Electric safety helmet with foldable VR intelligent glasses

Abstract

The invention relates to the technical field of VR intelligent glasses application of electric safety helmets, in particular to an electric safety helmet with foldable VR intelligent glasses, which comprises a supporting head band assembly, a glasses main body, a neck supporting piece, a glasses storage block, two multi-section hinge supporting structures and a camera shooting assembly, the neck supporting piece and the glasses body are located on the two sides of the supporting head band assembly respectively, the neck supporting piece is installed on the outer side of the supporting head band assembly, the two ends of each multi-section hinge supporting structure are connected with the glasses storage block and the neck supporting piece respectively, and the multi-section hinge supporting structures can rotate in a multi-section mode. Through the arrangement of the multi-section hinge supporting structure and the matched use of the neck supporting assembly, the neck supporting assembly is attached to the neck to support the rear side of the multi-section hinge supporting structure, and the glasses storage block and the glasses main body on the front side are stably supported through the multi-section hinge supporting structure, so that the glasses storage block and the glasses main body are effectively and stably supported.

Description

Technical Field

[0001] This invention relates to the technical field of VR smart glasses applications in power safety helmets, and more particularly to a power safety helmet with foldable VR smart glasses. Background Technology

[0002] With the development of the "Internet Plus" era and the rapid pace of technological innovation, emerging VR technology has been perfectly integrated into various aspects of power safety, including production safety, production training, accident safety experience, and safety promotion. VR technology, or virtual reality experience technology, offers advantages over traditional power safety promotion and training methods, such as speed, efficiency, convenience, and safety. In power safety accident experience, participants only need to wear VR glasses to quickly reach various accident scenes and experience the occurrence of accidents, thereby understanding the importance of safety and strengthening their safety awareness. Accident drills and escape procedures provide a more realistic understanding of safe operating procedures and production measures, increasing the probability of participants escaping in the event of an accident.

[0003] A relevant Chinese patent, CN218585095U, discloses a head-mounted VR headset for electrical safety, comprising a fixed headgear, VR glasses, and a fall protection component. The fixed headgear includes a headband with an adjustment component on one side. The VR glasses are movably connected to the bottom of the headband via the adjustment component. The fall protection component is located at the bottom of the headband, and a top cover is located at the top of the headband. Reinforcing straps are fixedly connected to the outer sides of both ends of the headband, and an elastic bandage is fixedly connected between the two ends of the headband. This head-mounted VR headset for electrical safety, through the design of the headgear, reinforcing straps, and adjustment component, can prevent the VR glasses from falling and compressing the user's nose bridge, thus reducing wearing comfort and user experience. At the same time, the fall protection component can pull the VR glasses to prevent them from falling directly to the ground and causing damage, thereby improving their safety and stability.

[0004] In the aforementioned related technologies and existing technologies, VR glasses are generally worn on the head using bandages. However, bandages are made of soft and easily deformable materials. Although they are easy to store, they cannot provide stable support for the VR glasses, and the VR glasses are prone to head shaking during use. Summary of the Invention

[0005] To provide stable support for VR glasses during use, this invention provides an electric safety helmet with foldable VR smart glasses.

[0006] The present invention provides an electric safety helmet with foldable VR smart glasses, which adopts the following technical solution: including: Support headband assembly.

[0007] The main body of the glasses.

[0008] A neck support is provided, wherein the neck support and the main body of the glasses are located on opposite sides of the headband support assembly, and the neck support is installed on the outside of the headband support assembly.

[0009] The glasses storage block is located on the same side of the headband support assembly as the glasses body. Both ends of the glasses storage block are supported by the headband support assembly on both sides of the glasses body. The headband support assembly can adjust the position of the glasses body relative to the glasses storage block. A cavity for storing the glasses body is opened on the side of the glasses storage block away from the headband support assembly.

[0010] Two multi-section hinge support structures are provided, each of which is connected at both ends to the eyeglass storage block and the neck support, respectively. The multi-section hinge support structure is capable of multi-section rotation.

[0011] It also includes camera components, which are mounted in rows on the top of the eyeglass storage block.

[0012] Optionally, the headband support assembly includes a cross-shaped top band and a ring band, with the lower end of the cross-shaped top band mounted on the upper surface of the ring band, and the neck support and eyeglass storage block mounted on both sides of the ring band respectively.

[0013] Optionally, the neck support includes: A top block is mounted on the outer surface of the ring belt, and a multi-section hinge support structure is connected to the top block.

[0014] A neck airbag block, the neck airbag block being located below the top block, and the outer side of the neck airbag block being covered by an airbag pad.

[0015] Two bendable upright assemblies, with their ends fixed to the neck airbag block and the top block, respectively.

[0016] Optionally, the pole assembly includes: The upper upright is fixed to the top block.

[0017] The lower support rod is located above the upper support rod. The lower end of the lower support rod is fixed to the neck airbag block, and the upper support rod is rotatably connected to the lower support rod.

[0018] It also includes a side stop block, which is located on the side of the upper upright away from the ring belt. The upper end of the side stop block is fixed to the upper upright, and the lower end of the side stop block blocks the lower upright.

[0019] Optionally, the support component includes: The main support component is retractable. An upper torsion shaft is rotatably mounted on the upper end of the main support component, and a lower torsion shaft is rotatably mounted on the lower end of the main support component. The upper torsion shaft is fixed to the eyeglass storage block, and the lower torsion shaft is fixed to the eyeglass body.

[0020] It also includes a retractable secondary support component, the upper end of which is fixed to the bottom of the eyeglass storage block, and the lower end of which is a frame shape with a side opening. The lower torsion shaft is located inside the frame with the lower opening of the secondary support component.

[0021] Optionally, the main support component includes a main telescopic frame and a main tightening knob. The two ends of the main telescopic frame are telescopic. The main tightening knob can be threaded through the large-diameter end of the main telescopic frame and then press and fix the small-diameter end of the main telescopic frame. The two ends of the main telescopic frame are rotatably connected to the upper torsion shaft and the lower torsion shaft, respectively. The upper end of the main telescopic frame is elastically torsionally connected to the upper torsion shaft.

[0022] The secondary support component includes a secondary telescopic frame, a secondary tightening knob, and a horizontal frame. The small-diameter end of the secondary telescopic frame is fixed to the eyeglass storage block. The secondary tightening knob can be threaded through the large-diameter end of the secondary telescopic frame and press and fix the small-diameter end of the secondary telescopic frame. The horizontal frame is installed at the lower end of the secondary telescopic frame, and the lower torsion shaft is located inside the horizontal frame.

[0023] Optionally, the multi-section hinge support structure includes: The front end is connected to the eyeglass storage block.

[0024] The back end head is connected to the top block.

[0025] It also includes multiple external hinge plates, which are located between the front end and the rear end. Adjacent external hinge plates are rotatably connected to each other, and the front end and the rear end are rotatably connected to adjacent external hinge plates respectively.

[0026] Optionally, each of the outer hinge plates has an inner hinge plate slidably inserted into its inner side. The length of the inner hinge plate is equal to the length of the outer hinge plate, and adjacent inner hinge plates are rotatably connected to each other.

[0027] An inner end is provided on the inner side of the rear end head, and the inner end is rotatably connected to the adjacent inner hinge plate.

[0028] A fixed magnet plate is installed on the inner side of the front end head, and a movable magnet plate is provided on the side of the fixed magnet plate away from the eyeglass storage block. The movable magnet plate is fixed to the adjacent inner hinge plate.

[0029] Optionally, the top block includes: The outer frame is connected to the upper end of the upright assembly and is installed on the outer ring surface of the ring belt.

[0030] Two adjusting blocks are slidably inserted into the inner side of the outer frame, and the two adjusting blocks are respectively connected to the two rear end heads on opposite sides.

[0031] The pressure block is slidably inserted into the inner side of the outer frame. The pressure block is located above the two adjusting blocks. An adjusting threaded shaft is threaded through the upper surface of the pressure block. The adjusting threaded shaft rotates through the inner top wall of the outer frame.

[0032] Optionally, the top block also includes a synchronizing gear with different tooth diameters at its upper and lower ends. Synchronizing gear plates are provided on both sides of the synchronizing gear, and the two synchronizing gear plates mesh with the two different tooth diameter portions of the synchronizing gear respectively. The two synchronizing gear plates are fixed to the two adjusting blocks respectively.

[0033] When the synchronous gear rotates, it drives the two synchronous gear plates to rotate relative to each other at the same angle.

[0034] In summary, the present invention has the following beneficial technical effects: This invention utilizes a multi-section hinge support structure and a neck support component. The neck support component fits snugly against the neck to support the rear of the multi-section hinge support structure, while the multi-section hinge support structure provides stable support for the front of the eyeglass storage block and the eyeglass body, effectively providing stable support for the eyeglass storage block and the eyeglass body.

[0035] This invention utilizes the combined use of outer and inner hinge plates. The hinge axis between adjacent outer hinge plates is coaxial with the hinge axis between the corresponding inner adjacent hinge plates, allowing rotation between adjacent outer and inner hinge plates. This enables the outer hinge plates to be retracted, pushing the inner hinge plates to move relative to the outer hinge plates, resulting in a staggered distribution of the inner and outer hinge plates. The inner and outer hinge plates cannot rotate, providing stable support for the eyeglass storage block and neck support assembly.

[0036] This invention utilizes the cooperation of a pressure block, an adjusting block, a synchronous gear, and a synchronous toothed plate. By rotating the adjusting threaded shaft to loosen the pressure block's clamping, the movement of the adjusting block drives the movement of the synchronous toothed plate. The rotation of the synchronous gear drives the other synchronous toothed plate to move at the same angle, ensuring that the adjusting blocks on both sides move the same distance. By adjusting the distance between the two adjusting blocks, different head circumferences can be used. Attached Figure Description

[0037] Figure 1 This is a top view of the overall structure in an embodiment of the present invention; Figure 2 This is a schematic diagram of the overall structure in an embodiment of the present invention; Figure 3 This is a schematic diagram of the neck support member in an embodiment of the present invention; Figure 4 This is a side view schematic diagram of some structures in an embodiment of the present invention; Figure 5 This is a schematic diagram of the distribution of the support components and the main eye body in an embodiment of the present invention; Figure 6 This is a schematic diagram of the multi-section hinge support structure in an embodiment of the present invention; Figure 7This is a side view schematic diagram of the multi-section hinge support structure in an embodiment of the present invention; Figure 8 This is a schematic diagram of the distribution of the adjusting plate and the synchronizing gear plate in an embodiment of the present invention.

[0038] Reference numerals: 1. Headband support assembly; 11. Cross-shaped top strap; 12. Ring strap; 2. Eyeglasses body; 3. Neck support; 31. Top block; 311. Outer frame; 312. Adjustment block; 313. Pressure block; 314. Adjustment threaded shaft; 315. Synchronizing gear; 316. Synchronizing gear plate; 32. Neck airbag block; 33. Upright assembly; 331. Upper upright; 332. Lower upright; 333. Side block; 4. Eyeglasses storage block; 5. Support assembly 51. Main support component; 511. Main telescopic frame; 512. Main tightening knob; 52. Lower torsion shaft; 53. Upper torsion shaft; 54. Secondary support component; 541. Secondary telescopic frame; 542. Secondary tightening knob; 543. Horizontal frame; 6. Multi-section hinge support structure; 61. Front end; 62. Rear end; 63. Outer hinge plate; 64. Inner hinge plate; 65. Inner end; 66. Fixed magnet plate; 67. Movable magnet plate; 7. Camera assembly. Detailed Implementation

[0039] The following is in conjunction with the appendix Figures 1-8 The present invention will be described in further detail below.

[0040] This invention discloses an electrical safety helmet with foldable VR smart glasses. For example... Figures 1-2 As shown, it includes a headband support assembly 1, a glasses body 2, a neck support 3, a glasses storage block 4, two multi-section hinge support structures 6, and a camera assembly 7.

[0041] The neck support 3 and the glasses body 2 are located on both sides of the headband support assembly 1. The neck support 3 is installed on the outside of the headband support assembly 1, and the camera components 7 are installed in a row on the top of the glasses storage block 4.

[0042] The shape of the glasses body 2 near the headband assembly 1 is adapted to the shape of the face. At the same time, a breathable pad is installed on the side of the glasses body 2 that contacts the face, and a bent airflow channel is opened at the breathable pad position to increase the breathability of the space between the glasses body 2 and the eyes. The bent airflow channel can prevent external light from entering the interior while improving breathability, thus improving viewing comfort.

[0043] In this embodiment, the upper sides of the glasses storage block 4 are equipped with voice collection microphones, which can collect the user's voice.

[0044] In this embodiment, detachable suspended headphones are installed on both sides of the headband assembly 1 between the neck support 3 and the glasses storage block 4. Optionally, the suspended headphones and the headband assembly 1 are connected by magnetic snap fasteners, which facilitates the removal and installation of the suspended headphones.

[0045] The glasses storage block 4 and the glasses body 2 are located on the same side of the headband support assembly 1. Both ends of the glasses storage block 4 are supported on both sides of the glasses body 2 by the support assembly 5. The support assembly 5 can adjust the position of the glasses body 2 relative to the glasses storage block 4. The glasses storage block 4 has a cavity for storing the glasses body 2 on the side away from the headband support assembly 1.

[0046] In this embodiment, the headband support assembly 1 includes a cross top band 11 and a loop band 12. The lower end of the cross top band 11 is mounted on the upper surface of the loop band 12. The neck support 3 and the glasses storage block 4 are respectively mounted on both sides of the loop band 12. Both the cross top band 11 and the loop band 12 are elastically tightenable bandage materials. After the cross top band 11 and the loop band 12 are worn on the head, they are elastically deformed and tightened to fit the head, adapting to different head circumferences.

[0047] like Figure 3 As shown, the neck support 3 includes a top block 31, a neck airbag block 32, and two bendable upright assemblies 33. The top block 31 is mounted on the outer surface of the ring belt 12, and the multi-section hinged support structure 6 is connected to the top block 31.

[0048] The neck airbag block 32 is located below the top block 31. The outer side of the neck airbag block 32 is covered with an airbag pad, which fits the neck and increases the comfort of the pressure point.

[0049] The two ends of the upright assembly 33 are fixed to the neck airbag block 32 and the top block 31 respectively. The neck airbag block 32 fits against the neck. The upright assembly 33 provides auxiliary support to the top block 31, the cross top strap 11 and the multi-section hinge support structure 6, thereby dispersing the force on the headband assembly 1.

[0050] The pole assembly 33 includes an upper pole 331, a lower pole 332, and a side stop 333.

[0051] The upper upright 331 is located above the lower upright 332. The upper end of the upper upright 331 is fixed to the top block 31, and the lower end of the lower upright 332 is fixed to the neck airbag block 32. The upper upright 331 and the lower upright 332 are rotatably connected.

[0052] The side stop 333 is located on the side of the upper upright 331 away from the ring belt 12. The upper end of the side stop 333 is fixed to the upper upright 331, and the lower end of the side stop 333 blocks the lower upright 332. When not in use, the lower upright 332 can be controlled to rotate relatively away from the side stop 333, so that the lower upright 332 is rotated to be perpendicular to the upper upright 331, and the lower upright 332 and the neck airbag block 32 are moved to be parallel to the bottom of the multi-section hinge support structure 6.

[0053] like Figure 4 and Figure 5 As shown, the support assembly 5 includes a telescopic main support component 51 and a telescopic secondary support component 54. An upper torsion shaft 53 is rotatably mounted on the upper end of the main support component 51, and a lower torsion shaft 52 is rotatably mounted on the lower end of the main support component 51. The upper torsion shaft 53 is fixed to the eyeglass storage block 4, and the lower torsion shaft 52 is fixed to the eyeglass body 2.

[0054] The upper end of the secondary support component 54 is fixed to the bottom of the eyeglass storage block 4, and the lower end of the secondary support component 54 is a frame shape with a side opening. The lower torsion shaft 52 is located inside the frame with the lower opening of the secondary support component 54.

[0055] The main support component 51 includes a main telescopic frame 511 and a main tightening knob 512. The two ends of the main telescopic frame 511 can extend and retract. The main tightening knob 512 can be threaded through the large diameter end of the main telescopic frame 511 and press and fix the small diameter end of the main telescopic frame 511. The two ends of the main telescopic frame 511 are rotatably connected to the upper torsion shaft 53 and the lower torsion shaft 52 respectively. The upper end of the main telescopic frame 511 is elastically torsionally connected to the upper torsion shaft 53.

[0056] When it is necessary to adjust the position of the glasses body 2, loosen the main tightening knob 512 to allow the main telescopic frame 511 to extend and retract. After the glasses body 2 fits against the face, tighten the main telescopic frame 511 by tightening the main tightening knob 512 to fix the length of the main telescopic frame 511. The elastic connection between the main telescopic frame 511 and the upper torsion shaft 53 pushes the glasses body 2 to fit stably against the face.

[0057] The secondary support component 54 includes a secondary telescopic frame 541, a secondary tightening knob 542, and a horizontal frame 543. The small diameter end of the secondary telescopic frame 541 is fixed to the eyeglass storage block 4. The secondary tightening knob 542 can be threaded through the large diameter end of the secondary telescopic frame 541 and press and fix the small diameter end of the secondary telescopic frame 541. The horizontal frame 543 is installed at the lower end of the secondary telescopic frame 541, and the lower torsion shaft 52 is located inside the horizontal frame 543.

[0058] When adjusting the position of the main body 2 of the glasses, loosen the secondary tightening knob 542 to adjust the extension length of the secondary telescopic frame 541, control the horizontal frame 543 to move to the position of the lower torsion shaft 52, so that the lower torsion shaft 52 moves to the inside of the horizontal frame 543, and then tighten and fix the secondary telescopic frame 541 by turning the secondary tightening knob 542, so that the secondary telescopic frame 541 and the horizontal frame 543 assist in supporting the main body 2 of the glasses through the lower torsion shaft 52, further preventing the main body 2 of the glasses from shaking during use.

[0059] like Figure 6 and Figure 7 As shown, each multi-section hinge support structure 6 is connected to the eyeglass storage block 4 and the neck support 3 at both ends, respectively. The multi-section hinge support structure 6 can rotate in multiple sections, and multiple multi-section hinge support structures 6 can rotate horizontally in multiple sections to provide support in the vertical direction.

[0060] In this embodiment, the multi-section rotation of the multi-section hinge support structure 6 can achieve an opening angle far exceeding that of ordinary single-axis hinges (such as 180° flattening, 360° rotation, or even folding for storage). Furthermore, the overall structure can present different angles of curvature during multi-section rotation. Moreover, the multi-section characteristics of the multi-section hinge support structure 6 can evenly distribute the load to each section, avoiding stress concentration at a single point.

[0061] The multi-section hinge support structure 6 includes a front head 61, a rear head 62, and multiple external hinge plates 63. The front head 61 is connected to the eyeglass storage block 4, the rear head 62 is connected to the top block 31, and the external hinge plates 63 are located between the front head 61 and the rear head 62. Adjacent external hinge plates 63 are rotatably connected to each other, and the front head 61 and the rear head 62 are rotatably connected to the adjacent external hinge plates 63 respectively.

[0062] The adjacent outer hinge plates 63 can move in accordance with the deformation of the ring belt 12 during relative rotation, which makes it easy to retract the ring belt 12 and the outer hinge plates 63.

[0063] Each outer hinge plate 63 has an inner hinge plate 64 slidably inserted into its inner side. The length of the inner hinge plate 64 is equal to the length of the outer hinge plate 63. Adjacent inner hinge plates 64 are rotatably connected to each other. The inner hinge plate 64 and the outer hinge plate 63 are arranged in an arc shape to match each other.

[0064] In this embodiment, when the hinge axis between a group of adjacent inner hinge plates 64 is coaxial with the hinge axis between the two adjacent outer hinge plates 63, all the hinge axes between the two adjacent outer hinge plates 63 are coaxial with the hinge axes between the two corresponding inner hinge plates 64, ensuring that the outer hinge plates 63 and the inner hinge plates 64 can rotate freely horizontally. In this state, the adjacent inner hinge plates 64 and the adjacent outer hinge plates 63 can change their angle by rotating, thereby folding the inner hinge plates 64 and the outer hinge plates 63 together.

[0065] When worn, the inner hinge plate 64 is misaligned with the outer hinge plate 63, so that the hinge axis between adjacent inner hinge plates 64 is located inside the corresponding outer hinge plate 63. Neither the outer hinge plates 63 nor the inner hinge plates 64 can rotate. At this time, the angle between adjacent outer hinge plates 63 and inner hinge plates 64 is fixed, reducing the degree of freedom between them, which can further increase the support effect of the neck support 3 on the glasses storage block 4.

[0066] An inner end head 65 is provided on the inner side of the rear end head 62, and the inner end head 65 is rotatably connected to the adjacent inner hinge plate 64.

[0067] A fixed magnet plate 66 is installed on the inner side of the front end head 61. A movable magnet plate 67 is provided on the side of the fixed magnet plate 66 away from the glasses storage block 4. The movable magnet plate 67 is fixed to the adjacent inner hinge plate 64. When the fixed magnet plate 66 and the movable magnet plate 67 are attracted, the inner hinge plate 64 and the outer hinge plate 63 are misaligned, so that the inner hinge plate 64 and the outer hinge plate 63 can be stably in the misaligned state, preventing the inner hinge plate 64 from returning to its original position under slight shaking.

[0068] In this embodiment, when the inner end 65 contacts the top block 31, the hinge axis between all two adjacent outer hinge plates 63 is coaxial with the hinge axis between the two corresponding inner hinge plates 64 on its inner side.

[0069] like Figure 8 As shown, the top block 31 includes an outer frame 311, two adjusting blocks 312 and a pressure block 313. The outer frame 311 is connected to the upper end of the upright assembly 33 and is installed on the outer ring surface of the ring belt 12.

[0070] The adjusting block 312 is slidably inserted into the inner side of the outer frame 311, and the two adjusting blocks 312 are respectively connected to the two rear end heads 62 on opposite sides.

[0071] The pressure block 313 is slidably inserted into the inner side of the outer frame 311. The pressure block 313 is located on the upper side of the two adjusting blocks 312. The upper surface of the pressure block 313 is threaded through the adjusting thread shaft 314. The adjusting thread shaft 314 rotates through the inner top wall of the outer frame 311.

[0072] In this embodiment, the pressure block 313 can be controlled to apply pressure to the adjusting block 312 by rotating the adjusting threaded shaft 314. When the adjusting block 312 is not under the pressure of the pressure block 313, the adjusting block 312 can move within the outer frame 311 and the adjusting belt adapts to the length of the head circumference. When the pressure block 313 applies pressure to the adjusting block 312, the position of the adjusting block 312 is fixed.

[0073] The top block 31 also includes a synchronizing gear 315. The tooth diameters of the upper and lower ends of the synchronizing gear 315 are different. Synchronizing tooth plates 316 are provided on both sides of the synchronizing gear 315. The two synchronizing tooth plates 316 mesh with the two different tooth diameter portions of the synchronizing gear 315 respectively. The two synchronizing tooth plates 316 are fixed to the two adjusting blocks 312 respectively.

[0074] When the synchronous gear 315 rotates, it drives the two synchronous gear plates 316 to rotate relative to each other at the same angle, which in turn drives the two connected adjusting blocks 312 to move at the same angle, ensuring that the length of the outer frame 311 changes symmetrically on both sides.

[0075] The working principle is as follows: During use, the headband assembly 1 is worn on the head, the glasses storage block 4 is adjusted to be located on the front side of the head, and the lower end of the neck support 3 is controlled to fit against the back of the neck to support the back of the headband assembly 1. The upper end of the neck support 3 supports the front glasses storage block 4 through the multi-section hinge support structure 6. The inner sides of the multi-section hinge support structure 6 will not move up and down or deform, thus providing stable support for the glasses storage block 4. After adjusting the glasses body 2 to fit against the eyes, the glasses body 2 is supported by the support assembly 5, which makes it easy for the user to view and use the glasses stably.

[0076] When not in use, the position of the glasses body 2 can be adjusted by the support component 5, and the inner end of the glasses body 2 can be moved into the cavity of the glasses storage block 4 to protect the inside of the glasses body 2 from dust. The headband support component 1 can be folded up by the relative rotation of the multi-section hinge support structure 6.

[0077] The above are all preferred embodiments of the present invention and are not intended to limit the scope of protection of the present invention. Therefore, all equivalent changes made in accordance with the structure, shape and principle of the present invention should be covered within the scope of protection of the present invention.

Claims

1. An electric safety helmet with foldable VR smart glasses, characterized in that, include: Support headband assembly (1); The main body of the glasses (2); Neck support (3), the neck support (3) and the glasses body (2) are respectively located on both sides of the headband assembly (1), and the neck support (3) is installed on the outside of the headband assembly (1); The eyeglass storage block (4) and the eyeglass body (2) are located on the same side of the headband support assembly (1). Both ends of the eyeglass storage block (4) are supported by the headband support assembly (5). The headband support assembly (5) can adjust the position of the eyeglass body (2) relative to the eyeglass storage block (4). The eyeglass storage block (4) has a cavity for storing the eyeglass body (2) on the side away from the headband support assembly (1). Two multi-section hinge support structures (6), each of which is connected at both ends to the eyeglass storage block (4) and the neck support (3), and the multi-section hinge support structure (6) is capable of multi-section rotation; It also includes camera components (7), which are installed in rows on the upper end of the eyeglass storage block (4).

2. The electric safety helmet with foldable VR smart glasses according to claim 1, characterized in that: The headband support assembly (1) includes a cross top band (11) and a ring band (12). The lower end of the cross top band (11) is installed on the upper surface of the ring band (12), and the neck support (3) and the eyeglass storage block (4) are respectively installed on both sides of the ring band (12).

3. The electric safety helmet with foldable VR smart glasses according to claim 2, characterized in that: The neck support (3) includes: Top block (31), the top block (31) is installed on the outer surface of the ring belt (12), and the multi-section hinge support structure (6) is connected to the top block (31); Neck airbag block (32), the neck airbag block (32) is located below the top block (31), and the neck airbag block (32) is covered with an airbag pad on the outside; Two bendable pole assemblies (33) are fixed at both ends to the neck airbag block (32) and the top block (31), respectively.

4. The power safety helmet with foldable VR smart glasses according to claim 3, characterized in that: The pole assembly (33) includes: Upper upright (331), which is fixed to the top block (31); The lower support rod (332) is located above the upper support rod (331). The lower end of the lower support rod (332) is fixed to the neck airbag block (32). The upper support rod (331) is rotatably connected to the lower support rod (332). It also includes a side stop (333), which is located on the side of the upper upright (331) away from the ring belt (12). The upper end of the side stop (333) is fixed to the upper upright (331), and the lower end of the side stop (333) blocks the lower upright (332).

5. The electric safety helmet with foldable VR smart glasses according to claim 1, characterized in that: The support component (5) includes: The main support component (51) is retractable. An upper torsion shaft (53) is rotatably mounted on the upper end of the main support component (51), and a lower torsion shaft (52) is rotatably mounted on the lower end of the main support component (51). The upper torsion shaft (53) is fixed to the eyeglass storage block (4), and the lower torsion shaft (52) is fixed to the eyeglass body (2). It also includes a retractable secondary support component (54), the upper end of which is fixed to the bottom of the eyeglass storage block (4), the lower end of which is a frame shape with a side opening, and the lower torsion shaft (52) is located inside the frame with the lower end opening of the secondary support component (54).

6. The electric safety helmet with foldable VR smart glasses according to claim 5, characterized in that: The main support component (51) includes a main telescopic frame (511) and a main tightening knob (512). The two ends of the main telescopic frame (511) can extend and retract. The main tightening knob (512) can be threaded through the large diameter end of the main telescopic frame (511) and then press and fix the small diameter end of the main telescopic frame (511). The two ends of the main telescopic frame (511) are rotatably connected to the upper torsion shaft (53) and the lower torsion shaft (52) respectively. The upper end of the main telescopic frame (511) is elastically torsionally connected to the upper torsion shaft (53). The secondary support component (54) includes a secondary telescopic frame (541), a secondary tightening knob (542), and a horizontal frame (543). The small diameter end of the secondary telescopic frame (541) is fixed to the eyeglass storage block (4). The secondary tightening knob (542) can be threaded through the large diameter end of the secondary telescopic frame (541) and then press and fix the small diameter end of the secondary telescopic frame (541). The horizontal frame (543) is installed at the lower end of the secondary telescopic frame (541), and the lower torsion shaft (52) is located inside the horizontal frame (543).

7. The electric safety helmet with foldable VR smart glasses according to claim 3, characterized in that: The multi-section hinge support structure (6) includes: The front end (61) is connected to the eyeglass storage block (4); The rear end head (62) is connected to the top block (31); It also includes multiple external hinge plates (63), which are located between the front end head (61) and the rear end head (62). Two adjacent external hinge plates (63) are rotatably connected to each other, and the front end head (61) and the rear end head (62) are rotatably connected to the adjacent external hinge plates (63).

8. The electric safety helmet with foldable VR smart glasses according to claim 7, characterized in that: Each of the outer hinge plates (63) has an inner hinge plate (64) slidably inserted into its inner side. The length of the inner hinge plate (64) is equal to the length of the outer hinge plate (63). Two adjacent inner hinge plates (64) are rotatably connected to each other. An inner end (65) is provided on the inner side of the rear end head (62), and the inner end (65) is rotatably connected to the adjacent inner hinge plate (64). A fixed magnet plate (66) is installed on the inner side of the front end head (61). A movable magnet plate (67) is provided on the side of the fixed magnet plate (66) away from the eyeglass storage block (4). The movable magnet plate (67) is fixed to the adjacent inner hinge plate (64).

9. A power safety helmet with foldable VR smart glasses according to claim 8, characterized in that: The top block (31) includes: The outer frame (311) is connected to the upper end of the upright assembly (33), and the outer frame (311) is installed on the outer ring surface of the ring belt (12); Two adjusting blocks (312) are slidably inserted into the inner side of the outer frame (311), and the two adjusting blocks (312) are respectively connected to the two rear end heads (62) on opposite sides. The pressure block (313) is slidably inserted into the inner side of the outer frame (311). The pressure block (313) is located on the upper side of the two adjusting blocks (312). The upper surface of the pressure block (313) is threaded through an adjusting threaded shaft (314). The adjusting threaded shaft (314) rotates through the inner top wall of the outer frame (311).

10. A power safety helmet with foldable VR smart glasses according to claim 9, characterized in that: The top block (31) also includes a synchronous gear (315), the synchronous gear (315) has different tooth diameters at its upper and lower ends, and synchronous tooth plates (316) are provided on both sides of the synchronous gear (315). The two synchronous tooth plates (316) mesh with the two different tooth diameter parts of the synchronous gear (315) respectively, and the two synchronous tooth plates (316) are fixed to the two adjusting blocks (312) respectively. When the synchronous gear (315) rotates, it drives the two synchronous gear plates (316) to rotate relative to each other at the same angle.

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