blood Cells in an Optical Trap
    Basu, H.
    Dharmadhikari, A. K.
    Dharmadhikari, J. A.
    Sharma, S.
    Mathur, D.
    PHOTONICS 2010: TENTH INTERNATIONAL CONFERENCE ON FIBER OPTICS AND PHOTONICS, 2011, 8173
  • [35] Regulation of neuronal growth cone filopodia by nitric oxide
    Van Wagenen, S
    Rehder, V
    JOURNAL OF NEUROBIOLOGY, 1999, 39 (02): : 168 - 185
  • [36] Effect of different densities of silver nanoparticles on neuronal growth
    Ifat Nissan
    Hadas Schori
    Anat Lipovsky
    Noa Alon
    Aharon Gedanken
    Orit Shefi
    Journal of Nanoparticle Research, 2016, 18
  • [37] Effect of different densities of silver nanoparticles on neuronal growth
    Nissan, Ifat
    Schori, Hadas
    Lipovsky, Anat
    Alon, Noa
    Gedanken, Aharon
    Shefi, Orit
    JOURNAL OF NANOPARTICLE RESEARCH, 2016, 18 (08)
  • [38] Anomalous diffusion for neuronal growth on surfaces with controlled geometries
    Yurchenko, Ilya
    Basso, Joao Marcos Vensi
    Syrotenko, Vladyslav Serhiiovych
    Steii, Cristian
    PLOS ONE, 2019, 14 (05):
  • [39] Mechanisms of Neuronal Growth Cone Guidance: An Historical Perspective
    Maloney, Michael T.
    Bamburg, James R.
    DEVELOPMENTAL NEUROBIOLOGY, 2011, 71 (09) : 795 - 800
  • [40] Analysis of laser-induced heating in optical neuronal guidance
    Ebbesen, Christian L.
    Bruus, Henrik
    JOURNAL OF NEUROSCIENCE METHODS, 2012, 209 (01) : 168 - 177