Automatic cap machine

Abstract

The automatic cap machine comprises a main screen, a belt screen, a shell plate, a folded edge, a front box body, a sliding way shell, a sliding block assembly, a corner mechanism, a driving mechanism, a comparison camera set, a cap plate and a cap body. And two sides below the cap plate are connected with slideway shells. And a sliding plate connected with the sliding block in the slideway shell is connected with a sliding plate shaft. And the front box body connected with the front end of the shell plate, the folded edge and the shell plate are connected into a whole to form the shell. And a main screen is arranged below the shell. And a belt screen is mounted on a rear shell plate of the front box body. The shell is hinged to the sliding plate shaft. A driving mechanism composed of a motor and a lead screw nut can enable the shell to rotate up and down and move left and right below the cap plate. A corner mechanism is installed on the sliding plate and can control the rotation angle of the shell. When the shell is folded below the cap plate, the belt screen is used for standby, and brief prompts of incoming call information are displayed. When the shell is vertically placed in front of the cap plate, detailed contents of brief prompts on the main screen can be displayed on the main screen. The automatic cap machine has a real-time correction function and can display time and navigate. And great convenience is provided for users.

Description

Technical Field

[0001] This invention belongs to the field of hats, and in particular automatic hat machines. Background Technology

[0002] There are many types of hats nowadays, and most have a visor at the front. The visor serves two purposes: firstly, it shields the eyes from sunlight and protects against wind, rain, and debris; secondly, it adds an aesthetic appeal, making hats with visors more popular. However, a drawback of this type of hat is that it doesn't fully utilize the unique position of the visor for information exchange. Some hats have a display panel shaped like glasses attached to the bottom of the visor. While this display panel can be folded up and down, it's unsuitable for standby use. For people working or busy outdoors, this display panel cannot be left down for extended periods, as it obstructs the user's view when down. When folded up, there's no standby interface, meaning it can't be used for extended periods and cannot display call or message notifications, especially important notifications. Having to fold up the panel every time there's an incoming call or message can be too frequent, and some messages don't need a response. It also doesn't utilize the advantageous position of the visor for real-time image correction, video playback, or image viewing. Summary of the Invention

[0003] The purpose of this invention is to overcome the shortcomings of existing hats and provide an automatic hat machine.

[0004] This invention is implemented as follows: The automatic hat-making machine includes a main screen, a strip screen, a shell plate, folded edges, a front box, a slide shell, a slider assembly, a corner mechanism, a drive mechanism, a comparison camera group, a hat plate, and a hat body. The front box is connected to the lower front end of the shell plate; the shell plate is integrally connected to the folded edges on both sides. The main screen is mounted on the concave surface of the shell plate. A front shell plate is located in front of the front box, and a rear shell plate is located behind it; the strip screen is mounted on the rear shell plate. A front edge is connected to the front end of the hat plate. Slide shells are connected to the lower two sides of the hat plate. The slider assembly consists of a slider, an extension block, a slide plate, and a slide plate shaft connected in sequence. The corner mechanism consists of a push block, a locking latch, and an unlocking latch. The folded edges on both sides of the shell plate are hinged to the slide plate shaft. The strip screen is used for standby mode and displays corresponding dedicated icons when there are incoming calls, WeChat messages, or text messages. The icons are illuminated and flash, and a brief prompt for the WeChat message or text message is also displayed. The main screen is used to display detailed content, images, and videos of the incoming call information brief prompts displayed on the strip screen. The screen is small in height and does not obstruct the user's view. It displays the time and provides navigation. A comparison camera assembly is installed in the front housing. The automatic capping machine has a real-time correction function. The drive mechanism consists of a micro motor, lead screw, nut, gears, shell tube, and front and rear hinges. When the main screen is folded up and placed flat under the cap plate, the screen faces the user's eyes from the front of the cap plate for easy viewing. When the main screen is lowered to a vertical position below the front of the cap plate, it faces the user's eyes for easy viewing. The comparison camera assembly provides real-time images for correction. The shell plate can move back and forth and rotate up and down under the cap plate; when the shell plate is folded up, the concave surfaces of the shell plate and the main screen face downwards, aligning with the concave surface of the cap plate; when the shell plate is lowered, it rotates and moves to a vertical position in front of the cap plate, with the concave surfaces of the shell plate and the main screen facing the user's eyes, and the arch direction of the shell plate aligning with the arch direction of the front of the cap plate. In the drive mechanism structure, the lead screw and nut serve as both a transmission and a connecting rod.

[0005] The beneficial effects of this invention are: 1. A strip screen and a main screen are provided on the cap plate. The strip screen is short and narrow, forming a horizontal strip, generally only suitable for displaying a single line of text. The main screen is much wider than the strip screen and can be used as a mobile phone screen to display text and videos. A housing is provided below the cap plate, with a front box connected to the front end of the housing. Folded plates, or folded edges, are provided on both sides of the housing to support it. The strip screen is installed on the rear shell plate of the front box. The main screen is installed below the housing. Slide housings are provided on both sides of the cap plate, with sliders installed in the slides. The folded edges on both sides of the housing are hinged to the slide plate shaft. The housing can move back and forth and rotate. When the housing rotates from a vertical state to a horizontal state, it is in a retracted state. At this time, the strip screen is just below the front end of the cap plate. The strip screen can display icons for incoming calls, WeChat messages, and messages, as well as the names of the corresponding personnel, and brief content prompts for incoming calls and messages, especially important notifications. Human vision is divided into central vision and peripheral vision, i.e., primary vision and lateral vision. The screen is positioned at an appropriate height just above the eyes, within the eye's visual perception range, without obstructing the view forward. The eyes are very sensitive to light; when there are incoming calls, WeChat messages, or other notifications, their icons light up, which the eyes immediately perceive without the user needing to consciously notice. When the user wants to view the details of a WeChat message or notification displayed on the screen, a sound or vibration is activated, and the main screen immediately lowers to the front of the display panel. The main screen can display text and video just like a mobile phone. After viewing, another sound or vibration is given, and the main screen immediately retracts and lies flat under the display panel, while the screen moves back to the front under the display panel, ensuring unobstructed vision and providing great convenience. 2. The screen can display the time. Users can easily check the time by glancing upwards, which is much more convenient than taking out a mobile phone, turning it on, or checking a watch. 3. The screen can display navigation cursors and arrows for left turn, right turn, forward, and U-turn, which is much more convenient than using a mobile phone or watch for navigation. When a user wants to see the detailed route of a certain section, they lower the main screen to view it. After viewing, the main screen retracts under the cap plate. 4. The automatic cap machine has a timely correction function. Correction refers to correcting deviations and errors in the user's actions. Template images, which are correct and standard images, are stored in the system's memory beforehand. A comparison camera group is set at the front of the cap plate, which can record the user's operation and work process from head to toe, hands and feet, in real time, obtaining real-time images. The system compares the real-time images with the pre-stored template images. If a deviation is found between the real-time images and the template images, a red light will illuminate on the main screen, and the main screen will be lowered immediately. The user can see where the deviation is and where the error is on the main screen in time, and can correct it in time. This ensures product quality and improves work efficiency. 5. An automatic shell lowering and retracting device is set up. During operation, users often have both hands full, or are wearing gloves or covered in mud, making it inconvenient to lower and retract the shell plate in time. At this point, the user only needs to emit the set sound or vibrate once, and the shell will automatically lower and then retract in the same way as described above.This solves the problem. 6. A micro motor is used, with a lead screw and nut for speed regulation. The lead screw acts as a connecting rod, and the lead screw and nut together form a high-ratio reducer. Locking and unlocking mechanisms for the housing's rotation angle are also included, allowing the lead screw to rotate the housing from a horizontal to a vertical position and move it to the front of the cap plate in one go. When retracting, the housing can be automatically rotated from a vertical to a horizontal position and placed flat under the cap plate in one go. Attached Figure Description

[0006] Figure 1 The middle image shows the installation diagram of the automatic hat machine on the hat plate.

[0007] Figure 2 The middle section shows the slide shell structure and the installation diagram of the seat plate on the cap plate.

[0008] Figure 3 The middle section shows the structural diagram of the slider, slide plate, and slide plate shaft.

[0009] Figure 4 The middle section is a diagram of the shell structure.

[0010] Figure 5 The middle section is the assembly diagram of the internal structure of the automatic hat machine.

[0011] Figure 6 The middle section is a structural diagram of the drive mechanism.

[0012] Figure 7 Figure A shows the installation and assembly of the folded edge and sliding plate, while Figure B shows the connection between the shell plate and the drive mechanism.

[0013] Figure 8 The middle section is a diagram of the installation structure of the lock card and unlock card.

[0014] Figure 9 The middle image shows the process of lowering the shell.

[0015] Figure 10 The middle image shows the process of lowering the shell.

[0016] Figure 11 The diagram in the middle illustrates the working principle and process of the automatic lowering and retraction of the casing.

[0017] Figure 12 The diagram in the middle illustrates the working principle and process of the automatic lowering and retraction of the casing.

[0018] Figure 13 The middle image shows the installation location of the angle sensor.

[0019] Figure 14 The middle section shows a comparison diagram of the camera assembly installation.

[0020] Figure 15 The middle image shows the installation location of the front-facing camera on the front of the cap plate.

[0021] Figure 16 The middle section is a navigation map.

[0022] In the attached diagram, the components are: 1. Touch strip; 2. Front shell; 3. Main screen; 4. Slide axis; 5. Slide; 6. Slide shell; 7. Side edge; 8. Vertical corner block; 9. Slider; 10. Horizontal corner block; 11. Folded edge; 12. Shell plate; 13. Cap plate; 14. Cap body; 15. Front edge; 16. Seat plate; 17. Front edge; 18. Shaft pin hole; 19. Slide opening; 20. Lower rolled edge of cap plate; 21. Stop block; 22. Stop surface; 23. Arc surface; 24. Locking shaft; 5. Extension. 25. Block 26. Front box 27. Abutment block 28. Angled surface 29. Balance block 30. Push block 31. Main unit 32. Folded edge with rolled edge 33. Front camera 34. Shooting port 35. Bottom shell 36. Screen 37. Rear shell 38. Below and behind the cap plate 39. Shaft pin 40. Shaft sleeve 41. Empty area 42. Guide block 43. Abutment block 44. Limiting block 45. Front hinge block 46. Cover shell 47. Shaft plate 48. Gear, 49. Platform ring, 50. Pipe sleeve, 51. Nut, 52. Screw, 53. Shell tube, 54. Shaft pin plate, 55. Motor shaft, 56. Motor housing, 57. Shared pipe wall, 58. Bracket, 59. Screw, 60. Empty area, 61. Rear hinge, 62. Motor nut body, 63. Front hinge, 64. Folded edge notch area, 65. Locking card, 66. Unlocking card, 67. Sensor housing, 68. Sensing surface, 69. Detected substance, 70. Detected block, 71. Lower camera, 72. Rear camera, 73. Button, 74. Shooting angle line, 75. Cross shooting area, 76. Left turn area, 77. Straight area, 78. Straight arrow, 79. Right turn area, 80. Left turn arrow, 81. Left turn intersection light, 82. U-turn arrow, 83. Right turn intersection light, 84. Right turn arrow, 85. Lane, 86. Lane arrow, 87. Obstacle, 88. Small box, 89. Specific Implementation

[0023] Figure 1The diagram shows the automatic hat-making machine installed on the hat plate. The cut-out section on the left shows: a horizontal corner block 10 and a vertical corner block 8 connected to the bottom of the hat plate 13. A slide shell 6 is connected to the horizontal corner block 10 and the vertical corner block 8. A slider 9 is installed in the slide shell 6. The slider 9 extends out of the slide shell 6 and is integrated with the slide plate 5. The slide plate 5 is integrated with the slide plate shaft 4. The shell plate 12 is an arc-shaped plate surface located below the hat plate 13, with an appropriate gap between it and the hat plate. The upward arch of the shell plate 12 is basically the same as the upward arch of the middle section of the hat plate. Both sides of the shell plate 12 are integrated with the folded edges 11. The shell includes the folded edges 11, the shell plate 12, and the front housing. Shaft holes are provided on the folded edges 11 on both sides of the shell. The folded edges 11 are installed on the slide plate shaft 4 through the shaft holes, thus connecting the shell plate and the folded edges to the slide plate 5. The shell can rotate around the slide plate shaft 4. The main screen 3 is installed below the shell plate 12. The main screen 3 is a concave screen with a slight upward arch, similar to the concave screen wall panels in cinemas, designed to not affect the viewing experience. The upward arch of the middle section of the cap plate is similar to the concave surface of the screen wall panels in cinemas. The upward arch of the middle section of the cap plate is less pronounced, while the two sides of the cap plate curve downwards more significantly. The upward arch of the middle section of the cap plate is basically consistent with the upward arch of the shell plate and the main screen. The right side of the diagram is not cut open; the structure of the dotted line section is the same as the structure of the cut-open section on the left side mentioned above, and the left and right structures are symmetrical. The front of the cap plate is connected to a leading edge; the leading edge 17 is shown below. Figure 2 Icon A is marked. A touch strip 1 is provided on the leading edge. Figure 1 The front edge of the center section is obscured by the touch strip 1 and is not shown. Side edges 7 are provided on both sides of the cap plate. The outline of the lower edge of the side edge 7 gradually curves upwards towards the lower edge of the front edge, creating a smooth, continuous outline between the middle section of the front edge and the lower edges of the two side edges 7. Components installed behind the front edge are completely obscured by it. The drawing shows two sections; the section on the right, which is not cut open, is marked with the touch strip 1 in the middle; the section on the left is marked with the front shell plate 2 between the two sections.

[0024] Figure 2Figure A shows the slide shell structure and the installation of the seat plate on the cap plate, while Figure B is a sectional view of Figure A (AA). In Figure A, the cap plate 13 is generally arched upwards with both sides curving downwards. The cap plate 13 is divided into a middle section and a side section. The front edge 17 is connected to the front end of the cap plate, and its function is to cover the components installed below the cap plate. Horizontal corner blocks 10 and vertical corner blocks 8 are connected to the bottom of the left and right sides of the cap plate. Slide shells 6 are installed on the left and right sides of the cap plate. The slide shells 6 are T-shaped slide structures made of plastic, and the openings of the slide shells on both sides, i.e., the slide openings 19, face towards the middle of the cap plate 13. The outer edges of the left and right slide shells are against the vertical corner blocks 8. The top edges of the slide shells are against the horizontal corner blocks 10. The horizontal and vertical corner blocks are process blocks used for installing the slide shells. In the middle section of the front edge 1, two seat plates 16 are symmetrically connected. The base plate 16 has a pivot pin hole 18. The cap plate, vertical corner block, horizontal corner block, front edge, and base plate are all made of plastic in one piece. The slide box shell can be glued to the vertical and horizontal corner blocks, that is, it is connected to the bottom of the cap plate.

[0025] In Figure B, the front edge 17 is connected to the lower left side of the cap plate. The seat plate 16 is connected to the lower right side of the cap plate. Both sides of the cap plate gradually curve backward and downward. The slide shell has various structures. The attached diagram illustrates a T-slot slide shell.

[0026] Figure 3 The diagram shows the structure of the slider, slide plate, and slide plate shaft. Figure A is the front view, and Figure B is a sectional view of Figure A along line AA. Figure C is a view of Figure A along line D. Figure D is an assembly drawing of Figure B installed in the slide housing 6.

[0027] In Figures B and D, slider 9 is installed in the T-slot of the slide housing. Slider 9, extension block 25, slide plate 5, and slide plate shaft 4 are connected in sequence. The upper and lower latches at the opening of the slide housing 6 are fastened to the upper and lower surfaces of extension block 25, and the left side of slide plate 5 rests against the latch at the opening of the slide housing. Slide plate shaft 4 is integrated with slide plate 5. The left and right sliding of slider causes the slide plate shaft to move left and right.

[0028] In Figure A, the upper left side of the skateboard is formed as an arc surface 23 concentric with the skateboard axle 4. The upper left, right, and lower sides of the skateboard are all formed as right-angled surfaces. A stop surface 22 is provided on the left side of the skateboard 5. The stop surface 22 is formed as a slope with a set angle. The slope angle line points towards the center of the skateboard axle. The right end of the slope is connected to the lower end of the arc surface 23.

[0029] In Figure C, the upper part is slider 9, the middle part is extension block 25, and the lower part is slide plate 5. The upper part of slide plate 5 corresponds to the arc surface 23 in Figure A, the stop surface 22 (i.e., the inclined surface), and the left side is the straight surface connecting slide plate 5 and the stop surface. Slide plate shaft 4 and locking shaft 24 are located below slide plate 5.

[0030] Figure 4The diagram shows the shell structure. Figure A is a three-dimensional view of the shell, showing the front, rear, and side structures. Figure B is a plan view of the shell's side. The shell section includes shell plate 12, flanges 11, front housing 26, and main screen 3. The shell section will be referred to as the shell section for short. The shell plate has a shape that is appropriately arched upwards. Flanges 11 are connected to both sides of shell plate 12. The flanges on the left and right sides are parallel to each other and both point vertically downwards. The front housing 26 is connected to the front of shell plate 12, and a screen 36 is installed behind the front housing 26, i.e., on the right side of the diagram. The screen is small in height but large in width on both sides, resembling a strip, hence the name "screen". The upward arch of the shell plate is basically consistent with the upward arch of the cap plate. The main screen 3 is installed below the shell plate, and the main screen 3 also arches upwards with an appropriate arc, following the shell plate 12. Both the shell plate and the cap plate have a gradually curved shape from the front end to the rear and downwards. The cap plate and the shell are as follows. Figure 1 The images shown all exhibit a design where the curl downwards is less pronounced on both sides of the center section and more pronounced on the sides, resembling the concave shape of a theater screen. Most cap panels are constructed this way, with more curl downwards on the side sections and less in the center.

[0031] The main screen is narrow and typically displays only one line of text. Most of the time, the main screen is folded up under the top panel. The main screen is used to display the time, provide arrow guidance for left, right, forward, and U-turns in navigation, and display the same icons as on a mobile phone for incoming calls, WeChat messages, and other notifications. These icons are illuminated and flash, serving as cursors and displaying the sender's name along with brief text prompts. Users can easily see the content displayed on the main screen with a quick glance upwards. When the user needs to see more detailed information after reviewing the main screen's prompts, or when watching videos, the main screen is lowered. The main screen has the basic functions of a mobile phone screen. Users can watch videos and search for information. The mounting location for the main unit 31 is located on the inner side of the folded edge 11 in Figure A.

[0032] Figure 5 Figure 1 is the assembly drawing of the internal structure of the automatic cap machine. Figure A is a cross-sectional view of the front section of the automatic cap machine. Figure B is an enlarged view of the left side of Figure A. Figure C is a cross-sectional view AA of Figure A.

[0033] In Figure A, is Figure 1 The drawing shows the cap body and the upper part of the cap plate, excluding these sections. There are three sectioning points in the drawing. The two outer sectioning points are on the same plane. The middle sectioning point is the hinge location (38) below the cap plate, as indicated by the label on the base plate 16 in Figure C. The middle sectioning depth is greater than the left and right sectioning depths. At the middle sectioning point, two base plates 16 are connected below the middle section of the cap plate. Each base plate 16 has a pin hole, and a pin 39 hinges a bushing 40 to the base plate 16. This is the rear hinge location in Figure C.

[0034] In Figure B, Figure 2Slider 9, slide plate 5, and slide plate axle 4 are installed in the slide shells 6 on both sides of the center cap plate. Slider 9 is inserted into the slide shell 6 from one end, and extension block 25 is inserted into the opening of the slide shell accordingly. The left side of slide plate 5 rests against the outer surface of the slide shell opening. Slider 9 slides left and right in the slide shell 6, which can drive the slide plate and slide plate axle to slide left and right. Abutment block 27 is connected to the folded edge 11.

[0035] In Figure C, on the left, as seen in Figure B, the folded edge 11 is installed on the right side of the slide plate. According to the sectional view AA in Figure C, the folded edge 11 completely obscures the entire slide shell 6 and the slide plate, making them completely invisible. Therefore, by cutting open from position AA in Figure A and removing the folded edge, the slide shell, slide plate, and slide plate axle can be seen. In all subsequent drawings where the cap plate and shell plate are cross-sections and the slide shell, slide plate, and slide plate axle are visible, the folded edges at the corresponding positions have been removed. However, the folded edge is actually installed in its original position and still moves left and right with the slide plate. The slide shell 6 is fixed to the mounting blocks on both sides of the cap plate 13. The figure shows the upper, lower, left, and right outlines of the slide shell and the two solid lines of the two slide openings 19 in the middle. The slide plate 5 is positioned to the right of the slide shell 6. At this time, the shell plate 12 has been retracted under the cap plate and is in a horizontal state. The guide block 42 is connected to the bottom of the slide shell 6. The left end of the cap plate is connected to a leading edge 17, which serves to conceal components installed below the cap plate and is also a decorative feature. There is a designated gap 41 between the leading edge 17 and the front housing 26. Because the rotation of the housing is centered on the axis of the sliding plate shaft 4, the right-angle point at the upper left of the front housing will not interfere with the right side of the leading edge during vertical rotation. Furthermore, the space in the gap must allow for a small amount of automatic translation control during the initial rotation of the housing; this translation amount is typically only two millimeters.

[0036] Figure 6 The diagram in the middle is a structural diagram of the drive mechanism. The drive mechanism includes a motor 56, a nut 51, a sleeve 50, a lead screw 52, ​​a housing 53, a gear 48, a cover 46, a bracket 59, and the pin plates for the front hinge 64 and the rear hinge 62. (See attached diagram.) Figure 7 The annotations in the text.

[0037] The drive mechanism is mainly made of high-strength plastic and is very lightweight; for example, the micro motor weighs less than four grams, similar to the motors in some existing small drones. Depending on the cap plate length, the lead screw and sleeve length are generally between four and eight centimeters. In Figure A, motor 56 and motor housing 57 are installed side-by-side with nut 51 and sleeve 50. Motor 56 is installed in motor housing 57. Gear 48 is mounted on motor shaft 55. Nut 51 is installed in sleeve 50. There is a rotational fit clearance between sleeve 50 and nut 51; the nut rotates, while the sleeve does not. In the figure, gear 48 is connected above the nut. Lead screw 52 is screwed into nut 51. The internal thread in the nut cannot be too long. The inner wall of the nut only has a thread at the top; the bottom of the nut is unthreaded. The smooth inner hole at the bottom of the nut guides the lead screw. Cover 46 is fastened to the upper end of the motor and nut and secured to the corresponding housing ring 49 with screw 60. The upper end of the lead screw is flattened, forming a shaft plate 47. A bushing is connected to the shaft plate 47. The shaft plate 47 at the front end of the lead screw 52 is hinged to the bushing connected to the front hinge block 45 on the shell plate by a pin 39. The lead screw cannot rotate. The forward and reverse rotation of the motor 56 is achieved through gear 48, which drives the nut 51 to rotate in the forward and reverse directions, thus moving the lead screw up and down.

[0038] Figure B is a cross-sectional view AA of Figure A, showing the nut, sleeve, lead screw, and shell tube. Except for the upper and lower parts, most are the same as the right side of Figure A. In Figure B, the upper end of the lead screw is flattened, i.e., the shaft plate 47. A pin hole 18 is formed in the middle of the shaft plate 47. The upper end of the shell tube 53 is connected to the sleeve 50. The lower part of the lead screw 52 is inserted into the shell tube 53, with an appropriate gap between the shell tube and the lead screw. In Figure A, there is a bracket 59 on the left side of the shell tube. There is also a bracket 59 below the shell tube, connected to it. Both the bracket 59 and the lower part of the shell tube are connected to a pin plate 54. The pin plate 54 has a pin hole 18. A pin is used to connect the pin plate 54 below the shell tube in Figure A to... Figure 7 In Figure B, the base plate 16 connected to the shell plate is hinged together.

[0039] The upper part of Figure A shows the connection between the motor housing 57 and the sleeve 50 for the nut. Both the motor housing and the sleeve are circular. The sleeve 50 is also known as the bushing; here it serves as both the bushing for the nut and the outer casing for mounting the nut. The motor housing and the sleeve are installed side by side, sharing a common section of the sleeve wall 58. The aforementioned housing / sleeve is... Figure 7 The motor nut body in the middle.

[0040] Figure C is a view from direction D in Figure A, showing the installation structure of the upper cover 46 in Figure A. The area above the horizontal center line is cut open, revealing two gears 48, the motor shaft, and the upper end of the nut. The gears 48 connected to the motor shaft 55 mesh with the gear connected to the upper end of the nut. The area below the horizontal center line is not cut open and is shown as a dotted line, where the cover 46 is fixed in place using screws 60.

[0041] Figure 7 Figure A shows the installation and assembly of the folded edge and the slide plate, while Figure B shows the connection between the shell plate and the drive mechanism. In Figure A, the slide plate is a three-dimensional view. Above the slide plate is an arc surface 23. Above the arc surface 23 is a support block 27. Below the support block 27 is also a concave arc surface. There is an appropriate gap between the support block 27 and the arc surface 23. On the upper left of the slide plate 5 is a stop surface 22, which is an inclined surface pointing towards the center of the slide plate axle. To the left of the stop surface is a stop block 21. The slide plate axle 4 is connected to the slide plate. The right side of Figure A is a plan view of the folded edge 11. The folded edge 11 has a pin hole 18. The upper left of the folded edge is connected to the support block 27. The support block 27 above the slide plate 5 is the same part as the support block 27 on the right folded edge. When the pin hole on the right folded edge 11 is moved to the left and installed on the slide plate axle 4, the left side of the folded edge is closer to the slide plate 5. The upper left abutment block of the folded edge inserts into the curved surface of the skateboard; this is the left abutment block 27. After the folded edge is installed on the skateboard, rotating the folded edge counterclockwise by 90 degrees causes the abutment block on the left curved surface to rotate counterclockwise along the curved surface to the stop position shown in the diagram, where it is stopped by the stop surface 22. This is the process of the shell rotating from a flat position folded under the cap plate to a vertical position.

[0042] In Figure B, the shell is installed below the cap plate. The folded edges on both sides of the shell are already mounted on the slide plate axle through the pin holes. The shell is in a folded-down, flat position below the cap plate. The front edge 17 is connected to the front end of the cap plate (left side). The front box 26 is connected to the front end of the shell plate 12. See Figure B for the relevant structure and markings of the front box 26. Figure 4 China League Two Chart and Figure 5 The diagram shows the following: The main screen 3 is installed below the shell plate 12. The folded edges on both sides of the shell plate are installed on the slide plate 5. In the diagram, both the slide shell and the slide plate are obscured by the folded edges. For ease of observation and explanation, the folded edge 11 obscuring the front of the slide shell and slide plate is not shown in the diagram; it is only marked on the left end of the slide shell. The lower edge of folded edge 11 coincides with the outline of the lower edge of the slide shell. At this point, the slide plate is positioned at the upper right end of the slide shell. A front hinge block 45 is connected to the right side of the shell plate. A pin hole is located on the lower right side of the front hinge block 45.

[0043] Drive mechanism such as Figure 6 As shown and explained. The motor nut body 63 in the figure is... Figure 6The motor and nut housing are located within the motor housing. The housing tube 53, connected to the right side of the motor nut body, is hinged to the base plate 16 connected to the lower rear of the cap plate. A lead screw is installed in the housing tube 53. A pin hole 18 is also present on the shaft plate 47 extending from the motor nut body. A pin is used to hinge the front hinge block connected to the right end of the housing plate to the shaft plate at the front end of the lead screw; this is referred to as the front hinge 64. Alternatively, a bushing can be connected to the pin hole 18 at the end of the lead screw 52, ​​and the bushing can be connected to the front hinge block using a pin. The front hinge is located diagonally above the center of the skateboard axle, a certain distance from the center of the skateboard axle, i.e., the rotation center of the housing. Pushing the lead screw to the left will cause the housing to rotate counterclockwise around the center of the skateboard axle to a vertical position, and will push the housing to the left. The diagram shows the lead screw having pulled the housing to the right to the set position and stopped. At this point, the front hinge 64 is located above and to the right of the skateboard axle.

[0044] Figure 8 Figure 1 shows the installation structure of the locking and unlocking cards. Figure 2 shows the installation space and push-block connection structure of the locking and unlocking cards. Figure 3 is a sectional view (AA) of Figure 3. Figure 4 shows the structure of the locking and unlocking cards installed on the slide plate.

[0045] In Figure A, the shell is installed under the cap plate 13. The installation positions of the left-hand front edge 17, front housing 26, shell plate 12, screen 36, and main screen 3 are all... Figure 7 The same applies in the diagram. The slide plate 5 is located to the right of the slide housing 6. The lower contour line of the folded edge 11 is flush with the lower contour line of the slide housing. The folded edge 11 is mounted on the slide plate axle. A locking axle 24 is fixedly connected to the lower right of the slide plate 5. A limit stop 44 is installed on the lower side of the slide plate 5. A folded edge notch area 65 is provided to the right of the folded edge 11. The folded edge notch area 65 provides rotational space for the installation of the locking and unlocking cards as shown in diagram C. A pushing block 30 is provided to the lower right of the folded edge. A stop block 27 is connected to the upper right of the folded edge. The stop block 27 extends and rests on the arc surface above the slide plate 5, as shown in diagram C. Figure 7 As shown in the diagram, the shell is folded up and flat under the cap plate. The abutment block 27 is at the starting position of the counter-clockwise rotation. Under the slide plate in the diagram are abutment block 43 and guide block 42. Abutment block 43 and guide block 42 are a single piece of plate. The guide block 42 on the left has a set slope. A small slope is also set above the abutment block on the right. A balance block 29 is set on the upper right side of the folded edge 11 near abutment block 27. The section line in the diagram is not cut open between the section line and the right outline of the folded edge. Figure 4 The right-hand side features a folded edge structure. For ease of observation and explanation, only the adjacent block is drawn with solid lines. Other areas obscured by the folded edge are depicted with dashed lines. The cut-out section on the left is entirely drawn with solid lines.

[0046] Figure B is a cross-sectional view AA of Figure A. For ease of observation and explanation, only the mating positions of the slide plate and the folded edge are shown in the figure. The slide plate 5 is behind the folded edge 11, and the folded edge 11 is connected to the slide plate 5 by the slide plate axle 4. A push block 30 is connected to the right side of the folded edge, and the locking axle 24 is fixed to the slide plate.

[0047] In Figure C, a locking block consisting of a locking card 66 and an unlocking card 67 is installed on the locking shaft 24 of the sliding plate 5 in Figure A. The locking block has a shaft pin hole. Return springs are installed on the locking and unlocking card blocks; in existing technology, small torsion springs are generally installed to provide a slight counter-clockwise rotational torque to the locking and unlocking cards. The torsion spring is not shown in the figure. At this time, the locking card is directly against the limiting block 44 under the sliding plate. The shell has already been retracted upwards and is in a flat position under the cap plate. The convex surface of the push block 30 on the lower right of the folded edge is against the unlocking card 67. In the instant before the shell retracts, the lead screw of the drive mechanism pulls the shell to the right, and the lower part of the folded edge 11 is guided by the inclined surface of the guide block 42 into the flat surface above the guide block, so that the vertical center line of the sliding plate shaft is already to the right of the inclined surface of the guide block, allowing the shell to be placed flat when retracted, and ensuring that the upper right side of the shell is retracted into position. As the housing moves to the right just before retracting, the locking and unlocking cards also move a predetermined distance to the right. This means there is a predetermined distance between the downward-inserting locking card block and the abutment block 43, called the locking card translation distance. There is also a predetermined distance between the front shell plate 2 and the front edge 17 in front of the cap plate, called the front end gap distance. The front end gap distance is a predetermined size larger than the locking card translation distance.

[0048] Figure 9 middle, Figure 10 The middle section shows the process of lowering the housing. For clarity, the drive mechanism is not shown in the diagram. Figure 9 In Figure A, the lead screw of the drive mechanism pushes the front hinge block 45 of the housing to move and rotate to the left. However, when... Figure 8 When the center line of the skateboard axle 4 shown is to the right of the guide block ramp, the housing cannot rotate. This is because during rotation, the portion of the folded edge to the left of the skateboard axle center line is blocked by the upper plane of the guide block on the left side, preventing rotation. Therefore, the housing moves horizontally to the left under the push of the screw. Only when the vertical center line of the skateboard axle is at a suitable position to the left on the guide block ramp can the housing rotate more significantly. At this point, the locking clip 66, moving to the left, is stopped by the abutment block 43. The housing cannot move to the left for a short time and can only rotate counterclockwise under the continuous push of the screw, causing the locking clip to retract upwards and move away from the abutment block 43. (See Figure B).

[0049] Figure 10 In the middle, is Figure 9 After the locking clip is lifted off the stop block, the housing can slide horizontally to the left or rotate counterclockwise. When the housing rotates 90 degrees, the stop block 27 connected to the folded edge rests against the stop surface on the slide plate, as shown. Figure 7 As illustrated and explained, the shell rotates to a vertical position. When the shell is in... Figure 9 In Figure B, when the rotation position is pushed by the lead screw to the set endpoint of the left slide housing and blocked by the positioning block on slide housing 6, the housing can no longer move to the left. However, the moment the lead screw continues to push, the housing quickly rotates counterclockwise to a vertical position. At this point, the housing has moved to the set position below the cap plate, with the main screen facing the user's eyes.

[0050] Figure 11 , Figure 12 The diagram in the middle illustrates the working principle and process of the automatic lowering and retraction of the casing. For ease of observation and explanation, [the diagram is omitted here]. Figure 11 , Figure 12 Several of the accompanying illustrations are numbered consecutively with the letters A, B, C, D, E, and F.

[0051] Figure 11 In Figure A, the shell is retracted below the cap plate 13, in a horizontal position, which is also the base state for the following figures during the lowering process. The abutment block 25 is at the starting position on the right side of the arc surface above the slide plate. The right side of the slide plate 5 is flush with the right side of the slide rail. The state after the shell is retracted, before entering the lowering process, is as follows: Figure 8 As shown in Figure C, there is a set distance between the locking block below the locking clip 66 and the abutment block 43. The first step of the automatic operation of lowering the housing has begun in Figure A. The lead screw in the drive mechanism has pushed the front hinge block, causing the folded edge and the right locking clip to move from right to left, and the locking block below the locking clip has already abutted against the abutment block 43.

[0052] In Figure B, because the locking plate in Figure A is blocked by the stop block 43, the slide can no longer move to the left. Therefore, under the push of the screw, the housing can only rotate counterclockwise around the center of the slide axle 4. The push block 30 on the right side of the folded edge 11 pushes the unlocking card 67 to rotate clockwise during the counterclockwise rotation, causing the locking plate to rotate clockwise as well, thus lifting the locking plate away from the stop block 43. At this point, the housing has rotated by an angle. The front housing on the right side is now below the leading edge. At this point, the front hinge 64 of the housing, under the continuous push of the screw, can either move to the left along the slide along the slide rail with the slide plate 5, or the housing continues to rotate counterclockwise around the center of the slide axle while moving to the left. When the housing is rotated to a vertical position, the abutment block 27 connected to the folded edge rests against the stop surface on the slide plate, preventing the folded edge, i.e., the housing, from rotating further.

[0053] In diagram C, when the shell in diagram B rotates to a vertical position, it can no longer rotate and causes the slide to continue moving to the left. The slide moves until it is stopped by the limiting block on the left end of the slide shell. In diagram B, the shell rotates counterclockwise by an angle but hasn't reached a vertical position. It's possible that while moving to the left with the slide, it continues to rotate counterclockwise as described above, but without reaching a vertical position; this is also a type of movement. The effect is the same for any shell that moves to the left as shown in diagram B. When the obliquely positioned shell moves to the left until the slide is stopped (the end point), the slide can no longer move to the left, and the shell's rotation center can no longer move to the left. However, the lead screw continues to push the front hinge on the shell, so the shell immediately rotates clockwise around the center of the slide's axis until it is stopped by the blocking block 27 on the slide, meaning the shell immediately becomes vertical. Figure 12 As shown in Figure D.

[0054] Figure 12 In the diagram, D is the same as the diagrams in B and C, where the shell eventually becomes vertical as it moves from left to right to the endpoint.

[0055] Figure E shows the process of the housing retracting. Under the pull of the lead screw of the drive mechanism, the housing moves to the right and rotates clockwise around the center of the slide plate axis by an angle, that is, the bottom of the housing will be biased to the left.

[0056] In diagram F, the housing is nearing its rightward end point during its movement to the right in diagram E. The lower contour line of the housing's folded edge is already against the inclined surface of guide block 42. At this point, if the lead screw continues to pull the front hinge block to the right, the lower front of the folded edge will be guided onto the upper plane of the guide block during the rightward movement of the housing, causing the housing to lie flat under the cap plate. Then, as... Figure 8 As shown in Figure C, there is a graphic with a set distance between the bottom of the lock card and the stop block.

[0057] At this point, the main screen and casing retract horizontally under the top panel. The main screen (36mm) returns to the front bottom of the top panel, allowing users to view simple WeChat messages, notifications, and caller ID, and also for navigation. The main screen's raising and lowering can be controlled by voice, buttons, or vibration. The time can be displayed on both the main screen and the casing.

[0058] Figure 13 The diagram shows the installation locations of the corner sensors. Position sensors are installed on the slide housing at corresponding positions as the slider slides from the right end to the left end. The position sensors are installed according to existing technology. An additional position sensor is installed on the left end of the slide housing to detect whether the housing has rotated to a vertical position as it moves from the right side of the slide housing to the left endpoint with the slide plate. Figure 7 China and Figure 10 , Figure 11The description states that when the housing rotates to a vertical position on the slide plate, the abutment block is already resting against the stop surface 22 of the stop block. For example... Figure 13 The housing is in a vertical position. The slide plate 5 has slid to the left end position of the slide rail housing 6. At this time, the abutment block 27 is blocked on the stop surface 22 on the slide plate 5. A detection block 71 is connected to the left of the abutment block 27 in the figure. A notch area is opened on the left side of the slide plate 5. There is a sensor housing 68 under the detection block. The sensor housing 68 is connected to the slide rail housing 6 behind it by a bracket. There is a suitable distance between the bottom of the detection block and the top of the sensor. Although the distance is small, they do not contact each other. There are various structural methods for position sensors. Here, a capacitive position sensor is used for explanation. A metal plate can be installed under the detection block to make the sensor more sensitive. When the housing moves to the left end, it may have already rotated to the vertical position, or it may not have rotated to the vertical position yet. When the slide plate moves to the left end, after the system receives the slide plate positioning signal from the dedicated slide plate sensor at the left end, it also needs to receive the signal from the housing of the aforementioned angle sensor that it has rotated to the vertical position before the nut in the drive mechanism stops rotating and the lead screw stops advancing. When the system receives the signal that the slide has moved to the left, but has not yet received the signal that the sensor housing has rotated to the correct position, the nut continues to rotate and the lead screw continues to advance. At this point, the slide 5 can no longer move to the left, and only the housing rotates counterclockwise. Thus, the housing instantly becomes upright. Whether the housing has already reached the upright position before the slide reaches the end point, or the housing continues to rotate after the slide reaches the end point before becoming upright, that is, whether the detected block 71 moves horizontally from the right to the sensor, or the detected block stops on the sensor in a rotated manner, it can enter the detected position without rubbing against the sensor, and the effect is the same. In fact, the detection angle can deviate significantly from the housing's rotation to the vertical position, which does not affect the user's viewing experience. It does not need to rotate precisely 90 degrees; a basically vertical position is sufficient.

[0059] Figure 14 The diagrams in Figure 1 and 2 are comparison of the camera assembly installation. Figure 3 shows the installation positions of each camera. Figure 4 is a sectional view of Figure 5 (DD). Figure 5 is a composite diagram of Figure 5 (BB, CC, and DD). Figure 6 is a sectional view of Figure 5 (AA).

[0060] In Figure A, the upper cross-section is shell plate 12, and below shell plate 12 is the screen 36. Figure A shows... Figure 1The direction from the back of the center cap 13 to the front. In Figure A, on the left, a front-facing camera 33 is installed in a small box behind the side edge. The DD section, cut open in the middle of the front box 26, is the installation position of the front-facing camera 33 within the front box 26; the front-facing camera 33 is facing away from the paper at this point. The circle of the front-facing camera 33's shooting port is drawn with a dashed line. The BB section is the installation position of the lower-facing camera 72. The shooting port of the lower-facing camera 72 faces downwards. The CC section is the rear-facing camera 73; the shooting port of the rear-facing camera 73 faces backwards, i.e., towards the user. The rear-facing camera 73 is installed in the space of the front box 26, leaving space for the shooting port on the screen. The rear-facing camera can also be installed in the middle of the figure, below the screen 36, without occupying the screen's display space. However, this installation structure requires the middle of the front box to protrude downwards. The rear cameras can also be installed at both the left and right ends of the screen, which can improve the off-center issue caused by installing only one camera on the right. Alternatively, slightly offsetting the right rear camera towards the center can also alleviate the off-center issue, with no significant impact on the overall effect. The installation position of the rear cameras should be determined based on the width of the screen. If the screen is very narrow, only able to display one line of text, the placement should minimize or completely avoid occupying the screen's display area. Button 74 is located below the front housing 26.

[0061] Figure B is a cross-sectional view of DD in Figure A. In Figure B, a front-facing camera 33 is installed inside the front housing 26, and the shooting port 34 faces to the left, i.e., forward. Holes are made on the front shell 2 and the touch surface to accommodate the shooting port.

[0062] In Figure C, a downward-facing camera 72 is installed in the front housing 26, which is the cut-out position shown in Figure A, with the camera aperture facing downwards. A circular hole is cut into the bottom shell 35 to accommodate the camera aperture. For ease of observation and explanation, the CC cut-out position in Figure A is drawn on the same drawing as the sectional view of the rear camera. To show the position of the rear camera 73, it is mounted behind the downward-facing camera and at a slightly higher position. Corresponding circular holes are cut into the back shell and the screen to accommodate the rear camera aperture. The shooting angle lines 75 of both cameras are drawn at 90-degree angles. This results in the overlapping shooting area 76 of the shooting angle lines of the rear and downward-facing cameras. The overlapping shooting areas of the cameras are processed and composited using existing technology to obtain a complete image, similar to the image processing and compositing on a mobile phone. These two rear and downward-facing cameras, installed below the front of the user's hat, can record the user from head to toe and within a certain distance in front of the feet. A shooting port is provided on the front edge of the cap plate corresponding to the position of the front camera, so as not to obstruct the shooting line of the front camera.

[0063] In Figure D, the front-facing camera, located on the lower side edge of the cap plate on the left side of Figure A, is called the cap plate front-facing camera. The cap plate front-facing camera also has a small housing 89. The cap plate front-facing camera 33 is installed in the small housing 89. The cap plate front-facing camera faces away from the paper, meaning its shooting port faces forward. It is shown as a dashed line in Figure A.

[0064] Figure 14 Figures B and C show the shooting range when the shell is in a flat position. Figure C shows a combination of rear and bottom cameras, capable of recording the entire manual operation process. The front camera is not used in this case. However, when the shell is rotated from a flat position to a vertical position and moved in front of the cap plate, the shell in Figure C is rotated 90 degrees counterclockwise from its position on the paper. At this time, the shooting directions of the cameras on the front box change. The previous bottom camera becomes a rear camera. The previous front camera becomes a bottom camera. The user's operation process can still be recorded as usual, and real-time images can still be obtained. The front cameras on both sides of the cap plate are no longer needed. However, in Figure C, when the shell is placed flat, the front cameras on the cap plate face forward, which solves the problem of the front camera being blocked by the front edge in Figure C, thus having a useful function.

[0065] Working Principle: The system provides real-time correction reminders for users during work and study. It promptly alerts and corrects deviations or errors in user hand and foot movements, including operations, sports, training, writing, and homework. This requires template images and real-time video. Template images are correct and standard images. These are recorded and edited into concise, correct template images based on various industries, job types, life, work, and study aspects, relevant time periods, and age groups where real-time correction is necessary. These template images are stored in the corresponding repository on the host computer. A comparison camera group installed in the front box of the casing can record the entire process of the user's operation when the user presses the corresponding button on the front box – this is the real-time video. The system processes real-time video synchronously and compares it with template images pre-stored in the repository. If any discrepancies are found, a red light illuminates on the main screen, accompanied by a voice prompt. The system also displays the user's operational deviation and error on the main screen, reminding the user to correct it immediately. The user can then view the changes on the main screen. This improves work efficiency and product quality. For student assignments, obvious errors can be corrected promptly. The main repository also contains voice templates. When users are reciting texts or learning foreign languages, the system can correct pronunciation and sentence errors, improving learning efficiency. The main repository also contains correction template images for the elderly, those with cognitive decline, and children. These template images record various scenarios and phenomena that may harm the health and safety of the elderly or children. They can promptly alert the elderly and children, and in serious cases, the system will automatically notify their guardians.

[0066] Figure 15 The middle section shows the installation location of the front-facing camera at the front of the cap plate. Figure 15 China is Figure 5 , Figure 7 , Figure 8 The top panel 13, when flipped upside down, shows a front-facing camera 33 mounted on both sides of the front housing 26 along its side edge 7. Alternatively, a single front-facing camera can be mounted behind the side edge of one side of the front housing. The front-facing camera mounted along the side edge also has a small housing. The small housing is not shown in the diagram. The front-facing camera 33 can wirelessly transmit shooting signals to the host via Bluetooth. The front-facing camera on the left side of the top panel can also capture images from the right side.

[0067] Figure 16 The middle section is the navigation diagram. The section with cross-sections is shell plate 12. Below shell plate 12 is screen 36. It is from... Figure 2 The image of the China League One chart, viewed from the reverse side, is... Figure 4The display screen you see when looking left from the right side of the China League Two map.

[0068] In Figure A, the area between two vertical lines drawn in the middle of the screen 36 on the rear shell panel of the front box below the shell plate 12 is designated as the straight-line display area, i.e., straight-line area 78. To the left of straight-line area 78 is designated as the left-turn display area, i.e., left-turn area 77. To the right of straight-line area 78 is designated as the right-turn display area, i.e., right-turn area 80. An upward arrow, i.e., straight-line arrow 79, appears in straight-line area 78, indicating straight-line forward movement.

[0069] In Figure B, a left-turn arrow (arrow 81) appears within left-turn zone 77, indicating an upcoming left turn. A left-turn intersection light (light 82) is located to the right of left-turn zone 77, near the straight-ahead area. Left-turn intersection light 82 remains off until the user reaches the intersection. Left-turn arrow 81 becomes a flashing red cursor at the start of the navigation voice prompt to attract the user's attention. The brightness of the flashing cursor then decreases to a secondary cursor of the same color as the arrow line, meaning it is less bright, but the user can still clearly perceive the light. Following this, a voice prompt indicates the distance to be reached, similar to existing navigation voice prompts.

[0070] In Figure C, when the user is about to turn left, the left-turn intersection light 82 immediately illuminates yellow to indicate that the user is preparing to turn left. When the user is very close to or has reached the left-turn intersection, the left-turn intersection light immediately turns into a flashing green light, and a voice prompt is given: "Turn immediately."

[0071] In Figure D, a downward-pointing cursor appears in the straight-ahead area 78, which is the U-turn cursor 83, prompting the user to turn around immediately.

[0072] Figure E shows the right turn indicator. Similar to the left turn indicator, the right turn arrow 85 extends into the right turn zone 80. The right turn intersection light 84 is not illuminated.

[0073] In the image shown, similar to the left-turn prompt, when preparing to turn right, the right-turn light illuminates yellow to remind the user. Subsequently, the right-turn light flashes green to remind the user to turn immediately.

[0074] The diagram shows lane 86, indicating which lane to use when turning ahead. The vertical lines on both sides have shifted to the left and right, widening the straight-ahead area above, creating six lanes (86). An upward-pointing lane arrow (87) appears in the first lane on the right, indicating that the user should use that lane. Once the user's vehicle turns right, the straight-ahead area returns to its original width.

[0075] In the image above, a cursor representing an obstacle (shaped like the number 88) appears within the straight-ahead area, accompanied by a voice prompt indicating the distance of the obstacle ahead. This serves as a warning to the user.

[0076] The hat board length should be chosen from existing hat styles that offer the longest possible length. The main unit has the basic functions of a typical smartphone. The main unit can also be mounted on the back side of the hat board, the side panel of the hat, or even inside the user's pocket. It can also wirelessly transmit signals via Bluetooth using the user's smartphone as the main unit. A microphone and speaker integration is installed on the side panel corresponding to the ear position, or a Bluetooth headset can be directly used for convenient voice calls and voice operation.

Claims

1. An automatic hat-making machine, characterized in that: The automatic hat-making machine includes a main screen, a screen panel, a shell plate, a folded edge, a front box, a slide shell, a slider assembly, a corner mechanism, a drive mechanism, a comparison camera group, a hat plate, and a hat body. The front box is connected to the lower front end of the shell plate. The shell plate is integrated with the folded edge on both sides. The main screen is mounted on the concave surface of the shell plate. The front box has a front shell plate in front and a rear shell plate behind, with the screen mounted on the rear shell plate. The front edge is connected to the front end of the hat plate. The slide shell is connected to the lower two sides of the hat plate. The slider assembly consists of a slider, an extension block, a slide plate, and a slide plate shaft connected in sequence. The corner mechanism consists of a push block, a locking card, and an unlocking card. The shell plate... The two folded edges are hinged to the skateboard shaft; the screen is used for standby and displays corresponding dedicated icons when there are incoming calls, WeChat messages, or text messages, and the icons are illuminated and flashing, and also display brief prompts for WeChat messages and text messages; the main screen is used to display detailed content, pictures, and videos of the brief prompts for incoming calls displayed on the screen; the screen has a small height and does not obstruct the user's view; the screen can display the time and provide navigation; a comparison camera group is installed in the front box; the automatic cap machine has a real-time correction function; the drive mechanism consists of a micro motor, lead screw, nut, gear, shell tube, front and rear hinges.

2. The automatic hat machine according to claim 1, characterized in that: When the main screen is folded up and placed flat under the cap, the side screen is positioned at the front bottom of the cap, facing the user's eyes for easy viewing.

3. The automatic hat machine according to claim 1, characterized in that: When the main screen is placed vertically below the front of the cap plate, it faces the user's eyes, making it easy for the user to see the main screen display.

4. The automatic hat machine according to claim 1, characterized in that: The comparison camera array can provide real-time images for correction.

5. The automatic hat machine according to claim 1, characterized in that: The shell can move back and forth and rotate up and down below the cap plate. When the shell is raised, the concave surface of the shell and the main screen faces downward, matching the concave surface of the cap plate. When the shell is lowered, it rotates and moves to the front of the cap plate to a vertical position, with the concave surface of the shell and the main screen facing the user's eyes, and the arched direction of the shell matches the arched direction of the front end of the cap plate.

6. The automatic hat machine according to claim 1, characterized in that: In the drive mechanism structure, the lead screw and nut serve as both a transmission and a connecting rod.

Images