Compound-glass optical fiber bundle device

A technology of composite glass and optical fiber bundles, which is applied in the field of laser medicine, can solve problems such as the influence of composite optical fiber devices on clinical effects, uneven distribution of laser moxibustion energy, and enlarged laser spot of laser needles, etc., to achieve good therapeutic effect, small laser spot, The effect of uniform energy distribution

Active Publication Date: 2013-04-03
SHANGHAI UNIV OF T C M
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

However, since the laser spot output by the silver halide crystal fiber is elliptical, the energy distribution as laser moxibustion is uneven
In another composite optical head with a structure, the silver halide crystal fiber is used as the optical axis, and the quartz glass fiber is concentrically distributed around the silver halide crystal fiber in the form of a bundle. However, the composite optical head composed of this will make the laser needle The laser spot becomes larger, resulting in a decrease in laser energy density
Therefore, the clinical effect of the composite optical fiber device in practical applications has been affected to a certain extent.

Method used

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  • Compound-glass optical fiber bundle device
  • Compound-glass optical fiber bundle device
  • Compound-glass optical fiber bundle device

Examples

Experimental program
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Effect test

Embodiment 1

[0048] Such as Figure 1 to Figure 3 As shown, an optical fiber connector 1 is installed on the input end of the quartz glass optical fiber 2, and the two ends of the secondary metal hose 31 are respectively connected with the optical fiber connector 1 of the quartz glass optical fiber 2 and the Y-shaped bracket 5 through screw connections. An optical fiber connector 6 is installed on the input end of the multi-component glass optical fiber bundle 7, and the two ends of the secondary metal hose 32 are respectively connected to the optical fiber connector 6 and the Y-shaped bracket 5 of the multi-component glass optical fiber bundle 7 by threaded connections. The quartz glass optical fiber 2 and the multi-component glass optical fiber bundle 7 are assembled in the Y-shaped bracket 5 and placed in the main metal hose 3, and the two ends of the main metal hose 3 are respectively connected with the Y-shaped bracket 5 and the operating handle 8 through screw connections The output ...

Embodiment 2

[0050] In the composite optical fiber bundle head 9 composed of the quartz glass optical fiber 2 and the multi-component glass optical fiber bundle 7, the quartz glass optical fiber 2 is the center of the circle, and the multi-component glass optical fiber bundles 7 are closely arranged in the form of concentric circles with the quartz glass optical fiber 2 as the center of the circle. Around the silica glass optical fiber 2. In this embodiment 2, the optical fiber in the multi-component glass fiber bundle 7 is made of the glass whose optical glass grade is K9 as the cladding, and the glass whose optical glass grade is F2 as the core. Its numerical aperture is 0.6, and the divergence angle α2 is about 70°.

Embodiment 3

[0052] In the composite optical fiber bundle head 9 composed of the silica glass optical fiber 2 and the multi-component glass optical fiber bundle 7, in the third embodiment, the numerical aperture of the silica glass optical fiber 2 is 0.2, the divergence angle α1=22°, and the diameter is 0.2 mm. The optical fiber in the multi-component glass fiber bundle 7 is that the glass of the optical glass grade is K9 as the cladding, and the glass of the optical glass grade QF2 is the core. The numerical aperture of the multi-component glass fiber bundle 7 is 0.4, and the divergence angle α2= 47°, the length L of the locator 10 is 12mm.

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Abstract

The invention provides a compound-glass optical fiber bundle device which comprises a quartz-glass optical fiber, a multi-component glass optical fiber bundle, a connecting support, an operating handle and a positioner. An input end of the quartz-glass optical fiber and an input end of the multi-component glass optical fiber bundle are independent from each other, and the quartz-glass optical fiber and the multi-component glass optical fiber bundle are respectively mounted in two auxiliary metal hoses; the quartz-glass optical fiber and the multi-component glass optical fiber bundle which are separated from each other are gathered in a main metal hose by the connecting support; the operating handle is positioned at the end, which is far away from the connecting support, of the main metal hose, one end of the operating handle is connected with the main metal hose, and a compound optical fiber bundle head is arranged at the other end of the operating handle; the positioner is arranged at the other end of the operating handle and is externally disposed at a laser output end of the compound optical laser bundle head; and the quartz-glass optical fiber and the multi-component glass optical fiber bundle are compounded in the compound optical fiber bundle head, laser outputted by the quartz-glass optical fiber is used as an optical axis, the multi-component glass fiber bundle is closely arrayed on the periphery of the quartz-glass optical fiber in a concentric distribution mode, and the laser outputted by the quartz-glass optical fiber and laser outputted by the multi-component glass optical fiber bundle are intersected with each other at an output end of the positioner.

Description

technical field [0001] The invention belongs to the field of laser medicine, and more specifically relates to a composite glass fiber bundle device. Background technique [0002] At present, laser acupuncture treatment has been widely used in clinical treatment. The laser used for treatment is mainly He-Ne laser, and other single-wavelength lasers such as 650nm semiconductor laser. Lasers in these wavelength ranges can penetrate deep into human tissues and replace the needles in traditional acupuncture, so they are commonly called "laser needles". [0003] For example, the function and mechanism of "light acupuncture" published in "Shanghai Journal of Acupuncture and Moxibustion" (December 1999, Volume 18, Issue 6), published in "Applied Laser" (December 1999, Volume 19, Issue 6) The "Physical Basis of Laser Acupuncture" and other articles mentioned the mechanism of action of laser needles. In addition, a laser therapeutic instrument is disclosed in Patent Document 1 with ...

Claims

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Application Information

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Patent Type & Authority Applications(China)
IPC IPC(8): G02B6/04G02B6/38A61N5/067
Inventor 杨华元高建平杭文根
Owner SHANGHAI UNIV OF T C M
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