TWI597538B - Sunglasses filtering the blue light and rectifying colorblind - Google Patents

Description

Sunglasses with weak blue light filtering

The present invention relates to a pair of sunglasses, and more particularly to a pair of sunglasses having a weak blue color correction.

Due to the influence of the hole in the ozone layer, the ultraviolet light is easy to enter the atmosphere of the earth. When the human body is exposed to the environment with ultraviolet rays, the ultraviolet rays may cause damage to the skin and eyes, and severely cause skin cancer, of course, umbrellas, jackets and The hat can prevent ultraviolet rays from coming into contact with the skin, reducing the damage of the ultraviolet rays to the skin and preventing the occurrence of skin cancer.

The damage of ultraviolet rays to the eyes can not be ignored, and the sunglasses on the market can reduce the intensity of ultraviolet rays instead of filtering out ultraviolet light. Moreover, the blue light near the wavelength of ultraviolet light also has a certain degree of damage to the eyes, and the sun on the market. The glasses do not block the function of blue light near the wavelength of ultraviolet light. How to filter out ultraviolet light and blue light at the same time to avoid eye damage, it becomes a problem to be solved.

In view of the above-mentioned problems, it is an object of the present invention to provide a solar ray having a weak blue-light color correction for solving the problems faced by the prior art.

Based on the above objects, the present invention provides a solar ray having a weak blue-light color correction, which includes a frame and a double lens. The frame has a double frame, the double frame fits the double lens, and each lens comprises a substrate, The first layer, the second layer, the third layer, the fourth layer, the fifth layer, the sixth layer, and the seventh layer, the substrate to the seventh layer are sequentially stacked from the substrate to the seventh layer. The substrate is composed of polycarbonate. The first layer and the sixth layer are composed of a light-tight material. The second, fourth and seventh layers are composed of a light-smoothing material. The third and fifth layers are composed of silver. The light is refracted from the air to the seventh layer, and then refracted from the seventh layer to the sixth layer. When the light is refracted to the fifth layer via the sixth layer, the fifth layer filters out the blue, ultraviolet and red components of the light. And making it the first color light. When the first color light is refracted to the third layer via the fourth layer, the third layer filters out the blue portion, the ultraviolet light component and the red light portion of the first color light and makes it the second color. The color light, the second color light is refracted to the first layer via the second layer, and then refracted from the first layer to the substrate, and finally the second color light is refracted to the user's eyes via the substrate.

Preferably, the optically dense material comprises zirconium dioxide (ZrO ₂ ), tantalum pentoxide (Ta ₂ O ₅ ), niobium pentoxide (Nb ₂ O ₅ ), titanium dioxide (TiO ₂ ), aluminum arsenide (AlAs). One of 矽(Si) and 锗(Ge).

Preferably, the photo-bleeding material comprises one of magnesium fluoride (MgF ₂ ), cerium oxide (SiO), cerium oxide (SiO ₂ ), and aluminum oxide (Al ₂ O ₃ ).

Preferably, the third layer and the fifth layer have a thickness of between 10 nm and 30 nm.

Based on the above objects, the present invention provides a solar ray having a weak blue-light color correction, which includes a frame and a double lens. The frame has a double frame, and the double frame fits the double lens, and each lens comprises a substrate, a first layer, a second layer, a third layer, a fourth layer, a fifth layer, a sixth layer, a seventh layer, an eighth layer and a Nine layers, the substrate to the ninth layer are sequentially stacked from the substrate to the ninth layer. The substrate is composed of polycarbonate. The first layer and the eighth layer are composed of a light-tight material. The second layer, the fourth layer, the sixth layer, and the ninth layer are composed of a light-striping material. The third, fifth and seventh layers are composed of silver. The light is refracted from the air to the ninth layer and then refracted from the ninth layer to the eighth layer. When the light is refracted from the eighth layer to the seventh layer, the seventh layer filters out the blue, ultraviolet and red light of the light. The composition and make it the first color light, the first color light through the sixth layer Refraction to the fifth layer, the fifth layer filters out the blue component, the ultraviolet component and the red component of the first color light and makes it a second color light, and the second color light is refracted to the third layer via the fourth layer, the third layer Filtering the blue component, the ultraviolet component and the red component of the second color light into a third color light, the third color light is refracted to the first layer via the second layer, and then refracted from the first layer to the substrate, and finally the third The chromatic light is refracted to the user's eyes via the substrate.

Preferably, the surface color of the sunglasses having weakly corrected blue light color is changed by changing the thickness of the second layer, the thickness of the fourth layer, the thickness of the sixth layer, and the thickness of the ninth layer.

Preferably, the light intensity of the third color light is divided by the light intensity of the light to obtain a transmission spectrum, and the transmission spectrum has a valley at 555 nm and 455 nm, respectively.

Based on the above objects, the present invention provides a solar ray having a weak blue-light color correction, which includes a frame and a double lens. The frame has a double frame, and the double frame fits the double lens, and each lens comprises a substrate, a first layer, a second layer, a third layer, a fourth layer, a fifth layer, a sixth layer, a seventh layer, an eighth layer, and a first The nine layers, the tenth layer and the eleventh layer, the substrate to the eleventh layer are sequentially stacked from the substrate to the eleventh layer. The substrate is composed of polycarbonate. The first layer and the tenth layer are composed of a light-tight material. The second layer, the fourth layer, the sixth layer, the eighth layer, and the eleventh layer are composed of a light-smoothing material. The third, fifth, seventh and ninth layers are composed of silver. The light is refracted from the air to the eleventh layer and then refracted from the eleventh layer to the tenth layer. When the light is refracted through the tenth layer to the ninth layer, the ninth layer filters out the blue and red components of the light. The first color light is refracted to the seventh layer via the eighth layer, and the seventh layer filters out the blue light component, the ultraviolet light component and the red light component of the first color light to make it a second color light. The second color light is refracted to the fifth layer via the sixth layer, and the fifth layer filters out the blue component, the ultraviolet component and the red component of the second color light to make it a third color light, and the third color light is refracted through the fourth layer Three layers, the third layer filters out the blue component, the ultraviolet component and the red component of the third color light and makes it a fourth color light, and the fourth color light passes through the second layer It is refracted to the first layer and then refracted from the first layer to the substrate, and finally the fourth color light is refracted to the user's eyes via the substrate.

Preferably, the surface color of the sunglasses having weakly corrected blue light color is changed by changing the thickness of the first layer and the thickness of the tenth layer.

In view of the above, the sunglasses with weak blue-light color correction of the present invention may have one or more of the following advantages: the sunglasses with weak blue-light color correction of the present invention filter out blue light, ultraviolet light and reduce blue light and UV damage to the human body.

In the solar spectacles of the present invention having a blue-light color weak correction, the layer thickness including the light-tight material or the layer thickness including the light-smoothing material can be adjusted to adjust the surface color of the present invention.

10, 100, 1000‧‧‧ frames

20, 200, 2000‧‧‧ double lenses

21, 201, 2001 ‧ ‧ substrate

22, 202, 2002‧‧‧ first floor

23, 203, 2003‧‧‧ second floor

24, 204, 2004‧‧‧ third floor

25, 205, 2005‧‧‧ fourth floor

26, 206, 2006‧‧‧ fifth floor

27, 207, 2007‧‧‧ sixth floor

28, 208, 2008‧‧‧ seventh floor

209, 2009‧‧‧ eighth floor

210, 2010‧‧‧ ninth floor

2011‧‧‧10th floor

11th floor, 2012‧‧

30, 300, 3000‧‧‧ double frames

C10, C11, C12‧‧‧ first color light

C20, C21, C22‧‧‧second color light

C30, C31‧‧‧ third color light

C40‧‧‧ fourth color light

L1, L2, L3‧‧‧ rays

1A, 1B, 1C, 1D, 2A, 2B, 2C, 3A, 3B, 3C‧‧‧ samples

Fig. 1 is a structural view showing a first embodiment of a solar ray having a weak blue-light color correction according to the present invention.

Fig. 2 is a view showing the penetration spectrum of the first embodiment of the sunglasses with weak blue-light color correction of the present invention.

Fig. 3 is a structural view showing a second embodiment of the sunglass with weak blue-light color correction of the present invention.

Figure 4 is a perspective view of a second embodiment of a solar ray having a weakly filtered blue-light color correction of the present invention.

Fig. 5 is a structural view showing a third embodiment of the sunglasses having weak blue-light color correction of the present invention.

Fig. 6 is a view showing the penetration spectrum of the third embodiment of the sunglasses with weak blue-light color correction of the present invention.

The advantages and features of the present invention, as well as the technical methods of the present invention, are described in more detail with reference to the exemplary embodiments and the accompanying drawings. The embodiments of the present invention are to be construed as being limited by the scope of the present invention, and the invention The scope of the patent application is defined.

As shown in FIG. 1 and FIG. 2, it is a structural view of a first embodiment of a solar ray-absorbed solar ray correcting lens of the present invention and a first embodiment of the present invention having a blue-light-dark-corrected solar spectacles according to the present invention. The penetration spectrum, in this embodiment, includes a frame 10 and a dual lens 20. The frame 10 has a double frame 30, and the double frame 30 is matched with the double lens 20. Each lens 20 includes a substrate 21, a first layer 22, a second layer 23, a third layer 24, a fourth layer 25, a fifth layer 26, and a sixth The layer 27 and the seventh layer 28, the substrate 21 to the seventh layer 28 are sequentially stacked from the substrate 21 to the seventh layer 28. The substrate 21 is made of polycarbonate. The first layer 22 and the sixth layer 27 are composed of a light-tight material. The second layer 23, the fourth layer 25, and the seventh layer 28 are composed of a light-striping material. The third layer 24 and the fifth layer 26 are composed of silver. Light ray L1 is refracted from the air to the seventh layer 28 and then refracted from the seventh layer 28 to the sixth layer 27. When the light ray L1 is refracted to the fifth layer 26 via the sixth layer 27, the fifth layer 26 filters out the blue light of the light ray L1. The component, the ultraviolet component and the red component are made into the first color light C10. When the first color C10 is refracted to the third layer 24 via the fourth layer 25, the third layer 24 filters out the blue light of the first color C10. a portion, an ultraviolet component and a red portion and making it a second color C20, the second color C20 being refracted to the first layer 22 via the second layer 23, and then refracted from the first layer 22 to the substrate 21, and finally the second color The C20 is refracted to the eyes of the user via the substrate 21. Use this creation with filtering Sunlight-corrected sunglasses filter out blue and ultraviolet light to prevent blue and ultraviolet light from damaging the user's eyes.

It is worth mentioning that the optically dense materials include zirconium dioxide (ZrO ₂ ), tantalum pentoxide (Ta ₂ O ₅ ), niobium pentoxide (Nb ₂ O ₅ ), titanium dioxide (TiO ₂ ), and aluminum arsenide ( One of AlAs), bismuth (Si), and germanium (Ge), the photo-bleeding material includes magnesium fluoride (MgF ₂ ), cerium oxide (SiO), cerium oxide (SiO ₂ ), and aluminum oxide (Al ₂ O). ₃ ) One of them does not limit the types of the light-tight material and the light-smoothing material, as long as it conforms to the types of the light-tight material and the light-shielding material described above. In addition, the thickness of the third layer 24 and the fifth layer 26 is limited to be between 10 nm and 30 nm, because if the thickness of the silver film is too thick, the light in the visible light band is reflected by the thick silver film, in the visible light band. The light is blocked by the thick silver film and cannot enter the user's eyes. Therefore, the thickness of the silver film is limited to avoid light reflection in the visible light band.

Furthermore, the thicknesses of the third layer 24 and the fifth layer 26 are fixed, and the thicknesses of the other layers are changed. To this end, four samples (1A, 1B, 1C, 1D) are made to observe the average transmittance and the present invention. The surface color changes as shown in Table 1.

Please refer to FIG. 3 and FIG. 4 , which are a structural view of a second embodiment of a solar ray-absorbed solar ray correcting lens of the present invention and a second embodiment of the present invention having a blue-ray color weakly corrected solar spectacles according to the present invention. Transmitted spectrum. In the present embodiment, the components of the same component symbols are similar in configuration to those described above, and the likes are not described herein again.

As shown in FIG. 3, the sunglasses with weak blue-light color correction of the present invention include a frame 100 and a double lens 200. The frame 100 has a double frame 300, and the double frame 300 is matched with the double lens 200. Each lens 200 includes a substrate 201, a first layer 202, a second layer 203, a third layer 204, a fourth layer 205, a fifth layer 206, and a sixth The layer 207, the seventh layer 208, the eighth layer 209, and the ninth layer 210, the substrate 201 to the ninth layer 210 are sequentially stacked from the substrate 201 to the ninth layer 210. The substrate 201 is made of polycarbonate. The first layer 202 and the eighth layer 209 are composed of a light-tight material. The second layer 203, the fourth layer 205, the sixth layer 207, and the ninth layer 210 are composed of a light-diffusing material. The third layer 204, the fifth layer 206, and the seventh layer 208 are composed of silver. Light ray L2 is refracted from the air to ninth layer 210 and then refracted from ninth layer 210 to eighth layer 209. When ray L2 is refracted from eighth layer 209 to seventh layer 208, seventh layer 208 filters out light L2 The blue light component, the ultraviolet light component and the red light component are made into the first color light C11, the first color light C11 is refracted to the fifth layer 206 via the sixth layer 207, and the fifth layer 206 filters out the blue light of the first color light C11. The component, the ultraviolet component and the red component are made into the second color C21, and the second color C21 is refracted to the third layer 204 via the fourth layer 205, and the third layer 204 filters out the blue component and ultraviolet light of the second color C21. The component and the red component become the third color light C30, and the third color C30 is refracted to the first layer 202 via the second layer 203, and then refracted from the first layer 202 to the substrate 201, and finally the third color C30 passes through the substrate 201. Refraction to the user's eyes.

Furthermore, changing the thickness of the second layer 203, the thickness of the fourth layer 205, the thickness of the sixth layer 207, and the thickness of the ninth layer 210, the optical path difference, optical path difference and reflection of the optical path of the present invention are changed. The wavelength of light is positively correlated, i.e., changing the optical path difference also changes the wavelength of the reflected light. The change in the wavelength of the reflected light affects the change in the color of the surface of the present invention, and the color of the surface of the present invention is also different.

Similar to the foregoing embodiment, the thicknesses of the third layer 204, the fifth layer 206, and the seventh layer 208 are fixed, and the thicknesses of the other layers are changed. To this end, three samples (2A, 2B, 2C) are made, and the average penetration is observed. The rate and surface color change of the present invention are shown in Table 2.

As shown in Fig. 4, the light intensity of the third color light C30 is divided by the light intensity of the light L2 to obtain a breakthrough spectrum. The penetration spectrum has a valley at 555 nm and 455 nm, respectively, and the 455 nm is a blue band, reducing the blue light to the eye. The damage, the trough at 555nm separates the red and green to correct the red-green patient. In addition, as shown in Figure 4, the transmittance in the blue band is zero near 400nm, in Figure 2. In the penetration spectrum, the transmittance in the blue light band is zero near 390 nm, because the structure of the second embodiment is more silver film than the structure of the first embodiment, and the red light transmittance is zero. Therefore, the second embodiment can filter out the blue light near the ultraviolet light band, preventing the blue light from damaging the user's eyes.

Please refer to FIG. 5 and FIG. 6 , which are a structural diagram of a third embodiment of a solar ray-absorbed solar ray correcting lens of the present invention and a third embodiment of the present invention having a blue-ray color weakly corrected solar spectacles according to the present invention. Transmitted spectrum. In the present embodiment, the components of the same component symbols are similar in configuration to those described above, and the likes are not described herein again.

As shown in FIG. 5, the sunglasses having the weak blue-light color correction of the present invention include a frame 1000 and a double lens 2000. The frame 1000 has a double frame 3000, and the double frame 3000 fits the double lens 2000. Each lens 2000 includes a substrate 2001, a first layer 2002, a second layer 2003, a third layer 2004, a fourth layer 2005, a fifth layer 2006, and a sixth. Layer 2007, seventh layer 2008, eighth layer 2009, ninth layer 2010, tenth layer 2011 and eleventh layer 2012, the substrate 2001 to the eleventh layer 2012 are sequentially arranged from the substrate 2001 to the eleventh layer. 2012. The substrate 2001 is made of polycarbonate. The first layer 2002 and the tenth layer 2011 are composed of a light-tight material. The second layer 2003, the fourth layer 2005, the sixth layer 2007, the eighth layer 2009, and the eleventh layer 2012 are composed of light-smooth materials. The third layer 2004, the fifth layer 2006, the seventh layer 2008, and the ninth layer 2010 are composed of silver. Light L3 is refracted from the air to the eleventh layer 2012, and then refracted from the eleventh layer 2012 to the tenth layer 2011. When the light L3 is refracted to the ninth layer 2010 via the tenth layer 2011, the ninth layer 2010 filters out the light. The blue light component and the red light component of L3 are made into the first color light C12, and the first color light C12 is refracted to the seventh layer 2008 via the eighth layer 2009, and the seventh layer 2008 filters out the blue light component of the first color light C12, The ultraviolet light component and the red light component are made into the second color light C22, and the second color light C22 is refracted to the fifth layer 2006 via the sixth layer 2007, and the fifth layer 2006 filters out the blue light component, the ultraviolet light component and the second color light C22. The red light component is made into a third color light C31, and the third color light C31 is refracted to the third layer 2004 via the fourth layer 2005, and the third layer 2004 filters out the blue light component, the ultraviolet light component, and the red light component of the third color light C31. Making it the fourth color light C40, and the fourth color light C40 passing through the second layer 2003 The first layer 2002 is refracted and then refracted from the first layer 2002 to the substrate 2001, and finally the fourth color C40 is refracted to the user's eyes via the substrate 2001.

Furthermore, by changing the thickness of the first layer 2002 and the thickness of the tenth layer 2011, the optical path difference of the optical path of the present invention is changed, and the optical path difference is positively correlated with the wavelength of the reflected light, that is, the optical path difference is also changed. The wavelength of the reflected light, the change in the wavelength of the reflected light, affects the change in the color of the surface of the present invention, and the color of the surface on which the present invention is viewed is also different.

As shown in Table 3, three samples (3A, 3B, 3C) were made, the thickness of each layer was changed, and the average transmittance and the surface color change of the present invention were observed.

As shown in Fig. 6, the place where the transmittance in the blue band is zero is around 410 nm, and in the penetrating spectrum of Fig. 4, the place where the transmittance in the blue band is zero is around 400 nm, because the third implementation The structure of the example is more than a silver film added to the structure of the second embodiment, and the portion where the blue light band transmittance is zero is red-shifted. Therefore, the third embodiment can filter out harmful blue light and prevent blue light from injuring the eyes of the user.

In summary, the solar glasses with weak blue-light color correction of the present invention filter out the ultraviolet light portion and the blue light portion of the light L1, the light L2, the light L3, and the like by adding a plurality of silver thin films. Blu-ray and UV-free damage to the user's eyes. In addition, in the map of the transmission spectrum, there is a valley at 555 nm and 455 nm, and a blue band at 455 nm, which reduces the damage of blue light to the eyes. The valley at 555 nm separates red and green. Do not mix red and green to correct patients with red and green weakness. In summary, the sunglasses of the present invention having a weak blue-light color correction have the advantages described above to prevent blue light and ultraviolet light from damaging the eyes of the user.

The above is intended to be illustrative only and not limiting. Any equivalent modifications or alterations to the spirit and scope of the invention are intended to be included in the scope of the appended claims.

10‧‧‧ frames

20‧‧‧ Double lenses

21‧‧‧Substrate

22‧‧‧ first floor

23‧‧‧ second floor

24‧‧‧ third floor

25‧‧‧ fourth floor

26‧‧‧ fifth floor

27‧‧‧6th floor

28‧‧‧ seventh floor

30‧‧‧Double frame

C10‧‧‧first color light

C20‧‧‧Second shade

L1‧‧‧Light

Claims (9)

A solar ray having a weak blue light color correction, comprising: a frame having two frames; and two lenses conforming to the two frames, each of which comprises: a substrate composed of polycarbonate; a first layer, set On the substrate, composed of a light-tight material; a second layer disposed on the first layer and composed of a light-diffusing material; and a third layer disposed on the second layer, made of silver a fourth layer disposed on the third layer and composed of the light-smoothing material; a fifth layer disposed on the fourth layer and composed of silver; and a sixth layer disposed on the first layer Above the five layers, composed of the light-tight material; and a seventh layer disposed on the sixth layer, composed of the light-smoothing material; wherein a light is refracted from the air to the seventh layer, and then the light Refraction to the sixth layer via the seventh layer, when the light is refracted to the fifth layer via the sixth layer, the blue component, the ultraviolet component and the red component of the light are filtered by the fifth layer into a a first color light, the first color light being refracted to the third layer via the fourth layer, the first The layer filters out the blue portion, the ultraviolet component and the red portion of the first color light and causes it to become a second color light, the second color light being refracted to the first layer via the second layer, and then the second color light is passed through The first layer is refracted to the substrate, and the second color light is refracted to the user's eyes via the substrate. The solar radiation having a weak blue-light color correction according to claim 1, wherein the light-tight material comprises zirconium dioxide (ZrO ₂ ), tantalum pentoxide (Ta ₂ O ₅ ), and tantalum pentoxide (Nb). ₂ O ₅ ), one of titanium dioxide (TiO ₂ ), aluminum arsenide (AlAs), bismuth (Si), and germanium (Ge). The solar radiation having a weak blue-light color correction according to claim 1, wherein the light-smoothing material comprises magnesium fluoride (MgF ₂ ), cerium oxide (SiO), cerium oxide (SiO ₂ ), and aluminum oxide. One of (Al ₂ O ₃ ). The solar ray having a weak blue-light color correction according to claim 1, wherein the third layer and the fifth layer have a thickness of between 10 nm and 30 nm. A solar ray having a weak blue light color correction, comprising: a frame having two frames; and two lenses conforming to the two frames, each of which comprises: a substrate composed of polycarbonate; a first layer, set On the substrate, composed of a light-tight material; a second layer disposed on the first layer and composed of a light-diffusing material; and a third layer disposed on the second layer, made of silver a fourth layer disposed on the third layer and composed of the light-smoothing material; a fifth layer disposed on the fourth layer and composed of silver; and a sixth layer disposed on the first layer The fifth layer is composed of the light-smoothing material; a seventh layer is disposed on the sixth layer and is composed of silver; and an eighth layer is disposed on the seventh layer and is composed of the light-tight material And a ninth layer disposed on the eighth layer and composed of the light-smoothing material; Wherein, when a light is refracted from the air to the ninth layer, then the light is refracted to the eighth layer via the ninth layer, and when the light is refracted to the seventh layer via the eighth layer, the blue component of the light The ultraviolet light component and the red light component are filtered out through the seventh layer to become a first color light, and the first color light is refracted to the fifth layer via the sixth layer, and the fifth layer filters out the first color light. a blue light component, an ultraviolet light component, and a red light component and made it a second color light, the second color light being refracted to the third layer via the fourth layer, the third layer filtering out the blue light component of the second color light, An ultraviolet component and a red component and making it a third color light, the third color light being refracted to the first layer via the second layer, and then the third color light is refracted to the substrate via the first layer, the third The chromatic light is refracted to the user's eyes via the substrate. The solar ray having a weak blue-light color correction according to claim 5, wherein the thickness of the second layer, the thickness of the fourth layer, the thickness of the sixth layer, and the thickness of the ninth layer are changed , changing the surface color of the sunglasses with weakly corrected blue light color. The solar radiation having a blue-light color weak correction according to claim 5, wherein the light intensity of the third color light is divided by the light intensity of the light to obtain a transmission spectrum, and the penetration spectrum is respectively at 555 nm. And 455nm has a wave valley. A solar ray having a weak blue light color correction, comprising: a frame having two frames; and two lenses conforming to the two frames, each of which comprises: a substrate composed of polycarbonate; a first layer, set On the substrate, composed of a light-tight material; a second layer disposed on the first layer and composed of a light-diffusing material; a third layer disposed on the second layer and composed of silver; a fourth layer disposed on the third layer and composed of the photo-discrete material; and a fifth layer disposed on the fourth layer Above, composed of silver; a sixth layer, disposed on the fifth layer, composed of the light-smoothing material; a seventh layer disposed on the sixth layer, composed of silver; an eighth layer And disposed on the seventh layer, consisting of the light-smoothing material; a ninth layer disposed on the eighth layer and composed of silver; and a tenth layer disposed on the ninth layer, The light-tight material is composed; and a eleventh layer is disposed on the tenth layer, and is composed of the light-diffusing material; wherein a light is refracted from the air to the eleventh layer, and then the light passes through the tenth a layer is refracted to the tenth layer, and when the light is refracted to the ninth layer via the tenth layer, the blue component, the ultraviolet component and the red component of the light are filtered out through the ninth layer to become a first color Light, the first color light is refracted to the seventh layer via the eighth layer, and the seventh layer filters out the blue component of the first color light, ultraviolet And a red light component that is made to be a second color light that is refracted to the fifth layer via the sixth layer, the fifth layer filtering out the blue light component, the ultraviolet light component, and the red light of the second color light And constituting the third color light to the third layer via the fourth layer, the third layer filtering out the blue component, the ultraviolet component and the red component of the third color light and causing Forming a fourth color light that is refracted to the first layer via the second layer, and then the fourth color light is refracted to the substrate via the first layer, the fourth color light being refracted to the user's eyes via the substrate . The solar spectacles having the blue-light color weak correction according to claim 8, wherein the surface color of the solar ray-corrected sunglasses is changed by changing the thickness of the first layer and the thickness of the tenth layer. .