TWI866739B - Lens wearing effect simulation method, program thereof and system thereof - Google Patents

Abstract

A lens wearing effect simulation method is provided, including providing a pattern menu and a color menu, providing a simulated image according to the pattern option selected by a user, and overlaying the simulated image on an eye image. The pattern menu includes multiple pattern options, and each pattern option corresponds to a portable network graphic. The color menu includes multiple color options. When the user selects the color menu, the method of providing the simulated image includes: converting the portable network graphic corresponding to the pattern option selected by the user into a silhouette image, and adjusting the color of the silhouette image according to the color option selected by the user. The lens wearing effect simulation method can simulate the wearing effect of lenses. A lens wearing effect simulation program thereof and system thereof are also provided.

Description

Lens wearing effect simulation method and program and system

The present invention relates to a simulation method and a program and a system thereof, and in particular to a lens wearing effect simulation method and a program and a system thereof.

In addition to correcting vision, in recent years, in response to consumer demand, contact lenses printed with various colors and patterns have been developed to enlarge the pupil and increase its beauty. Since the same design of contact lenses may have different visual effects when worn by different consumers, consumers often need to actually wear them to confirm the wearing effect of the contact lenses. In this way, consumers may find that the wearing effect does not meet their expectations after purchasing them. On the other hand, after designing contact lenses, manufacturers need to make proofs of the designed contact lenses before they can confirm the visual effect of the product when it is actually worn. This will increase proofing and even logistics costs.

The present invention provides a lens wearing effect simulation method, which can simulate the lens wearing effect.

The lens wearing effect simulation method provided by the present invention includes providing a texture menu and a color menu, providing a simulation image according to the texture option selected by the user, and overlaying the simulation image on the eye image. The texture menu includes a plurality of texture options, each of which corresponds to a portable network graphic (PNG). The color menu includes a plurality of color options. When the user selects the color menu, the method for providing the simulation image includes: converting the portable network graphic corresponding to the texture option selected by the user into a silhouette image (silhouette plot), and adjusting the color of the silhouette image according to the color option selected by the user.

In one embodiment of the present invention, the lens wearing effect simulation method further includes storing the simulation image as a portable network image.

In an embodiment of the present invention, the above-mentioned lens wearing effect simulation method further includes that when the user does not select the color menu, the method of providing the simulation image includes directly providing a portable network image corresponding to the texture option selected by the user.

In one embodiment of the present invention, the texture menu includes a plurality of sub-texture menus, each of which includes a portion of texture options. The color menu includes a plurality of sub-color menus corresponding to the plurality of sub-texture menus, each of which includes a portion of color options. When a user selects more than two sub-texture menus, the simulated image is a stacked image formed according to the portion of texture options selected by the user.

In one embodiment of the present invention, when a user selects any sub-color menu, the method for providing a simulated image further includes converting a portable network image corresponding to a texture option corresponding to the sub-color menu selected by the user into a silhouette image, and adjusting the color of the silhouette image according to the color option selected by the user.

In an embodiment of the present invention, the provision of the texture menu and the color menu further includes providing a texture size adjustment menu, and the texture size adjustment menu includes a plurality of sub-texture size adjustment menus respectively corresponding to the plurality of sub-texture menus.

In an embodiment of the present invention, the provision of the texture menu and the color menu further includes providing a texture transparency adjustment menu, and the texture transparency adjustment menu includes a plurality of sub-texture transparency adjustment menus respectively corresponding to the plurality of sub-texture menus.

In an embodiment of the present invention, the provision of the texture menu and the color menu further includes providing at least one of a coloring diameter adjustment menu and a texture rotation angle adjustment menu.

In an embodiment of the present invention, the provision of the texture menu and the color menu further includes providing a texture transparency adjustment menu.

The present invention further provides a lens wearing effect simulation program for enabling a computer to execute the lens wearing effect simulation method.

The present invention further provides a lens wearing effect simulation system, including a server storing a lens wearing effect simulation program, the server is connected to a terminal user device, and the lens wearing effect simulation program is used to execute the above-mentioned lens wearing effect simulation method.

The present invention overlays a simulation image provided according to a texture option on an eye image, thereby simulating the wearing effect of a lens.

In order to make the above and other purposes, features and advantages of the present invention more clearly understood, embodiments are specifically cited below and described in detail with reference to the accompanying drawings.

FIG1 is a flow chart of a lens wearing effect simulation method according to an embodiment of the present invention. FIG2 is a diagram of an operation interface according to an embodiment of the present invention. Referring to FIG1 and FIG2 , an embodiment of the present invention provides a lens wearing effect simulation method. The lens described herein is a contact lens, but the present invention is not specifically limited thereto. In addition, another embodiment of the present invention further provides a lens wearing effect simulation program for enabling a computer to execute the above-mentioned lens wearing effect simulation method, and for example, an operation interface 710 is displayed on a display. Specifically, the computer is, for example, a desktop computer, a laptop computer, a tablet computer, or a smart phone, but is not limited thereto. The computer, for example, stores a lens wearing effect simulation program and can execute the lens wearing effect simulation method. In another embodiment, the above-mentioned computer can be a server, and the terminal user device can be connected to the server to execute the above-mentioned lens wearing effect simulation program. For example, the above-mentioned lens wearing effect simulation method and lens wearing effect simulation program are executed in a web environment, for example, using JavaScript, HTML and Cascading Style Sheets (CSS) to design, but the present invention does not make specific restrictions on this. The above-mentioned terminal user device can be a desktop computer, a laptop, a tablet computer or a smart phone, etc., but is not limited thereto.

The above-mentioned lens wearing effect simulation method includes steps S100 to S200, which will be described below respectively.

Step S100: Provide a texture menu 100 and a color menu 200, the texture menu 100 includes a plurality of texture options 111, each texture option 111 corresponds to a portable network image. In this embodiment, the texture menu 100 includes, for example, a plurality of sub-texture menus 110, each sub-texture menu 110 includes, for example, a portion of the texture options 111. Specifically, the texture menu 100 includes, for example, three sub-texture menus 110 (110A, 110B, 110C), wherein the sub-texture menu 110A, the sub-texture menu 110B, and the sub-texture menu 110C have, for example, the same plurality of texture options 111, but the present invention is not specifically limited to this. In another embodiment, different sub-texture menus 110 may include different numbers of texture options 111, or texture options 111 of different textures. The textures of the multiple texture options 111 are, for example, different. In this embodiment, the texture menu 100, for example, represents the multiple texture options 111 with codes and presents them in a drop-down menu, as shown in FIG. 2 , but the present invention is not limited thereto. In another embodiment, the texture options 111 of the texture menu 100, for example, directly present the texture. In one embodiment, the outline of the portable network image corresponding to the texture option 111 is, for example, a ring shape, but the present invention is not limited thereto.

The color menu 200 includes, for example, a plurality of color options 211. In this embodiment, the color menu 200 includes, for example, a plurality of sub-color menus 210 corresponding to a plurality of sub-texture menus 110, and each sub-color menu 210 includes, for example, a portion of the color options 211. Specifically, the color menu 200 includes, for example, three sub-color menus 210 (210A, 210B, 210C), wherein the three sub-color menus 210 (210A, 210B, 210C) correspond, for example, to the three sub-texture menus 110 (110A, 110B, 110C). For example, the sub-texture menu 110A corresponds to the sub-color menu 210A, the sub-texture menu 110B corresponds to the sub-color menu 210B, and the sub-texture menu 110C corresponds to the sub-color menu 210C, but the present invention is not limited thereto. In addition, the sub-color menu 210A, the sub-color menu 210B, and the sub-color menu 210C have, for example, the same plurality of color options 211, but the present invention is not specifically limited thereto. In another embodiment, different sub-color menus 210 may include different numbers of color options 211, or color options 211 of different colors. In addition, the colors of the plurality of color options 211 are, for example, different, but the present invention is not limited thereto.

In this embodiment, the color menu 200 presents multiple color options 211 as a hue slider, and after the user selects a color option 211, the color of the selected color option 211 and its hexadecimal color code are displayed, but the present invention is not limited thereto. In another embodiment, the color menu 200 can be presented in a drop-down menu or a color box.

Step S200: Provide a simulated image S1 according to the texture option 111 selected by the user, and overlay the simulated image S1 on the eye image E. Specifically, based on the transparent background of the portable network image, the background of the simulated image S1 provided according to the texture option 111 is also transparent, so when the simulated image S1 is overlaid on the eye image E, the wearing effect of simulated lenses can be achieved. In addition, in this embodiment, the texture menu 100 includes, for example, a plurality of sub-texture menus 110. When the user selects more than two sub-texture menus 110, the simulated image S1 is, for example, an overlaid image formed according to the partial texture options 111 selected by the user. For example, the user can select only two sub-texture menus 110 from the three sub-texture menus 110, such as the sub-texture menu 110A and the sub-texture menu 110B, wherein the texture option 111 selected from the sub-texture menu 110A corresponds to the sub-simulation image S1A, and the texture option 111 selected from the sub-texture menu 110B corresponds to the sub-simulation image S1B, so the simulation image S1 is formed by the sub-simulation image S1A and the sub-simulation image S1B being overlapped, but the present invention is not specifically limited to this. In another embodiment, the user can also select three sub-texture menus 110. The sub-simulation image S1A and the sub-simulation image S1B are overlapped in a concentric manner, for example, and the sub-simulation image S1A is overlapped on the sub-simulation image S1B, but the present invention is not limited thereto.

The eye image E may include one or more eye images. In this embodiment, the eye image E1 includes a first eye image E1 and a second eye image E2, wherein the first eye image E1 is, for example, a light-colored pupil, and the second eye image E2 is, for example, a dark-colored pupil. When the simulation image S1 is, for example, overlaid on the first eye image E1 and the second eye image E2, it is helpful to observe the lens wearing effect of the simulation image S1 under different pupil colors. However, the present invention does not specifically limit the type, number, or pupil color of the eye image E. In addition, in this embodiment, the number of the first eye images E1 is, for example, two, and the number of the second eye images E2 is, for example, two, wherein one first eye image E1 and one second eye image E2 do not overlap the simulation image S1, as shown in FIG2 by the first eye image E1 and the second eye image E2 marked "naked eye", so that the difference between different pupil colors when wearing or not wearing the lens can be easily compared. In another embodiment, the first eye image E1 and the second eye image E2 marked "naked eye" may not be included. In addition, in one embodiment, the two eye images E may be overlapped up and down, and the simulation image S1 may be placed in the middle of the two overlapped eye images E, so that the effect of simulating wearing the lens can be more natural. Specifically, for example, an eye image E with an eyeball (including a pupil) is placed below the simulated image S1, and an eye image E without an eyeball is placed above the simulated image S1, so that part of the simulated image S1 is covered by the upper eyelid, but the present invention is not specifically limited to this. On the other hand, in one embodiment, the simulated image S1 that is not superimposed on the eye image E can be displayed, which helps the user to clearly observe the details of the simulated image S1, as shown in the simulated image S1 on the left side of FIG. 2.

In this embodiment, when the user selects the color menu 200, the method for providing the simulated image S1 includes: converting the portable network image corresponding to the texture option 111 selected by the user into a silhouette image, and adjusting the color of the silhouette image according to the color option 211 selected by the user. For example, in one embodiment, when the user selects the color option 211, such as red, the portable network image corresponding to the texture option 111 selected by the user is converted into a silhouette image, and then the color of the silhouette image is adjusted to the color of the color option 211, that is, the silhouette image is adjusted to red. It should be noted that the silhouette image is, for example, a silhouette of a texture in the portable network image. The above method of converting the portable network image into a silhouette image and adjusting the color of the silhouette image can be adjusted using the drop-shadow syntax in the CSS, but the present invention is not limited thereto.

When adjusting the color of the simulated image S1, if the color of the portable network image is adjusted directly, a new portable network image will be generated each time the color is adjusted. After multiple reciprocating operations, a large number of portable network images will be generated, which will occupy a large amount of resources and may reduce the processing speed. In contrast, the present embodiment first converts the portable network image into a silhouette image and then directly adjusts the color of the silhouette image. No new portable network image will be generated during the adjustment process, so it has the advantages of saving resources and improving the processing speed.

In an embodiment of the present invention, when the user does not select the color menu 200, the method of providing the simulated image S1 includes, for example, directly providing a portable network image corresponding to the texture option 111 selected by the user. Specifically, when the texture menu 100 does not include a plurality of sub-texture menus 110, if the user does not select the color menu 200, the corresponding portable network image can be directly provided according to the texture option 111 selected by the user to form the simulated image S1, and the portable network image does not need to be converted into a silhouette image. In other words, in an embodiment where the texture menu 100 does not include a plurality of sub-texture menus 110, as long as the user has clicked the color menu 200, the simulated image S1 is, for example, a silhouette image; as long as the user has not clicked the color menu 200, the simulated image S1 is, for example, a portable network image. In another embodiment, when the user has not clicked the color menu 200, the simulated image S1 may also be a silhouette image converted from a portable network image. On the other hand, in an embodiment of the present invention, the portable network image corresponding to each texture option 111 is, for example, black, but the present invention does not specifically limit this.

In an embodiment where the texture menu 100 includes, for example, a plurality of sub-texture menus 110, when the user selects any one of the sub-color menus 210, the method for providing the simulated image S1 further includes converting the portable network image corresponding to the texture option 111 corresponding to the sub-color menu 210 selected by the user into a silhouette image, and adjusting the color of the silhouette image according to the color option 211 selected by the user. For example, if the user selects any one of the sub-texture menus 110 and selects the sub-color menu 210 corresponding to the sub-texture menu 110, the method for providing the simulated image S1 includes, for example, converting the portable network image corresponding to the texture option 111 selected by the user into a silhouette image, and adjusting the color of the silhouette image according to the color option 211 selected by the user. In addition, if the user selects two sub-texture menus 110 and respectively selects two sub-color menus 210 corresponding to the two sub-texture menus 110, a simulated image S1 formed by overlapping two silhouette images will be formed.

Continuing from the above, in the embodiment where the user selects multiple sub-texture menus 110, if the sub-color menu 210 corresponding to any sub-texture menu 110 is not selected, the portable network image corresponding to the sub-texture menu 110 is not converted into a silhouette image. Therefore, if the user selects two sub-texture menus 110, and for example only selects the sub-color menu 210 corresponding to one of the sub-texture menus 110, the simulated image S1 is, for example, a stacked image formed by stacking a silhouette image and a portable network image, but the present invention is not specifically limited to this. In another embodiment, if the sub-color menu 210 corresponding to any sub-texture menu 110 is not selected, the portable network image corresponding to the sub-texture menu 110 may also be converted into a silhouette image, but its color is not adjusted. The quantities mentioned in the above embodiments (e.g., the number of selected sub-texture menus 110 or the number of selected sub-color menus 210) are only examples and should not limit the present invention.

Please continue to refer to FIG. 2 . The lens wearing effect simulation method of this embodiment further provides a texture menu 100 and a color menu 200, for example, and provides a texture size adjustment menu 300. The texture size adjustment menu 300 of this embodiment, for example, includes a plurality of sub-texture size adjustment menus 310 corresponding to the plurality of sub-texture menus 110 respectively. For example, the texture size adjustment menu 300 includes three sub-texture size adjustment menus 310 (310A, 310B, 310C) corresponding to the three sub-texture menus 110 (110A, 110B, 110C), wherein the sub-texture menu 110A corresponds to the sub-texture size adjustment menu 310A, the sub-texture menu 110B corresponds to the sub-texture size adjustment menu 310B, and the sub-texture menu 110C corresponds to the sub-texture size adjustment menu 310C, but the present invention is not limited thereto. In one embodiment, the texture size adjustment menu 300 presents multiple options in a slider, but the present invention is not specifically limited thereto.

In one embodiment, the user can adjust the size of the simulated image S1 through the texture size adjustment menu 300. For example, the size of the sub-simulated image S1A corresponding to the texture option 111 of the sub-texture menu 110A can be adjusted through the sub-texture size adjustment menu 310A. Similarly, the size of the sub-simulated image S1B corresponding to the texture option 111 of the sub-texture menu 110B can be adjusted through the sub-texture size adjustment menu 310B. The size of the sub-simulated image S1A corresponding to the sub-texture menu 110A is, for example, larger than the size of the sub-simulated image S1B corresponding to the sub-texture menu 110B, that is, the diameter of the sub-simulated image S1A is, for example, larger than the diameter of the sub-simulated image S1B, but the present invention does not make specific limitations on this. In addition, the sub-simulated image S1A and the sub-simulated image S1B are, for example, partially overlapped, and the present invention does not make specific limitations on this either. In another embodiment, the sub-simulated image S1A and the sub-simulated image S1B may not overlap.

The lens wearing effect simulation method of this embodiment provides the texture menu 100 and the color menu 200, and further provides a texture transparency adjustment menu 400. The texture transparency adjustment menu 400 includes, for example, a plurality of sub-texture transparency adjustment menus 410 corresponding to the plurality of sub-texture menus 110 respectively. For example, the texture transparency adjustment menu 400 includes three sub-texture transparency adjustment menus 410 (410A, 410B, 410C) corresponding to the three sub-texture menus 110 (110A, 110B, 110C), wherein the sub-texture menu 110A corresponds to the sub-texture transparency adjustment menu 410A, the sub-texture menu 110B corresponds to the sub-texture transparency adjustment menu 410B, and the sub-texture menu 110C corresponds to the sub-texture transparency adjustment menu 410C, but the present invention is not limited thereto. The texture transparency adjustment menu 400 presents multiple options in a slider, but the present invention is not specifically limited thereto.

In one embodiment, the user can adjust the transparency of the simulated image S1 through the texture transparency adjustment menu 400. For example, the transparency of the sub-simulated image S1A corresponding to the texture option 111 of the sub-texture menu 110A can be adjusted through the sub-texture transparency adjustment menu 410A. Similarly, the transparency of the sub-simulated image S1B corresponding to the texture option 111 of the sub-texture menu 110B can be adjusted through the sub-texture transparency adjustment menu 410B. In one embodiment, the transparency of the sub-simulated image S1A corresponding to the sub-texture menu 110A is, for example, the same as the transparency of the sub-simulated image S1B corresponding to the sub-texture menu 110B, but the present invention is not specifically limited to this.

The lens wearing effect simulation method of an embodiment of the present invention, when providing the texture menu 100 and the color menu 200, for example, further includes providing at least one of the coloring diameter adjustment menu 500 and the texture rotation angle adjustment menu 600. Specifically, the user adjusts the diameter of the simulation image S1 through the coloring diameter adjustment menu 500. For example, the coloring diameter adjustment menu 500 adjusts the diameter of the sub-simulation image S1A corresponding to the sub-texture menu 110A, but the present invention does not make specific limitations on this. The coloring diameter adjustment menu 500, for example, presents multiple numerical options, but the present invention does not make specific limitations on this. The unit of the above numerical value is, for example, millimeter, and the numerical value is, for example, between 12.5 and 13.4, but the present invention is not limited thereto.

On the other hand, the user adjusts the rotation angle of the simulated image S1, for example, by using the texture rotation angle adjustment menu 600. Specifically, adjusting the rotation angle, for example, causes the simulated image S1 to rotate relative to the center of the simulated image S1. In one embodiment, when the user selects a sub-texture menu 110, for example, the simulated image S1 can be rotated relative to the center of the circle. In another embodiment, when the user selects multiple sub-texture menus 110, for example, multiple simulated images S1 can be rotated relative to each other, which helps to increase the variation of the simulated image S1. For example, the sub-simulated image S1B can be rotated relative to the sub-simulated image S1A with the center of the sub-simulated image S1B as the axis, but the present invention is not limited thereto. The texture rotation angle adjustment menu 600 presents multiple options in the form of a slider, for example, but the present invention is not specifically limited to this.

Please continue to refer to FIG. 2 . The lens wearing effect simulation method of this embodiment further includes, for example, storing the simulation image S1 as a portable network image for subsequent review, but the present invention does not specifically limit this. It should be noted that in one embodiment of the present invention, the texture menu 100 includes, for example, a plurality of sub-texture menus 110 , and the user can select and adjust the color menu 200 , texture size adjustment menu 300 , and texture transparency adjustment menu 400 corresponding to the selected sub-texture menu 110 according to the number of sub-texture menus 110 selected by the user. For example, if the user selects the sub-texture menu 110A and the sub-texture menu 110B, the user can select the sub-color adjustment menu 210A, the sub-color menu 210B, the sub-texture size adjustment menu 310A, the sub-texture size adjustment menu 310B, the sub-texture transparency adjustment menu 410A, and the sub-texture transparency adjustment menu 410B to adjust the style of the simulated image S1 corresponding to each of the above menus. In addition, in one embodiment, regardless of whether the user selects one or more sub-texture menus 110, the user can select the coloring diameter adjustment menu 500 and the texture rotation angle adjustment menu 600, but the present invention is not specifically limited to this. In another embodiment, the texture menu 100 has only a single menu, and the color menu 200, the texture size adjustment menu 300, the texture transparency adjustment menu 400, the coloring diameter adjustment menu 500, and the texture rotation angle adjustment menu 600 also correspond to the texture menu 100 and have only a single menu respectively. In this embodiment, the simulated image S1 is formed based on the single texture option 111, so it is not overlapped.

FIG3 is a schematic diagram of a lens wearing effect simulation system according to an embodiment of the present invention. Referring to FIG3 , the lens wearing effect simulation system 800 according to the present embodiment includes a server 810, and the server 810 stores the lens wearing effect simulation program for the terminal user device 900 to connect to, and executes the lens wearing effect simulation method according to the lens wearing effect simulation program. Specifically, the server 810 has a storage element 820 for storing the lens wearing effect simulation program. In the present embodiment, the number of the terminal user devices 900 connected to the server 810 is, for example, one, but the present invention does not specifically limit this. In one embodiment, the number of terminal user devices 900 connected to the server 810 may also be multiple.

In summary, the present invention overlays the simulated image provided according to the texture option on the eye image, so as to simulate the wearing effect of the lens. In addition, since the present invention first converts the portable network image into a silhouette image and then directly adjusts the color of the silhouette image, no new portable network image will be generated during the adjustment process, thus having the advantages of saving resources and improving processing speed.

Although the present invention has been disclosed as above by way of embodiments, they are not intended to limit the present invention. A person having ordinary knowledge in the technical field to which the present invention belongs may make some changes and modifications without departing from the spirit and scope of the present invention. Therefore, the protection scope of the present invention shall be subject to the scope defined in the attached patent application.

100: Texture menu 110, 110A, 110B, 110C: Sub-texture menu 111: Texture options 200: Color menu 210, 210A, 210B, 210C: Sub-color menu 211: Color options 300: Texture size adjustment menu 310, 310A, 310B, 310C: Sub-texture size adjustment menu 400: Texture transparency adjustment menu 410, 410A, 410B, 410C: Sub-texture transparency adjustment menu 500: Coloring diameter adjustment menu 600: Texture rotation angle adjustment menu 710: Operation interface 800: Lens wearing effect simulation system 810: Server 820: Storage element 900: Terminal user device E: Eye image E1: First eye image E2: Second eye image S1: Simulation image S1A, S1B: Sub-simulation images S100, S200: Steps

Figure 1 is a schematic diagram of the lens wearing effect simulation method process of an embodiment of the present invention. Figure 2 is a schematic diagram of the operation interface of an embodiment of the present invention. Figure 3 is a schematic diagram of the lens wearing effect simulation system of an embodiment of the present invention.

S100, S200: Steps

Claims (10)

A method for simulating the wearing effect of a lens includes: providing a texture menu and a color menu, wherein the texture menu includes a plurality of texture options, each of the texture options corresponds to a portable network image, and the color menu includes a plurality of color options; and providing a simulation image according to the texture option selected by a user, and overlaying the simulation image on an eye image, wherein: when the user selects the color menu, the method for providing the simulation image includes: converting the portable network image corresponding to the texture option selected by the user to form a silhouette image; and adjust the color of the silhouette image according to the color option selected by the user; wherein the texture menu includes a plurality of sub-texture menus, each of which includes part of the texture options, and the color menu includes a plurality of sub-color menus corresponding to the sub-texture menus, each of which includes part of the color options, and when the user selects more than two of the sub-texture menus, the simulated image is a set of superimposed images formed according to the part of the texture options selected by the user. The lens wearing effect simulation method as described in claim 1 further includes storing the simulation image as a portable network image. The lens wearing effect simulation method as described in claim 1 further includes the method of providing the simulation image including directly providing the portable network image corresponding to the texture option selected by the user when the user does not select the color menu. The lens wearing effect simulation method as described in claim 1, wherein when the user selects any of the sub-color menus, the method of providing the simulation image further includes: Converting the portable network image corresponding to the texture option corresponding to the sub-color menu selected by the user into the silhouette image; and adjusting the color of the silhouette image according to the color option selected by the user. The lens wearing effect simulation method as described in claim 1, wherein when providing the texture menu and the color menu, it further includes providing a texture size adjustment menu, and the texture size adjustment menu includes a plurality of sub-texture size adjustment menus corresponding to the sub-texture menus respectively. The lens wearing effect simulation method as described in claim 1, wherein when providing the texture menu and the color menu, it further includes providing a texture transparency adjustment menu, and the texture transparency adjustment menu includes a plurality of sub-texture transparency adjustment menus corresponding to the sub-texture menus respectively. The lens wearing effect simulation method as described in claim 1, wherein when providing the texture menu and the color menu, it further includes providing at least one of a coloring diameter adjustment menu and a texture rotation angle adjustment menu. The lens wearing effect simulation method as described in claim 1, wherein when providing the texture menu and the color menu, it further includes providing a texture transparency adjustment menu. A lens wearing effect simulation program is used to enable a computer to execute the lens wearing effect simulation method described in any one of claim items 1 to 8. A lens wearing effect simulation system includes: a server storing a lens wearing effect simulation program, the server is connected to a terminal user device, and the lens wearing effect simulation method described in any one of claim items 1 to 8 is executed through the lens wearing effect simulation program.