Light path capable of compressing light spots and improving resolution simultaneously
A technology for compressing light spots and resolution, applied in the field of spectroscopic instruments, can solve the problems of undetectable light spots and waste of light energy, etc., and achieve the effects of simple structure, improved resolution, and improved performance
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Embodiment 1
[0064] Firstly, an optical path M1M2M3M4 with a symmetric structure is designed, where M1, M2, M3, and M4 correspond to mirrors 31, 32, 33, and 34, respectively, and the subsequent embodiments are expressed in the same way. The structure does not use a toroidal mirror, nor does it take advantage of the cos 3 The formula calculates the off-axis angle, the parameters are shown in Table 1, and the structural diagram is attached Figure 4 shown.
[0065] Next according to the method of the present invention design optical path M1 'M2M3M4, wherein band ' represents that this reflector adopts toroidal mirror, does not represent that this reflector adopts spherical mirror with ', follow-up embodiment expression mode is the same. The structural diagram is attached Figure 4 As shown, wherein the first reflector 31 is a toroidal mirror, the second reflector 32, the third reflector 33 and the fourth reflector 34 are spherical mirrors, and the design parameters are shown in Table 1. Fo...
Embodiment 2
[0070] Design the optical path M1'M2M3'M4, the structure diagram is attached Figure 4 As shown, wherein the first reflector 31 and the third reflector 33 adopt toroidal mirrors, the second reflector 32 and the fourth reflector 34 adopt spherical mirrors, and the design parameters are as shown in Table 1. This embodiment and subsequent embodiments The main design parameters are the same as the main design parameters of the optical path M1'M2M3M4 in the embodiment, only different from the number and position of the toroidal mirror, so they are listed in the same table item, and will not be described in detail hereafter. In this example, the toroidal mirror 31 ρ 31 The value is 235.26mm, the ρ of the toroidal mirror 33 33 The value is 593.22mm. The image quality shown in Figure 10 can be obtained by simulating the parameters with zemax. The comparison shows that the resolution (RMS radius in the Y direction) is equivalent to that of the optical path M1’M2M3M4, and the image s...
Embodiment 3
[0072] Design the optical path M1'M2M3M4', the structure diagram is attached Figure 4 As shown, wherein the first reflector 31 and the fourth reflector 34 adopt a toroidal mirror, the second reflector 32 and the third reflector 33 adopt a spherical mirror, and the design parameters are as shown in Table 1. In this example, the toroidal mirror 31 ρ of 31 The value is 235.26mm, the ρ of the toroidal mirror 34 34 The value is 588.95mm. The image quality shown in Figure 11 can be obtained by simulating the parameters with zemax. The comparison shows that the resolution (RMS radius in the Y direction) is equivalent to that of the optical path M1'M2M3'M4, and the image spot is compressed by 8% compared with M1'M2M3'M4.
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