Three-glasses lens type shooting lens
A lens and lens technology, applied in optical components, optics, instruments, etc., can solve the problems of long focal length, large scanner size, and unsatisfactory image quality of two-lens imaging lens
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no. 1 example
[0041] Please refer to Figure 1 and Figure 2A-2C, which are the structure and optical path schematic diagram of the first embodiment, and longitudinal spherical aberration diagrams of three different aberration diagrams (wavelengths of 440nm, 537.5613nm, and 656.2725nm) (Longitudinal spherical aberration), Astigmatic field curvature, and distortion.
[0042] The following table (1) lists the optical surface number (surface number) in order from the object side of the first embodiment, each optical surface type (Type), and each optical surface on the optical axis. The radius of curvature R (unit: mm) of the surface (the radius of curvature R), the distance D (distance, unit: mm) between the optical surfaces on the optical axis, and the lens material.
[0043] Table I)
[0044]
[0045] The following table (2) lists the coefficients of each optical surface:
[0046] Table II)
[0047] Aspheric surface is number
5th optical surface
K=-10.4770783549
...
no. 2 example
[0055] Please refer to FIG. 1 and FIGS. 3A-3C , which are schematic diagrams of the structure and optical path of this embodiment, and three different aberration diagrams, respectively.
[0056] The following table (3) respectively lists the numbers of the optical surfaces sequentially numbered from the object side in this embodiment, the type of each optical surface, the radius of curvature R (unit: mm) of each optical surface on the optical axis, and each optical surface on the optical axis. The distance D (unit: mm) between the surfaces is related to the material of the lens.
[0057] Table (3)
[0058]
[0059] The following table (four) lists the numbers of each optical surface with aspheric surface:
[0060] Table (4)
[0061] Aspheric surface is number
5th optical surface
K=-10.9150547738645
A=-7.99720838306722e-005 B=2.76476046300913e-005
C=-4.44533123062e-007
D=-1.31628563633304e-008 E=9.32486208888918e-028
6th opti...
no. 3 example
[0068] Please refer to FIG. 1 and FIGS. 4A-4C , which are schematic diagrams of the structure and optical path of the third embodiment, and three different aberration diagrams, respectively.
[0069] The following table (5) respectively lists the numbers of the optical surfaces sequentially numbered from the object side in this embodiment, the type of each optical surface, the radius of curvature R (unit: mm) of each optical surface on the optical axis, and each optical surface on the optical axis. The distance D (unit: mm) between the surfaces is related to the material of the lens.
[0070] Table (5)
[0071]
[0072]
[0073] The following table (6) lists the numbers of each optical surface with aspheric surface:
[0074] Table (6)
[0075] Aspheric surface is number
5th optical surface
K=-8.27078610485597
A=-0.000432498893854793 B=3.27532455298279e-005
C=-9.05187852841266e-007
D=-2.45414794540681e-008 E=-2.04218788052446e-02...
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Abstract
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