Light turning module, camera module and electronic device

Abstract

The utility model provides a light turning module, a camera module and an electronic device. The light turning module comprises a light turning element and a light-proof body, wherein the light-proof body and the light turning element are correspondingly arranged. The light turning element is used for turning an incident optical axis to an emergent optical axis and comprises a light incident surface and a light emergent surface. The incident optical axis passes through and enters the light incident surface. The emergent optical axis passes through and is far away from the emergent surface. The light-proof body comprises a non-closed annular structure and a plurality of light shielding structures. The emergent optical axis passes through an open gap of the non-closed annular structure. The shading structure extends from the non-closed annular structure to the emergent optical axis in the direction perpendicular to the emergent optical axis, wherein the shading structure is arranged adjacent to the emergent surface of the light turning element. Therefore, non-imaging light rays outside the imaging view angle can be shielded, so that the image is kept clear.

Description

TECHNICAL FIELD

[0001] The present disclosure relates to a light folding module and a camera module, and particularly to a light folding module and a camera module applied to a portable electronic device. BACKGROUND

[0002] In recent years, portable electronic devices, such as smart electronic devices and tablet computers, have been rapidly developed and have flooded into modern people's lives. Camera modules loaded on portable electronic devices have also been rapidly developed. However, as technology continues to advance, users have increasingly high requirements for the imaging quality of camera modules. Therefore, developing a camera module that can improve imaging quality has become an important and urgent problem in the industry. SUMMARY

[0003] The present disclosure provides a light folding module, a camera module, and an electronic device. By configuring a light shielding structure corresponding to at least one of an incident optical axis and an exit optical axis, non-imaging light outside an imaging view angle can be shielded to maintain image clarity.

[0004] According to an embodiment of the present disclosure, a light folding module is provided, comprising a light folding element and an opaque body, wherein the opaque body is arranged corresponding to the light folding element. The light folding element is used to fold an incident optical axis to an exit optical axis, and comprises an entrance surface and an exit surface. The incident optical axis passes through and enters the entrance surface. The exit optical axis passes through and exits the exit surface. The opaque body comprises a non-closed ring structure and a plurality of light shielding structures. The exit optical axis passes through an open gap of the non-closed ring structure. The light shielding structures extend from the non-closed ring structure to the exit optical axis along a direction perpendicular to the exit optical axis, wherein the light shielding structures are arranged adjacent to the exit surface of the light folding element. The angle occupied by the light shielding structures with the exit optical axis as the center is θe, and the number of the light shielding structures is Ne, which satisfy the following conditions: 10 degrees < θe < 350 degrees; and 15 < Ne < 460.

[0005] The light folding module according to the embodiment of the preceding paragraph, wherein each light shielding structure extends to the exit optical axis and converges in a tapered manner.

[0006] The light folding module according to the embodiment of the preceding paragraph, wherein the opaque body and the light shielding structures are integrally formed.

[0007] The light folding module according to the embodiment of the preceding paragraph, wherein the angle occupied by the light shielding structures with the exit optical axis as the center is θe, and the number of the light shielding structures is Ne, which satisfy the following conditions: 10 degrees < θe < 150 degrees; and 15 < Ne < 250. In addition, it can satisfy the following conditions: 110 degrees < θe < 350 degrees; and 50 < Ne < 300.

[0008] The light-turning module according to the preceding embodiment, wherein each light-shielding structure is a wedge-shaped protrusion having an included angle θe' satisfying 0 degree < θe' < 90 degree.

[0009] The light-turning module according to the preceding embodiment, wherein each light-shielding structure forms a convex arc having a radius of curvature Re satisfying 0 mm < Re < 0.3 mm.

[0010] The light-turning module according to the preceding embodiment, wherein each light-shielding structure forms a concave arc having a radius of curvature Re' satisfying 0 mm < Re' < 0.3 mm.

[0011] The light-turning module according to the preceding embodiment, wherein the non-enclosed loop structure further comprises at least one auxiliary arc, at least a portion of the light-shielding structure is disposed on the auxiliary arc, and the auxiliary arc has a radius of curvature r satisfying 0.5 mm < r < 50 mm.

[0012] The light-turning module according to the preceding embodiment, wherein each light-shielding structure has a height He extending along a direction perpendicular to the emergent optical axis, and the height He satisfies 0.01 mm < He < 1.2 mm.

[0013] The light-turning module according to the preceding embodiment, wherein each light-shielding structure has a length Le extending along a direction parallel to the emergent optical axis, and the length Le satisfies 0.01 mm < Le < 2.8 mm.

[0014] The light-turning module according to the preceding embodiment, wherein the light-turning element is a plastic element.

[0015] The light-turning module according to the preceding embodiment, wherein the light-impermeable body is a black plastic light-impermeable body.

[0016] A light-turning module according to an embodiment of the present disclosure comprises a light-turning element and a light-impermeable body. The light-impermeable body is disposed corresponding to the light-turning element. The light-turning element is used to turn an incident optical axis to an emergent optical axis, and comprises an entrance surface and an exit surface. The incident optical axis passes through and enters the entrance surface. The emergent optical axis passes through and exits the exit surface. The light-impermeable body comprises a non-enclosed loop structure and a plurality of light-shielding structures. The incident optical axis passes through an open gap of the non-enclosed loop structure. The light-shielding structures extend from the non-enclosed loop structure toward the incident optical axis along a direction perpendicular to the incident optical axis, and are disposed adjacent to the entrance surface of the light-turning element. The light-shielding structures occupy an angle θi with the incident optical axis as a center, and the number of the light-shielding structures is Ni, which satisfies 10 degrees < θi < 350 degrees and 15 < Ni < 460.

[0017] The light turning module according to the preceding embodiment, wherein each light blocking structure extends towards the incident light axis and converges.

[0018] The light turning module according to the preceding embodiment, wherein the light blocking structure is integrally formed with the light blocking body.

[0019] The light turning module according to the preceding embodiment, wherein the light blocking structure has an angle θi with respect to the incident light axis, and the number of the light blocking structures is Ni, which satisfies the following conditions: 10 degrees < θi < 150 degrees; and 15 < Ni < 250. Alternatively, it can satisfy the following conditions: 110 degrees < θi < 350 degrees; and 50 < Ni < 300.

[0020] The light turning module according to the preceding embodiment, wherein each light blocking structure is a wedge-shaped protrusion, and the wedge-shaped protrusion has an included angle θi' which satisfies the following condition: 0 degrees < θi' < 90 degrees.

[0021] The light turning module according to the preceding embodiment, wherein each light blocking structure forms a convex arc, and the convex arc has a radius of curvature Ri which satisfies the following condition: 0 mm < Ri < 0.3 mm.

[0022] The light turning module according to the preceding embodiment, wherein each light blocking structure forms a concave arc, and the concave arc has a radius of curvature Ri' which satisfies the following condition: 0 mm < Ri' < 0.3 mm.

[0023] The light turning module according to the preceding embodiment, wherein the non-enclosed ring-shaped structure further comprises at least one auxiliary arc, and at least a portion of the light blocking structures is disposed on the auxiliary arc, and the auxiliary arc has a radius of curvature r which satisfies the following condition: 0.5 mm < r < 50 mm.

[0024] The light turning module according to the preceding embodiment, wherein each light blocking structure has a height Hi in the direction perpendicular to the incident light axis which satisfies the following condition: 0.01 mm < Hi < 1.2 mm.

[0025] The light turning module according to the preceding embodiment, wherein each light blocking structure has a length Li in the direction parallel to the incident light axis which satisfies the following condition: 0.01 mm < Li < 2.8 mm.

[0026] The light turning module according to the preceding embodiment, wherein the light turning element is a plastic element.

[0027] The light turning module according to the preceding embodiment, wherein the light blocking body is a black plastic light blocking body.

[0028] According to one embodiment of the present disclosure, a camera module is provided, including a light deflection module as described in the foregoing embodiments and an imaging lens, wherein the imaging lens is disposed adjacent to the light deflection module.

[0029] According to one embodiment of the present disclosure, an electronic device is provided, including a camera module as described in the foregoing embodiments and an electronic photosensitive element, wherein the electronic photosensitive element is disposed on an imaging surface of the camera module. Attached Figure Description

[0030] Figure 1A A perspective view of a camera module according to a first embodiment of the first embodiment of the present disclosure is shown;

[0031] Figure 1B Drawing according to Figure 1A An exploded view of the camera module of the first embodiment of the first implementation;

[0032] Figure 1C Drawing according to Figure 1A A partial cross-sectional view of the camera module of the first embodiment of the first implementation;

[0033] Figure 1D Drawing according to Figure 1A A plan view of the camera module of the first embodiment of the first implementation;

[0034] Figure 1E Drawing according to Figure 1D Cross-sectional view along section line 1E-1E;

[0035] Figure 1F Drawing according to Figure 1A A plan view of the opaque body of the first embodiment of the first implementation;

[0036] Figure 1G Drawing according to Figure 1A A plan view of the opaque body in the second embodiment of the first embodiment;

[0037] Figure 2A A perspective view of a camera module according to the first embodiment of the second embodiment of this disclosure is shown;

[0038] Figure 2B Drawing according to Figure 2A An exploded view of the camera module of the first embodiment of the second implementation;

[0039] Figure 2C Drawing according to Figure 2A A plan view of the camera module of the first embodiment of the second implementation;

[0040] Figure 2D Drawing according to Figure 2Ccross-sectional view along section line 2D-2D;

[0041] Figure 2E a plan view of the light-tight body according to Figure 2A a plan view of the light-tight body according to a first embodiment of the second embodiment;

[0042] Figure 2F a plan view of the light-tight body according to Figure 2A a plan view of the light-tight body according to a second embodiment of the second embodiment;

[0043] Figure 3A a perspective view of a light-turning module according to a first embodiment of the third embodiment;

[0044] Figure 3B an exploded view of the light-turning module according to Figure 3A a first embodiment of the third embodiment;

[0045] Figure 3C a plan view of the light-turning module according to Figure 3A a first embodiment of the third embodiment;

[0046] Figure 3D a perspective view of the light-tight body according to Figure 3A a first embodiment of the third embodiment;

[0047] Figure 3E a plan view of the light-turning module according to Figure 3A a first embodiment of the third embodiment;

[0048] Figure 3F a plan view of the light-turning module according to Figure 3E a cross-sectional view along section line 3F-3F;

[0049] Figure 4A a perspective view of a light-turning module according to a first embodiment of the fourth embodiment;

[0050] Figure 4B a plan view of the light-turning module according to Figure 4A a first embodiment of the fourth embodiment;

[0051] Figure 4C a plan view of the light-turning module according to Figure 4A a first embodiment of the fourth embodiment;

[0052] Figure 4D a perspective view of the light-tight body according to Figure 4A a first embodiment of the fourth embodiment;

[0053] Figure 4E a perspective view of the light-tight body according to Figure 4A Another plan view of the light deflection module of the first embodiment of the fourth implementation;

[0054] Figure 4F Drawing according to Figure 4E Sectional view along section line 4F-4F;

[0055] Figure 5A A perspective view of a light-deflecting module according to the first embodiment of the fifth embodiment of this disclosure is shown;

[0056] Figure 5B Drawing according to Figure 5A An exploded view of the light-deflecting module of the first embodiment of the fifth implementation;

[0057] Figure 5C Drawing according to Figure 5A A plan view of the light deflection module of the first embodiment of the fifth implementation;

[0058] Figure 5D Drawing according to Figure 5A A perspective view of the opaque body of the first embodiment of the fifth embodiment;

[0059] Figure 5E Drawing according to Figure 5A Another plan view of the light-deflecting module of the first embodiment of the fifth implementation;

[0060] Figure 5F Drawing according to Figure 5E Sectional view along section line 5F-5F;

[0061] Figure 6A A perspective view of a light-deflecting module according to the first embodiment of the sixth embodiment of this disclosure is shown;

[0062] Figure 6B Drawing according to Figure 6A An exploded view of the light-deflecting module of the first embodiment of the sixth embodiment;

[0063] Figure 6C Drawing according to Figure 6A A plan view of the light deflection module of the first embodiment of the sixth embodiment;

[0064] Figure 6D Drawing according to Figure 6A A perspective view of the opaque body of the first embodiment of the sixth embodiment;

[0065] Figure 6E Drawing according to Figure 6A Another plan view of the light-deflecting module of the first embodiment of the sixth implementation;

[0066] Figure 6F FIG. 2 illustrates a perspective view of a light redirecting module according to a first embodiment of a seventh embodiment of the disclosure; Figure 6E FIG. 2A illustrates a cross-sectional view along section line 2F-2F;

[0067] Figure 7A FIG. 2B illustrates a perspective view of a light blocking body according to the first embodiment of the seventh embodiment of the disclosure; FIG. 2C illustrates an exploded view of the light redirecting module according to the first embodiment of the seventh embodiment of the disclosure;

[0068] FIG. 2D illustrates a plan view schematic of the light redirecting module according to the first embodiment of the seventh embodiment of the disclosure; Figure 7B FIG. 2E illustrates another plan view schematic of the light redirecting module according to the first embodiment of the seventh embodiment of the disclosure; Figure 7A FIG. 2F illustrates a perspective view of the light blocking body according to the first embodiment of the seventh embodiment of the disclosure; FIG. 2G illustrates a cross-sectional view along section line 2G-2G;

[0069] FIG. 2H illustrates a cross-sectional view along section line 2H-2H; Figure 7C FIG. 2I illustrates a plan view schematic of the light redirecting module according to a second embodiment of the seventh embodiment of the disclosure; Figure 7A FIG. 2J illustrates another plan view schematic of the light redirecting module according to the second embodiment of the seventh embodiment of the disclosure; FIG. 2K illustrates a perspective view of the light blocking body according to the second embodiment of the seventh embodiment of the disclosure;

[0070] FIG. 2L illustrates a cross-sectional view along section line 2L-2L; Figure 7D FIG. 2M illustrates a cross-sectional view along section line 2M-2M; Figure 7A FIG. 2N illustrates a perspective view of the light blocking body according to the second embodiment of the seventh embodiment of the disclosure; FIG. 2O illustrates a cross-sectional view along section line 2O-2O;

[0071] FIG. 2P illustrates a cross-sectional view along section line 2P-2P; Figure 7E FIG. 2Q illustrates a plan view schematic of the light redirecting module according to a third embodiment of the seventh embodiment of the disclosure; Figure 7A FIG. 2R illustrates another plan view schematic of the light redirecting module according to the third embodiment of the seventh embodiment of the disclosure; FIG. 2S illustrates a perspective view of the light blocking body according to the third embodiment of the seventh embodiment of the disclosure;

[0072] FIG. 2T illustrates a cross-sectional view along section line 2T-2T; Figure 7F FIG. 2U illustrates a cross-sectional view along section line 2U-2U; Figure 7E FIG. 2V illustrates a plan view schematic of the light redirecting module according to a fourth embodiment of the seventh embodiment of the disclosure; FIG. 2W illustrates another plan view schematic of the light redirecting module according to the fourth embodiment of the seventh embodiment of the disclosure;

[0073] FIG. 2X illustrates a perspective view of the light blocking body according to the fourth embodiment of the seventh embodiment of the disclosure; Figure 8A FIG. 2Y illustrates a cross-sectional view along section line 2Y-2Y; FIG. 2Z illustrates a cross-sectional view along section line 2Z-2Z;

[0074] FIG. 2AA illustrates a plan view schematic of the light redirecting module according to a fifth embodiment of the seventh embodiment of the disclosure; Figure 8B FIG. 2BB illustrates another plan view schematic of the light redirecting module according to the fifth embodiment of the seventh embodiment of the disclosure; Figure 8A FIG. 2CC illustrates a perspective view of the light blocking body according to the fifth embodiment of the seventh embodiment of the disclosure; FIG. 2DD illustrates a cross-sectional view along section line 2DD-2DD;

[0075] FIG. 2EE illustrates a cross-sectional view along section line 2EE-2EE; Figure 8C FIG. 2FF illustrates a plan view schematic of the light redirecting module according to a sixth embodiment of the seventh embodiment of the disclosure; Figure 8A FIG. 2GG illustrates another plan view schematic of the light redirecting module according to the sixth embodiment of the seventh embodiment of the disclosure; FIG. 2HH illustrates a perspective view of the light blocking body according to the sixth embodiment of the seventh embodiment of the disclosure;

[0076] FIG. 2II illustrates a cross-sectional view along section line 2II-2II; Figure 8D FIG. 2JJ illustrates a cross-sectional view along section line 2JJ-2JJ; Figure 8A FIG. 2KK illustrates a plan view schematic of the light redirecting module according to a seventh embodiment of the seventh embodiment of the disclosure; FIG. 2LL illustrates another plan view schematic of the light redirecting module according to the seventh embodiment of the seventh embodiment of the disclosure;

[0077] FIG. 2MM illustrates a perspective view of the light blocking body according to the seventh embodiment of the seventh embodiment of the disclosure; Figure 8E FIG. 2NN illustrates a cross-sectional view along section line 2NN-2NN; Figure 8A FIG. 2OO illustrates a cross-sectional view along section line 2OO-2OO; FIG. 2PP illustrates a plan view schematic of the light redirecting module according to an eighth embodiment of the seventh embodiment of the disclosure;

[0078] FIG. 2QQ illustrates another plan view schematic of the light redirecting module according to the eighth embodiment of the seventh embodiment of the disclosure; Figure 8F FIG. 2RR illustrates a perspective view of the light blocking body according to the eighth embodiment of the seventh embodiment of the disclosure; Figure 8E FIG. 2SS illustrates a cross-sectional view along section line 2SS-2SS; FIG. 2TT illustrates a cross-sectional view along section line 2TT-2TT;

[0079] FIG. 2UU illustrates a plan view schematic of the light redirecting module according to a ninth embodiment of the seventh embodiment of the disclosure; Figure 9A A schematic diagram illustrating the electronic device according to the ninth embodiment of this disclosure;

[0080] Figure 9B Drawing according to Figure 9A Another schematic diagram of the electronic device in the ninth embodiment;

[0081] Figure 9C Drawing according to Figure 9A A schematic diagram of an image captured by the electronic device in the ninth embodiment;

[0082] Figure 9D Drawing according to Figure 9A Another image captured by the electronic device in the ninth embodiment;

[0083] Figure 9E Drawing according to Figure 9A Another image captured by the electronic device in the ninth embodiment;

[0084] Figure 10 A schematic diagram illustrating the electronic device according to the tenth embodiment of this disclosure;

[0085] Figure 11A A schematic diagram illustrating the vehicle tool according to the eleventh embodiment of this disclosure;

[0086] Figure 11B Drawing according to Figure 11A Another schematic diagram of the vehicle tool in the eleventh embodiment; and

[0087] Figure 11C Drawing according to Figure 11A Another schematic diagram of the vehicle tool in the eleventh embodiment.

[0088] [Symbol Explanation]

[0089] 10,20,91b: Camera module

[0090] 11,21: Imaging lens

[0091] 11a, 21a: Lens tube section

[0092] 12,22: Assembly Components

[0093] 100, 200, 300, 400, 500, 600, 700, 800: Light Beam Module

[0094] 301, 401, 501, 601, 701, 801: Cover body

[0095] 302, 402, 502, 602, 702, 802: Assembled load-bearing components

[0096] 110, 210, 310, 410, 510, 610, 710, 810: light-bending element

[0097] 111, 211, 311, 411, 511, 611, 711, 811: light-incoming surface

[0098] 112, 212, 312, 412, 512, 612, 712, 812: light-outgoing surface

[0099] 120, 220, 320, 420, 520, 620, 720, 820: light-opaque body

[0100] 121, 2211, 2212, 321, 421, 521, 621, 721, 821: open gap

[0101] 122, 2221, 2222, 322, 422, 522, 622, 722, 822: light-blocking structure

[0102] 123, 2231, 623, 823: auxiliary arc

[0103] 90, 90a: electronic device

[0104] 91: high-pixel camera module

[0105] 92, 91a, 92a: ultra-wide camera module

[0106] 93, 94, 95a, 96a, 97a, 98a: telephoto camera module

[0107] 95: imaging signal processing element

[0108] 96, 901a: flash module

[0109] 97: user interface

[0110] 93a, 94a: wide-angle camera module

[0111] 99a: TOF module

[0112] 90b: vehicle tool

[0113] A: angle of view

[0114] I1, I2, I3, I4: external space information

[0115] Oi: incident optical axis

[0116] Oe: outgoing optical axis

[0117] X, Y, Z: axes

[0118] θi, θe: angles

[0119] θi',θe': angle

[0120] r, R, Ri', Re, Re': radius of curvature

[0121] Li, Le: length

[0122] Hi, He: height DETAILED DESCRIPTION

[0123] One aspect of the present disclosure provides a light turning module, comprising a light turning element and an opaque body, wherein the opaque body is disposed corresponding to the light turning element. The light turning element is used to turn an incident optical axis to an exit optical axis, and comprises an entrance surface and an exit surface. The incident optical axis passes through and enters the entrance surface. The exit optical axis passes through and exits the exit surface. The opaque body comprises a non-enclosed ring structure and a plurality of light shielding structures. The exit optical axis passes through an open gap of the non-enclosed ring structure. The light shielding structures extend from the non-enclosed ring structure to the exit optical axis along a direction perpendicular to the exit optical axis, wherein the light shielding structures are disposed adjacent to the exit surface of the light turning element. The light shielding structures occupy an angle θe with the exit optical axis as the center, and the number of the light shielding structures is Ne, which satisfies the following conditions: 10 degrees < θe < 350 degrees; and 15 < Ne < 460. By disposing the light shielding structures in the direction to the exit optical axis, non-imaging light outside the imaging angle of view can be shielded to maintain image clarity.

[0124] Specifically, the light turning element can be a prism, a mirror, etc. The light shielding structures can be wedge-shaped, straight strip-shaped, petal-shaped, semi-cylindrical, or wavy, etc. In addition, if the direction parallel to the exit optical axis is the Z axis, then the direction perpendicular to the exit optical axis is any direction on an XY plane defined by the X and Y axes.

[0125] Further, the non-enclosed ring structure can be an appearance feature of the opaque body, such as a C-shaped, U-shaped, or I-shaped, etc., but the present disclosure is not limited thereto. The light shielding structures can be arranged on the non-enclosed ring structure along a circumferential direction around the exit optical axis.

[0126] Each light shielding structure can extend to and taper to meet the exit optical axis. In this way, the light shielding performance of the light shielding structures can be improved.

[0127] The opaque body and the light shielding structures can be integrally formed. In this way, the assembly process between the opaque body and the light shielding structures is eliminated, and the manufacturing is faster.

[0128] The angle of the light blocking structure is θe, and the number of the light blocking structures is Ne, which satisfy the following conditions: 10 degrees < θe < 150 degrees; and 15 < Ne < 250. In this way, the reflection path of the non-imaging light can be destroyed on the surface of the specific position of the opaque body, so that the non-imaging light cannot enter the imaging lens, thereby improving the imaging quality. Specifically, the light blocking structure can be arranged in a linear arrangement in a non-closed ring structure.

[0129] The angle of the light blocking structure is θe, and the number of the light blocking structures is Ne, which satisfy the following conditions: 110 degrees < θe < 350 degrees; and 50 < Ne < 300. In this way, the light blocking requirement of various optical designs can be met to improve the optical design margin. Specifically, the light blocking structure can be arranged in a U-shaped arrangement in a non-closed ring structure.

[0130] Each light blocking structure is a wedge-shaped protrusion, and the wedge-shaped protrusion has an included angle θe', which satisfies the following conditions: 0 degrees < θe' < 90 degrees. In this way, the design of the wedge-shaped protrusion helps to destroy the reflection path of the non-imaging light, thereby improving the light blocking effect. Specifically, the opaque body can be a holder or a carrier made of plastic injection molding, which uses a mold to transfer the appearance of the wedge-shaped or semi-cylindrical shape of each light blocking structure; the opaque body can also be a light blocking sheet made by stamping processing, which uses a mold to cut out the appearance of the wedge-shaped or petal-shaped of each light blocking structure, but the present disclosure is not limited thereto.

[0131] Each light blocking structure forms a convex arc, and the convex arc has a radius of curvature Re, which satisfies the following conditions: 0 mm < Re < 0.3 mm. In this way, it helps to destroy the reflection path of the non-imaging light, thereby improving the light blocking effect.

[0132] Each light blocking structure forms a concave arc, and the concave arc has a radius of curvature Re', which satisfies the following conditions: 0 mm < Re' < 0.3 mm. In this way, it helps to destroy the reflection path of the non-imaging light, thereby improving the light blocking effect.

[0133] The non-closed ring structure can further include at least one auxiliary arc, at least a portion of the light blocking structure is arranged on the auxiliary arc, and the auxiliary arc has a radius of curvature r, which satisfies the following conditions: 0.5 mm < r < 50 mm. In this way, the ghosting (flare) at a specific angle can be eliminated, so that the imaging image is clear. In detail, the light blocking structure (including wedge-shaped protrusion, convex arc, concave arc, or continuous arrangement of convex arc and concave arc) can be further arranged on the auxiliary arc.

[0134] A height of each light shielding structure extending along a direction perpendicular to the outgoing light axis is He, which satisfies the following condition: 0.01 mm < He < 1.2 mm. In this way, the height extending range with better light shielding effect is increased.

[0135] A length of each light shielding structure extending along a direction parallel to the outgoing light axis is Le, which satisfies the following condition: 0.01 mm < Le < 2.8 mm. In this way, the length extending range with better light shielding effect is increased.

[0136] In addition, the light turning element can be made of plastic, and the light blocking body can be made of black plastic, but the disclosure is not limited thereto.

[0137] One aspect of the disclosure provides a light turning module, comprising a light turning element and a light blocking body, wherein the light blocking body is arranged correspondingly with the light turning element. The light turning element is used to turn an incident light axis to an outgoing light axis, and comprises an incident surface and an outgoing surface. The incident light axis passes through and enters the incident surface. The outgoing light axis passes through and exits the outgoing surface. The light blocking body comprises a non-closed ring structure and a plurality of light shielding structures. The incident light axis passes through an open gap of the non-closed ring structure. The light shielding structures extend from the non-closed ring structure towards the incident light axis along a direction perpendicular to the incident light axis, wherein the light shielding structures are arranged adjacent to the incident surface of the light turning element. The angle occupied by the light shielding structures with the incident light axis as the center is θi, and the number of the light shielding structures is Ni, which satisfies the following conditions: 10 degrees < θi < 350 degrees; and 15 < Ni < 460. By arranging the light shielding structures towards the incident light axis, non-imaging light outside the imaging viewing angle can be shielded to maintain image clarity.

[0138] Each light shielding structure can extend towards the incident light axis and taper to meet. In this way, the light shielding performance of the light shielding structure can be increased.

[0139] The light blocking body and the light shielding structure can be integrally formed. In this way, the assembly process between the light blocking body and the light shielding structure can be eliminated, and the manufacturing is faster.

[0140] The angle occupied by the light shielding structures with the incident light axis as the center is θi, and the number of the light shielding structures is Ni, which satisfies the following conditions: 10 degrees < θi < 150 degrees; and 15 < Ni < 250. In this way, the reflection path of the non-imaging light on the surface of the light blocking body at a specific position can be destroyed, so that the non-imaging light cannot enter the imaging lens, thereby improving the imaging quality. Specifically, the light shielding structures can be arranged in a linear arrangement on the non-closed ring structure.

[0141] The angle of the light shielding structure is θi, and the number of the light shielding structures is Ni, which satisfy the following conditions: 110 degrees < θi < 350 degrees; and 50 < Ni < 300. In this way, the light shielding requirement of various optical designs can be met to improve the optical design margin. Specifically, the light shielding structures can be arranged in a U-shaped arrangement in the non-closed loop structure.

[0142] Each light shielding structure can be a wedge-shaped protrusion with an included angle θi', which satisfies the following conditions: 0 degrees < θi' < 90 degrees. In this way, the design of the wedge-shaped protrusion helps to break the reflection path of the non-imaging light, improving the light shielding effect.

[0143] Each light shielding structure forms a convex arc with a radius of curvature Ri, which satisfies the following conditions: 0 mm < Ri < 0.3 mm. In this way, it helps to break the reflection path of the non-imaging light, improving the light shielding effect.

[0144] Each light shielding structure forms a concave arc with a radius of curvature Ri', which satisfies the following conditions: 0 mm < Ri' < 0.3 mm. In this way, it helps to break the reflection path of the non-imaging light, improving the light shielding effect.

[0145] The non-closed loop structure can further include at least one auxiliary arc, at least a portion of the light shielding structures being arranged on the auxiliary arc, the auxiliary arc having a radius of curvature r, which satisfies the following conditions: 0.5 mm < r < 50 mm. In this way, ghosting (flare) at a specific angle can be eliminated to make the imaging image clear. In detail, the light shielding structures (including wedge-shaped protrusions, convex arcs, concave arcs, or continuous arrangement of convex arcs and concave arcs) can be further arranged on the auxiliary arc.

[0146] The height of each light shielding structure extending in the direction perpendicular to the incident light axis is Hi, which satisfies the following conditions: 0.01 mm < Hi < 1.2 mm. In this way, the height extension range has a better light shielding effect.

[0147] The length of each light shielding structure extending in the direction parallel to the incident light axis is Li, which satisfies the following conditions: 0.01 mm < Li < 2.8 mm. In this way, the length extension range has a better light shielding effect.

[0148] In addition, the light turning element can be a plastic material, and the opaque body can be a black plastic material, but the present disclosure is not limited thereto.

[0149] It must be pointed out that the opaque body of the light turning module of any aspect of the present disclosure is not limited to being adjacent to only one of the light entering surface and the light exiting surface of the light turning element and the light shielding structure, but can also be adjacent to both the light entering surface and the light exiting surface of the light turning element and the light shielding structure.

[0150] One embodiment of this disclosure provides a camera module comprising a light deflection module as described in any of the preceding embodiments and an imaging lens, wherein the imaging lens is disposed adjacent to the light deflection module.

[0151] This disclosure provides an electronic device comprising a camera module as described above and an electronic photosensitive element, wherein the electronic photosensitive element is disposed on an imaging surface of the camera module.

[0152] <First Implementation Method>

[0153] Please refer to Figure 1A , Figure 1B as well as Figure 1C ,in Figure 1A A perspective view of a camera module 10 according to a first embodiment of the first implementation of this disclosure is shown. Figure 1B Drawing according to Figure 1A An exploded view of the camera module 10 of the first embodiment of the first implementation. Figure 1C Drawing according to Figure 1A A partial cross-sectional view of the camera module 10 of the first embodiment of the first implementation. Figure 1A , Figure 1B as well as Figure 1C As can be seen, the camera module 10 includes a light-deflecting module 100 and an imaging lens 11, wherein the imaging lens 11 is disposed adjacent to the light-deflecting module 100, and the light-deflecting module 100 is disposed on the image side of the imaging lens 11 via an assembly element 12. Specifically, the light-deflecting module 100 includes a light-deflecting element 110 and an opaque body 120, and the imaging lens 11 includes a lens barrel portion 11a, which is used to accommodate at least one imaging lens (not shown in the figure). This is not the focus of the technical content of this disclosure and will not be described in detail here.

[0154] Please refer to the following: Figure 1D as well as Figure 1E ,in Figure 1D Drawing according to Figure 1A A plan view of the camera module 10 of the first embodiment of the first implementation. Figure 1E Drawing according to Figure 1D A cross-sectional view along section line 1E-1E. (From...) Figures 1A to 1EIt is known that the light-turning element 110 of the light-turning module 100 is correspondingly arranged with the light-blocking body 120. The light-turning element 110 is used to turn an incident light axis Oi to an emergent light axis Oe, which includes an incident surface 111 and an emergent surface 112. The incident light axis Oi passes through and enters the incident surface 111, and the emergent light axis Oe passes through and exits the emergent surface 112. Specifically, the parallel emergent light axis Oe direction is the Z axis, and the perpendicular emergent light axis Oe direction is any direction on an XY plane defined by the X axis and the Y axis. In the first embodiment of the first embodiment of the first embodiment, the light-turning element 110 is a prism.

[0155] The light-blocking body 120 includes a non-closed ring structure (not labeled separately) and a plurality of light-blocking structures 122. The incident light axis Oi passes through an open gap 121 of the non-closed ring structure, and the light-blocking structure 122 extends from the non-closed ring structure to the incident light axis Oi in the direction perpendicular to the incident light axis Oi, wherein the light-blocking structure 122 is arranged adjacent to the incident surface 111 of the light-turning element 110. Specifically, the light-blocking structure 122 is arranged on the non-closed ring structure in a direction substantially around a circumference of the incident light axis Oi. In addition, the light-blocking body 120 and the light-blocking structure 122 are integrally formed.

[0156] Please refer to Figure 1F , which shows a schematic plan view of the light-blocking body 120 according to the first embodiment of the first embodiment of the first embodiment. By Figure 1A and Figure 1C It is known that each light-blocking structure 122 extends and converges towards the incident light axis Oi, and each light-blocking structure 122 is a wedge-shaped protrusion. The non-closed ring structure can further include two auxiliary arcs 123, and part of the light-blocking structures 122 are arranged on the auxiliary arcs 123. Figure 1F In addition, in the first embodiment of the first embodiment, the light-turning element 110 is made of plastic material, and the light-blocking body 120 is made of black plastic material.

[0157] Please refer to

[0158] and Figure 1E , in the first embodiment of the first embodiment, the incident light axis Oi is taken as the center, the angle occupied by the light-blocking structure 122 is θi, the number of light-blocking structures 122 is Ni, the wedge-shaped protrusion has an included angle θi', the auxiliary arc 123 has a radius of curvature r, the height of each light-blocking structure 122 extending in the direction perpendicular to the incident light axis Oi is Hi, and the length of each light-blocking structure 122 extending in the direction parallel to the incident light axis Oi is Li, which satisfies the following Table 1A values. Figure 1F

[0159]

[0160] ​

[0161] Please refer to Figure 1G , which illustrates a plan view of the light blocking body 120 according to Figure 1A the second embodiment of the first embodiment. It must be noted that the second embodiment of the first embodiment of the present disclosure differs from the first embodiment thereof only in the shape of the light blocking body 120, and the rest of the elements and positions, connection relationships are the same or similar, and are not described here. As shown in Figure 1C and Figure 1G , in the second embodiment of the first embodiment, each light blocking structure 122 extends towards the incident light axis Oi and converges gradually, each light blocking structure 122 is a petal shape, and each light blocking structure 122 forms a concave arc (not labeled). The non-closed ring structure can also include two auxiliary arcs 123, part of the light blocking structure 122 is arranged on the auxiliary arc 123.

[0162] Please refer to Figure 1E and Figure 1G , in the first embodiment of the first embodiment, the incident light axis Oi is taken as the center, the angle occupied by the light blocking structure 122 is θi, the number of light blocking structures 122 is Ni, the concave arc has a radius of curvature Ri', the auxiliary arc 123 has a radius of curvature r, the height of each light blocking structure 122 extending along the direction perpendicular to the incident light axis Oi is Hi, and the length of each light blocking structure 122 extending along the direction parallel to the incident light axis Oi is Li, which satisfies the following Table 1B values.

[0163]

[0164] <Second Embodiment>

[0165] Please refer to Figure 2A and Figure 2B , wherein Figure 2A illustrates a perspective view of the camera module 20 according to the first embodiment of the second embodiment of the present disclosure, Figure 2B illustrates an exploded view of the camera module 20 according to Figure 2A the first embodiment of the second embodiment. As shown in Figure 2A and Figure 2B , the camera module 20 includes a light turning module 200 and an imaging lens 21, wherein the imaging lens 21 and the light turning module 200 are arranged adjacent to each other, and the light turning module 200 is arranged on the image side of the imaging lens 21 through an assembly element 22. Specifically, the light turning module 200 includes a light turning element 210 and a light blocking body 220, and the imaging lens 21 includes a lens barrel portion 21a for accommodating at least one imaging lens (not shown in the figure), which is not the technical focus of the present disclosure, and is not described here.

[0166] Please refer to Figure 2C and Figure 2Dwherein Figure 2C A plan view schematic diagram of the camera module 20 according to Figure 2A A plan view schematic diagram of the camera module 20 according to Figure 2D A plan view schematic diagram of the camera module 20 according to Figure 2C A cross-sectional view along the section line 2D-2D. As shown in Figures 2A to 2D It is known that the light-turning element 210 of the light-turning module 200 is correspondingly disposed with the light-blocking body 220. The light-turning element 210 is used to turn an incident light axis Oi to an emergent light axis Oe, which includes an incident surface 211 and an emergent surface 212, wherein the incident light axis Oi passes through and enters the incident surface 211, and the emergent light axis Oe passes through and exits the emergent surface 212. Specifically, in the first embodiment of the second embodiment of the present disclosure, the light-turning element 210 is a prism, and the incident surface 211 and the emergent surface 212 are located on the same surface of the light-turning element 210.

[0167] The light-blocking body 220 includes two non-closed loop structures (not labeled) and a plurality of light-blocking structures 2221, 2222. The incident light axis Oi passes through an open gap 2211 of the non-closed loop structure, and the light-blocking structure 2221 extends from the non-closed loop structure to the incident light axis Oi in a direction perpendicular to the incident light axis Oi, wherein the light-blocking structure 2221 is disposed adjacent to the incident surface 211 of the light-turning element 210. The emergent light axis Oe passes through an open gap 2212 of the non-closed loop structure, and the light-blocking structure 2222 extends from the non-closed loop structure to the emergent light axis Oe in a direction perpendicular to the emergent light axis Oe, wherein the light-blocking structure 2222 is disposed adjacent to the emergent surface 212 of the light-turning element 210. In addition, the light-blocking body 220 is integrally formed with the light-blocking structures 2221, 2222.

[0168] Please refer to Figure 2E A plan view schematic diagram of the camera module 20 according to Figure 2A A plan view schematic diagram of the camera module 20 according to Figure 2E It is known that each light-blocking structure 2221 extends and converges taperingly towards the incident light axis Oi, and each light-blocking structure 2221 is a wedge-shaped protrusion. Each light-blocking structure 2222 extends and converges taperingly towards the emergent light axis Oe, and each light-blocking structure 2222 is a wedge-shaped protrusion.

[0169] In addition, in the first embodiment of the second embodiment, the light-turning element 210 is made of plastic material, and the light-blocking body 220 is made of black plastic material.

[0170] Please refer to Figure 2D and Figure 2E, the first embodiment of the second embodiment, the angle occupied by the light shielding structure 2221 is θi, the number of the light shielding structure 2221 is Ni, the wedge-shaped protrusion of the light shielding structure 2221 has an included angle θi', the height of each light shielding structure 2221 extending in the direction perpendicular to the incident light axis Oi is Hi, and the length of each light shielding structure 2221 extending in the direction parallel to the incident light axis Oi is Li; the angle occupied by the light shielding structure 2222 is θe, the number of the light shielding structure 2222 is Ne, the wedge-shaped protrusion of the light shielding structure 2222 has an included angle θe', the height of each light shielding structure 2222 extending in the direction perpendicular to the emergent light axis Oe is He, and the length of each light shielding structure 2222 extending in the direction parallel to the emergent light axis Oe is Le, which satisfy the values in Table 2A below.

[0171]

[0172]

[0173] Please refer to Figure 2F , which shows the second embodiment of the second embodiment of the second embodiment. Figure 2A The planar schematic diagram of the light-tight body 220 of the second embodiment of the second embodiment. It must be pointed out that the difference between the second embodiment of the second embodiment of the present disclosure and the first embodiment thereof is only that the type of the light-tight body 220 is different, and the rest of the elements and positions, connection relationships are the same or similar, which will not be described here. By Figure 2F It can be seen that in the second embodiment of the second embodiment, each light shielding structure 2221 is a petal shape, and each light shielding structure 2221 forms a convex arc (not labeled separately). The non-closed ring structure can also include two auxiliary arcs 2231, and part of the light shielding structure 2221 is arranged on the auxiliary arc 2231. Each light shielding structure 2222 is a petal shape, and each light shielding structure 2222 forms a concave arc (not labeled separately).

[0174] Please refer to Figure 2D and Figure 2F , the angle occupied by the light shielding structure 2221 is θi, the number of the light shielding structure 2221 is Ni, the convex arc has a radius of curvature Ri, the auxiliary arc 2231 has a radius of curvature r, the height of each light shielding structure 2221 extending in the direction perpendicular to the incident light axis Oi is Hi, and the length of each light shielding structure 2221 extending in the direction parallel to the incident light axis Oi is Li; the angle occupied by the light shielding structure 2222 is θe, the number of the light shielding structure 2222 is Ne, the concave arc has a radius of curvature Re', the height of each light shielding structure 2222 extending in the direction perpendicular to the emergent light axis Oe is He, and the length of each light shielding structure 2222 extending in the direction parallel to the emergent light axis Oe is Le, which satisfy the values in Table 2B below.

[0175]

[0176] <Third Implementation Method>

[0177] Please refer to Figure 3A , Figure 3B as well as Figure 3C ,in Figure 3A A perspective view of the light-deflecting module 300 according to the first embodiment of the third embodiment of this disclosure is shown. Figure 3B Drawing according to Figure 3A An exploded view of the light-transforming module 300 of the first embodiment of the third implementation. Figure 3C Drawing according to Figure 3A A plan view of the light-deflecting module 300 of the first embodiment of the third implementation. Figure 3A , Figure 3B as well as Figure 3C As can be seen, the light-deflecting module 300 includes a light-deflecting element 310 and an opaque body 320, with the opaque body 320 correspondingly disposed to the light-deflecting element 310. Additionally, the light-deflecting module 300 may also include a cover 301 and an assembly support 302, wherein the opaque body 320 and the light-deflecting element 310 are assembled and disposed on the assembly support 302, and the cover 301 covers the assembly support 302, facilitating the placement of the overall light-deflecting module 300 in a camera module or other device.

[0178] Please refer to the following: Figure 3D , Figure 3E as well as Figure 3F ,in Figure 3D Drawing according to Figure 3A A perspective view of the opaque body 320 of the first embodiment of the third embodiment. Figure 3E Drawing according to Figure 3A Another plan view of the light-transforming module 300 of the first embodiment of the third implementation. Figure 3F Drawing according to Figure 3E A cross-sectional view along section line 3F-3F. (From...) Figures 3D to 3F It is understood that the light-deflecting element 310 is used to deflect an incident light axis Oi to an outgoing light axis Oe. It includes an incident light surface 311 and an outgoing light surface 312, wherein the incident light axis Oi passes through and enters the incident light surface 311, and the outgoing light axis Oe passes through and moves away from the outgoing light surface 312. In the first embodiment of the third embodiment, the light-deflecting element 310 is a prism.

[0179] The opaque body 320 includes a non-closed annular structure (not otherwise labeled) and multiple light-shielding structures 322. The outgoing optical axis Oe passes through an open gap 321 in the non-closed annular structure. The light-shielding structures 322 extend from the non-closed annular structure toward the outgoing optical axis Oe in a direction perpendicular to the outgoing optical axis Oe, wherein the light-shielding structures 322 are disposed adjacent to the light-emitting surface 312 of the light-transforming element 310. In addition, the opaque body 320 and the light-shielding structures 322 are integrally formed.

[0180] Each light-shielding structure 322 extends toward the outgoing optical axis Oe and gradually converges, and each light-shielding structure 322 is a wedge-shaped protrusion.

[0181] In addition, in the first embodiment of the third implementation, the light-deflecting element 310 is made of plastic, and the opaque body 320 is made of black plastic.

[0182] Please refer to the following: Figure 3E as well as Figure 3F In the first embodiment of the third implementation, with the outgoing optical axis Oe as the center, the angle occupied by the light-shielding structure 322 is θe, the number of light-shielding structures 322 is Ne, the wedge-shaped protrusion has an included angle θe', the height of each light-shielding structure 322 extending in the direction perpendicular to the outgoing optical axis Oe is He, and the length of each light-shielding structure 322 extending in the direction parallel to the outgoing optical axis Oe is Le, which satisfies the values ​​in Table 3A below.

[0183]

[0184] <Fourth Implementation Method>

[0185] Please refer to Figure 4A , Figure 4B as well as Figure 4C ,in Figure 4A A perspective view of the light-deflecting module 400 according to the first embodiment of the fourth embodiment of this disclosure is shown. Figure 4B Drawing according to Figure 4A An exploded view of the light-transforming module 400 of the first embodiment of the fourth implementation. Figure 4C Drawing according to Figure 4A A plan view of the light-deflecting module 400 of the first embodiment of the fourth embodiment. Figure 4A , Figure 4B as well as Figure 4CIt is understood that the light-deflecting module 400 includes a light-deflecting element 410 and an opaque body 420, with the opaque body 420 correspondingly disposed to the light-deflecting element 410. Additionally, the light-deflecting module 400 may also include a cover 401 and an assembly support 402, wherein the opaque body 420 and the light-deflecting element 410 are assembled and disposed on the assembly support 402, and the cover 401 covers the assembly support 402, facilitating the placement of the overall light-deflecting module 400 in a camera module or other device.

[0186] Please refer to the following: Figure 4D , Figure 4E as well as Figure 4F ,in Figure 4D Drawing according to Figure 4A A perspective view of the opaque body 420 of the first embodiment of the fourth embodiment. Figure 4E Drawing according to Figure 4A Another plan view of the light-deflecting module 400 of the first embodiment of the fourth implementation. Figure 4F Drawing according to Figure 4E A cross-sectional view along section line 4F-4F. (From...) Figures 4D to 4F It is understood that the light-deflecting element 410 is used to deflect an incident light axis Oi to an outgoing light axis Oe. It includes an incident light surface 411 and an outgoing light surface 412, wherein the incident light axis Oi passes through and enters the incident light surface 411, and the outgoing light axis Oe passes through and moves away from the outgoing light surface 412. In the first embodiment of the fourth embodiment, the light-deflecting element 410 is a prism.

[0187] The opaque body 420 includes a non-closed annular structure (not otherwise labeled) and multiple light-shielding structures 422. The outgoing optical axis Oe passes through an open gap 421 in the non-closed annular structure. The light-shielding structures 422 extend from the non-closed annular structure toward the outgoing optical axis Oe in a direction perpendicular to the outgoing optical axis Oe, wherein the light-shielding structures 422 are disposed adjacent to the light-emitting surface 412 of the light-transforming element 410. In addition, the opaque body 420 and the light-shielding structures 422 are integrally formed.

[0188] Each light-shielding structure 422 extends toward the outgoing optical axis Oe and gradually converges, with each light-shielding structure 422 being a wedge-shaped protrusion. Specifically, the light-shielding structures 422 are arranged roughly along a circumference around the outgoing optical axis Oe on the non-closed ring structure; furthermore, the light-shielding structures 422 are generally arranged in a U-shape with the outgoing optical axis Oe as the center, and in the U-shaped arrangement, the light-shielding structures 422 located at the bottom of the U-shape are slightly different in shape and size from the light-shielding structures 422 located on both sides of the U-shape (for numerical differences, please refer to Table 4A below).

[0189] In addition, in the first embodiment of the fourth embodiment, the light-deflecting element 410 is made of plastic, and the opaque body 420 is made of black plastic.

[0190] Please refer to the following: Figure 4E as well as Figure 4F In the first embodiment of the fourth implementation, with the outgoing optical axis Oe as the center, the angle occupied by the light-shielding structure 422 is θe, the number of light-shielding structures 422 is Ne, the wedge-shaped protrusion has an included angle θe', the height of each light-shielding structure 422 extending in the direction perpendicular to the outgoing optical axis Oe is He, and the length of each light-shielding structure 422 extending in the direction parallel to the outgoing optical axis Oe is Le, which satisfies the values ​​in Table 4A below. It must be noted that in Table 4A below, the values ​​on the left in the θe' and He columns are the values ​​of the light-shielding structures 422 located on both sides of the U-shape, and the values ​​on the right are the values ​​of the light-shielding structures 422 located at the bottom of the U-shape.

[0191]

[0192] <Fifth Implementation Method>

[0193] Please refer to Figure 5A , Figure 5B as well as Figure 5C ,in Figure 5A A perspective view of a light-deflecting module 500 according to the first embodiment of the fifth embodiment of this disclosure is shown. Figure 5B Drawing according to Figure 5A An exploded view of the light-transforming module 500 of the first embodiment of the fifth implementation. Figure 5C Drawing according to Figure 5A A plan view of the light-deflecting module 500 of the first embodiment of the fifth embodiment. Figure 5A , Figure 5B as well as Figure 5C It is understood that the light-deflecting module 500 includes a light-deflecting element 510 and an opaque body 520, with the opaque body 520 corresponding to the light-deflecting element 510. Additionally, the light-deflecting module 500 may also include a cover 501 and an assembly support 502, wherein the opaque body 520 and the light-deflecting element 510 are assembled on the assembly support 502, and the cover 501 covers the assembly support 502, facilitating the placement of the overall light-deflecting module 500 in a camera module or other device.

[0194] Please refer to the following: Figure 5D , Figure 5E as well as Figure 5F ,in Figure 5D Drawing according to Figure 5A A perspective view of the opaque body 520 of the first embodiment of the fifth embodiment. Figure 5E Drawing according to Figure 5A Another plan view of the light-deflecting module 500 of the first embodiment of the fifth implementation. Figure 5F Drawing according to Figure 5ECross-sectional view along section line 5F-5F. (From...) Figures 5D to 5F It is understood that the light-deflecting element 510 is used to deflect an incident light axis Oi to an outgoing light axis Oe, and includes an incident light surface 511 and an outgoing light surface 512, wherein the incident light axis Oi passes through and enters the incident light surface 511, and the outgoing light axis Oe passes through and moves away from the outgoing light surface 512. In the first embodiment of the fifth embodiment, the light-deflecting element 510 is a prism.

[0195] The opaque body 520 includes a non-closed annular structure (not otherwise labeled) and multiple light-shielding structures 522. The outgoing optical axis Oe passes through an open gap 521 in the non-closed annular structure. The light-shielding structures 522 extend from the non-closed annular structure toward the outgoing optical axis Oe in a direction perpendicular to the outgoing optical axis Oe, wherein the light-shielding structures 522 are disposed adjacent to the light-emitting surface 512 of the light-transforming element 510. In addition, the opaque body 520 and the light-shielding structures 522 are integrally formed.

[0196] The light-shielding structure 522 is wavy. Specifically, part of the light-shielding structure 522 forms a convex arc (not otherwise labeled), and part of the light-shielding structure 522 forms a concave arc (not otherwise labeled), and the convex arc and the concave arc are arranged alternately.

[0197] In addition, in the first embodiment of the fifth embodiment, the light-deflecting element 510 is made of plastic, and the opaque body 520 is made of black plastic.

[0198] Please refer to the following: Figure 5E as well as Figure 5F In the first embodiment of the fifth implementation, with the outgoing optical axis Oe as the center, the angle occupied by the light-shielding structure 522 is θe, the number of light-shielding structures 522 is Ne, the convex arc has a radius of curvature Re, the concave arc has a radius of curvature Re', the height of each light-shielding structure 522 extending in the direction perpendicular to the outgoing optical axis Oe is He, and the length of each light-shielding structure 522 extending in the direction parallel to the outgoing optical axis Oe is Le, which satisfies the values ​​in Table 5A below.

[0199]

[0200] <Sixth Implementation Method>

[0201] Please refer to Figure 6A , Figure 6B as well as Figure 6C ,in Figure 6A A perspective view of a light-deflecting module 600 according to the first embodiment of the sixth embodiment of this disclosure is shown. Figure 6B Drawing according to Figure 6A An exploded view of the light-transforming module 600 of the first embodiment of the sixth implementation. Figure 6C Drawing according to Figure 6AA plan view of the light-deflecting module 600 of the first embodiment of the sixth embodiment. Figure 6A , Figure 6B as well as Figure 6C As can be seen, the light-deflecting module 600 includes a light-deflecting element 610 and an opaque body 620, with the opaque body 620 corresponding to the light-deflecting element 610. Additionally, the light-deflecting module 600 may also include a cover 601 and an assembly support 602, wherein the opaque body 620 and the light-deflecting element 610 are assembled on the assembly support 602, and the cover 601 covers the assembly support 602, facilitating the placement of the overall light-deflecting module 600 in a camera module or other device.

[0202] Please refer to the following: Figure 6D , Figure 6E as well as Figure 6F ,in Figure 6D Drawing according to Figure 6A A perspective view of the opaque body 620 of the first embodiment of the sixth embodiment. Figure 6E Drawing according to Figure 6A Another plan view of the light-deflecting module 600 of the first embodiment of the sixth embodiment. Figure 6F Drawing according to Figure 6E Cross-sectional view along section line 6F-6F. (From...) Figures 6D to 6F It is understood that the light-deflecting element 610 is used to deflect an incident light axis Oi to an outgoing light axis Oe. It includes an incident light surface 611 and an outgoing light surface 612, wherein the incident light axis Oi passes through and enters the incident light surface 611, and the outgoing light axis Oe passes through and moves away from the outgoing light surface 612. In the first embodiment of the sixth embodiment, the light-deflecting element 610 is a prism.

[0203] The opaque body 620 includes a non-closed annular structure (not otherwise labeled) and multiple light-shielding structures 622. The outgoing optical axis Oe passes through an open gap 621 in the non-closed annular structure. The light-shielding structures 622 extend from the non-closed annular structure toward the outgoing optical axis Oe in a direction perpendicular to the outgoing optical axis Oe, wherein the light-shielding structures 622 are disposed adjacent to the light-emitting surface 612 of the light-transforming element 610. In addition, the opaque body 620 and the light-shielding structures 622 are integrally formed.

[0204] Each light-shielding structure 622 extends toward the outgoing optical axis Oe and gradually converges, with each light-shielding structure 622 being a wedge-shaped protrusion. Specifically, the light-shielding structures 622 are arranged roughly along a circumference around the outgoing optical axis Oe on a non-closed ring structure; furthermore, the light-shielding structures 622 are generally arranged in a U-shape with the outgoing optical axis Oe as the center, and in the U-shaped arrangement, the light-shielding structures 622 located at the bottom of the U-shape differ slightly in shape and size from those located on the two sides of the U-shape (for numerical differences, please refer to Table 6A below).

[0205] Furthermore, the non-closed ring structure may also include multiple auxiliary arcs 623, with a light-shielding structure 622 disposed on the auxiliary arcs 623. Specifically, the auxiliary arcs 623 located at the bottom of the U-shape and the auxiliary arcs 623 located on both sides of the U-shape are slightly different in shape and size (please refer to Table 6A below for numerical differences).

[0206] In addition, in the first embodiment of the sixth embodiment, the light-deflecting element 610 is made of plastic, and the opaque body 620 is made of black plastic.

[0207] Please refer to the following: Figure 6E as well as Figure 6F In the first embodiment of the sixth implementation, with the outgoing optical axis Oe as the center, the angle occupied by the light-shielding structure 622 is θe, the number of light-shielding structures 622 is Ne, the wedge-shaped protrusion has an included angle θe', the auxiliary arc 623 has a radius of curvature r, the height of each light-shielding structure 622 extending in the direction perpendicular to the outgoing optical axis Oe is He, and the length of each light-shielding structure 622 extending in the direction parallel to the outgoing optical axis Oe is Le, which satisfies the values ​​in Table 6A below. It must be noted that in Table 6A below, the values ​​on the left in the θe', r, and He columns are the values ​​of the light-shielding structure 622 and auxiliary arc 623 located at the bottom of the U-shape, and the values ​​on the right are the values ​​of the light-shielding structures 622 and auxiliary arc 623 located on both sides of the U-shape.

[0208]

[0209] <Seventh Implementation Method>

[0210] Please refer to Figure 7A , Figure 7B as well as Figure 7C ,in Figure 7A A perspective view of a light-deflecting module 700 according to the first embodiment of the seventh embodiment of this disclosure is shown. Figure 7B Drawing according to Figure 7A An exploded view of the light-transforming module 700 of the first embodiment of the seventh embodiment. Figure 7C Drawing according to Figure 7A A plan view of the light-deflecting module 700 of the first embodiment of the seventh embodiment. Figure 7A , Figure 7B as well as Figure 7CAs can be seen, the light-deflecting module 700 includes a light-deflecting element 710 and an opaque body 720, with the opaque body 720 correspondingly disposed to the light-deflecting element 710. Additionally, the light-deflecting module 700 may also include a cover 701 and an assembly support 702, wherein the opaque body 720 and the light-deflecting element 710 are assembled and disposed on the assembly support 702, and the cover 701 covers the assembly support 702, facilitating the placement of the overall light-deflecting module 700 in a camera module or other device.

[0211] Please refer to the following: Figure 7D , Figure 7E as well as Figure 7F ,in Figure 7D Drawing according to Figure 7A A perspective view of the opaque body 720 of the first embodiment of the seventh embodiment. Figure 7E Drawing according to Figure 7A Another plan view of the light-deflecting module 700 of the first embodiment of the seventh embodiment. Figure 7F Drawing according to Figure 7E Sectional view along section line 7F-7F. Figures 7D to 7F It is understood that the light-deflecting element 710 is used to deflect an incident light axis Oi to an outgoing light axis Oe, and includes an incident light surface 711 and an outgoing light surface 712, wherein the incident light axis Oi passes through and enters the incident light surface 711, and the outgoing light axis Oe passes through and moves away from the outgoing light surface 712. In the first embodiment of the seventh embodiment, the light-deflecting element 710 is a prism.

[0212] The opaque body 720 includes a non-closed annular structure (not otherwise labeled) and multiple light-shielding structures 722. The incident optical axis Oi passes through an open notch 721 in the non-closed annular structure. The light-shielding structures 722 extend from the non-closed annular structure toward the incident optical axis Oi in a direction perpendicular to the incident optical axis Oi, wherein the light-shielding structures 722 are disposed adjacent to the light-incident surface 711 of the light-deflecting element 710. In addition, the opaque body 720 and the light-shielding structures 722 are integrally formed.

[0213] Each light-shielding structure 722 extends toward the incident optical axis Oi and gradually converges, and each light-shielding structure 722 is a wedge-shaped protrusion.

[0214] In addition, in the first embodiment of the seventh embodiment, the light-deflecting element 710 is made of plastic, and the opaque body 720 is made of black plastic.

[0215] Please refer to the following: Figure 7C as well as Figure 7FIn the first embodiment of the seventh embodiment, the angle of the light shielding structure 722 is θi, the number of the light shielding structure 722 is Ni, the wedge-shaped protrusion has an included angle θi', the height of each light shielding structure 722 extending along the direction perpendicular to the incident light axis Oi is Hi, and the length of each light shielding structure 722 extending along the direction parallel to the incident light axis Oi is Li, which satisfy the following Table 7A values.

[0216]

[0217] Eighth Embodiment

[0218] Please refer to Figure 8A , Figure 8B and Figure 8C , wherein Figure 8A a perspective view of a light ray folding module 800 according to the first embodiment of the eighth embodiment of the present disclosure is shown, Figure 8B an exploded view of the light ray folding module 800 according to the first embodiment of the eighth embodiment is shown, Figure 8A a plan view of the light ray folding module 800 according to the first embodiment of the eighth embodiment is shown. As can be seen from Figure 8C , Figure 8A and Figure 8A , the light ray folding module 800 comprises a light ray folding element 810 and an opaque body 820, and the opaque body 820 is arranged correspondingly to the light ray folding element 810. In addition, the light ray folding module 800 can further comprise a cover 801 and an assembly carrier 802, wherein the opaque body 820 and the light ray folding element 810 are assembled on the assembly carrier 802, and the cover 801 is arranged on the assembly carrier 802, which helps to arrange the whole light ray folding module 800 in a camera module or other device. Figure 8B Figure 8C Please refer to ,

[0219] and Figure 8D , wherein Figure 8E a perspective view of the opaque body 820 according to the first embodiment of the eighth embodiment is shown, Figure 8F another plan view of the light ray folding module 800 according to the first embodiment of the eighth embodiment is shown, Figure 8D a sectional view along the section line 8F-8F is shown. As can be seen from Figure 8A Figure 8E Figure 8A Figure 8F Figure 8E Figures 8D to 8F ​​​​​The light ray turning element 810 is configured to turn an incident light axis Oi to an emergent light axis Oe. The incident light axis Oi passes through and enters an entrance surface 811 of the light ray turning element 810. The emergent light axis Oe passes through and exits an exit surface 812 of the light ray turning element 810. In the first embodiment of the eighth embodiment, the light ray turning element 810 is a prism.

[0220] The light blocking body 820 comprises a non-enclosed loop structure (not labeled) and a plurality of light blocking structures 822. The emergent light axis Oe passes through an open gap 821 of the non-enclosed loop structure. The light blocking structures 822 extend from the non-enclosed loop structure along a direction perpendicular to the emergent light axis Oe towards the emergent light axis Oe. The light blocking structures 822 are disposed adjacent to the exit surface 812 of the light ray turning element 810. In addition, the light blocking body 820 is integrally formed with the light blocking structures 822.

[0221] The light blocking structures 822 are wavy. Specifically, some of the light blocking structures 822 form convex arcs (not labeled), some of the light blocking structures 822 form concave arcs (not labeled), and the convex arcs and the concave arcs are alternately arranged. In addition, the non-enclosed loop structure can further comprise a plurality of auxiliary arcs 823. The light blocking structures 822 are disposed on the auxiliary arcs 823.

[0222] In addition, in the first embodiment of the eighth embodiment, the light ray turning element 810 is made of plastic, and the light blocking body 820 is made of black plastic.

[0223] Please refer to Figure 8C , Figure 8E and Figure 8F , in the first embodiment of the eighth embodiment, the emergent light axis Oe is the center, the angle occupied by the light blocking structures 822 is θe, the number of the light blocking structures 822 is Ne, the convex arcs have a radius of curvature Re, the concave arcs have a radius of curvature Re', the auxiliary arcs 823 have a radius of curvature r, the height of each light blocking structure 822 extending along a direction perpendicular to the emergent light axis Oe is He, and the length of each light blocking structure 822 extending along a direction parallel to the emergent light axis Oe is Le. They satisfy the following Table 8A values.

[0224]

[0225] <The ninth embodiment>

[0226] Please refer to Figure 9A and Figure 9B , in which Figure 9A a schematic diagram of an electronic device 90 according to the ninth embodiment of the present disclosure is shown, Figure 9B another schematic diagram of the electronic device 90 according to Figure 9A the ninth embodiment is shown. From Figure 9A and Figure 9BIt is known that the electronic device 90 is a smart phone, and the electronic device 90 comprises a plurality of camera modules, a plurality of electronic photosensitive elements, and a user interface 97, wherein the electronic photosensitive elements are respectively arranged on the imaging surfaces of the camera modules. Further, the camera modules are high-pixel camera modules 91, ultra-wide-angle camera modules 92, and two-camera long-distance camera modules 93 and 94, and the user interface 97 is a touch screen, but is not limited thereto. Specifically, the camera modules can comprise the light turning module of any one of the first embodiment to the eighth embodiment and an imaging lens, and the imaging lens is arranged adjacent to the light turning module, but the present disclosure is not limited thereto.

[0227] The user enters a shooting mode through the user interface 97, wherein the user interface 97 is used to display a picture, and can be used to manually adjust the shooting angle to switch different camera modules. At this time, the camera modules converge the imaging light on the electronic photosensitive elements, and output the electronic signals related to the image to an image signal processing element (ISP) 95.

[0228] From Figure 9A It is known that, corresponding to the camera specifications of the electronic device 90, the electronic device 90 can further comprise an optical anti-shake assembly (not shown in the figure), and further, the electronic device 90 can further comprise at least one focusing auxiliary module (not shown in the figure) and at least one sensing element (not shown in the figure). The focusing auxiliary module can be a flash module 96 compensating for color temperature, an infrared distance measuring element, a laser focusing module, etc., and the sensing element can have the functions of sensing physical momentum and acting energy, such as an accelerometer, a gyroscope, a Hall effect element, to sense the shaking and shaking applied by the user's hand or the external environment, and thus facilitate the automatic focusing function of the camera module configuration in the electronic device 90 and the play of the optical anti-shake assembly, to obtain good imaging quality, which helps the electronic device 90 according to the present disclosure to have multiple modes of shooting functions, such as optimized selfie, low light source HDR (High Dynamic Range, high dynamic range imaging), high resolution 4K (4K Resolution) video recording, etc. In addition, the user can directly view the shooting picture of the camera from the user interface 97, and manually operate the range of the viewfinder on the user interface 97 to achieve the automatic focusing function of what you see is what you get.

[0229] Furthermore, the camera module, optical image stabilization component, sensing element, and focus assist module can be mounted on a flexible printed circuit board (FPC) (not shown), and electrically connected to the imaging signal processing element 95 and other related components via a connector (not shown) to execute the shooting process. Current electronic devices, such as smartphones, are trending towards thinner and lighter designs. By mounting the camera module and related components on a flexible printed circuit board and then using a connector to integrate the circuitry onto the mainboard of the electronic device, the design and circuit layout requirements within the limited internal space of the electronic device can be met, providing greater flexibility. This also allows for more flexible control of the camera module's autofocus function through the electronic device's touchscreen. In the ninth embodiment, the electronic device 90 may include multiple sensing elements and multiple focus assist modules. The sensing elements and focus assist modules are mounted on a flexible printed circuit board and at least one other flexible printed circuit board (not shown), and electrically connected to the imaging signal processing element 95 and other related components via corresponding connectors to execute the shooting process. In other embodiments (not shown), the sensing element and auxiliary optical element may also be mounted on the motherboard of the electronic device or other types of carrier boards, depending on the mechanical design and circuit layout requirements.

[0230] Furthermore, the electronic device 90 may further include, but is not limited to, a display unit, a control unit, a storage unit, random access memory (RAM), read-only memory (ROM), or a combination thereof.

[0231] Figure 9C Drawing according to Figure 9A A schematic diagram of an image captured by the electronic device 90 in the ninth embodiment. Figure 9C It can be seen that the ultra-wide-angle camera module 92 can capture images of a larger range, and has the function of capturing more scenery.

[0232] Figure 9D Drawing according to Figure 9A A schematic diagram of another image captured by the electronic device 90 in the ninth embodiment. Figure 9D It can be seen that the high-pixel camera module 91 can capture images within a certain range and also has high pixel count, with high resolution and low distortion.

[0233] Figure 9E Drawing according to Figure 9A A schematic diagram of another image captured by the electronic device 90 in the ninth embodiment. Figure 9E It is known that the telephoto camera modules 93 and 94 have high magnification capabilities, enabling them to capture distant images and magnify them to a high degree.

[0234] Depend on Figures 9C to 9EIt is known that the zooming function can be realized in the electronic device 90 by using the camera modules with different focal lengths and image processing technology.

[0235] <Eleventh Embodiment>

[0236] Please refer to Figure 10 , which shows a schematic diagram of an electronic device 90a according to the tenth embodiment of the present disclosure. As shown in Figure 10 , the electronic device 90a is a smart phone, and the electronic device 90a includes a plurality of camera modules and a plurality of electronic photosensitive elements, wherein the electronic photosensitive elements are respectively arranged on the imaging surfaces of the camera modules. Further, the camera modules are ultra-wide-angle camera modules 91a, 92a, wide-angle camera modules 93a, 94a, telephoto camera modules 95a, 96a, 97a, 98a, and a TOF module (Time-Of-Flight) 99a. The TOF module 99a can also be other types of camera modules, and is not limited to this configuration. Specifically, the camera module can include the light turning module of any one of the first embodiment to the eighth embodiment and an imaging lens, and the imaging lens is arranged adjacent to the light turning module, but the present disclosure is not limited thereto.

[0237] Further, the telephoto camera modules 97a, 98a also have the function of turning the light path, but the present disclosure is not limited thereto.

[0238] According to the camera specifications of the electronic device 90a, the electronic device 90a can also include an optical anti-shake assembly (not shown in the figure), and further, the electronic device 90a can also include at least one focusing auxiliary module (not shown in the figure) and at least one sensing element (not shown in the figure). The focusing auxiliary module can be a flash module 901a for compensating color temperature, an infrared ranging element, a laser focusing module, etc., and the sensing element can have the functions of sensing physical momentum and actuating energy, such as an accelerometer, a gyroscope, a Hall element, etc., to sense the shaking and shaking applied by the user's hand or the external environment, thereby facilitating the automatic focusing function of the camera module configuration in the electronic device 90a and the play of the optical anti-shake assembly, so as to obtain good imaging quality, which helps the electronic device 90a according to the present disclosure to have multiple modes of shooting functions, such as optimized selfie, low light source HDR (High Dynamic Range), high resolution 4K (4K Resolution) video recording, etc.

[0239] In addition, the structures and configuration relationships of the remaining elements of the ninth embodiment and the tenth embodiment are the same, and will not be described again here.

[0240] <Eleventh Embodiment>

[0241] Please refer to Figures 11A-11C , in which Figure 11A FIG. shows a schematic diagram of the vehicle tool 90b according to the eleventh embodiment of the present disclosure, Figure 11B FIG. shows Figure 11A another schematic diagram of the vehicle tool 90b according to the Figure 11C eleventh embodiment, Figure 11A and another schematic diagram of the vehicle tool 90b according to the eleventh embodiment. As can be seen from Figures 11A-11C , the vehicle tool 90b includes a plurality of camera modules 91b and a plurality of electronic photosensitive elements, and the electronic photosensitive elements are respectively disposed on the imaging surfaces of the camera modules 91b. In the eleventh embodiment, the number of the camera modules 91b is six, and the camera module 91b may include the light turning module and an imaging lens of any one of the foregoing first to eighth embodiments, and the imaging lens is adjacently disposed to the light turning module, but is not limited thereto.

[0242] As can be seen from Figure 11A and Figure 11B , the camera module 91b is a vehicle-mounted camera module, and two of the camera modules 91b are respectively located below the left and right rearview mirrors and are used to capture image information of a viewing angle A. Specifically, the viewing angle A can satisfy the following condition: 40 degrees < A < 90 degrees. Thereby, the image information within the range of the left and right adjacent lanes can be captured.

[0243] As can be seen from Figure 11B , another two of the camera modules 91b can be disposed in the space inside the vehicle tooling 90b. Specifically, the two camera modules 91b are respectively disposed at positions close to the interior rearview mirror and close to the rear window. Furthermore, the camera modules 91b can be respectively disposed on the non-mirror surfaces of the left and right rearview mirrors of the vehicle tooling 90b, but are not limited thereto.

[0244] As can be seen from Figure 11C , another two of the camera modules 91b can be disposed at the front and rear positions of the vehicle tooling 90b. By configuring the camera modules 91b at the front and rear of the vehicle tooling 90b and below the left and right rearview mirrors, it helps the driver to obtain external space information outside the cockpit, such as external space information I1, I2, I3, I4, but is not limited thereto. Thereby, more viewing angles can be provided to reduce blind spots, which in turn helps to improve driving safety. Furthermore, by disposing the camera modules 91b around the vehicle tooling 90b, it helps to identify the road condition information outside the vehicle tooling 90b, which helps to implement the function of automatic assisted driving.

[0245] Although the utility model has disclosed as above with the implementation mode and the embodiment, it is not used for limiting the utility model, any person with ordinary knowledge in the art can make some changes and decorations without departing from the spirit and scope of the utility model, therefore the protection scope of the utility model is accurate when the appended claims are defined.

Claims

1. A light redirecting module, comprising: The light turning module comprises: a light turning element for turning an incident light axis to an exit light axis, the light turning element comprising: an entrance surface, the incident light axis passing through and entering the entrance surface; and an exit surface, the exit light axis passing through and away from the exit surface; a light blocking body corresponding to the light turning element, the light blocking body comprising: a non-enclosed ring structure, the exit light axis passing through an open gap of the non-enclosed ring structure; and a plurality of light blocking structures extending from the non-enclosed ring structure towards the exit light axis in a direction perpendicular to the exit light axis, wherein the plurality of light blocking structures are disposed adjacent to the exit surface of the light turning element; wherein, with the exit light axis as the center, the angle occupied by the plurality of light blocking structures is θe, and the number of the plurality of light blocking structures is Ne, which satisfy the following conditions: 10 degrees < θe < 350 degrees; and 15 < Ne < 460.

2. The light redirecting module of claim 1, wherein, Each of the light blocking structures extends towards and converges with the exit light axis.

3. The light redirecting module of claim 1, wherein, The light blocking body and the plurality of light blocking structures are integrally formed.

4. The light redirecting module of claim 1, wherein, With the exit light axis as the center, the angle occupied by the plurality of light blocking structures is θe, and the number of the plurality of light blocking structures is Ne, which satisfy the following conditions: 10 degrees < θe < 150 degrees; and 15 < Ne < 250.

5. The light redirecting module of claim 1, wherein, With the exit light axis as the center, the angle occupied by the plurality of light blocking structures is θe, and the number of the plurality of light blocking structures is Ne, which satisfy the following conditions: 110 degrees < θe < 350 degrees; and 50 < Ne < 300.

6. The light redirecting module of claim 1, wherein, Each of the light blocking structures is a wedge-shaped protrusion, the wedge-shaped protrusion having an included angle θe', which satisfies the following condition: 0 degrees < θe' < 90 degrees.

7. The light redirecting module of claim 1, wherein, Each of the light blocking structures forms a convex arc, the convex arc having a radius of curvature Re, which satisfies the following condition: 0 mm < Re < 0.3 mm.

8. The light redirecting module of claim 1, wherein, Each of the light blocking structures forms a concave arc, the concave arc having a radius of curvature Re', which satisfies the following condition: 0 mm < Re' < 0.3 mm.

9. The light redirecting module of claim 1, wherein, The non-enclosed ring structure further comprises at least one auxiliary arc, at least a portion of the plurality of light blocking structures being disposed on the at least one auxiliary arc, the at least one auxiliary arc having a radius of curvature r, which satisfies the following condition: 0.5 mm < r < 50 mm.

10. The light redirecting module of claim 1, wherein, Each of the light blocking structures has a height He extending in a direction perpendicular to the exit light axis, which satisfies the following condition: 0.01 mm < He < 1.2 mm.

11. The light redirecting module of claim 1, wherein, Each of the light blocking structures has a length Le extending in a direction parallel to the exit light axis, which satisfies the following condition: 0.01 mm < Le < 2.8 mm.

12. The light redirecting module of claim 1, wherein, The light turning element is a plastic element.

13. The light redirecting module of claim 1, wherein, The light blocking body is a black plastic light blocking body.

14. A camera module characterized by comprising: The camera module comprises: the light turning module of claim 1; and an imaging lens disposed adjacent to the light turning module.

15. An electronic device, comprising: The camera module comprises: the camera module of claim 14; and an electronic photosensitive element disposed on an imaging surface of the camera module.

16. A light redirecting module comprising: The light turning module comprises: a light turning element for turning an incident light axis to an exit light axis, the light turning element comprising: an entrance surface, the incident light axis passing through and entering the entrance surface; and an exit surface, the exit light axis passing through and away from the exit surface; A light blocking body is disposed corresponding to the light turning element, the light blocking body comprising: An open-loop structure, the incident light axis passing through an open gap of the open-loop structure; and A plurality of light blocking structures extending from the open-loop structure toward the incident light axis in a direction perpendicular to the incident light axis, wherein the plurality of light blocking structures are disposed adjacent to the light-incident surface of the light turning element; Wherein, with the incident light axis as the center, the angle occupied by the plurality of light blocking structures is θi, and the number of the plurality of light blocking structures is Ni, which satisfy the following conditions: 10 degrees < θi < 350 degrees; and 15 < Ni < 460.

17. The light redirecting module of claim 16, wherein, Each of the light blocking structures extends toward the incident light axis and converges in a tapered manner.

18. The light redirecting module of claim 16, wherein, The light blocking body and the plurality of light blocking structures are integrally formed.

19. The light-turning module of claim 16, wherein, Wherein, with the incident light axis as the center, the angle occupied by the plurality of light blocking structures is θi, and the number of the plurality of light blocking structures is Ni, which satisfy the following conditions: 10 degrees < θi < 150 degrees; and 15 < Ni < 250.

20. The light-turning module of claim 16, wherein, Wherein, with the incident light axis as the center, the angle occupied by the plurality of light blocking structures is θi, and the number of the plurality of light blocking structures is Ni, which satisfy the following conditions: 110 degrees < θi < 350 degrees; and 50 < Ni < 300.

21. The light redirecting module of claim 16, wherein, Each of the light blocking structures is a wedge-shaped protrusion, the wedge-shaped protrusion having an included angle θi' satisfying the following condition: 0 degrees < θi' < 90 degrees.

22. The light-turning module of claim 16, wherein, Each of the light blocking structures forms a convex arc, the convex arc having a radius of curvature Ri satisfying the following condition: 0 mm < Ri < 0.3 mm.

23. The light-turning module of claim 16, wherein, Each of the light blocking structures forms a concave arc, the concave arc having a radius of curvature Ri' satisfying the following condition: 0 mm < Ri' < 0.3 mm.

24. The light-turning module of claim 16, wherein, The open-loop structure further comprises at least one auxiliary arc, at least a portion of the plurality of light blocking structures being disposed on the at least one auxiliary arc, the at least one auxiliary arc having a radius of curvature r satisfying the following condition: 0.5 mm < r < 50 mm.

25. The light-turning module of claim 16, wherein, A height of each of the light blocking structures extending in a direction perpendicular to the incident light axis is Hi, which satisfies the following condition: 0.01 mm < Hi < 1.2 mm.

26. The light-turning module of claim 16, wherein, A length of each of the light blocking structures extending in a direction parallel to the incident light axis is Li, which satisfies the following condition: 0.01 mm < Li < 2.8 mm.

27. The light-turning module of claim 16, wherein, The light turning element is a plastic element.

28. The light-turning module of claim 16, wherein, The light blocking body is a black plastic light blocking body.

Images