Common Arm Interferometer Optical Probe
A technology of optical probes and interferometers, applied in medical science, dentistry, sensors, etc., can solve the problem of high quality interference signals
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
Embodiment 1
[0019] see figure 1 , the co-arm type interferometer optical probe includes a single-mode fiber 101, a first cylindrical beam expander 102, a cylindrical beam collimator 103 and a cylindrical beam splitter 104, the single-mode fiber 101, the first cylindrical The cylindrical beam expander 102, the cylindrical beam collimator 103 and the cylindrical beam splitter 104 are sequentially connected end-to-end at the end faces to form a co-arm interferometer optical probe.
[0020] see figure 1 and figure 2 , the cylindrical beam splitter 104 is made of a hollow cylindrical glass tube 201 and a first cylindrical self-focusing lens 202, and the first cylindrical self-focusing lens 202 is connected to the hollow position of the cylindrical glass tube 201; the hollow cylindrical glass One end of the tube 201 connected to the cylindrical beam collimator 103 is coated with an anti-reflection film 203 , and the other end of the hollow cylindrical glass tube 201 is coated with a reflecti...
Embodiment 2
[0023] see figure 1 , figure 2 and image 3 , the co-arm type interferometer optical probe, the cylindrical beam splitter 104 is composed of a hollow cylindrical glass tube 201 and a second cylindrical self-focusing lens 301, and the second cylindrical self-focusing lens 301 is connected to the cylindrical glass tube 201 The output end surface of the hollow cylindrical glass tube 201 is coated with an anti-reflection coating 203 at one end connected with the cylindrical beam collimator 103, and the hollow cylindrical glass tube 201 is connected with the second cylindrical self-focusing lens 301 One end is coated with reflective film 204 .
[0024] The axial length of the hollow cylindrical glass tube 201 in the present embodiment is l 1 , the refractive index n 1 , the axis length of the second cylindrical self-focusing lens 301 is l 3 , the central refractive index is n 2 , the distance from the output end surface of the second cylindrical self-focusing lens 301 to...
Embodiment 3
[0026] see figure 1 , image 3 and Figure 4 , the co-arm type interferometer optical probe, the cylindrical beam splitter 104 is made of a hollow cylindrical glass tube 201, and the hollow cylindrical glass tube 201 connects the second cylindrical beam expander 401 and the third cylindrical beam expander 401 at the end face in turn. Cylindrical self-focusing lens 402, one end of the hollow cylindrical glass tube 201 connected to the cylindrical beam collimator 103 is coated with an anti-reflection coating 203, the hollow cylindrical glass tube 201 is connected to the second cylinder One end connected to the beam expander 401 is coated with a reflective film 204 .
[0027] The axial length of the hollow cylindrical glass tube 201 in the present embodiment is l 1 , the refractive index n 1 , the axial length of the second cylindrical beam expander 401 is l 5 , the refractive index n 3 , the axis length of the third cylindrical self-focusing lens 402 is l 6 , the cen...
PUM
Login to View More Abstract
Description
Claims
Application Information
Login to View More 