Double-camera monitoring eye protection lamp

Abstract

The double-camera monitoring eye protection lamp comprises a lamp holder assembly, a supporting shell and a camera monitoring module, the camera monitoring module comprises two image acquisition devices, the supporting shell comprises a bottom shell and a stand column located on the bottom shell, the outer side face of the stand column is concaved inwards to form an annular receding space, a rotating shell is embedded in the annular receding space, and the rotating shell is located in the bottom shell. The bottom of the annular receding space communicates with the interior of the stand column, an in-column support is arranged in the stand column, a rotating motor is fixed to the in-column support, and an output shaft of the rotating motor is connected to the rotating shell and used for driving the rotating shell to rotate in the circumferential direction. The rotating shell is provided with two camera shooting holes corresponding to the two image acquisition devices respectively, the image acquisition devices and the rotating motor are connected to a control device, and the control device is connected with a control switch. The table lamp of the scheme is provided with the monitoring module with the double cameras, compared with a table lamp with a single camera, the field angle range is obviously enlarged, and the monitoring effect is effectively ensured.

Description

Technical Field

[0001] This utility model belongs to the field of eye protection lamp technology, and in particular relates to a dual-temperature monitoring eye protection lamp. Background Technology

[0002] Poor posture forces muscles to exert more force to maintain balance, causing some muscles to become tense and stiff, while others become relaxed and inhibited. This uneven muscle tension can affect normal eye function and increase eye strain. This is especially true when teenagers maintain poor posture for extended periods, such as tilting their heads, looking down, leaning on their arms, hunching over, or slouching while reading or writing, increasing the accommodative pressure on the eyes and leading to decreased vision. Incorrect posture also causes the eyes to be too close to the book, increasing pressure on both eyes and accelerating the development of myopia. Over time, this can lead to differences in vision and refractive error between the two eyes, resulting in strabismus and other problems. Furthermore, poor posture weakens the body's ability to resist external pressure, causing more wear and tear on ligaments and joints. Therefore, it is essential for teenagers to maintain good posture when reading and writing.

[0003] Traditional smart eye-protection desk lamps only provide eye-protection lighting and lack posture detection capabilities. In response, many have proposed eye-protection desk lamps with posture detection functions, such as the anti-myopia eye-protection desk lamp with posture reminder function disclosed in Chinese patent [Publication No.: CN219243482U]. While these types of eye-protection desk lamps can monitor posture, they require the lamp to be in a specific position. When the desk is positioned to the side due to limited desktop depth, the monitoring effect is not effective. To address this, the applicant previously proposed an AI eye-protection desk lamp with learning monitoring [Publication No.: CN216619448U]. This solution features an adjustable camera angle, allowing the monitoring function to be maintained even when the lamp is not directly in front of the user. However, this solution uses a single-camera structure. During ongoing research and development, the applicant discovered that single cameras have a limited field of view, often resulting in situations where the user is not fully within the shooting range (especially when the lamp is positioned to the side), affecting the monitoring effect. Utility Model Content

[0004] The purpose of this invention is to address the above-mentioned problems by proposing an intelligent eye-protection lamp with monitoring capabilities.

[0005] A dual-camera monitoring eye-protection lamp includes a lamp head assembly, a supporting shell, and a camera monitoring module. The camera monitoring module includes two image acquisition devices. The supporting shell includes a bottom shell and a column located on the bottom shell. The outer side of the column has an inwardly recessed annular clearance space. A rotating shell is embedded in the annular clearance space, and the bottom of the annular clearance space is connected to the inside of the column. The column has an internal support bracket, and a rotary motor is fixed in the internal support bracket. The output shaft of the rotary motor is connected to the rotating shell to drive the rotating shell to rotate circumferentially. The two image acquisition devices are located inside the rotating shell. The rotating shell has two camera holes corresponding to the two image acquisition devices respectively. The image acquisition devices and the rotary motor are all connected to a control device, and the control device is connected to a control switch.

[0006] In the aforementioned dual-camera monitoring eye-protection lamp, the control switch is a touch panel and is installed on the upper surface of the rotating housing.

[0007] In the aforementioned dual-camera monitoring eye-protection lamp, a circular groove is formed at the bottom of the annular clearance space, and a through hole is opened on the bottom surface of the circular groove to connect to the inside of the column, so that the bottom of the annular clearance space is connected to the inside of the column and an annular step is formed at the bottom of the circular groove.

[0008] The bottom of the rotating housing has a large stepped boss, and the annular groove and its annular steps are adapted to the large stepped boss.

[0009] The large stepped boss has a small stepped boss at its bottom, and the small stepped boss is adapted to the through hole.

[0010] The small stepped protrusion has a threaded through hole, and the output shaft of the rotary motor is connected to the module bracket located inside the rotating housing through the threaded through hole. The image acquisition device and the control device are both mounted on the module bracket. The rotary motor drives the rotating housing and the module bracket to rotate together via the stepped shaft.

[0011] In the aforementioned dual-camera monitoring eye-protection lamp, the bottom of the annular clearance space has an arc-shaped limiting groove with an arc of 90±10 degrees on the side of the circular groove near the outer side of the column, and the bottom of the rotating shell has a limiting protrusion that matches the arc-shaped limiting groove.

[0012] In the aforementioned dual-camera monitoring eye protection lamp, the bottom of the annular clearance space has a first arc-shaped wire passage groove on the side of the circular groove away from the outer side of the column, and the bottom of the rotating outer shell has a second arc-shaped wire passage groove corresponding to the first arc-shaped wire passage groove.

[0013] The column includes a column body with an arc-shaped column and a flange column integrally formed on the arc-shaped column of the column body. The upper end of the flange column is lower than the upper end of the column body so that the arc-shaped column of the column body and the flange column form the annular clearance space. The upper end of the flange column serves as the bottom of the annular clearance space.

[0014] The bottom surface of the rotating shell is arc-shaped, and the center of the arc is located on the center line of the flange post. The radius of the bottom surface of the rotating shell is equal to the radius of the flange post.

[0015] In the aforementioned dual-camera monitoring eye-protection lamp, the output shaft of the rotary motor is connected to the stepped shaft via a connecting sleeve, and the stepped shaft passes through the bottom of the annular clearance space and is connected to the rotary housing and module bracket.

[0016] The through hole extends outward circumferentially from one end near the inside of the column to form a bearing seat. A bearing is installed in the bearing seat. The inner ring of the bearing is connected to the shaft step and the small stepped boss of the stepped shaft, and the outer ring of the bearing is fixed to the bearing seat.

[0017] In the aforementioned dual-camera monitoring eye-protection lamp, the bottom shell includes an upper bottom shell, a lower bottom shell, and a counterweight located between the upper bottom shell and the lower bottom shell.

[0018] In the aforementioned dual-camera monitoring eye-protection lamp, the column bracket is fixed to the bottom shell by bolts or clips;

[0019] The column is fixedly connected to the column support located inside the column by bolts or clips.

[0020] In the aforementioned dual-camera monitoring eye-protection lamp, the eye-protection lamp also includes a temperature acquisition device, and the temperature acquisition device and the two image acquisition devices are located on the same circuit board and connected to the control device.

[0021] The control device, temperature acquisition device, and two image acquisition devices are located on the same circuit board, and the module bracket is used to mount the circuit board.

[0022] The rotating outer shell is also provided with a temperature measuring hole corresponding to the temperature acquisition device;

[0023] The two camera holes are set on the same horizontal line of the rotating housing, and the temperature measuring hole is set below the two camera holes and on the vertical line of the connecting line between the two camera holes.

[0024] In the aforementioned dual-camera monitoring eye-protection lamp, the column bracket has a speaker hole for fixing a speaker and a power supply mounting position for fixing a DC power supply socket.

[0025] The column has a speaker hole on the side wall corresponding to the speaker hole, and a power supply socket on the side wall corresponding to the power supply mounting position.

[0026] The advantages of this utility model are: the desk lamp of this solution has a dual-camera monitoring module, which significantly increases the field of view compared with a single-camera desk lamp, effectively ensuring the monitoring effect;

[0027] This solution further improves the rotating structure of the desk lamp monitoring module. By connecting the monitoring module with a micro stepper motor, the rotation can be electrically controlled, providing a structural basis for automatic angle adjustment. The stepper motor adopts a manually rotatable stepper motor power assembly, which can adjust the angle automatically or electrically, or manually, making it suitable for more application scenarios.

[0028] This solution also proposes integrating a body temperature detection module into the desk lamp, which can help parents detect abnormal body temperatures in children, identify health problems in a timely manner, and meet the daily health monitoring needs of young children. Attached Figure Description

[0029] Figure 1 This is a schematic diagram showing the dual-camera monitoring eye-protection lamp of this utility model placed directly in front of the user.

[0030] Figure 2 This is a schematic diagram showing the dual-camera monitoring eye-protection lamp of this utility model placed on the right side in use.

[0031] Figure 3 This is a schematic diagram showing the dual-camera monitoring eye-protection lamp of this utility model placed on the left side in use;

[0032] Figure 4 This is an exploded view of the dual-camera monitoring eye-protection lamp of this utility model;

[0033] Figure 5 This is a cross-sectional view of the dual-camera monitoring eye-protection lamp of this utility model;

[0034] Figure 6 This is an isometric view of the inner support of the central column of the dual-camera monitoring eye-protection lamp of this utility model;

[0035] Figure 7 This is a cross-sectional view of the inner support of the central column of the dual-camera monitoring eye-protection lamp of this utility model;

[0036] Figure 8 This is an axonometric drawing of the central column in the dual-camera monitoring eye-protection lamp of this utility model.

[0037] Figure 9 This is a cross-sectional view of the central column of the dual-camera monitoring eye-protection lamp of this utility model;

[0038] Figure 10 This is an isometric view of the rotating outer shell of the dual-camera monitoring eye-protection lamp of this utility model;

[0039] Figure 11 This is a cross-sectional view of the rotating outer shell of the dual-camera monitoring eye-protection lamp of this utility model;

[0040] Figure 12 The axial view of the circuit board bracket in the dual-camera monitoring eye-protection lamp of this utility model. Figure 1 ;

[0041] Figure 13 The axial view of the circuit board bracket in the dual-camera monitoring eye-protection lamp of this utility model. Figure 2 .

[0042] Reference numerals: Lamp head assembly 1; Lamp head assembly connector 1-1; Support housing 2; Bottom housing 2-1; Upper bottom housing 2-11; Lower bottom housing 2-12; Counterweight 2-13; Column 2-2; Column body 2-21; Flange column 2-22; Speaker hole 2-23; Power supply socket 2-24; Camera monitoring module 3; Image acquisition device 3-1; Annular clearance space 4; Circular groove 4-1; Through hole 4-2; Annular step 4-3; Arc-shaped limiting groove 4-4; First arc-shaped wire passage groove 4-5; Rotating housing 5; Camera hole 5-1; Large stepped boss 5-2; Small stepped boss 5-3; Threaded through hole 5-4; Limit 5-5; second arc-shaped wire groove; temperature measuring hole; 5-7; column bracket; 6; speaker hole; 6-1; power supply mounting position; 6-2; motor mounting position; 6-3; rotary motor; 7; connecting sleeve; 7-1; stepped shaft; 7-2; bearing; 7-3; control device; touch panel; 9; module bracket; 10; bracket buckle; 10-1; bracket contact surface; 10-2; bracket limiting protrusion; 10-3; bracket limiting groove; 10-4; temperature acquisition device; circuit board; 12; speaker; 13; DC power supply base; 14; silicone pad; 15; injection molded copper nut; 16; nut; 17; self-tapping screw; 18; machine thread screw; 19. Detailed Implementation

[0043] The present invention will now be described in further detail with reference to the accompanying drawings and specific embodiments.

[0044] This embodiment provides a dual-camera monitoring eye-protection lamp. In different usage scenarios, the dual cameras can be positioned in different directions under automatic control or manual adjustment to meet the needs of various scenarios, such as... Figures 1-3 As shown, manual adjustment includes both manual mechanical adjustment and manual electronic adjustment. The following describes the dual-camera monitoring eye-protection lamp provided in this embodiment from bottom to top, according to its usage. Figure 4 and Figure 5 As shown:

[0045] A silicone pad 15 is attached to the bottom of the lower shell 2-12 to cover the screw holes of the lower shell 2-12 and increase the friction between the desk lamp and the desktop.

[0046] The upper bottom shell 2-11 and the lower bottom shell 2-12 are fixed together by self-tapping screws 18 to form the bottom shell 2-1, and the counterweight 2-13 is fixed in the middle.

[0047] The column bracket 6 is fixed to the bottom shell 2-1 by machine screws 19 and is located inside the column 2-2. The column 2-2 and the column bracket 6 are fixedly connected to each other by self-tapping screws 18. At the same time, the injection-molded copper nut 16 is fixed by injection molding technology using its own characteristics.

[0048] like Figure 6 and Figure 7 The column bracket 6 has a speaker hole 6-1 for fixing the speaker 13 and a power supply mounting position 6-2 for fixing the DC power supply 14. The speaker 13 is mounted at the speaker hole 6-1, and the DC power supply 14 is mounted at the power supply mounting position 6-2. The DC power supply 14 is connected to an external power source via a conductive wire to power the desk lamp, including power supply for lighting, motor movement, speaker, camera, temperature measurement module, etc. The column bracket 6 has a motor mounting position 6-3 that is compatible with the housing of the rotary motor 7. The rotary motor 7 is fixed at the motor mounting position 6-3. This fixing can be done by bolt fixing, snap-fit ​​fixing, or direct wrapping fixing, without limitation. The rotary motor 7 is a miniature stepper motor that can be rotated by hand.

[0049] like Figure 8 and Figure 9 As shown, the column 2-2 includes a column body 2-21 with an arc-shaped column and a flange column 2-22 integrally formed on the arc-shaped column of the column body 2-21. The upper end of the flange column 2-22 is lower than the upper end of the column body so that the arc-shaped column of the column body 2-21 and the flange column 2-22 form an annular clearance space 4. The upper end of the flange column 2-22 serves as the bottom of the annular clearance space 4. A rotating outer shell 5 is embedded in the annular clearance space 4.

[0050] The bottom of the annular clearance space 4 has an annular groove 4-1. A through hole 4-2 is formed on the bottom surface of the annular groove 4-1, connecting to the interior of the column 2-2, so that the bottom of the annular clearance space 4 is connected to the interior of the column 2-2, forming an annular step 4-3 at the bottom of the annular groove 4-1. At the bottom of the annular clearance space 4, on the side of the annular groove 4-1 closest to the outer side of the column 2-2, there is an arc-shaped limiting groove 4-4 with an arc of 90±10 degrees. At the bottom of the annular clearance space 4, on the side of the annular groove 4-1 away from the outer side of the column 2-2, there is a first arc-shaped wire passage groove 4-5. A speaker hole 2-23 is formed on the side wall of the column 2-2 corresponding to the speaker hole 6-1 of the column bracket 6, and a power supply socket 2-24 is formed on the side wall corresponding to the power supply mounting position 6-2.

[0051] like Figure 10 and Figure 11The bottom of the rotating outer shell 5 has a large stepped boss 5-2, and the annular groove 4-1 and the annular step 4-3 of the column 2-2 are adapted to the large stepped boss 5-2. The bottom of the large stepped boss 5-2 has a small stepped boss 5-3, and the small stepped boss 5-3 is adapted to the through hole 4-2 of the column 2-2.

[0052] The bottom of the rotating housing 5 has a limiting protrusion 5-5 that matches the arc-shaped limiting groove 4-4 to limit the rotation angle. The bottom of the rotating housing 5 also has a second arc-shaped wire passage groove 5-6 corresponding to the first arc-shaped wire passage groove 4-5, which supplies power to the module inside the rotating housing 5.

[0053] The bottom contour of the rotating shell 5 is arc-shaped, and the center of the circle is located on the center line of the flange column 2-22. The bottom radius of the rotating shell 5 is equal to the radius of the flange column 2-22. That is to say, the upper end of the flange column 2-22 is lower than the upper end of the column body. The annular clearance space 4 formed by the arc column of the column body 2-21 and the flange column 2-22 is just filled by the rotating shell 5. In this way, the appearance is neat and the structure is compact. At the same time, the field of view base points of the two image acquisition devices 3-1 embedded in the annular clearance space 4 of the rotating shell 5 are outside the column body 2-21, which can ensure that there is no field of view obstruction during rotation within a certain angle.

[0054] The output shaft of the rotary motor 7 is connected to the rotating housing 5 to drive the rotating housing 5 to rotate circumferentially. Specifically, a threaded through hole 5-4 is provided on the small stepped boss 5-3. The output shaft of the rotary motor 7 is connected to the module bracket 10 located inside the rotating housing 5 through the threaded through hole 5-4. The module bracket 10 serves as a support for the circuit board 12 to install the circuit board inside the rotating housing 5. Two image acquisition devices 3-1, a temperature acquisition device 11, and a control device 8 are mounted on the circuit board 12. The rotary motor 7, the image acquisition devices 3-1, and the temperature acquisition device 11 are all connected to the control device 8. The positional relationship between the two image acquisition devices 3-1 and the temperature acquisition device 11 is that the two image acquisition devices 3-1 are side by side on the same horizontal line and are a certain distance apart. In this embodiment, the distance is preferably 1 to 5 cm. The temperature acquisition device 11 is below the two image acquisition devices 3-1 and is located on the perpendicular bisector of the line connecting the two image acquisition devices 3-1.

[0055] The rotating outer shell 5 is also provided with a temperature measuring hole 5-7 corresponding to the temperature acquisition device 11, and two camera holes 5-1 corresponding to the two image acquisition devices 3-1 respectively.

[0056] The annular groove 4-1 and the large stepped boss 5-2 form a fit to restrict the degree of freedom in the radial direction.

[0057] In addition, the upper surface of the rotating housing 5 has a touch panel 9 connected to the control device 8, which allows users to turn the lighting on and off, manually adjust the brightness, and manually adjust the camera angle electronically.

[0058] The output shaft of the rotary motor 7 is connected to the stepped shaft 7-2 via the connecting sleeve 7-1. The stepped shaft 7-2 passes through the through hole 4-2 and the threaded through hole 5-4 and is connected to the rotating housing 5 and the module bracket 10. One end of the through hole 4-2 near the inside of the column 2-2 extends outward in a circumferential direction to form a bearing seat. A bearing 7-3 is installed in the bearing seat. The inner ring of the bearing is connected to the shaft step and the small stepped boss 5-3 of the stepped shaft 7-2. The outer ring of the bearing is fixed to the bearing seat. When the motor rotates, it drives the rotating housing 5 and the module bracket 10 to rotate synchronously through the stepped shaft 7-2 and the bearing 7-3, thereby realizing electrically controlled rotation.

[0059] like Figure 12 and Figure 13 The bracket contact surface 10-2 and bracket limiting protrusion 10-3 of the module bracket 10 restrict the horizontal and vertical degrees of freedom of the circuit board 12. The bracket buckle 10-1 restricts the vertical degree of freedom of the module bracket 10, and the bracket limiting groove 10-4 restricts the radial degree of freedom of the module bracket 10.

[0060] The specific embodiments described in this example are merely illustrative of the spirit of this utility model. Those skilled in the art to which this utility model pertains may make various modifications or additions to the described specific embodiments or use similar methods to replace them, without departing from the spirit of this utility model or exceeding the scope defined by the appended claims.

[0061] Although this article uses the following extensively: lamp head assembly 1; lamp head assembly connector 1-1; support shell 2; bottom shell 2-1; upper bottom shell 2-11; lower bottom shell 2-12; counterweight 2-13; column 2-2; column body 2-21; flange column 2-22; speaker hole 2-23; power supply socket 2-24; camera monitoring module 3; image acquisition device 3-1; annular clearance space 4; circular groove 4-1; through hole 4-2; annular step 4-3; arc-shaped limiting groove 4-4; first arc-shaped wire groove 4-5; rotating shell 5; camera hole 5-1; large stepped boss 5-2; small stepped boss 5-3; threaded through hole 5-4; limiting protrusion 5-5; The following are technical terms: second arc-shaped cable guide groove 5-6; temperature measuring hole 5-7; column bracket 6; speaker hole 6-1; power supply mounting position 6-2; motor mounting position 6-3; rotary motor 7; connecting sleeve 7-1; stepped shaft 7-2; bearing 7-3; control device 8; touch panel 9; module bracket 10; bracket buckle 10-1; bracket contact surface 10-2; bracket limiting protrusion 10-3; bracket limiting groove 10-4; temperature acquisition device 11; circuit board 12; speaker 13; DC power supply base 14; silicone pad 15; injection molded copper nut 16; nut 17; self-tapping screw 18; machine thread screw 19, etc. However, the possibility of using other terms is not excluded. These terms are used merely for the convenience of describing and explaining the essence of the invention; interpreting them as any additional limitation would contradict the spirit of the invention.

Claims

1. A double camera monitoring eye protection lamp, comprising a lamp head assembly (1), a supporting shell (2) and a camera monitoring module (3), characterized in that, The camera monitoring module (3) comprises two image acquisition devices (3-1), the support shell (2) comprises a bottom shell (2-1) and a stand (2-2) on the bottom shell (2-1), the outer side of the stand (2-2) is recessed to form an annular accommodation space (4), the annular accommodation space (4) is embedded with a rotating shell (5), and the bottom of the annular accommodation space (4) is communicated with the inside of the stand (2-2), the stand (2-2) has an inner stand (6), the inner stand (6) is fixed with a rotating motor (7), the output shaft of the rotating motor (7) is connected to the rotating shell (5) for driving the rotating shell (5) to rotate circumferentially, the two image acquisition devices (3-1) are located in the rotating shell (5), the rotating shell (5) has two camera holes (5-1) corresponding to the two image acquisition devices (3-1), the image acquisition devices (3-1) and the rotating motor (7) are connected to a control device (8), and the control device (8) is connected with a control switch.

2. The dual camera monitoring eye-care lamp according to claim 1, wherein, The control switch is a touch panel (9) and is installed on the upper end surface of the rotating shell (5).

3. The dual camera monitoring eye-care lamp according to claim 1, wherein, The bottom of the annular accommodation space (4) is formed with a circular groove (4-1), the bottom surface of the circular groove (4-1) is provided with a through hole (4-2) communicated to the inside of the stand (2-2), so that the bottom of the annular accommodation space (4) is communicated with the inside of the stand (2-2) and forms an annular step (4-3) at the bottom of the circular groove (4-1); The bottom of the rotating shell (5) has a large stepped boss (5-2), the circular groove (4-1) and the annular step (4-3) are matched with the large stepped boss (5-2); The bottom of the large stepped boss (5-2) has a small stepped boss (5-3), and the small stepped boss (5-3) is matched with the through hole (4-2); The small stepped boss (5-3) is provided with a threaded through hole (5-4), and the output shaft of the rotating motor (7) is connected to a module support (10) in the rotating shell (5) through the threaded through hole (5-4), and the image acquisition devices (3-1) and the control device (8) are installed on the module support (10).

4. The dual camera monitoring eye-care lamp according to claim 3, wherein, The bottom of the annular accommodation space (4) is provided with an arc-shaped limiting groove (4-4) with an arc of 90±10 degrees on one side of the circular groove (4-1) close to the outer side of the stand (2-2), and the bottom of the rotating shell (5) is provided with a limiting convex point (5-5) matched with the arc-shaped limiting groove (4-4).

5. The dual camera monitoring eye-care lamp according to claim 4, wherein, The bottom of the annular accommodation space (4) is provided with a first arc-shaped wire passing groove (4-5) on one side of the circular groove (4-1) away from the outer side of the stand (2-2), and the bottom of the rotating shell (5) is provided with a second arc-shaped wire passing groove (5-6) corresponding to the first arc-shaped wire passing groove (4-5). The column (2-2) comprises a column body (2-21) with an arc-shaped column and a flange column (2-22) integrally formed at the arc-shaped column of the column body (2-21), and the upper end of the flange column (2-22) is lower than the upper end of the column body to form the annular space (4) by the arc-shaped column of the column body (2-21) and the flange column (2-22), and the upper end of the flange column (2-22) serves as the bottom of the annular space (4); The bottom surface of the rotating shell (5) is in the shape of a circular arc, and the center of the circular arc is located on the center line of the flange column (2-22), and the radius of the bottom surface of the rotating shell (5) is equal to the radius of the flange column (2-22).

6. The dual camera monitoring eye-care lamp according to claim 4, wherein, The output shaft of the rotating motor (7) is connected to a stepped shaft (7-2) through a connecting sleeve (7-1), and the stepped shaft (7-2) penetrates through the bottom of the annular space (4) and is connected to the rotating shell (5) and the module support (10); The through hole (4-2) extends outward in the circumferential direction at one end close to the inside of the column (2-2) to form a bearing seat, and a bearing (7-3) is installed at the bearing seat, the inner ring of the bearing is connected to the shaft step and the small stepped boss (5-3) of the stepped shaft (7-2), and the outer ring of the bearing is fixed to the bearing seat.

7. The dual camera monitoring eye-care lamp according to claim 1, wherein, The bottom shell (2-1) comprises an upper bottom shell (2-11), a lower bottom shell (2-12), and a counterweight (2-13) located between the upper bottom shell (2-11) and the lower bottom shell (2-12).

8. The dual camera monitoring eye-care lamp according to claim 1, wherein, The column inner support (6) is fixed on the bottom shell (2-1) by bolts or buckles; The column (2-2) is fixedly connected to the column inner support (6) located in the column (2-2) by bolts or buckles.

9. The dual camera monitoring eye-care lamp according to claim 3, wherein, The eye protection lamp further comprises a temperature acquisition device (11), and the temperature acquisition device (11) and the two image acquisition devices (3-1) are located on the same circuit board (12) and are connected to the control device (8); The control device (8), the temperature acquisition device (11), and the two image acquisition devices (3-1) are located on the same circuit board (12), and the module support (10) is used for installing the circuit board (12); The rotating shell (5) is further provided with a temperature measuring hole (5-7) corresponding to the temperature acquisition device (11); The two camera holes (5-1) are arranged on the same horizontal line of the rotating shell (5), the temperature measuring hole (5-7) is arranged below the two camera holes (5-1) and on the median line of the connecting line of the two camera holes (5-1).

10. The dual camera monitoring eye-care lamp according to claim 1, wherein, The column inner support (6) has a speaker hole (6-1) for fixing a speaker (13) and a power supply seat mounting position (6-2) for fixing a DC power supply seat (14); The column (2-2) is further provided with a speaker hole (2-23) at the side wall corresponding to the speaker hole (6-1), and the side wall corresponding to the power supply seat mounting position (6-2) has a power supply jack (2-24).

Images