Optical integration device and lamp

Abstract

The utility model provides an optical integrated device and a lamp. The optical integrated device comprises a shell, a focusing assembly and a polarized light steering assembly, wherein the focusing assembly and the polarized light steering assembly are assembled in the shell; the focusing assembly and the polarized light steering assembly are sequentially arranged in the light emitting direction of the light source module, and the polarized light steering assembly is configured to rotate around the axial direction of the shell under the driving action of the second driving mechanism. Compared with the prior art, the optical integration device integrates the light focusing function, the polarization function and the steering function, the functions are more comprehensive, function adjustment can be achieved through electric control, and stability is good.

Description

Technical Field

[0001] The utility model relates to an optical integrated device and a lamp, belonging to the technical field of lighting. Background Art

[0002] To meet high lighting requirements, some existing spotlights often include additional accessories to enable focusing, polarization, and steering functions. However, these functions are often separate, requiring replacement accessories to achieve specific functions. Furthermore, most adjustments are manual, resulting in poor stability and low precision.

[0003] In view of this, it is indeed necessary to improve the existing optical integrated device to solve the above problems. Utility Model Content

[0004] The purpose of the utility model is to provide an optical integrated device, which can not only integrate the light focusing function, polarization and steering functions, but also realize functional adjustment through electric control and has better stability.

[0005] To achieve the above objectives, the present invention provides an optical integrated device, comprising:

[0006] shell;

[0007] A focusing assembly is assembled in the housing;

[0008] The polarization steering assembly is assembled in the housing. The focusing assembly and the polarization steering assembly are sequentially arranged in the light emitting direction of the light source module. The polarization steering assembly is configured to rotate around the axial direction of the housing under the driving action of the second driving mechanism.

[0009] As a further improvement of the present invention, the polarized light deflection assembly includes a first lens and a second lens located in the axial direction of the housing, and the polarized light deflection assembly is configured to complete light deflection when the first lens rotates relative to the second lens.

[0010] As a further improvement of the present invention, both the first lens and the second lens are wedge-shaped structures.

[0011] As a further improvement of the present invention, the polarized light steering assembly includes a first polarized light gear and a second polarized light gear. The first polarized light gear is fixed to the outside of the first lens, and the second polarized light gear is fixed to the outside of the second lens.

[0012] As a further improvement of the present invention, the second drive mechanism includes a first motor and a first transmission gear arranged on the output shaft of the first motor, and a second motor and a second transmission gear arranged on the output shaft of the second motor. The first transmission gear and the second transmission gear are meshed with the first polarized gear and the second polarized gear in a one-to-one correspondence.

[0013] As a further improvement of the present invention, the focusing assembly further includes a first focusing lens and a second focusing lens, and the first focusing lens and the second focusing lens are configured to rotate relative to each other to change the distance between them.

[0014] As a further improvement of the present invention, the focusing assembly further includes a rotating ring that rotates relative to the housing, and one of the first focusing lens and the second focusing lens is fixedly connected to the rotating ring.

[0015] As a further improvement of the present invention, the focusing assembly also includes a fixing frame, a clamping column is provided on the outer peripheral wall of the fixing frame, and an oblique receiving groove for accommodating the clamping column is provided on the side wall of the rotating ring. The fixing frame is configured to slide along the receiving groove when the rotating ring rotates to drive the focusing lens fixed thereto away from or closer to another focusing lens.

[0016] Another object of the present invention is to provide a lamp having the above optical integration device.

[0017] To achieve the above-mentioned purpose, the present invention provides a lamp, comprising:

[0018] Light source module;

[0019] And the above-mentioned optical integrated device is used to adjust the light emitted by the light source module.

[0020] The beneficial effects of the present invention are as follows: the optical integrated device of the present invention incorporates both a focusing assembly and a polarization steering assembly within a housing, and the focusing assembly and polarization steering assembly are sequentially positioned in the light-emitting direction of the light source module. This allows the polarization steering assembly to be driven by a second drive mechanism to rotate about the axial direction of the housing, thereby achieving light deflection and steering functions. Compared to the prior art, the optical integrated device of the present invention not only integrates light focusing, polarization, and steering functions, but also achieves electric adjustment through the second drive mechanism, resulting in improved stability. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 It is a three-dimensional structural diagram of the lamp of the present utility model.

[0022] Figure 2 yes Figure 1 sectional view.

[0023] Figure 3 yes Figure 1 Exploded diagram.

[0024] Figure 4 yes Figure 3 Schematic diagram of the three-dimensional structure of the power supply module.

[0025] Figure 5 yes Figure 3 Schematic diagram of the three-dimensional structure of the optical integrated device.

[0026] Figure 6 yes Figure 5 sectional view.

[0027] Figure 7 yes Figure 6 Schematic diagram of the three-dimensional structure of the driving mechanism.

[0028] Figure 8 yes Figure 7 Schematic diagram of the three-dimensional structure of the middle drive mechanism from another angle.

[0029] Figure 9 yes Figure 6 Schematic diagram of the three-dimensional structure of the focusing component.

[0030] Figure 10 yes Figure 6 Assembly drawing of the first focusing lens and the upper cover.

[0031] Figure 11 yes Figure 6 Assembly drawing of the second focusing lens, fixing frame and rotating ring.

[0032] Figure 12 yes Figure 6 Schematic diagram of the three-dimensional structure of the polarized light steering component.

[0033] Figure 13 yes Figure 6 Schematic diagram of the three-dimensional structure of the first lens assembly.

[0034] Figure 14 yes Figure 6 Schematic diagram of the three-dimensional structure of the second lens assembly.

[0035] Figure 15 This is a flow chart of the method for controlling polarized light of a lamp of the present invention.

[0036] Reference numerals:

[0037] 100- lamps;

[0038] 200-housing; 201-first end; 202-second end;

[0039] 300-heat dissipation module;

[0040] 400-light source module; 401-light source bracket;

[0041] 500-optical integrated device; 501-housing; 502-driving mechanism; 11-first driving mechanism; 110-third motor output shaft; 111-third transmission gear; 112-third motor; 12-second driving mechanism; 120-first motor; 121-first motor output shaft; 122-first transmission gear; 123-second motor; 124-second motor output shaft; 125-second transmission gear; 13-adapter plate; 14-mounting frame; 141-mounting surface; 142-fixing surface; 143-through hole; 503-focusing assembly; 21-focusing gear; 22-first A focusing lens; 23 - upper cover; 230 - receiving space; 231 - insertion hole; 232 - guide groove; 233 - slide groove; 24 - second focusing lens; 25 - fixing frame; 251 - clamping column; 26 - rotating ring; 261 - sliding member; 262 - receiving groove; 504 - polarizing steering assembly; 31 - polarizing gear; 311 - first polarizing gear; 312 - second polarizing gear; 32 - first lens assembly; 321 - first lens; 322 - first bracket; 33 - second lens assembly; 331 - second lens; 332 - second bracket; 34 - first bearing; 35 - second bearing;

[0042] 600-power supply module; 601-circuit board; 602-pin; 603-support frame; 604-fixing column; 605-connecting part; 6051-connecting hole; 606-guide rib;

[0043] 700-fixed pressure ring;

[0044] 800-reflective cup; 801-first-level reflective cup; 802-second-level reflective cup. DETAILED DESCRIPTION

[0045] In order to make the purpose, technical solutions and advantages of the present invention more clear, the present invention is described in detail below with reference to the accompanying drawings and specific embodiments.

[0046] See also Figure 1-Figure 3As shown, the present invention discloses a lamp 100, comprising a housing 200, a heat dissipation module 300, a light source module 400, an optical integration device 500, and a power supply module 600 assembled in the housing 200. The housing 200 is arranged to penetrate from top to bottom, and the heat dissipation module 300 is assembled at the first end 201 of the housing 200. The light source module 400 is connected to the heat dissipation module 300 and assembled on the side of the heat dissipation module 300 facing away from the first end 201. The optical integration device 500 is connected to the heat dissipation module 300, and in the axial direction of the housing 200, the optical integration device 500 is located below the light source module 400, that is, located in the light emitting direction of the light source module 400. The optical integration device 500 is used to adjust the light emitted by the light source module 400. The power supply module 600 is electrically connected to the optical integration device 500 to supply power to the optical integration device 500. The lamp 100 of the present invention has focusing, polarization, and steering functions, and the functional adjustment is achieved through electric control.

[0047] In this embodiment, the light source module 400 and the power supply module 600 are connected to the intelligent driver of the lamp through a conductive wire to enable the light source module 400 and the power supply module 600 to be powered. The heat dissipation module 300 is provided with a threading hole (not shown) for the conductive wire to pass through, and the threading holes are preferably two. The light source module 400 includes a light source bracket 401 and a light source (unnumbered) mounted on the light source bracket 401, and the light source bracket 401 is connected to the heat dissipation module 300. In the axial direction of the housing 200, the power supply module 600 is located between the light source module 400 and the optical integrated device 500.

[0048] Combine Figure 4 As shown, the power supply module 600 includes a circuit board 601 and a plurality of pins 602 integrated on the circuit board 601 and extending toward the optical integrated device 500. The circuit board 601 is electrically connected to the intelligent driver of the lamp. The power supply module 600 also includes a support frame 603 for mounting the circuit board 601. The support frame 603 is arranged around the periphery of the light source module 400 and abuts against the light source module 400. The plurality of pins 602 pass through the support frame 603 and extend into the optical integrated device 500, connecting the power supply module 600 and the optical integrated device 500 to provide power to the optical integrated device 500.

[0049] Specifically, the circuit board 601 protrudes from the outer wall of the support frame 603, and the support frame 603 is also provided with a fixing column 604 extending toward the optical integrated device 500 for a plurality of pins 602 to pass through, and the fixing column 604 abuts against the optical integrated device 500. The support frame 603 abuts against the light source bracket 401. The outer periphery of one end of the support frame 603 close to the light source bracket 401 is provided with a connecting portion 605 for connecting to the heat dissipation module 300, and the connecting portion 605 is provided with multiple and is arranged around the outside of the light source bracket 401. The connecting portion 605 is provided with a connecting hole 6051 for a fastener (not shown) to pass through, so that the support frame 603 can be fixedly connected to the heat dissipation module 300 by the fastener. At the same time, on the basis of keeping the position of the support frame 603 fixed, the heat generated by the power supply module 600 can also be dissipated through the heat dissipation module 300. The end of the support frame 603 away from the light source module 400 is connected to the optical integrated device 500.

[0050] Combine Figure 5 and Figure 6 As shown, the optical integrated device 500 is an annular structure, including a shell 501, a driving mechanism 502 assembled in the shell 501, a focusing component 503 and a polarization steering component 504. The shell 501 is arranged to pass through from top to bottom, and the shell 501 is coaxially arranged with the housing 200. A plurality of pins 602 extend into the driving mechanism 502 to supply power to the driving mechanism 502. The driving mechanism 502 can drive the focusing component 503 to move back and forth along the axial direction of the shell 501 to achieve the focusing function. The driving mechanism 502 can also drive the polarization steering component 504 to rotate around the axial direction of the shell 501 to achieve the polarization and steering functions. The optical integrated device 500 of the utility model integrates the light focusing function, light deflection and steering functions, and realizes functional adjustment through electric control, which has better stability.

[0051] Combine Figure 7 and Figure 8As shown, the driving mechanism 502 includes a first driving mechanism 11 and a second driving mechanism 12, and the polarization steering assembly 504 can rotate around the axial direction of the outer shell 501 under the driving action of the second driving mechanism 12. The focusing assembly 503 can move back and forth along the axial direction of the outer shell 501 under the driving action of the first driving mechanism 11. The driving mechanism 502 also includes an adapter plate 13, which is arranged on the outer peripheral wall of the support frame 603. The adapter plate 13 is provided with a plurality of contacts (not shown) to electrically contact with a plurality of pins 602. The first driving mechanism 11 and the second driving mechanism 12 are electrically connected to the power supply module 600 through the plurality of pins 602 and the plurality of contacts, so that the first driving mechanism 11 and the second driving mechanism 12 are powered. The utility model connects the driving mechanism 502 inside the optical integrated device 500 with the adapter plate 13, so that the entire optical integrated device 500 has a unified and integrated input port, which is convenient for free disassembly and replacement of each module. Of course, in other optional embodiments, the adapter plate 13 may not be provided, and the first driving mechanism 11 and the second driving mechanism 12 may be directly connected to the circuit board 601 via wires, respectively. There is no limitation to this.

[0052] The driving mechanism 502 also includes a mounting frame 14 for mounting the first driving mechanism 11 and the second driving mechanism 12. The mounting frame 14 is fixed to the inner peripheral wall of the outer shell 501. Specifically, the mounting frame 14 includes a mounting surface 141 perpendicular to the inner peripheral wall of the outer shell 501 and a fixing surface 142 arranged to fit the inner peripheral wall of the outer shell 501. The first driving mechanism 11 and the second driving mechanism 12 are mounted on the mounting surface 141, and the fixing surface 142 is engaged with the end of the outer shell 501 facing the heat dissipation module 300. The mounting frame 14 is also fixed to the outer shell 501 by providing a fastener (not shown) that passes through the side wall of the outer shell 501 and is connected to the fixing surface 142. A through hole 143 is provided at the center of the mounting frame 14, that is, a through hole 143 is provided at the center of the mounting surface 141, and the focusing assembly 503 partially extends into the interior of the mounting frame 14 from the through hole 143.

[0053] Combine Figures 9-11 As shown, the first drive mechanism 11 includes a third motor 112 and a third transmission gear 111 mounted on the third motor output shaft 110. The focusing assembly 503 includes a focusing gear 21 meshing with the third transmission gear 111. Upon activation of the third motor 112, the focusing assembly 503 reciprocates axially along the housing 501, driven by the focusing gear 21 and the third transmission gear 111. The third motor output shaft 110 extends beyond the mounting frame 14, and the third transmission gear 111 is located outside the mounting frame 14. The focusing gear 21 is located outside the mounting frame 14, and the third motor 112 is disposed outside the focusing gear 21.

[0054] Specifically, the focusing assembly 503 includes a first focusing lens 22 and a second focusing lens 24 located below the light source module 400 in the axial direction of the housing 200. An upper cover 23 for fixing the first focusing lens 22 is provided on the periphery of the first focusing lens 22. The upper cover 23 is connected to the mounting frame 14, and a receiving space 230 is formed between the upper cover 23 and the mounting frame 14. The first drive mechanism 11 and the second drive mechanism 12 are both partially received in the receiving space 230. Preferably, the upper cover 23 and the mounting frame 14 are also fixedly connected by fasteners (not shown). The first drive mechanism 11 and the second drive mechanism 12 are upright in the receiving space 230, and their two ends are connected to the mounting frame 14 and the upper cover 23 respectively. Preferably, the first drive mechanism 11 and the second drive mechanism 12 partially extend out of the upper cover 23 to limit the first drive mechanism 11 and the second drive mechanism 12 in the receiving space 230. The adapter plate 13 is located within the receiving space 230 and mounted on the side of the upper cover 23 facing the first and second drive mechanisms 11 and 12. The upper cover 23 defines a socket 231, through which the adapter plate 13 is partially exposed. Multiple pins 602 are inserted into the socket 231 and abut against multiple contacts on the adapter plate 13. The adapter plate 13 is preferably located on the side of the upper cover 23 opposite the mounting surface 141. The multiple pins 602 are resilient, ensuring a secure connection between them and the adapter plate 13. The fixing posts 604 abut the upper cover 23 and are supported on the periphery of the socket 231.

[0055] In this embodiment, the support frame 603 extends into and abuts the upper cover 23. The support frame 603 is located above the first focusing lens 22. Guide ribs 606 are provided on the outer circumferential wall of the support frame 603, and corresponding guide grooves 232 are provided on the inner circumferential wall of the upper cover 23. The support frame 603 extends into the upper cover 23, the guide ribs 606 are inserted into the guide grooves 232, and the multiple pins 602 are inserted into the corresponding receptacles 231. When the guide ribs 606 engage the corresponding guide grooves 232, the multiple pins 602 abut their corresponding contacts. The cooperation between the guide ribs 606 and the guide grooves 232 facilitates assembly. Of course, in other optional embodiments, guide grooves 232 may be provided on the support frame 603, and guide ribs 606 may be provided on the inner circumferential wall of the upper cover 23. This is not a limitation as long as it facilitates assembly.

[0056] The first focusing lens 22 and the second focusing lens 24 are configured to rotate relative to each other to change the distance between them to achieve focusing. It should be understood that the first focusing lens 22 and the second focusing lens 24 may be configured such that one of the first focusing lens 22 and the second focusing lens 24 is fixed while the other rotates relative to the first focusing lens 22, or both rotate in the same direction but at different speeds, or both rotate in different directions to achieve the purpose of changing the distance between them. This utility model is described in detail using the example of the first focusing lens 22 being fixed while the second focusing lens 24 rotates, but the invention is not limited thereto.

[0057] In the axial direction of the housing 501, the second focusing lens 24 is located below the first focusing lens 22. A fixing frame 25 for fixing the second focusing lens 24 and a rotating ring 26 arranged on the outside of the fixing frame 25 and connected to the fixing frame 25 are provided on the outer periphery of the second focusing lens 24. The rotating ring 26 and the housing 501 can rotate relative to each other. Specifically, the rotating ring 26 is connected to the upper cover 23 and can rotate relative to the upper cover 23. In this embodiment, the first focusing lens 22 is fixedly connected to the upper cover 23, and both the first focusing lens 22 and the upper cover 23 are fixed. The second focusing lens 24 is fixedly connected to the rotating ring 26, and the second focusing lens 24 is transmission-connected to the first driving mechanism 11, and can approach or move away from the first focusing lens 22 under the driving action of the first driving mechanism 11.

[0058] Preferably, the second focusing lens 24 and the fixing frame 25 are housed within the upper cover 23, and the rotating ring 26 partially extends into the upper cover 23. A sliding groove 233 is provided on the outer circumferential wall of the upper cover 23, and a sliding member 261 is provided on the outer circumferential wall of the rotating ring 26, extending toward the upper cover 23 and extending into the sliding groove 233. Under the action of an external force, the sliding member 261 can slide within the sliding groove 233, allowing the rotating ring 26 to rotate relative to the upper cover 23. At least one latch 251 is provided on the outer circumferential wall of the fixing frame 25, and an oblique receiving groove 262 for receiving the latch 251 is correspondingly provided on the side wall of the rotating ring 26. That is, the receiving groove 262 is arranged at an angle. The inner wall surface of the focusing gear 21 fits against the outer circumferential wall of the rotating ring 26 to drive the rotating ring 26 to rotate, causing the clamping column 251 to slide along the receiving groove 262. When the rotating ring 26 rotates, the fixing frame 25 slides along the receiving groove 262, driving the second focusing lens 24 away from or closer to the first focusing lens 22, thereby achieving the focusing function and making the light spot larger or smaller.

[0059] Combine Figure 12-14As shown, the polarization steering assembly 504 is provided with a polarization gear 31 that cooperates with the second drive mechanism 12 to adjust the lens in the polarization steering assembly 504 via the second drive mechanism 12. Specifically, the second drive mechanism 12 includes a first motor 120 and a first transmission gear 122 disposed on the first motor output shaft 121, as well as a second motor 123 and a second transmission gear 125 disposed on the second motor output shaft 124. The polarization steering assembly 504 includes a first polarization gear 311 meshing with the first transmission gear 122, and a second polarization gear 312 meshing with the second transmission gear 125. When the first motor 120 and / or the second motor 123 are activated, the polarization steering assembly 504 rotates about the axis of the housing 501 under the drive of the first transmission gear 122 and / or the second transmission gear 125. The first motor output shaft 121 and the second motor output shaft 124 also extend through the mounting frame 14, and the first transmission gear 122 and the second transmission gear 125 are also located outside the mounting frame 14. The first transmission gear 122 , the second transmission gear 125 and the third transmission gear 111 are all located between the focus gear 21 and the first polarizing gear 311 and the second polarizing gear 312 .

[0060] The polarization steering assembly 504 includes a first lens assembly 32 located below the focusing assembly 503 in the axial direction of the housing 501 and a second lens assembly 33 arranged in an annular manner on the outside of the first lens assembly 32. The first lens assembly 32 is rotatably arranged relative to the second lens assembly 33, and the second lens assembly 33 is rotatably arranged relative to the housing 501.

[0061] Specifically, the first lens assembly 32 includes a first lens 321 positioned axially of the housing 501 and a first bracket 322 disposed around the outside of the first lens 321 for securing the first lens 321. The second lens assembly 33 includes a second lens 331 positioned axially of the housing 501 and below the first lens 321, and a second bracket 332 disposed around the outside of the second lens 331 for securing the second lens 331. The second bracket 332 surrounds the outside of the first bracket 322. The polarization deflection assembly 504 is configured to deflect light when the first lens 321 rotates relative to the second lens 331.

[0062] In this embodiment, the first lens 321 and the second lens 331 are preferably two centrosymmetric wedge-shaped structures of equal size. It can be seen that when the two wedge-shaped structures switch from a centrosymmetric to an axisymmetric relative position, the light spot will deflect from the lamp's projection area to the outside. When the two wedge-shaped structures are centrosymmetric but not axisymmetric, and when the two wedge-shaped structures rotate synchronously, the light spot rotates at a fixed distance from the center of the lamp's projection area, resulting in a circular motion trajectory. Furthermore, when the two wedge-shaped structures are axisymmetric about the horizontal direction, one is a rising wedge structure and the other is a descending wedge structure.

[0063] The first polarizing gear 311 is fixed to the first bracket 322 and is located outside the first lens 321. The second polarizing gear 312 is fixed to the second bracket 332 and is located outside the second lens 331. The first polarizing gear 311 is located below the second polarizing gear 312. Driven by the second driving mechanism 12, the first lens 321 and the second lens 331 rotate relative to each other, thereby changing the thickness of the two lenses and achieving light deflection.

[0064] In this embodiment, the first bracket 322 and the second bracket 332 are arranged at intervals, and the first bracket 322 and the second bracket 332 are rotatably connected through the first bearing 34. The first bracket 322 is also supported in the second bracket 332 through the first bearing 34. The second bracket 332 and the outer shell 501 are rotatably connected through the second bearing 35. The second bearing 35 contacts the inner wall of the outer shell 501, and the second bracket 332 is supported in the outer shell 501 through the second bearing 35.

[0065] like Figure 2 and 3 As shown, the lamp 100 further includes a fixed pressure ring 700 mounted on the second end 202 of the housing 200. Specifically, the fixed pressure ring 700 is mounted on the end of the housing 200 away from the power supply module 600. The optical integrated device 500 abuts against the fixed pressure ring 700, which is threadedly connected to the inner circumferential wall of the second end 202 of the housing 200. The fixed pressure ring 700 is disposed below the outer shell 501 and abuts against the outer shell 501. Tightening the fixed pressure ring 700 compresses and constrains the optical integrated device 500 within the housing 200. Multiple contacts on the adapter plate 13 continuously abut against the pins 602 during the rotation of the fixed pressure ring 700. The lamp 100 also includes a reflective cup 800, which includes a primary reflective cup 801 and a secondary reflective cup 802. The primary reflective cup 801 is fixed in the support frame 603 and covers the periphery of the light source of the light source module 400. The secondary reflective cup 802 is located below the second lens 331 and is connected to the shell 200 and the fixed pressure ring.

[0066] The electric control process of the optical integrated device 500 is as follows: the first drive mechanism 11 and the second drive mechanism 12 are activated by a remote control, and the third motor 112 rotates forward or reverse to drive the focus gear 21, which in turn rotates the rotating ring 26 and drives the fixed frame 25 to move the second focus lens 24 up and down along the axis of the housing 501 to achieve the focusing function. Either the first motor 120 or the second motor 123 rotates forward or reverse, driving the corresponding first polarizing gear 311 or second polarizing gear 312 to rotate, which in turn rotates the corresponding first lens 321 or second lens 331, causing the first lens 321 and the second lens 331 to form a relative angle deflection, thereby achieving light deflection. In this embodiment, the light deflection direction is from the center to any direction around, that is, the light output direction is deflected relative to the initial light output direction, and the deflection angle is preferably 30°. After the light is deflected, the first motor 120 and the second motor 123 rotate forward or reverse at the same time. The first motor 120 drives the first polarizing gear 311, and the second motor 123 drives the second polarizing gear 312 to rotate at the same speed, thereby causing the first lens 321 and the second lens 331 to rotate synchronously around the axis of the housing 501. The deflected light will rotate around the lamp 100, thereby realizing the steering function.

[0067] like Figure 15 As shown, the present invention also provides a method for controlling the polarization of a lamp based on the optical integrated device 500, the specific steps of which are as follows:

[0068] Controlling the first driving mechanism 11 to drive the focusing lens in the focusing assembly 503 to move along the axial direction of the housing 501;

[0069] Controlling the second driving mechanism 12 to drive the first lens 321 and the second lens 331 to rotate relative to each other, so as to achieve deflection of the light emitting direction relative to the initial light emitting direction;

[0070] The second driving mechanism 12 is controlled to drive the first lens 321 and the second lens 331 to rotate synchronously around the axis of the housing 501 to achieve light deflection. That is, the light rotates at a specific angle with the light exit point as the vertex and the axis of the housing 501 as the center axis.

[0071] In summary, the optical integrated device 500 of the present invention assembles both the focusing assembly 503 and the polarization steering assembly 504 within the housing 501, and sequentially arranges the focusing assembly 503 and the polarization steering assembly 504 in the light-emitting direction of the light source module 400. Thus, the first drive mechanism 11 can be used to drive the focusing assembly 503 to reciprocate along the axial direction of the housing 501 to achieve the focusing function, and the second drive mechanism 12 can be used to drive the polarization steering assembly 504 to rotate about the axial direction of the housing 501 to achieve the light deflection and steering functions. Compared to the prior art, the optical integrated device 500 of the present invention not only integrates the light focusing, polarization, and steering functions, but also achieves functional adjustment through electric control, thereby having better stability.

[0072] The above embodiments are only used to illustrate the technical solutions of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solutions of the present invention may be modified or replaced by equivalents without departing from the spirit and scope of the technical solutions of the present invention.

Claims

1. An optical integrated device, characterized in that: include: housing (501); A focusing assembly (503) is assembled in the housing (501); A polarized light steering component (504) is assembled in the housing (501), the focusing component (503) and the polarized light steering component (504) are sequentially arranged in the light emitting direction of the light source module (400), and the polarized light steering component (504) is configured to rotate around the axial direction of the housing (501) under the driving action of the second driving mechanism (12).

2. The optical integrated device according to claim 1, wherein: The polarized light deflection assembly (504) includes a first lens (321) and a second lens (331) located in the axial direction of the housing (501), and the polarized light deflection assembly (504) is configured to complete light deflection when the first lens (321) rotates relative to the second lens (331).

3. The optical integrated device according to claim 2, wherein: The first lens (321) and the second lens (331) are both wedge-shaped structures.

4. The optical integrated device according to claim 2, wherein: The polarized light steering assembly (504) comprises a first polarized light gear (311) and a second polarized light gear (312), wherein the first polarized light gear (311) is fixed to the outside of the first lens (321), and the second polarized light gear (312) is fixed to the outside of the second lens (331).

5. The optical integrated device according to claim 4, wherein: The second driving mechanism (12) comprises a first motor (120) and a first transmission gear (122) provided on the first motor output shaft (121), and a second motor (123) and a second transmission gear (125) provided on the second motor output shaft (124), wherein the first transmission gear (122) and the second transmission gear (125) are meshed with the first polarized gear (311) and the second polarized gear (312) in a one-to-one correspondence.

6. The optical integrated device according to claim 1, wherein: The focusing assembly (503) further comprises a first focusing lens (22) and a second focusing lens (24), wherein the first focusing lens (22) and the second focusing lens (24) are configured to rotate relative to each other to change the distance between them.

7. The optical integrated device according to claim 6, wherein: The focusing assembly (503) further comprises a rotating ring (26) that rotates relative to the housing (501), and one of the first focusing lens (22) and the second focusing lens (24) is fixedly connected to the rotating ring (26).

8. The optical integrated device according to claim 7, wherein: The focusing assembly (503) further comprises a fixing frame (25), wherein a clamping column (251) is provided on an outer peripheral wall of the fixing frame (25), and an oblique receiving groove (262) for receiving the clamping column (251) is provided on a side wall of the rotating ring (26), and the fixing frame (25) is configured to slide along the receiving groove (262) when the rotating ring (26) rotates, thereby driving the focusing lens fixed thereto to move away from or closer to another focusing lens.

9. A lamp, characterized in that: include: Light source module (400); And the optical integrated device (500) according to any one of claims 1 to 8, wherein the optical integrated device (500) is used to adjust the light emitted by the light source module (400).

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