A three-dimensional spherical light panel structure

Abstract

The present invention discloses a three-dimensional spherical light panel structure, which includes a three-dimensional spherical skeleton module and a plurality of first and second light panel modules installed on the three-dimensional spherical skeleton module and capable of focusing the light emitted on the same point. The three-dimensional spherical skeleton module includes a first and a second spherical skeleton that are cross-assembled together; the first light panel module is installed on the first spherical skeleton or the second spherical skeleton in a manner that the relative position can be adjusted in the spherical diameter direction and along the circumferential direction, and the second light panel module is installed at the intersection of the first and second spherical skeletons in a manner that the relative position can be adjusted in the spherical diameter direction. The first light panel module can adjust the relative position in the spherical diameter direction and along the circumferential direction, and the second light panel module can adjust the relative position in the spherical diameter direction, so as to have a high adjustment accuracy for ultra-wide-angle products, and is suitable for the needs of focusing and reading images for products with different field angles, and can make the areas of the first and second light panels smaller, not easy to deform, and more convenient to use.

Description

Technical field:

[0001] The invention relates to the field of optical technology, in particular to a three-dimensional spherical light panel structure. Background technology:

[0002] In the field of optical technology, flat light panels are usually used to read images for focusing of camera products. However, when focusing and reading images of ultra-wide-angle products, ultra-large-area flat light panels are generally used to illuminate the products. However, the adjustment accuracy of ultra-wide-angle products is low, and the ultra-large flat light panels are very expensive and easily deformed. The equipment required to assemble the ultra-large-area flat light panels is very large and needs to occupy a very large area, which is very inconvenient to use.

[0003] In view of this, the inventor proposes the following technical solution. Summary of the invention:

[0004] The purpose of the present invention is to overcome the deficiencies of the prior art and provide a three-dimensional spherical light panel structure.

[0005] In order to solve the above technical problems, the present invention adopts the following technical scheme: the three-dimensional spherical light panel structure includes a three-dimensional spherical skeleton module and a first light panel module and a second light panel module which are installed on the three-dimensional spherical skeleton module and the light emitted by the first light panel module can be focused on the same point. The three-dimensional spherical skeleton module includes a first spherical skeleton and a second spherical skeleton which are cross-assembled together, and the curvature of the first spherical skeleton and the second spherical skeleton is greater than a semicircle; the first light panel module is installed on the first spherical skeleton or the second spherical skeleton in a manner that the relative position can be adjusted in the spherical diameter direction and along the circumferential direction, and the second light panel module is installed at the intersection of the first spherical skeleton and the second spherical skeleton in a manner that the relative position can be adjusted in the spherical diameter direction.

[0006] Furthermore, in the above technical solution, the first light panel module includes a first sliding seat which is mounted on the first spherical skeleton or the second spherical skeleton and can slide on the first spherical skeleton or the second spherical skeleton, and a plurality of first fastening screws for fastening the first sliding seat to the first spherical skeleton or the second spherical skeleton, a first sliding frame which is slidably mounted on the first sliding seat, and a second fastening screw for fastening the first sliding frame to the first sliding seat, and a first light panel mounted on the lower end of the first sliding frame.

[0007] Furthermore, in the above technical solution, the first sliding seat has a first arc-shaped sliding hole for the first spherical skeleton or the second spherical skeleton to pass through, and a first bearing and a plurality of second bearings are arranged in the first sliding seat. The first bearing extends into the first arc-shaped sliding hole and contacts with the inner side surface of the first spherical skeleton or the second spherical skeleton, and the second bearing contacts with the outer side surface of the first spherical skeleton or the second spherical skeleton.

[0008] Furthermore, in the above technical solution, a plurality of first slide grooves are provided on the first sliding seat, and a plurality of first screw holes are provided in the first slide grooves; the upper end of the first sliding frame is installed in the first slide grooves and can slide in the first slide grooves, and a first strip adjustment hole is provided at the upper end of the first sliding frame, and the second fastening screw passes through the first strip adjustment hole of the first sliding frame and is screwed into the first screw hole to fasten the first sliding frame and the first sliding seat together.

[0009] Furthermore, in the above technical solution, the first sliding frame is in the shape of a square frame.

[0010] Furthermore, in the above technical solution, the second light panel module includes a first sleeve and a second sleeve mounted on the first spherical skeleton or the second spherical skeleton, a third fastening screw and a fourth fastening screw respectively used to fasten the first sleeve and the second sleeve to the first spherical skeleton or the second spherical skeleton, a second sliding frame slidably installed on the first sleeve and the second sleeve, and a fifth fastening screw and a sixth fastening screw used to fasten the second sliding frame to the first sleeve and the second sleeve, and a second light panel installed at the lower end of the second sliding frame.

[0011] Furthermore, in the above technical solution, a plurality of second slide grooves and a third slide groove are respectively provided on the first jacket and the second jacket, and a plurality of second screw holes and a third screw holes are respectively provided in the second slide grooves and the third slide grooves; the upper end of the second sliding frame is installed in the second slide grooves and the third slide grooves, and can slide in the second slide grooves and the third slide grooves, and the upper end of the second sliding frame is provided with second strip adjustment holes and third strip adjustment holes, and the fifth fastening screw and the sixth fastening screw respectively pass through the second strip adjustment holes and the third strip adjustment holes of the second sliding frame and are screwed into the second screw holes and the third screw holes to fasten the second sliding frame to the first jacket and the second jacket together.

[0012] Furthermore, in the above technical solution, the second sliding frame is in the shape of a square frame.

[0013] Furthermore, in the above technical solution, an auxiliary focusing module is provided on the first spherical skeleton or the second spherical skeleton.

[0014] Furthermore, in the above technical solution, the auxiliary focusing module includes an angle adjustment seat and an infrared transmitter installed on the angle adjustment seat. The angle adjustment seat is rotatably installed on the first spherical skeleton or the second spherical skeleton through an axis, and the angle adjustment seat is also provided with an arc hole, and a pin shaft passes through the arc hole and is fixed to the first spherical skeleton or the second spherical skeleton.

[0015] After adopting the above technical scheme, the present invention has the following beneficial effects compared with the prior art: the present invention installs four groups of first light plate modules on the first spherical skeleton or the second spherical skeleton in a manner that the relative positions can be adjusted in the spherical diameter direction and along the circumferential direction, and installs a group of second light plate modules at the intersection of the first spherical skeleton and the second spherical skeleton in a manner that the relative positions can be adjusted in the spherical diameter direction. By adjusting the relative positions of the first light plate module and the second light plate module, the light emitted by the first light plate module and the second light plate module can be focused on the same point (the center of the sphere) to meet the lighting requirements for focusing and reading images of ultra-wide-angle products, and is suitable for the needs of focusing and reading images for products with different field of view angles. The area of ​​the first light plate in the first light plate module and the second light plate in the second light plate module can be made smaller and not easily deformed. The volume of the present invention is also relatively small, the adjustment accuracy for ultra-wide-angle products is high, and it is extremely convenient to use, which makes the present invention extremely competitive in the market. Description of the drawings:

[0016] Figure 1 is a stereogram of the present invention;

[0017] Figure 2 It is a stereogram of another viewing angle of the present invention;

[0018] Figure 3 is a three-dimensional diagram of the first light panel module of the present invention at a first viewing angle;

[0019] Figure 4 is a stereoscopic diagram of the first light panel module of the present invention from a second viewing angle;

[0020] Figure 5 is a three-dimensional diagram of the first light panel module of the present invention from a third viewing angle;

[0021] Figure 6 is a stereoscopic diagram of the second light panel module of the present invention from a first viewing angle;

[0022] Figure 7 It is a stereoscopic diagram of the second light panel module in the present invention at a second viewing angle. Specific implementation method:

[0023] The present invention is further described below in conjunction with specific embodiments and drawings.

[0024] See Figure 1-7As shown, a three-dimensional spherical light panel structure includes a three-dimensional spherical skeleton module 1 and a plurality of first light panel modules 2 and second light panel modules 3 installed on the three-dimensional spherical skeleton module 1 and emitting light that can be focused on the same point. The three-dimensional spherical skeleton module 1 includes a first spherical skeleton 11 and a second spherical skeleton 12 that are cross-assembled together, and the curvature of the first spherical skeleton 11 and the second spherical skeleton 12 is greater than a semicircle; the first light panel module 2 is installed on the first spherical skeleton 11 or the second spherical skeleton 12 in a manner that the relative position can be adjusted in the spherical diameter direction and along the circumferential direction, and the second light panel module 3 is installed at the intersection of the first spherical skeleton 11 and the second spherical skeleton 12 in a manner that the relative position can be adjusted in the spherical diameter direction. The present invention installs four groups of first light panel modules 2 on the first spherical skeleton 11 or the second spherical skeleton 12 in a manner that the relative positions can be adjusted in the spherical diameter direction and along the circumferential direction, and installs a group of second light panel modules 3 at the intersection of the first spherical skeleton 11 and the second spherical skeleton 12 in a manner that the relative positions can be adjusted in the spherical diameter direction. By adjusting the relative positions of the first light panel module 2 and the second light panel module 3, the light emitted by the first light panel module 2 and the second light panel module 3 can be focused on the same point (the center of the sphere) to meet the lighting requirements for focusing and reading images of ultra-wide-angle products, and is suitable for the needs of products with different field of view angles. The areas of the first light panel in the first light panel module 2 and the second light panel in the second light panel module 3 can be smaller and not easily deformed. The volume of the present invention is also relatively small, the adjustment accuracy for ultra-wide-angle products is high, and it is extremely convenient to use, which makes the present invention extremely competitive in the market.

[0025] The first light panel module 2 includes a first sliding seat 21 which is sleeved on the first spherical skeleton 11 or the second spherical skeleton 12 and can slide on the first spherical skeleton 11 or the second spherical skeleton 12, and a plurality of first fastening screws 22 for fastening the first sliding seat 21 to the first spherical skeleton 11 or the second spherical skeleton 12, a first sliding frame 23 slidably mounted on the first sliding seat 21 and a second fastening screw for fastening the first sliding frame 23 to the first sliding seat 21, and a first light panel 24 mounted on the lower end of the first sliding frame 23. The first sliding seat 21 slides on the first spherical skeleton 11 or the second spherical skeleton 12 to adjust the relative position of the first light plate 24 in the circumferential direction, that is, to adjust the angle with the vertical center line in the circumference. The relative position of the first sliding frame 23 on the first sliding seat 21 can also be adjusted to adjust the relative position of the first light plate 24 in the spherical diameter direction, which is suitable for focusing and reading images for products with different field of view angles, thereby meeting the product's demand for a three-dimensional spherical light plate structure.

[0026] The first sliding seat 21 has a first arc-shaped sliding hole 211 for the first spherical skeleton 11 or the second spherical skeleton 12 to pass through. The first sliding seat 21 is provided with a first bearing 212 and a plurality of second bearings 213. The first bearing 212 extends into the first arc-shaped sliding hole 211 and contacts the inner side surface of the first spherical skeleton 11 or the second spherical skeleton 12, and the second bearing 213 contacts the outer side surface of the first spherical skeleton 11 or the second spherical skeleton 12. The first bearing 212 and the plurality of second bearings 213 contact the inner side surface and the outer side surface of the first spherical skeleton 11 or the second spherical skeleton 12, so that the first sliding seat 21 can slide on the first spherical skeleton 11 or the second spherical skeleton 12 more smoothly and is more convenient to adjust.

[0027] A plurality of first slide grooves 214 are provided on the first sliding seat 21, and a plurality of first screw holes are provided in the first slide grooves 214; the upper end of the first sliding frame 23 is installed in the first slide grooves 214 and can slide in the first slide grooves 214, and a first strip-shaped adjustment hole 231 is provided on the upper end of the first sliding frame 23, and the second fastening screw passes through the first strip-shaped adjustment hole 231 of the first sliding frame 23 and is screwed into the first screw hole to fasten the first sliding frame 23 and the first sliding seat 21 together, so as to facilitate the first sliding frame 23 to adjust the relative position relative to the first sliding seat 21.

[0028] The first sliding frame 23 is in a square frame shape, which is convenient for holding the first sliding frame 23 and pulling the first sliding frame 23 to slide, making the operation more convenient.

[0029] The second optical panel module 3 includes a first jacket 31 and a second jacket 32 ​​sleeved on the first spherical skeleton 11 or the second spherical skeleton 12, a third fastening screw 301 and a fourth fastening screw 302 respectively used to fasten the first jacket 31 and the second jacket 32 ​​to the first spherical skeleton 11 or the second spherical skeleton 12, a second sliding frame 33 slidably mounted on the first jacket 31 and the second jacket 32, and a fifth fastening screw and a sixth fastening screw used to fasten the second sliding frame 33 to the first jacket 31 and the second jacket 32, and a second optical panel 34 mounted on the lower end of the second sliding frame 33. The relative position of the second sliding frame 33 on the first jacket 31 and the second jacket 32 ​​can be adjusted to adjust the relative position of the second optical panel 34 in the spherical diameter direction, so as to meet the needs of products with different viewing angles, thereby meeting the needs of products for a three-dimensional spherical optical panel structure.

[0030] The first jacket 31 and the second jacket 32 ​​are respectively provided with a plurality of second slide grooves 311 and a third slide groove 321, and the second slide grooves 311 and the third slide grooves 321 are respectively provided with a plurality of second screw holes and a third screw hole; the upper end of the second sliding frame 33 is installed in the second slide grooves 311 and the third slide grooves 321, and can slide in the second slide grooves 311 and the third slide grooves 321, and the upper end of the second sliding frame 33 is provided with a second strip adjustment hole 331 and a third strip adjustment hole 332, and the fifth fastening screw and the sixth fastening screw pass through the second strip adjustment hole 331 and the third strip adjustment hole 332 of the second sliding frame 33 respectively and are screwed into the second screw hole and the third screw hole to fasten the second sliding frame 33 with the first jacket 31 and the second jacket 32.

[0031] The second sliding frame 33 is in a square frame shape, which is convenient for holding the first sliding frame 23 and pulling the first sliding frame 23 to slide, making the operation more convenient.

[0032] The first spherical skeleton 11 or the second spherical skeleton 12 is provided with an auxiliary focusing module 4, through which light is emitted to the center of the sphere, so that the first light plate and the second light plate can be used as references to adjust the relative positions, thereby ensuring the convenience of adjustment.

[0033] The auxiliary focus module 4 includes an angle adjustment seat 41 and an infrared emitter 42 mounted on the angle adjustment seat 41. The angle adjustment seat 41 is rotatably mounted on the first spherical skeleton 11 or the second spherical skeleton 12 through an axis, and the angle adjustment seat 41 is also provided with an arc hole 411, through which a pin passes and is fixed to the first spherical skeleton 11 or the second spherical skeleton 12, so as to limit the formation of the rotation angle, so as to adjust the angle of the angle adjustment seat 41. The infrared emitter 42 emits infrared rays to the center of the ball.

[0034] In summary, the present invention installs four groups of first light panel modules 2 on the first spherical skeleton 11 or the second spherical skeleton 12 in a manner that the relative positions can be adjusted in the spherical diameter direction and along the circumferential direction, and installs a group of second light panel modules 3 at the intersection of the first spherical skeleton 11 and the second spherical skeleton 12 in a manner that the relative positions can be adjusted in the spherical diameter direction. By adjusting the relative positions of the first light panel module 2 and the second light panel module 3, the light emitted by the first light panel module 2 and the second light panel module 3 can be focused on the same point (the center of the sphere) to meet the lighting requirements for focusing and reading images of ultra-wide-angle products, and is suitable for the needs of products with different field of view angles. The areas of the first light panel in the first light panel module 2 and the second light panel in the second light panel module 3 can be smaller and not easily deformed. The volume of the present invention is also relatively small, the adjustment accuracy for ultra-wide-angle products is high, and it is extremely convenient to use, which makes the present invention extremely competitive in the market.

[0035] Of course, the above description is only a specific embodiment of the present invention and is not intended to limit the scope of implementation of the present invention. All equivalent changes or modifications made according to the structure, characteristics and principles described in the patent application scope of the present invention should be included in the patent application scope of the present invention.

Claims

1. A three-dimensional spherical light panel structure, characterized in that: The invention comprises a three-dimensional spherical skeleton module (1) and a plurality of first light panel modules (2) and second light panel modules (3) mounted on the three-dimensional spherical skeleton module (1) and capable of emitting light focused on the same point. The three-dimensional spherical skeleton module (1) comprises a first spherical skeleton (11) and a second spherical skeleton (12) which are cross-assembled together, and the curvature of the first spherical skeleton (11) and the second spherical skeleton (12) is greater than a semicircle. The first light panel module (2) is mounted on the first spherical skeleton (11) or the second spherical skeleton (12) in a manner that the relative position can be adjusted in the spherical diameter direction and along the circumferential direction. The second light panel module (3) 3) mounted at the intersection of the first spherical frame (11) and the second spherical frame (12) in a manner that the relative position can be adjusted in the direction of the spherical diameter; the first light panel module (2) comprises a first sliding seat (21) sleeved on the first spherical frame (11) or the second spherical frame (12) and slidable on the first spherical frame (11) or the second spherical frame (12), and a plurality of first fastening screws (22) for fastening the first sliding seat (21) to the first spherical frame (11) or the second spherical frame (12), a first sliding frame (23) mounted on the first sliding seat (21) in a slidable manner, and a first fastening screw (22) for fastening the first sliding seat (21) to the first spherical frame (11) or the second spherical frame (12). The first sliding frame (23) is fastened to a second fastening screw on the first sliding seat (21), and a first light plate (24) is installed at the lower end of the first sliding frame (23); the first sliding seat (21) has a first arc-shaped sliding hole (211) for the first spherical skeleton (11) or the second spherical skeleton (12) to pass through; a first bearing (212) and a plurality of second bearings (213) are arranged in the first sliding seat (21); the first bearing (212) extends into the first arc-shaped sliding hole (211) and contacts the inner side surface of the first spherical skeleton (11) or the second spherical skeleton (12); the second bearing (213) contacts the first spherical skeleton (11) or the second spherical skeleton (12); The first sliding seat (21) is provided with a plurality of first sliding grooves (214), and a plurality of first screw holes are provided in the first sliding grooves (214); the upper end of the first sliding frame (23) is installed in the first sliding grooves (214) and can slide in the first sliding grooves (214); the upper end of the first sliding frame (23) is provided with a first strip-shaped adjustment hole (231), and the second fastening screw passes through the first strip-shaped adjustment hole (231) of the first sliding frame (23) and is screwed into the first screw hole to fasten the first sliding frame (23) and the first sliding seat (21) together; An auxiliary focusing module (4) is provided on the first spherical skeleton (11) or the second spherical skeleton (12), and light is emitted to the center of the sphere through the auxiliary focusing module (4), so that the first light plate and the second light plate can be used as a reference to adjust the relative position, thereby ensuring the convenience of adjustment.

2. The three-dimensional spherical light panel structure according to claim 1, characterized in that: The first sliding frame (23) is in the shape of a square frame.

3. A three-dimensional spherical light panel structure according to any one of claims 1 to 2, characterized in that: The second optical panel module (3) comprises a first clamp (31) and a second clamp (32) sleeved on the first spherical frame (11) or the second spherical frame (12), a third fastening screw (301) and a fourth fastening screw (302) respectively used to fasten the first clamp (31) and the second clamp (32) to the first spherical frame (11) or the second spherical frame (12), a second sliding frame (33) slidably mounted on the first clamp (31) and the second clamp (32), a fifth fastening screw and a sixth fastening screw used to fasten the second sliding frame (33) to the first clamp (31) and the second clamp (32), and a second optical panel (34) mounted on the lower end of the second sliding frame (33).

4. The three-dimensional spherical light panel structure according to claim 3, characterized in that: The first jacket (31) and the second jacket (32) are respectively provided with a plurality of second slide grooves (311) and a third slide groove (321), and the second slide grooves (311) and the third slide grooves (321) are respectively provided with a plurality of second screw holes and a third screw hole; the upper end of the second sliding frame (33) is mounted in the second slide grooves (311) and the third slide grooves (321), and can slide in the second slide grooves (311) and the third slide grooves (321), and the upper end of the second sliding frame (33) is provided with a second strip-shaped adjustment hole (331) and a third strip-shaped adjustment hole (332), and the fifth fastening screw and the sixth fastening screw respectively pass through the second strip-shaped adjustment hole (331) and the third strip-shaped adjustment hole (332) of the second sliding frame (33) and are screwed into the second screw hole and the third screw hole, so as to fasten the second sliding frame (33) to the first jacket (31) and the second jacket (32) together.

5. The three-dimensional spherical light panel structure according to claim 3, characterized in that: The second sliding frame (33) is in the shape of a square frame.

6. The three-dimensional spherical light panel structure according to claim 1, characterized in that: The auxiliary focusing module (4) comprises an angle adjustment seat (41) and an infrared emitter (42) mounted on the angle adjustment seat (41); the angle adjustment seat (41) is rotatably mounted on the first spherical skeleton (11) or the second spherical skeleton (12) via an axle, and the angle adjustment seat (41) is also provided with an arc hole (411), through which a pin passes to be fixed to the first spherical skeleton (11) or the second spherical skeleton (12).

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