A multifunctional island device and vehicle

Abstract

The application provides a multifunctional island device and a vehicle. The multifunctional island device comprises an island main body, at least one turnover table plate assembly, and a tea table assembly. The turnover table plate assembly is rotatably connected with the island main body, so that the turnover table plate assembly has a first storage position in which the turnover table plate assembly is stored in one side of the island main body, and a first working position in which the turnover table plate assembly is unfolded and rotated to the top of the island main body. The tea table assembly comprises a tea table and a lifting mechanism. One part of the lifting mechanism is connected with the island main body, and the other part of the lifting mechanism is connected with the tea table, so that the tea table has a second working position in which the tea table is away from the island main body, and the tea table has a second storage position in which the tea table is arranged close to the island main body. When the turnover table plate assembly is in the first storage position, the tea table is moved to the second working position, and when the turnover table plate assembly is in the first working position, the tea table is controlled to be in the second storage position. The problem of single function of the vehicle island in the prior art is solved.

Description

Technical Field

[0001] This invention relates to the field of vehicle island technology, and more specifically, to a multifunctional island device and vehicle. Background Technology

[0002] In existing technologies, in-vehicle islands or similar multi-functional furniture are usually single-function, either serving as a simple storage platform or as a fixed tea table / dining table, lacking the ability to flexibly switch between multiple scenarios. Existing retractable or flip-up structures often occupy a lot of space, are structurally complex or have poor stability, making it difficult to achieve a smooth transition from storage (such as being hidden under the dashboard) to multiple working states (such as charging, storage, tea break, and dining) within the limited space of a vehicle. Furthermore, they lack integrated cleaning functions, resulting in low utilization of the vehicle's interior space and a user experience limited to a single mode, failing to simultaneously meet the multiple needs of mobile storage, multi-functional operation, and environmental cleaning.

[0003] There is currently no effective solution to the aforementioned technical problems. Summary of the Invention

[0004] The main objective of this invention is to provide a multifunctional island platform device and vehicle to solve the problem of the single function of vehicle island platforms in the prior art.

[0005] To achieve the above objectives, according to one aspect of the present invention, a multifunctional island table device is provided, comprising: an island table body; a flip-top table assembly, at least one flip-top table assembly, the flip-top table assembly being rotatably connected to the island table body, such that the flip-top table assembly has a first storage position stored on one side of the island table body, and a first working position where the flip-top table assembly is unfolded and rotated to the top of the island table body; and a tea table assembly, the tea table assembly including a tea table and a lifting mechanism, a portion of the lifting mechanism being connected to the island table body, and another portion of the lifting mechanism being connected to the tea table, the lifting mechanism driving the tea table to be movably disposed in a vertical direction, such that the tea table has a second working position away from the island table body, and a second storage position where the tea table is disposed close to the island table body; wherein, when the flip-top table assembly is in the first storage position, the tea table can be controlled to move to the second working position, and when the flip-top table assembly is in the first working position, the tea table can be controlled to be in the second storage position.

[0006] Furthermore, when the flip table assembly is in the first working position, the tea table can be controlled to be in the second working position, at which point at least part of the tea table is above the flip table assembly.

[0007] Furthermore, there are two flip tabletop assemblies. When the two flip tabletop assemblies are in the first storage position, the plane on which the working surface of the two flip tabletop assemblies is located is set parallel to the vertical plane.

[0008] Furthermore, during the process of the two flip table assemblies rotating from the first storage position to the first working position, the two flip table assemblies gradually rotate from one side of the side wall of the island main body to the top of the island main body in opposite directions, and when each flip table assembly is in the first working position, the working surfaces of the two flip table assemblies are set flush to form a large working surface.

[0009] Furthermore, the flip table assembly includes: a drive motor connected to the island main body and located inside the island main body, with a drive gear at the output end of the drive motor; a connecting rod with a driven gear at its first end, the driven gear meshing with the drive gear, and the length direction of the connecting rod being perpendicular to the rotation axis of the driven gear; a flip table, the side of the flip table facing the island main body being connected to the second end of the connecting rod, and the surface of the flip table away from the island main body forming a working surface; and a support rod, the first end of which is connected to the surface of the flip table facing the island main body, and the second end of which is connected to the top of the island main body. The drive motor can drive the flip table to a first storage position and a first working position via the drive gear. When the flip table is in the first storage position, the support rod is located above the connecting rod.

[0010] Furthermore, there are two connecting rods, which are positioned opposite each other at both ends of the island main body. The first end of one connecting rod is connected to the driven gear and the first end of the connecting rod is connected to the first end of the flip table. The first end of the other connecting rod is connected to the island main body and the second end of the connecting rod is connected to the second end of the flip table. And / or there are two support rods, the first ends of both support rods are connected to the surface of the flip table facing the island main body, and the second ends of both support rods are connected to the top of the island main body.

[0011] Furthermore, the island platform body includes a first side wall and a second side wall arranged opposite to each other. A mounting platform for connecting the first side wall and the second side wall is provided between the top of the first side wall and the second side wall. The mounting platform has a top mounting plate and a side mounting plate. The side mounting plate extends in a direction perpendicular to the first side wall or the second side wall. A flip table assembly is provided on the first side wall and the second side wall respectively. The drive motor of each flip table assembly is mounted on the side mounting plate. The support rod of each flip table assembly is connected to the top mounting plate.

[0012] Furthermore, the tea table assembly also includes a rotary drive mechanism, which drives the lifting mechanism of the part to rotate the tea table in the horizontal direction, so that the tea table has multiple second working positions in the horizontal direction.

[0013] Furthermore, the lifting mechanism includes: a fixed base connected to the main body of the island platform; and a push rod motor assembly, one end of which is connected to the fixed base and the other end of which is connected to the tea table. The push rod motor assembly drives the tea table to be movably positioned in the vertical direction.

[0014] Furthermore, the push rod motor assembly includes: an outer rod, which is connected to a fixed base and extends vertically; an inner rod, one end of which is disposed inside the outer rod, and the other end of which extends vertically away from the outer rod; and a push rod motor, which is disposed inside the inner rod and whose output end is connected to the tea table, and which drives the tea table to be movably disposed vertically.

[0015] Furthermore, the rotary drive mechanism includes: a drive motor connected to the island main body, with a drive gear at the output end of the drive motor; and a driven gear arranged circumferentially along the outer rod, meshing with the drive gear, and connected to the outer rod via a limiting structure to ensure that the driven gear rotates synchronously with the outer rod; wherein the outer rod is rotatably arranged relative to the fixed seat, and the drive motor drives the driven gear to rotate via the drive gear, thereby causing the outer rod, inner rod, push rod motor, and tea table to rotate together circumferentially.

[0016] Furthermore, the tea table includes: a tea table body, the side of the tea table body facing the island main body being connected to the output end of the push rod motor, and one or more limiting structures for placing the cup body structure on the tea table body. When the tea table body is in the initial position, the tea table body is fitted against the top surface of the island main body. When the tea table body is in one of the multiple second working positions, one end of the tea table body rotates to the outside of the island main body. When the tea table body is in another of the multiple second working positions, the projection of the side of the tea table body facing the top surface of the island main body is located on the top surface of the island main body.

[0017] Furthermore, the island body has multiple mounting cavities, which are spaced apart along the height direction of the island body. The multifunctional island device also includes drawers, with multiple drawers corresponding to multiple mounting cavities. Each drawer is movably installed in a mounting cavity, and the pulling direction of at least one of the drawers is opposite to that of the other drawers, so that the multiple drawers can be pulled out to the open position in multiple directions along the island body, and the multiple drawers can be pushed to the closed position in multiple directions. When the flip-top assembly is in the first storage position, a flip-top assembly is provided on each side of the drawer in the length direction. The lifting mechanism is provided on one side of the top drawer end, and the drawer at the top can be pulled out to the open and closed positions from the side away from the lifting mechanism.

[0018] Furthermore, each drawer is equipped with a drive unit and a guide unit. The guide unit is movably connected to the side wall of the island main body. One end of the drive unit is connected to the island main body, and the other end of the drive unit is connected to the drawer. The drive unit is used to drive the drawer to move along the length of the guide unit to the open position and the closed position. The guide units are arranged parallel to each other.

[0019] Furthermore, the island panel has a third storage location located below the dashboard in the vehicle's driver's cab, and the island panel has a third working location on the side away from the dashboard, wherein there are one or more third working locations.

[0020] Furthermore, the island has at least one of the following modes: charging mode, storage mode, tea break mode, and dining mode. When the island is in charging mode, it is located in the third storage position. When the island is in storage mode, it is located between the driver's seat and the passenger seat, and part of the island body is located below the dashboard. When the island is in tea break mode, it is located between the driver's seat and the passenger seat, and the island body is located outside the dashboard. When the island is in dining mode, it is located between the driver's seat and the passenger seat, and the island body is located outside the dashboard, with the flip-up table assembly on the island body located in the first working position.

[0021] Furthermore, the multi-functional island device also includes a cleaning device, which is located at the bottom of the island body. The island body is freely movable within the vehicle, and the bottom of the cleaning device is equipped with a vacuum port. The cleaning device is used to clean the vehicle floor.

[0022] According to another aspect of the present invention, a vehicle is provided having a multi-functional island device, which is the multi-functional island device described above.

[0023] By applying the technical solution of this invention, a dynamic transformation of the spatial structure is achieved through the setting of a flip-top table assembly rotatably connected to the main body of the island, and a tea table assembly including a tea table and a lifting mechanism. Specifically, when the flip-top table assembly is in a first storage position stored on one side of the main body of the island, the lifting mechanism drives the tea table to move to a second working position away from the main body of the island to provide usable space. When the flip-top table assembly is unfolded and rotated to the first working position at the top of the main body of the island, the tea table is controlled to move to a second storage position closer to the main body of the island to avoid interference. The effect of this technology is that through the linkage control of the flip-top table and the lifting tea table, the mutual exclusion and complementarity of the two functional components in the storage and working states are realized. This ensures that the tea table can be fully unfolded and used when the flip-top table is stored, and also ensures that the tea table can be properly stored when the flip-top table is unfolded to form a large working surface. This effectively improves the space utilization rate and functional switching flexibility of the island device, meeting diverse usage needs. Attached Figure Description

[0024] The accompanying drawings, which form part of this application, are used to provide a further understanding of the invention. The illustrative embodiments of the invention and their descriptions are used to explain the invention and do not constitute an undue limitation of the invention. In the drawings:

[0025] Figure 1 A schematic diagram of an embodiment of the multifunctional island device according to the present invention is shown;

[0026] Figure 2 An assembly diagram of the island platform body in the third storage position according to the present invention is shown;

[0027] Figure 3 An assembly diagram of the island platform body in the third working position according to the present invention is shown;

[0028] Figure 4 A schematic diagram of an embodiment of the present invention, showing the flip-up table in a first working position, is shown.

[0029] Figure 5 A structural schematic diagram of an embodiment of the flip table assembly according to the present invention in a first storage position is shown;

[0030] Figure 6 It shows that according to Figure 5 An enlarged view of point A;

[0031] Figure 7 A structural schematic diagram of an embodiment of the flip table assembly according to the present invention is shown;

[0032] Figure 8 A schematic diagram of the structure of a first embodiment of the tea table assembly according to the present invention in a second working position is shown;

[0033] Figure 9 A structural schematic diagram of an embodiment of the outer rod according to the present invention is shown;

[0034] Figure 10 A structural schematic diagram of an embodiment of the fixing base according to the present invention is shown;

[0035] Figure 11 A schematic diagram of an embodiment of the driven gear according to the present invention is shown;

[0036] Figure 12 A structural schematic diagram of an embodiment of the inner rod according to the present invention is shown;

[0037] Figure 13 A schematic diagram of an embodiment of the push rod motor according to the present invention is shown;

[0038] Figure 14A schematic diagram of the structure of an embodiment of the tea table body according to the present invention is shown;

[0039] Figure 15 An exploded view of an embodiment of the support assembly according to the present invention is shown;

[0040] Figure 16 A structural schematic diagram of an embodiment of the support base according to the present invention is shown;

[0041] Figure 17 A top view of an embodiment of the support component according to the present invention is shown;

[0042] Figure 18 A top view of an embodiment of the support component according to the present invention is shown;

[0043] Figure 19 It shows Figure 11 Schematic diagram of the cross section of AA;

[0044] Figure 20 A top view of an embodiment of the locking member according to the present invention is shown;

[0045] Figure 21 A schematic diagram of an embodiment of the present invention with the drawer in the open position is shown;

[0046] Figure 22 A schematic diagram of a second embodiment of the tea table assembly according to the present invention, located in a second working position, is shown.

[0047] Figure 23 A schematic diagram of a third embodiment of the tea table assembly according to the present invention, located in a second working position, is shown.

[0048] Figure 24 A schematic diagram of the structure of a first embodiment of the cleaning device according to the present invention is shown;

[0049] Figure 25 A schematic diagram of a second embodiment of the cleaning device according to the present invention is shown;

[0050] Figure 26 A schematic diagram of a battery according to an embodiment of the present invention is shown;

[0051] Figure 27 A bottom view of an embodiment of the island platform according to the present invention is shown.

[0052] The above figures include the following reference numerals:

[0053] 10. Main island platform;

[0054] 11. First side wall; 12. Second side wall; 13. Mounting platform; 131. Top mounting plate; 132. Side mounting plate;

[0055] 14. Support components;

[0056] 141. Support frame; 1400. Slide groove; 1410. Clearance notch; 1411. Annular limiting cavity; 1412. Support protrusion;

[0057] 142. Base assembly; 1421. Base; 14211. Mounting post; 14212. Limiting buckle;

[0058] 1422. Through-hole structure;

[0059] 1423, Locking element; 14230, Second limiting protrusion; 14231, Locking body; 14232, First limiting protrusion; 14233, Guide surface; 14234, Travel limiting area;

[0060] 1424. Locking hole;

[0061] 1425. First elastic element; 1427. Limiting rib;

[0062] 143. Support base; 1431. Locking hook; 1432. Connecting hole;

[0063] 144. Reset mechanism;

[0064] 145. Control lever;

[0065] 147. Reset lever;

[0066] 148. Damping gear; 1480. Damping groove; 1481. Damping rack;

[0067] 149. Second elastic element;

[0068] 15. Install decorative panels;

[0069] 16. Side decorative panels;

[0070] 17. Press the buckle;

[0071] 100. First clearance groove; 130. Second clearance groove;

[0072] 20. Flip-top table assembly; 21. First drive motor; 22. First drive gear; 23. Connecting rod; 24. First driven gear; 25. Flip-top table; 26. Support rod;

[0073] 31. Roller; 32. Roller drive motor;

[0074] 40. Dashboard;

[0075] 50. Tea table components;

[0076] 51. Tea table; 511. Tea table body; 5110. Leaving groove; 5111. Connecting structure;

[0077] 512. Limiting structure; 5121. Placement opening;

[0078] 513. Display screen;

[0079] 52. Lifting mechanism;

[0080] 521, Fixing base; 5211, Fixing plate; 5212, Limiting cavity;

[0081] 522, outer rod; 5221, limiting protrusion; 5222, first limiting groove;

[0082] 523, Inner rod; 5231, Positioning hole; 5232, Second limiting groove;

[0083] 524. Push rod motor;

[0084] 53. Rotary drive mechanism;

[0085] 531. Second drive motor; 532. Second drive gear; 533. Second driven gear; 5331. Third limiting protrusion;

[0086] 60. Drawer; 61. Drive unit; 62. Guide unit;

[0087] 70. Cleaning equipment;

[0088] 71. Clean the main body;

[0089] 710. Upper cavity;

[0090] 711, Lower cavity; 7110, Intake cavity; 7111, Mounting cavity;

[0091] 72. Dust suction port;

[0092] 73. Filter plate;

[0093] 74. Partition;

[0094] 75. Motor impeller assembly; 751. Intake channel;

[0095] 80. Storage battery; 81. Charging port. Detailed Implementation

[0096] It should be noted that, unless otherwise specified, the embodiments and features described in this application can be combined with each other. The present invention will now be described in detail with reference to the accompanying drawings and embodiments.

[0097] It should be noted that the terminology used herein is for the purpose of describing particular embodiments only and is not intended to limit the exemplary embodiments according to this application. As used herein, the singular form is intended to include the plural form as well, unless the context clearly indicates otherwise. Furthermore, it should be understood that when the terms "comprising" and / or "including" are used in this specification, they indicate the presence of features, steps, operations, devices, components, and / or combinations thereof.

[0098] It should be noted that the terms "first," "second," etc., in the specification, claims, and accompanying drawings of this application are used to distinguish similar objects and are not necessarily used to describe a specific order or sequence. It should be understood that such terms can be used interchangeably where appropriate so that the embodiments of this application described herein can be implemented, for example, in orders other than those illustrated or described herein. Furthermore, the terms "comprising" and "having," and any variations thereof, are intended to cover a non-exclusive inclusion; for example, a process, method, system, product, or apparatus that comprises a series of steps or units is not necessarily limited to those steps or units explicitly listed, but may include other steps or units not explicitly listed or inherent to such processes, methods, products, or apparatus.

[0099] Exemplary embodiments according to this application will now be described in more detail with reference to the accompanying drawings. However, these exemplary embodiments may be implemented in many different forms and should not be construed as being limited to the embodiments set forth herein. It should be understood that these embodiments are provided so that the disclosure of this application is thorough and complete, and that the concept of these exemplary embodiments is fully conveyed to those skilled in the art. In the drawings, for clarity, the thickness of layers and regions may be exaggerated, and the same reference numerals are used to denote the same devices, and therefore their description will be omitted.

[0100] Combination Figures 1 to 27 As shown, according to a specific embodiment of this application, a multifunctional island platform device is provided.

[0101] To achieve the above objectives, such as Figure 1 , Figure 8As shown, according to one aspect of the present invention, a multifunctional island device is provided, comprising: an island body 10; a flip-top table assembly 20, wherein at least one flip-top table assembly 20 is rotatably connected to the island body 10 such that the flip-top table assembly 20 has a first storage position stored on one side of the island body 10, and a first working position unfolded and rotated to the top of the island body 10; and a tea table assembly 50, wherein the tea table assembly 50 includes a tea table 51 and a lifting mechanism 52, wherein a portion of the lifting mechanism... Mechanism 52 is connected to the island main body 10, and another part of the lifting mechanism 52 is connected to the tea table 51. The lifting mechanism 52 drives the tea table 51 to be movably arranged in the vertical direction so that the tea table 51 has a second working position away from the island main body 10 and a second storage position close to the island main body 10. When the flip table assembly 20 is in the first storage position, the tea table 51 can be controlled to move to the second working position, and when the flip table assembly 20 is in the first working position, the tea table 51 can be controlled to be in the second storage position.

[0102] Furthermore, the lifting mechanism 52 can drive the tea table 51 to stop at different heights in the vertical direction, so that the height of the tea table 51 can be adjusted in the vertical direction. By driving the tea table 51 to stop at different heights in the vertical direction, the height of the tea table 51 can be continuously or progressively adjusted, thereby adapting to the needs of different users' height differences or different usage scenarios (such as standing tea breaks or seated tea drinking), significantly improving the comfort and user-friendly experience of using the tea table.

[0103] By applying the technical solution of this invention, a dynamic transformation of the spatial structure is achieved by setting a flip-top table assembly 20 rotatably connected to the island main body 10, and a tea table assembly 50 including a tea table 51 and a lifting mechanism 52. Specifically, when the flip-top table assembly 20 is in a first storage position stored on one side of the island main body 10, the lifting mechanism 52 drives the tea table 51 to move to a second working position away from the island main body 10 to provide usable space. When the flip-top table assembly 20 is unfolded and rotated to the first working position at the top of the island main body 10, the tea table 51 is controlled to move to a second storage position closer to the island main body to avoid interference. The effect of this technology is that by linking the flip-top table and the lifting tea table, the mutual exclusion and complementarity of the two functional components in the storage and working states are achieved. This ensures that the tea table can be fully unfolded and used when the flip-top table is stored, and also ensures that the tea table can be properly stored when the flip-top table is unfolded to form a large working surface. This effectively improves the space utilization rate and the flexibility of function switching of the island device, meeting diverse usage needs.

[0104] Furthermore, when the flip table assembly 20 is in the first working position, the tea table 51 can be controlled to be in the second working position, at which time at least part of the tea table 51 is above the flip table assembly 20.

[0105] During the raising of the tea table 51, its movement trajectory is designed to avoid the space occupied by the unfolded flip table 25, or to utilize the gap below the top space created by the unfolded flip table 25. When both the tea table and the extended tabletop need to be used simultaneously, the user can first control the flip table assembly 20 to rotate to the first working position, and then control the lifting mechanism 52 to drive the tea table 51 to rise to the second working position. At this time, the tea table 51 is located above or to the side of the flip table 25, and the two do not interfere with each other, together forming a three-dimensional multi-functional work area. This greatly improves the space utilization of the island device. Through the vertical stacking design, it is possible to provide both a tea table for tea breaks and a spacious storage or work surface within a limited horizontal footprint, achieving functional superposition rather than simple juxtaposition. Secondly, it enhances the flexibility and convenience of use, allowing users to choose to use only the flip table, only the tea table, or both simultaneously, depending on their needs.

[0106] Furthermore, such as Figure 5 As shown, there are two flip tabletop assemblies 20. When the two flip tabletop assemblies 20 are in the first storage position, the plane on which the working surface of the two flip tabletop assemblies 20 is located is set parallel to the vertical plane.

[0107] When the two flip-top table assemblies are in their first stowed position, the plane containing their respective working surfaces is parallel to the vertical plane. This structure allows the two flip-top table assemblies to be vertically aligned or side-by-side with the side or end of the island main body in the stowed state, thereby significantly reducing the horizontal projected area of ​​the device in the stowed state.

[0108] By employing two flip-up tabletop components arranged vertically and parallel when stored, space utilization is optimized. Compared to a single large tabletop or horizontal storage, vertical side-by-side storage not only makes the island more compact when not in use, facilitating movement and parking in limited spaces such as vehicle cabs and reducing obstructions, but also provides a reasonable trajectory for the two subsequent flip-up tabletop components to unfold from both sides to the top, forming a large continuous working surface. This ensures smooth unfolding and further enhances the island's spatial adaptability and overall aesthetics when not in use.

[0109] Furthermore, during the process of the two flip table assemblies 20 rotating from the first storage position to the first working position, the two flip table assemblies 20 gradually rotate from one side of the side wall of the island main body 10 to the top of the island main body 10 in opposite directions, and when each flip table assembly 20 is in the first working position, the working surfaces of the two flip table assemblies 20 are set flush to form a large working surface.

[0110] As the two flip-top table assemblies 20 begin to move from their respective first storage positions on opposite sidewalls of the island main body 10, they rotate in opposite directions. Specifically, the flip-top table assembly on one side rotates towards the top center area of ​​the island main body 10, while the flip-top table assembly on the opposite side also rotates towards the top center area of ​​the island main body 10. This "opposite direction" rotation means that the two tabletops converge from both sides towards the middle, eventually meeting and stopping at the top position of the island main body 10. This process is gradual, ensuring the smoothness and safety of the movement trajectory.

[0111] When both flip table assemblies 20 reach their first working position, their working surfaces are not only horizontal but also flush with each other. This means that after the two independent flip table assemblies are joined at the top, their surfaces are of uniform height, flat, and seamless, forming a continuous, stepless large flat surface. While the area of ​​a single flip table assembly 20 may be limited, by having two opposing flip table assemblies converge towards the top of the island main body 10 and be flush with each other, their areas can be superimposed to form a much larger overall work area than a single table. This large work surface can meet the needs of multiple people working simultaneously, placing large equipment, or conducting meals or office work requiring a large surface area.

[0112] Because the two working surfaces are flush when they reach the working position, users will not encounter height differences or steps during use, providing a uniform and stable support surface. This seamless splicing experience is superior to simple side-by-side placement, enhancing the comfort and professionalism of use.

[0113] By rotating and aligning the two flip-top table components 20, an efficient transformation from compact storage to a spacious work surface is achieved, greatly expanding the functionality and usage scenarios of the island and solving the problem of limited work surface area of ​​traditional fixed or single-sided unfolding islands.

[0114] Furthermore, such as Figure 5 , Figure 6 , Figure 7As shown, the flip table assembly 20 includes: a first drive motor 21, which is connected to the island main body 10 and located inside the island main body 10; a first drive gear 22 is provided at the output end of the first drive motor 21; a connecting rod 23, with a first driven gear 24 provided at its first end, which meshes with the first drive gear 22; and the length direction of the connecting rod 23 is perpendicular to the rotation axis of the first driven gear 24; and a flip table 25, which faces the island main body 10. One side of the body 10 is connected to the second end of the connecting rod 23, and the surface of the flip table 25 away from the island body 10 forms a working surface; the first end of the support rod 26 is connected to the surface of the flip table 25 facing the island body 10, and the second end of the support rod 26 is connected to the top of the island body 10. The first drive motor 21 can drive the flip table 25 to the first storage position and the first working position through the first drive gear 22. When the flip table 25 is in the first storage position, the support rod 26 is located above the connecting rod 23.

[0115] The first drive motor 21 is fixed inside the island main body 10. This embedded design not only protects the motor from external impacts or environmental influences, but also maintains a clean appearance. The output end of the first drive motor 21 is connected to the first drive gear 22. As the source of power output, it is responsible for transmitting the rotational motion of the motor to the subsequent actuators.

[0116] A first driven gear 24 is mounted on the first end of the connecting rod 23. This first driven gear 24 meshes with the first drive gear 22, thereby transmitting power from the first drive motor 21 to the connecting rod 23. The length direction of the connecting rod 23 is perpendicular to the rotation axis of the first driven gear 24. This geometric relationship ensures that the connecting rod 23 can effectively rotate or swing around its axis or a specific fulcrum, thereby driving the flip table 25 connected to its second end to move. The second end of the connecting rod 23 is directly connected to the side of the flip table 25 facing the island main body 10, forming the end-effector of the power transmission.

[0117] The first end of the support rod 26 is connected to the side surface of the flip table 25 facing the island body 10, while the second end is connected to the top of the island body 10. This structure plays a crucial supporting role when the flip table 25 is unfolded to the first working position, preventing the table from sagging or wobbling under load and ensuring the horizontal stability of the working surface.

[0118] When the flip-top table 25 is in the first folded position (i.e., perpendicular to the side wall), the support rod 26 is located above the connecting rod 23. This positional relationship indicates that, in the folded state, the support rod 26 and the connecting rod 23 are spatially offset, avoiding interference during movement and ensuring smooth folding action; while when unfolded to the working position, the support rod 26 performs its supporting function, forming a stable mechanical structure together with the connecting rod 23 and the flip-top table 25.

[0119] Furthermore, there are two connecting rods 23, which are arranged opposite to each other at both ends of the island body 10. The first end of one connecting rod 23 is connected to the first driven gear 24 and the first end of the connecting rod 23 is connected to the first end of the flip table 25. The first end of the other connecting rod 23 is connected to the island body 10 and the second end of the connecting rod 23 is connected to the second end of the flip table 25. And / or there are two support rods 26. The first ends of both support rods 26 are connected to the surface of the flip table 25 facing the island body 10, and the second ends of both support rods 26 are connected to the top of the island body 10.

[0120] The number of connecting rods 23 is set to two, and these two connecting rods are positioned opposite each other at both ends of the island main body 10 (e.g., left and right ends, or front and rear ends, depending on the length and width of the island). This symmetrical or opposite layout at both ends constitutes the main motion support frame of the flip table 25.

[0121] Specifically, the first end of one connecting rod 23 is connected to the first driven gear 24, thereby receiving power from the first drive motor 21 transmitted through the gear; the second end of the connecting rod 23 is connected to the first end of the flip table 25, meaning that the power is directly applied to one section of the flip table 25, driving it to rotate around its axis. The first end of the other connecting rod 23 is connected to the island body 10 (serving as a fixed fulcrum or rotation center), and its second end is connected to the second end of the flip table 25. This connection method allows the second end of the flip table 25 to rotate synchronously with the movement of the first end. Through the cooperation of these two connecting rods, the flip table 25 experiences more even force during rotation, effectively avoiding the shaking, tilting, or jamming that may be caused by single-point drive or single-point support, thus improving the smoothness and reliability of the rotation process.

[0122] In one specific embodiment, the number of support rods 26 is also set to two. These two support rods 26 are respectively connected to the surfaces of both ends of the flip table 25 facing the island body 10 and the top of the island body 10. Specifically, the first end of each support rod 26 is connected to the inner surface of the flip table 25, and the second end of each support rod 26 is connected to the top of the island body 10. This double support rod design provides a more uniform distribution of support force compared to a single support rod. When the flip table 25 is unfolded to the first working position, the two support rods share the load on the tabletop, preventing the middle part of the flip table from sagging or deforming due to excessive force. At the same time, the double rod structure may form a more stable triangular or polygonal support frame in space, enhancing the rigidity of the overall structure and ensuring that it remains level and flat when heavy objects are placed on a large working surface.

[0123] By setting two opposing connecting rods 23, which respectively undertake the functions of power transmission and guidance / support, the trajectory of the flip tabletop 25 is ensured to be accurate and the movement smooth throughout the entire rotation process from the first storage position to the first working position, avoiding the problem of uneven torsional torque that may be caused by unilateral drive. The design of the double support rods 26 increases the number of support points, distributing the force on the flip tabletop 25 in the first working position, significantly improving the load-bearing capacity and deformation resistance of the tabletop, enabling it to stably support heavier items or be used by multiple people simultaneously. The cooperation of the connecting rods at both ends and the double support rods makes the entire flip tabletop assembly more evenly stressed in both the unfolded and stored states, reducing local stress concentration, extending the service life of mechanical parts, and improving the user experience.

[0124] Furthermore, the island main body 10 includes a first side wall 11 and a second side wall 12 arranged opposite to each other. A mounting platform 13 for connecting the first side wall 11 and the second side wall 12 is provided between the tops of the first side wall 11 and the second side wall 12. The mounting platform 13 has a top mounting plate 131 and a side mounting plate 132. The side mounting plate 132 extends in a direction perpendicular to the first side wall 11 or the second side wall 12. A flip table assembly 20 is correspondingly provided on the first side wall 11 and the second side wall 12. The first drive motor 21 of each flip table assembly 20 is mounted on the side mounting plate 132. The support rod 26 of each flip table assembly 20 is connected to the top mounting plate 131.

[0125] The island main body 10 is basically bounded by a first side wall 11 and a second side wall 12 arranged opposite to each other. A mounting platform 13 is provided between the tops of the first side wall 11 and the second side wall 12. The mounting platform 13 serves to connect the two side walls and form a top support plane. It not only enhances the overall structural strength of the island main body 10, but also provides the necessary mounting base for the flip table assembly 20.

[0126] Optionally, when the flip table 25 is in the first working position, the working surface of the flip table 25 is arranged parallel to the top mounting plate 131.

[0127] Two side mounting plates 132 are provided, which are arranged opposite each other, and provide a mounting platform for the drive motor. This layout fixes the power source on the laterally extending support plate, which not only makes use of the side space, but also ensures the motor is installed stably, and facilitates docking with the transmission mechanism of the connecting rod 23.

[0128] The second end of the support rod 26 of each flip table assembly 20 is connected to the top mounting plate 131. This means that when the flip table 25 is unfolded to the first working position, its supporting force is transmitted to the top mounting plate 131 through the support rod 26, and the load is ultimately shared by the mounting platform 13, ensuring the reliability of the support structure.

[0129] By setting up the mounting platform 13 and its sub-components (top mounting plate 131 and side mounting plate 132), the mounting points of the first drive motor 21 and the support rod 26 are integrated into a specific area inside the island main body 10. This design makes full use of the space at the top of the side wall, avoids the obtrusiveness of external supports, and makes the island look cleaner and more integrated.

[0130] Furthermore, such as Figure 6 As shown, a first clearance groove 100 is provided on both the first sidewall 11 and the second sidewall 12, and a second clearance groove 130 communicating with the first clearance groove 100 is provided on the top mounting plate 131. The first drive motor 21 can drive the connecting rod 23 to move from the corresponding first clearance groove 100 to the second clearance groove 130, so that the corresponding flip table 25 gradually moves from the first storage position to the first working position.

[0131] The first clearance groove 100 and the second clearance groove 130 are interconnected. This interconnection structure forms a continuous, internal spatial channel or groove path between the side (first side wall 11 or second side wall 12) and the top (top mounting plate 131) of the island main body 10. The first drive motor 21 drives the connecting rod 23 to move via the first drive gear 22 and the first driven gear 24. During the rotation of the flip table 25 from the first storage position (vertical state against the side wall) to the first working position (horizontal top state), the connecting rod 23 (and a part of the structure of the flip table 25 connected thereto) moves along the aforementioned interconnection path formed by the first clearance groove 100 and the second clearance groove 130. Specifically, the connecting rod 23 gradually moves from the area of ​​the first clearance groove 100 located on the side wall and enters the area of ​​the second clearance groove 130 located on the top mounting plate 131.

[0132] By providing a connected first clearance groove 100 and a second clearance groove 130, key mechanical components of the flip table assembly 20 during rotation (such as the connecting rod 23) are accommodated in the internal recesses of the island body 10. This means that when the flip table 25 is flipped from the side to the top, its transmission linkages and other structures will not protrude from the external contour of the island body 10, thus ensuring the streamlined and neat appearance of the island during unfolding and storage, and avoiding visual clutter or the risk of bumps caused by external linkages.

[0133] The design of the first and second clearance slots provides dedicated space for the connecting rod 23 to move, ensuring that it will not collide or interfere with other solid parts of the island platform 10 during its arc-shaped trajectory from the vertical side to the horizontal top. This precise space provision makes the flipping action smoother and reduces mechanical resistance.

[0134] Optionally, two first clearance grooves 100 are provided on both the first sidewall 11 and the second sidewall 12. The two first clearance grooves 100 are located at the two ends of the first sidewall 11 and the second sidewall 12, respectively. The width of the first clearance groove 100 corresponds to the width of the connecting rod 23. Each first clearance groove 100 is provided with a second clearance groove 130 that communicates with it. The transition between the first clearance groove 100 and the second clearance groove 130 is designed as a smooth transition or a rounded transition to ensure that the connecting rod 23 moves smoothly when it transitions from the vertical sidewall groove to the horizontal top groove, avoiding jamming or stress concentration at sharp corners, thereby ensuring a gentle and smooth flipping action. Furthermore, the second clearance grooves 130 provided on the top mounting plate 131 are independently provided, so that the connecting rod 23 corresponding to each sidewall has its own independent storage or movement space after reaching the top.

[0135] The first clearance groove 100 is provided at both ends, and the second clearance groove 130 at the top is set independently, ensuring that the movement systems of the two flip table assemblies 20 on the left and right (or front and back) are completely independent. This design not only facilitates separate control or maintenance, but also avoids the risk of affecting the normal operation of the other side due to a failure or interference on one side, thereby improving the fault tolerance and service life of the overall system.

[0136] Furthermore, the tea table assembly 50 also includes a rotary drive mechanism 53, which drives the lifting mechanism 52 of the part to rotate the tea table 51 in the horizontal direction so that the tea table 51 has multiple second working positions in the horizontal direction.

[0137] A rotary drive mechanism 53 is introduced into the tea table assembly 50. This mechanism cooperates with the lifting mechanism 52 to drive the tea table 51 to rotate around an axis in the horizontal direction, thereby enabling the tea table 51 to reach multiple second working positions in the horizontal direction. Specifically, the rotary drive mechanism 53 drives part of the lifting mechanism and the tea table body to rotate circumferentially through gear meshing and other transmission methods, realizing the adjustability of the tea table's orientation. Through the horizontal rotation function, users can adjust the tea table to the most suitable operating or interaction angle according to the position of the passengers or specific usage scenarios (such as interacting with the front passenger, facing other directions inside the vehicle, etc.), solving the problem of the single orientation and limited use of traditional fixed tea tables; at the same time, the multi-position working state also adapts to the needs of different seating layouts inside the vehicle.

[0138] Furthermore, the lifting mechanism 52 includes: a fixed base 521, which is connected to the island table body 10; and a push rod motor assembly, one end of which is connected to the fixed base 521 and the other end of which is connected to the tea table 51. The push rod motor assembly drives the tea table 51 to be movably arranged in the vertical direction.

[0139] The fixed base 521 serves as a basic support component, which is firmly connected to the island platform body 10, providing a fixed installation reference for the entire lifting mechanism; the push rod motor assembly serves as the core drive unit, with one end connected to the fixed base 521 and the other end connected to the tea table 51, forming a power transmission link from the fixed base to the moving load.

[0140] Furthermore, such as Figure 8 ,like Figure 13 As shown, the push rod motor assembly includes: an outer rod 522, which is connected to a fixed base 521 and extends vertically; an inner rod 523, one end of which is located inside the outer rod 522 and the other end of which extends vertically away from the outer rod 522; and a push rod motor 524, which is located inside the inner rod 523 and whose output end is connected to a tea table 51. The push rod motor 524 drives the tea table 51 to be movably positioned vertically.

[0141] Specifically, one end of the inner rod 523 is provided with a positioning hole 5231, and the outer circumferential surface of the inner rod 523 is provided with at least one second limiting groove 5232. The second limiting groove 5232 extends along the length direction of the inner rod 523, and the inner surface of the outer rod 522 is provided with a limiting structure. When the inner rod 523 is located inside the outer rod 522, the limiting structure is configured to cooperate with the second limiting groove 5232.

[0142] Specifically, such as Figure 12As shown, the push rod motor assembly adopts a coaxial nested structure design. The outer rod 522 serves as a fixed reference, with one end connected to the fixed base 521 and extending vertically. One end of the inner rod 523 is housed inside the outer rod 522, while the other end extends outward vertically, forming a telescopic moving part. The push rod motor 524 is housed inside the inner rod 523, with its output end directly connected to the tea table 51. This structure not only effectively protects the push rod motor 524 from external environmental influences but also utilizes the outer rod 522 to guide and support the inner rod 523, ensuring the straightness and stability of the tea table 51 during lifting and lowering. Simultaneously, it makes the overall structure more compact, facilitating efficient lifting and lowering of the tea table 51 within the limited internal space of the island main body 10.

[0143] Furthermore, the rotary drive mechanism 53 includes: a second drive motor 531, which is connected to the island main body 10, and a second drive gear 532 is provided at the output end of the second drive motor 531; a second driven gear 533, which is arranged circumferentially along the outer rod 522, meshes with the second drive gear 532, and is connected to the outer rod 522 through a limiting structure so that the second driven gear 533 and the outer rod 522 are arranged to rotate synchronously; wherein, the outer rod 522 is rotatably arranged relative to the fixed seat 521, and the second drive motor 531 drives the second driven gear 533 to rotate through the second drive gear 532, so as to drive the outer rod 522, the inner rod 523, the push rod motor 524 and the tea table 51 to rotate together circumferentially.

[0144] The second drive motor 531 is fixedly mounted on the island platform body 10, serving as the source of rotational power. Its output end is directly equipped with a second drive gear 532. The second driven gear 533 is arranged along the circumference of the outer rod 522 and maintains a meshing state with the second drive gear 532. At the same time, the second driven gear 533 and the outer rod 522 are connected by a limiting structure. This connection method ensures that the second driven gear 533 and the outer rod 522 can rotate synchronously, thereby effectively transmitting rotational power to the outer rod 522.

[0145] During operation, the second drive motor 531 starts and drives the second driven gear 533 to rotate via the second drive gear 532. Since the second driven gear 533 rotates synchronously with the outer rod 522, it in turn drives the outer rod 522, the inner rod 523 (which is fitted inside), the push rod motor 524 (installed within the inner rod 523), and finally the tea table 51 connected to the output end of the push rod motor 524 to rotate horizontally in the circumferential direction. This structure achieves stable power transmission through gear meshing, allowing the tea table 51 to flexibly adjust its angle in the horizontal direction to meet the needs of different scenarios, while ensuring the smoothness of the rotation process and the structural strength.

[0146] Furthermore, such as Figure 10 As shown, the fixing base 521 includes at least two fixing pieces 5211. The first end of the fixing piece 5211 is connected to the island body 10. The second end of the fixing piece 5211 extends vertically and is provided with a limiting cavity 5212. The outer periphery of the outer rod 522 is provided with a limiting protrusion 5221 that cooperates with the limiting cavity 5212. The limiting cavities 5212 of at least two fixing pieces 5211 are connected to each other to restrict the movement of the outer rod 522 in the vertical direction. The outer rod 522 can be rotated relative to the fixing piece 5211 through the limiting protrusion 5221.

[0147] like Figure 9 As shown, the limiting cavities 5212 on at least two fixing plates 5211 are spatially connected to form a continuous annular or strip-shaped track. The limiting protrusion 5221 is located within the track, and the limiting protrusion 5221 is clearance-fitted with the track to ensure that the outer rod 522 can be rotatably set relative to the fixing plate 5211 through the limiting protrusion 5221.

[0148] Specifically, in this embodiment, the outer rod 522 is provided with three limiting protrusions 5221 that cooperate with the limiting cavity 5212 on its outer periphery, and the three limiting protrusions 5221 are evenly distributed along the outer periphery of the outer rod 522.

[0149] It needs to be further explained that, such as Figure 11 As shown, a first limiting groove 5222 is provided between two adjacent limiting protrusions 5221. Multiple first limiting grooves 5222 extend along the length direction of the outer rod 522. Multiple third limiting protrusions 5331 are provided on the inner wall of the second driven gear 533. Multiple third limiting protrusions 5331 are evenly distributed along the axial direction of the second driven gear 533. The number of third limiting protrusions 5331 corresponds to the number of first limiting grooves 5222. When the second driven gear 533 is arranged along the circumference of the outer rod 522, the third limiting protrusions 5331 are located in the first limiting grooves 5222. This "cam-groove" mating structure not only ensures the synchronization of the second driven gear 533 and the outer rod 522 in circumferential rotation and prevents relative slippage between them, but also restricts the vertical movement of the second driven gear 533 through the axial limiting effect of the first limiting groove 5222 on the third limiting protrusion 5331, thereby improving the structural stability and transmission accuracy of the rotary drive mechanism 53 during operation.

[0150] Furthermore, the tea table 51 includes: a tea table body 511, the side of the tea table body 511 facing the island main body 10 is connected to the output end of the push rod motor 524, and the tea table body 511 is provided with one or more limiting structures 512 for placing the cup structure. When the tea table body 511 is in the initial position, the tea table body 511 is set in close contact with the top surface of the island main body 10. When the tea table body 511 is in one of the multiple second working positions, one end of the tea table body 511 rotates to the outside of the island main body 10. When the tea table body 511 is in another of the multiple second working positions, the projection of the side of the tea table body 511 facing the top surface of the island main body 10 is located on the top surface of the island main body 10.

[0151] The tea table body 511 is directly connected to the output end of the push rod motor 524 through its side facing the island table body 10, thereby receiving the vertical power transmitted by the lifting mechanism 52 and realizing the overall lifting.

[0152] When the tea table body 511 is in its initial position, it fits snugly against the top surface of the island body 10, maintaining the integrity and flatness of the island's appearance. When rotated to one of the second working positions, one end of the tea table body 511 rotates and extends to the outside of the island body 10, forming a cantilevered work surface, facilitating water retrieval and brewing activities at the island's edge, thus improving ease of use. When rotated to another second working position, the projection of the tea table body 511 onto the horizontal plane falls entirely within the top surface of the island body 10, placing the tea table above the island, suitable for regular tabletop tea breaks or food placement. This multi-position design cleverly combines lifting and rotating functions, enabling flexible transformation of the tea table in different usage scenarios, saving space and enriching the island's functional form.

[0153] In this embodiment, the tea table body 511 is provided with two limiting structures 512 for placing cups. The two limiting structures 512 are located at one end of the tea table body 511 and are spaced apart.

[0154] Optionally, the two limiting structures 512 may be configured to have the same size, or the two limiting structures 512 may be configured to have different sizes.

[0155] Optionally, the specific number of limit structures 512 can be set according to actual needs.

[0156] Furthermore, the tea table body 511 is provided with a display screen 513, which is used to display the working mode status and preset information of the island table. The working mode status includes at least one of charging status, charging reminder status, tea break mode, item placement mode, and dining mode. The preset information includes at least one of weather information, touch operation button information, and volume information.

[0157] In terms of working mode status, the display screen 513 can display various status information such as charging status, charging reminder status, tea break mode, item placement mode, and dining mode, so that users can intuitively understand the current operating status and functional positioning of the island and facilitate users to switch the corresponding mode according to actual needs.

[0158] In terms of preset information, the display screen 513 also features functions such as displaying weather information, touch operation button information, and volume information. It not only provides environmental auxiliary information but also visualizes operational feedback and multimedia control information. This integrated display screen design concentrates the island's status monitoring, mode switching, and information display functions in one place, improving user convenience and interactive experience. This makes the tea table more intelligent and user-friendly, allowing users to quickly obtain the necessary information and perform corresponding operations in different scenarios such as tea tasting, dining, or placing items.

[0159] Furthermore, such as Figure 23 As shown, the limiting structure 512 includes a placement opening 5121 opened on the tea table body 511, and a support component 14 communicating with the placement opening 5121 is provided inside the island table body 10. Alternatively, the limiting structure 512 includes a placement opening 5121 opened on the tea table body 511, and a support component 14 provided at the placement opening 5121. The support component 14 is used to accommodate and support the cup structure.

[0160] In this application, the limiting structure 512 includes two adjacent placement openings 5121 opened on the tea table body 511. Optionally, the two placement openings 5121 are of the same size, or the two placement openings 5121 are of different sizes.

[0161] It needs to be further explained that, such as Figure 14 As shown, the tea table body 511 is also provided with a plurality of clearance slots 5110, which are spaced apart along the axial direction of the display screen 513. The placement opening 5121 is provided with a connecting structure 5111 on the side near the display screen 513.

[0162] In an alternative embodiment, the support component 14 is hidden inside the island body 10 and is connected to the placement opening 5121 on the tea table body 511 through an internal channel. This hidden design allows the surface of the tea table body 511 to remain flat and aesthetically pleasing when no cups are placed on it.

[0163] In another alternative embodiment, the support component 14 is directly disposed at the placement opening 5121, that is, on the surface of the tea table body 511 or at the edge of its opening. This exposed design makes the support structure more intuitive and easier to maintain.

[0164] Regardless of its form, the core function of the support component 14 is to accommodate and stably support the cup structure, preventing it from tipping over or slipping during movement or use on the tea table. This design, combining limiting and support, not only ensures the safety and stability of the cup placement but also adapts to different structural compactness requirements through a flexible layout of the support components, enhancing the convenience of using the tea table and the adaptability of the overall structure.

[0165] Specifically, the number of support components 14 is set to correspond to the number of placement ports 5121.

[0166] Furthermore, such as Figure 15 As shown, the support assembly 14 includes: a support frame 141, which is connected to the tea table body 511 or the island table body 10. The support frame 141 has an annular limiting cavity 1411, which is used to accommodate and support the cup structure; a base assembly 142, which is connected to the bottom of the support frame 141; and a support seat 143, which is movably disposed in the annular limiting cavity 1411. The support seat 143 is connected to the support frame 141 through a reset mechanism 144, so that the support seat 143 has an initial position and a support position. When the support seat 143 is in the initial position, it is positioned close to the top of the annular limiting cavity 1411 and seals the annular limiting cavity 1411. When the annular limiting cavity 1411 is filled with a cup structure, the cup structure can drive the support seat 143 to move vertically downward from the initial position to the support position.

[0167] The support frame 141 serves as an integral frame, with a base assembly 142 connected to its bottom and a movable support seat 143 housed at its top or inside. The support frame 141 has an annular limiting cavity 1411 inside, which is specifically designed to accommodate and limit the cup structure.

[0168] In its initial state, the reset mechanism 144 positions the support base 143 at the top of the annular limiting cavity 1411. At this point, the support base 143 completely seals the annular limiting cavity 1411, ensuring a flat surface on the tea table with no protruding foreign objects, facilitating cleaning and aesthetic display when not in use. When the user places the cup into the annular limiting cavity 1411, the weight of the cup overcomes the resistance of the reset mechanism 144, pushing the support base 143 vertically downwards until it reaches the support position. In the support position, the support base 143 firmly supports the bottom of the cup, providing reliable support and preventing the cup from tipping over. This design utilizes the reset mechanism 144 to achieve automatic lifting of the support base, ensuring stability when the cup is placed and maintaining a closed and flat surface when no cup is placed, improving ease of use and the overall neatness of the design.

[0169] Furthermore, the support frame 141 is connected to the tea table body 511. When the support base 143 is in the initial position, the upper surface of the support base 143 is flush with the working surface of the tea table body 511. Alternatively, the support frame 141 is connected to the island table body 10. When the tea table body 511 is in the storage position, the upper surface of the support base 143 is flush with the working surface of the tea table body 511.

[0170] In one specific embodiment, the support frame 141 is directly fixed to the tea table body 511. At this time, when the support base 143 is in the initial position (i.e., the top is closed) under the action of the reset mechanism 144, its upper surface is kept on the same horizontal plane as the working surface of the tea table body 511, so that the surface of the tea table presents a complete and unobtrusive overall appearance, which is convenient for users to place items or clean, while avoiding the risk of bumps caused by the protruding support base.

[0171] In another specific embodiment, the support frame 141 is fixed to the island body 10, while the tea table body 511 is located above it and can be raised and lowered. In this structure, when the tea table body 511 moves to the storage position (i.e., close to the top surface of the island body 10), the working surface of the tea table body 511 is flush with the upper surface of the support base 143 below. This design ensures that the entire top surface of the island remains flat and continuous when the tea table is stored, eliminating the height difference between different components. This not only improves the overall aesthetics and space utilization of the furniture, but also allows the island surface to be used as a flat surface for placing items when stored, enhancing the flexibility of the function.

[0172] Furthermore, when the support base 143 is in the supported position, it engages with the base assembly 142. When the support base 143 carries the cup structure and moves downwards to the supported position, it forms a snap-fit ​​connection with the base assembly 142. This snap-fit ​​structure allows the support base 143 to be tightly connected to the base assembly 142 through a physical locking mechanism when bearing the weight of the cup, thereby directly transferring the weight load of the cup to the base assembly 142 and the support frame 141, rather than relying entirely on the elastic support force of the reset mechanism 144. This design significantly enhances the structural stability and impact resistance of the support base 143 under load, preventing displacement or rebound of the support base 143 due to cup shaking or accidental collisions, ensuring the safety and reliability of cup placement, and also extending the service life of the reset mechanism 144, preventing fatigue failure due to prolonged exposure to excessive static loads.

[0173] Furthermore, such as Figure 17 , Figure 18 As shown, the base assembly 142 includes: a base 1421, which is connected to the bottom of the support frame 141, and the bottom of the base 1421 is provided with a through hole structure 1422; a locking member 1423, which is movably disposed on the base 1421 and has a locking hole 1424. A portion of the locking member 1423 extends radially along the base 1421 and is located at the through hole structure 1422, and the locking hole 1424 communicates with the through hole structure 1422. The bottom of the support 143 is provided with a locking hook 1431 that cooperates with the locking hole 1424. The locking member 1423 is movably disposed radially relative to the base 1421 so that the locking member 1423... It has a first position that moves in a first direction and a second position that moves in a second direction opposite to the first direction; a first elastic member 1425 is disposed between the locking member 1423 and the base 1421, and the first elastic member 1425 is used to apply a restoring force to the locking member 1423 to move in the second position; wherein, during the process of the support base 143 moving to the support position, it can drive the locking member 1423 to move from the second position to the first position, until the locking hook 1431 passes through the locking hole 1424, and under the action of the restoring force of the first elastic member 1425, the locking member 1423 moves in the second direction so that the hook portion of the locking hook 1431 abuts against the bottom surface of the locking member 1423.

[0174] The base 1421 serves as the basic load-bearing component of the support assembly 14. It is fixedly connected to the bottom of the support frame 141, providing a stable mounting base for the entire support structure. A through-hole structure 1422 is provided at the bottom of the base 1421. This through-hole penetrates the base 1421, forming a channel for the locking member 1423 and the locking hook 1431 to move together. This through-hole structure 1422 design allows the locking hole 1424 on the locking member 1423 to be axially aligned with the locking hook 1431 at the bottom of the support base 143, providing the necessary spatial path for the locking hook to pass through the locking hole 1424 and achieve mechanical engagement. The presence of the through-hole structure 1422 not only ensures the smooth radial movement of each component of the locking mechanism, but also ensures that the locking hook 1431 can accurately enter the locking position during the downward movement of the support base 143, thereby cooperating with the locking component 1423 to achieve a reliable automatic locking function, preventing the support base 143 from unexpectedly floating or displacing under load, and enhancing the stability and safety of the overall support structure.

[0175] A locking member 1423 is movably disposed on a base 1421 and has a locking hole 1424 that communicates with a through-hole structure 1422 at the bottom of the base 1421. A portion of the locking member 1423 extends radially along the base 1421 and is precisely located at the through-hole structure 1422 to engage with a locking hook 1431 at the bottom of a support 143. The locking member 1423 is capable of radial movement relative to the base 1421, thus having two distinct positional states: a first position moving in a first direction, and a second position moving in a second direction opposite to the first direction. When the support 143 moves downward to the support position, the locking hook 1431 at its bottom pushes the locking member 1423 upward, forcing the locking member 1423 to overcome the restoring force and move from the second position to the first position. At this time, the locking hole 1424 is fully aligned with the through-hole structure 1422, providing a passage for the locking hook 1431 to pass through. Once the locking hook 1431 has fully passed through the locking hole 1424, the constraint on the locking member 1423 is released, and the locking member 1423 quickly springs back to the second position under the action of the restoring force. In the second position, the bottom surface of the locking member 1423 abuts against the hook portion of the locking hook 1431, thereby locking the locking hook 1431 within the through hole structure 1422. In the first position, the locking member 1423 avoids the locking hook 1431, allowing the support base 143 to descend smoothly; in the second position, the locking member 1423 fills the gap and prevents the locking hook 1431 from retracting upwards, ensuring that the support base 143 remains stable under load, preventing the cup from slipping due to vibration or external force, and greatly improving the safety and reliability of use.

[0176] One end of the first elastic element 1425 abuts against the locking element 1423, and the other end abuts against the base 1421, thereby continuously applying an elastic restoring force to the locking element 1423 toward the second position. The second position is the default locked state of the locking element 1423, in which the locking element 1423 prevents the locking hook 1431 from retracting upwards. The first position is the unlocked state after the locking element 1423 has been compressed or moved, in which the locking hole 1424 is fully exposed, allowing the locking hook 1431 to pass through.

[0177] The base assembly described above operates on the following principle: When the support base 143, carrying the cup structure, moves downward into the support position, the locking hook 1431 at the bottom of the support base 143 moves upward and contacts the locking member 1423. As the support base 143 continues to descend, the locking hook 1431 exerts a pushing force on the locking member 1423, forcing the locking member 1423 to overcome the restoring force of the first elastic member 1425 and move from the second position to the first position in the first direction. During this process, the first elastic member 1425 is compressed, storing elastic potential energy. When the support base 143 reaches the support position and the locking hook 1431 has completely passed through the locking hole 1424, the pushing force of the locking hook 1431 on the locking member 1423 disappears. At this time, the compressed first elastic member 1425 releases energy, driving the locking member 1423 to quickly rebound in the second direction to the second position. In the second position, the bottom surface of the locking member 1423 abuts tightly against the hook of the locking hook 1431 to form a mechanical lock, fixing the support seat 143 in the support position and preventing the support seat 143 from rebounding or shifting upward.

[0178] By utilizing the automatic reset characteristic of the first elastic element 1425, the support base 143 achieves "seamless" automatic locking. Users do not need to perform any additional operations; they simply place the cup in the container, and once the support base 143 moves into place, the locking element 1423 automatically locks. This not only simplifies the operation process and improves ease of use, but also ensures the stability of the support base 143 under load through a reliable mechanical engagement, preventing displacement of the support base 143 or tipping of the cup due to vibration, collision, or accidental force, significantly improving safety and reliability. Simultaneously, the elastic reset mechanism ensures a smooth and quiet locking process, enhancing overall user comfort.

[0179] Furthermore, the side wall of the base 1421 is provided with a mounting post 14211 and a limiting buckle 14212. The mounting post 14211 extends in the radial direction of the base 1421, and the first elastic member 1425 is arranged in the circumferential direction of the mounting post 14211. The end of the first elastic member 1425 abuts against a portion of the locking member 1423.

[0180] Mounting post 14211 extends radially outward from the side wall of base 1421, forming a central axis for supporting first elastic element 1425. First elastic element 1425 (such as a coil spring) is sleeved on mounting post 14211, i.e., circumferentially arranged around it, with one end abutting against a specific portion of locking element 1423, thereby providing a stable radial restoring force to locking element 1423. Limiting buckle 14212 is located above mounting post 14211 or at a specific position to limit the axial displacement of first elastic element 1425, preventing it from falling off or tilting during compression or extension, and ensuring that the restoring force always acts on locking element 1423 in the correct radial direction.

[0181] In the installed state, the first elastic element 1425 is fitted onto the mounting post 14211 and is in a pre-compressed or natural state, constantly applying a pushing force towards the second position (locked position) to the locking element 1423. When the support 143 moves down, and the locking hook 1431 pushes the locking element 1423 against the elastic force to move to the first position, the first elastic element 1425 is further compressed. Once the locking hook 1431 passes through the locking hole 1424, the first elastic element 1425 immediately releases energy, driving the locking element 1423 to quickly spring back to the second position, completing the locking.

[0182] The mounting column 14211 provides precise guidance and support for the first elastic element 1425, ensuring a consistent and stable direction of the reset force and preventing jamming or displacement of the locking element 1423 during movement due to uneven force. The limit buckle 14212 further restricts the axial degree of freedom of the elastic element, improving the compactness and reliability of the structure. This column-type support combined with the ring-shaped elastic element design not only saves internal space but also makes the locking mechanism move more smoothly and sensitively, ensuring that the locking element 1423 can quickly and accurately complete the unlocking and locking actions, thereby ensuring the stability of the support base 143 in the supported position.

[0183] Furthermore, such as Figure 16 , Figure 19 As shown, a limit buckle 14212 is provided on the side wall of the base 1421. The limit buckle 14212 is located above the mounting post 14211. A through hole is provided on the limit buckle 14212 in a vertical direction. An operating rod 145 is inserted through the through hole. The operating rod 145 is arranged in a vertical direction on the outside of the support frame 141. The first end of the operating rod 145 is arranged opposite to the end of the locking member 1423. The second end of the operating rod 145 is arranged at the opening of the support frame 141. The opening of the support frame 141 is provided with a clearance notch 1410 for avoiding the operating rod 145. The middle part of the operating rod 145 is rotatably arranged with the operating rod 145. When the second end of the operating rod 145 is rotated toward the inside of the support frame 141, the first end of the operating rod 145 can drive the locking member 1423 to move from the second position to the first position.

[0184] The operating lever 145 is tilted in the through hole.

[0185] The second end of the operating lever 145 is located at the opening of the support frame 141, which has a clearance notch 1410 to ensure that the operating lever 145 does not interfere with the support frame 141 when it rotates.

[0186] The middle part of the operating lever 145 serves as a pivot point, allowing it to rotate around this pivot point in a vertical plane.

[0187] When the user needs to manually unlock the support base 143 to retract it to the storage position, the user operates the second end of the operating lever 145 located at the opening of the support frame 141, causing it to rotate inward toward the support frame 141. Since the middle of the operating lever 145 is fixed as the pivot point, the inward rotation of the second end will cause the first end to swing outward (i.e., away from the center of the support frame). The first end of the operating lever 145 then pushes against the end of the locking member 1423, forcing the locking member 1423 to overcome the restoring force of the first elastic member 1425 and move from the second position (locked position) to the first position (unlocked position). At this time, the locking hole 1424 is exposed again, the locking hook 1431 is no longer obstructed, and the support base 143 can move upward under the action of the reset mechanism or external force, disengaging from the supported state.

[0188] A convenient manual unlocking mechanism is provided, allowing users to quickly release the support base 143 from its supported state and retract it to its storage position when needed. Utilizing the lever principle of the operating rod 145, users can easily actuate the internal locking element 1423 by simply rotating it externally, avoiding the difficulty of directly operating internal precision components. The clearance notch 1410 ensures ample rotation space and prevents movement interference. This design enhances the flexibility of the island's functionality and improves the user experience.

[0189] Further, the locking member 1423 includes: a locking body 14231, a locking hole 1424 provided in the middle of the locking body 14231, a first limiting protrusion 14232 and a second limiting protrusion 14230 provided at one end of the locking body 14231 facing the operating lever 145, the first limiting protrusion 14232 being provided on the lower surface of the locking body 14231, the second limiting protrusion 14230 being provided on the upper surface of the locking body 14231, the side of the second limiting protrusion 14230 facing the locking hole 1424 abutting against a portion of the first elastic member 1425, and the side away from the locking hole 1424 being disposed opposite to the first end of the operating lever 145, and a guide surface 14233 being provided on the side of the first limiting protrusion 14232 near the locking hole 1424.

[0190] like Figure 20As shown, the locking body 14231 is the main structure of the locking member 1423, with a locking hole 1424 penetrating through its middle for mechanical engagement with the locking hook 1431 at the bottom of the support base 143. At the end of the locking body 14231 facing the operating lever 145, a first limiting protrusion 14232 is provided on its lower surface, and a second limiting protrusion 14230 is provided on its upper surface. The side of the second limiting protrusion 14230 facing the locking hole 1424 serves as a force-bearing surface, abutting against the first elastic member 1425 to receive the reset thrust provided by the first elastic member 1425; the side away from the locking hole 1424 is opposite to the first end of the operating lever 145, and is used to withstand the thrust of the operating lever 145 during manual unlocking. The first limiting protrusion 14232 has a guide surface 14233 on the side near the locking hole 1424. The guide surface is used to guide the locking hook 1431 at the bottom of the support base 143 to smoothly contact or slide over during the rising or falling process, so as to avoid rigid collision.

[0191] In the locked state (second position), the first elastic element 1425 pushes the locking body 14231 through the second limiting protrusion 14230, causing the locking hole 1424 to be partially or completely blocked by the locking body, thereby preventing the locking hook 1431 from retracting upwards and achieving self-locking. When manual unlocking is required, the user operates the operating lever 145, causing its first end to push against the second limiting protrusion 14230, forcing the locking body 14231 to overcome the resistance of the first elastic element 1425 and move towards the first position, exposing the locking hole 1424 and releasing the restriction on the locking hook 1431. When the support base 143 moves down to place the cup, the locking hook 1431 rises and passes through the locking hole 1424. At this time, the guide surface 14233 on the first limiting protrusion 14232 guides the locking hook 1431 to smoothly enter, avoiding jamming. After the locking hook 1431 has completely passed through the locking hole 1424, the first elastic element 1425 drives the locking body 14231 to quickly spring back to the second position, completing the automatic locking.

[0192] The layered design of the second limiting protrusion 14230 and the first limiting protrusion 14232 respectively undertakes the three functions of "reset force transmission", "manual thrust reception" and "lock hook guidance", resulting in a compact structure with clear division of labor. The second limiting protrusion 14230 ensures the stability of the force applied by the elastic element and the convenience of manual operation. The first limiting protrusion 14232 and its guide surface 14233 effectively guide the movement trajectory of the lock hook 1431, preventing jamming or damage caused by lock hook position deviation during automatic locking, thereby improving the success rate of automatic locking and the service life of the mechanism. This design balances the reliability of automatic locking with the convenience of manual unlocking, while optimizing the utilization of internal space.

[0193] Furthermore, the bottom of the locking body 14231 is provided with a travel limit area 14234, and the base 1421 is provided with a limit rib 1427 located in the travel limit area 14234. The travel limit area 14234 is used to limit the radial movement distance of the locking body 14231.

[0194] Optionally, at least one limiting rib 1427 is provided on the base 1421, and the limiting rib 1427 extends into the travel limiting area 14234. The limiting rib 1427 cooperates with the side wall or a specific structural surface of the locking body 14231 to form a mechanical stop.

[0195] When the locking body 14231 moves from the first position (unlocked position) to the second position (locked position) under the reset force of the first elastic member 1425, the side wall or edge of the locking body 14231 abuts against the limiting rib 1427. The limiting rib 1427 restricts the distance the locking body 14231 can continue to move in the second direction (i.e., the reset direction), ensuring that it accurately stops at the preset second position and preventing the locking body 14231 from deviating from the locking position or being damaged due to excessive elastic force or inertia. Similarly, when the operating lever 145 drives the locking body 14231 to move to the first position, the limiting rib 1427 can also limit its maximum movement distance, preventing the locking body 14231 from detaching from the base 1421 or excessively compressing the first elastic member 1425.

[0196] The technical advantage of this design lies in the precise limitation of the radial movement of the locking body 14231 achieved through the cooperation of the limiting rib 1427 and the travel limiting area 14234. This not only ensures the positional accuracy of the locking body 14231 in both locked and unlocked states and guarantees the accurate alignment of the locking hole 1424 and the locking hook 1431, but also prevents damage or failure of the mechanism due to overtravel of the locking body 14231, thus improving the reliability and lifespan of the locking mechanism. Furthermore, the limiting rib 1427 has a simple structure, is easy to process and assemble, and reduces manufacturing costs.

[0197] Furthermore, the reset mechanism 144 includes: a connecting protrusion disposed on the outer surface of the support frame 141; a reset pull rod 147, one end of which is connected to the support base 143, and the other end of which extends to the outside of the support frame 141 through a sliding groove 1400 opened on the support frame 141; and a second elastic member 149, one end of which is connected to the connecting protrusion, and the other end of which is connected to the reset pull rod 147.

[0198] The connecting protrusion is provided on the outer surface of the support frame 141 and is located near the opening end of the support frame 141.

[0199] Furthermore, the inner wall surface of the support base 143 is provided with a plurality of connecting holes 1432, which are spaced apart along the axial direction of the support base 143. One end of the reset pull rod 147 passes through the connecting hole 1432 and is connected to the support base 143.

[0200] The groove 1400 extends along the height of the support frame 141, providing a guide channel for the linear motion of the reset rod 147. One end of the second elastic element 149 (such as a spring) is connected to the connecting protrusion, and the other end is connected to the outer end of the reset rod 147, thereby establishing a tensile or compressive elastic support circuit outside the support frame 141.

[0201] When the support base 143 is in the supported position (i.e., after moving downwards to the bottom and locking), the second elastic element 149 is in a stretched state, storing elastic potential energy. At this time, the reset lever 147 is pulled to the lowest position by the support base 143. When the user needs to retract the support base 143 or release the supported state (e.g., by releasing the locking element 1423 via the operating lever 145), the support base 143 is no longer pressed downwards by the weight of the cup. At this time, the second elastic element 149 releases the stored elastic potential energy, generating an upward pulling force (or pushing force, depending on the specific installation posture; usually, it is a pulling force or a top compression force to achieve upward retraction) acting on the reset lever 147. The reset lever 147 drives the support base 143 to move upwards along the slide groove 1400 until the support base 143 returns to its initial position (i.e., flush with the working surface of the tea table body or in the storage position).

[0202] The automatic restoring force provided by the second elastic element 149 enables the support base 143 to automatically reset from the supported state to its initial state. This not only reduces the burden on the user to manually lift the support base and improves ease of use, but also ensures that the support base 143 can smoothly and quickly return to a concealed or flat state when not in use, maintaining the cleanliness and aesthetics of the tea table surface. By extending the reset lever 147 to the outside of the support frame 141 and connecting it to the second elastic element 149, a complex spatial layout inside the support frame is avoided, simplifying the internal structure and improving the operability of assembly and the convenience of maintenance. At the same time, the slide 1400 provides stable guidance, ensuring that the lifting and lowering process of the support base 143 is smooth and without shaking.

[0203] Furthermore, the support frame 141 is also provided with one or more damping gears 148. The side wall of the support frame 141 is provided with a damping groove 1480 corresponding to the damping gear 148. The damping groove 1480 extends along the height direction of the support frame 141 and is spaced apart from the slide groove 1400. A damping rack 1481 is provided on the side of the damping groove 1480 near the outer surface of the support frame 141. One end of the damping gear 148 is movably disposed in the damping groove 1480, and the teeth of the damping gear 148 are meshed with the damping rack 1481.

[0204] The damping groove 1480 is formed on the side wall of the support frame 141, and its extension direction is along the height direction of the support frame 141. It is spatially spaced from the slide groove 1400 used for the movement of the reset lever 147 to avoid movement interference.

[0205] The damping rack 1481 is fixedly mounted on the inner wall of the damping groove 1480 near the outer surface of the support frame 141. One end of the damping gear 148 is movably embedded in the damping groove 1480, and its teeth mesh with the damping rack 1481. This arrangement allows the damping gear 148 to rotate while moving along the height direction within the damping groove 1480.

[0206] The meshing transmission between the damping gear 148 and the damping rack 1481 provides controllable damping force for the lifting and lowering process of the support base 143. This damping effectively buffers the speed of the support base 143 during the reset process, preventing it from rapidly bouncing up or violently impacting the initial position due to excessive rebound force of the second elastic element 149, thus avoiding noise and impact damage. Simultaneously, the damping effect makes the lifting and lowering motion of the support base 143 smoother and gentler, enhancing user comfort and a premium feel. Furthermore, integrating the damping components into the damping groove 1480 on the side wall of the support frame 141 results in a compact structure that does not occupy additional installation space. Its spacing from the slide groove 1400 ensures the independence and stability of the motion trajectory, improving the overall structural reliability and durability.

[0207] Furthermore, the support assembly 14 also includes: an upper decorative panel 15, which is disposed along the opening of the support frame 141, and when the support base 143 is in the initial position, the upper surface of the support base 143 is disposed flush with the upper surface of the upper decorative panel 15; and / or, a side decorative panel 16, which is disposed corresponding to the damping groove 1480, and is disposed along the height direction of the support frame 141 and connected to the support frame 141, and is located outside the damping groove.

[0208] The upper decorative panel 15 is set along the edge of the opening at the top of the support frame 141, and its material, color or texture is usually consistent with the tea table body 511 or the island table body 10 to blend into the overall design style.

[0209] The side decorative panel 16 extends along the height direction of the support frame 141 and covers the outside of the damping groove 1480, that is, it is located between the damping groove 1480 and the outer surface of the support frame 141 or covers its opening, serving the functions of concealment and aesthetics.

[0210] The flush alignment of the upper decorative panel 15 with the upper surface of the support base 143 achieves an "invisible" effect. When the tea table components are stored away or not in use, the user cannot perceive the presence of the support component 14, keeping the tea table surface intact and flat, enhancing the overall aesthetics and simplicity of the island, and preventing concavity or convexity from compromising the flatness of the tabletop. Secondly, the side decorative panel 16 effectively conceals internal moving parts such as the damping groove 1480 and damping gear 148, preventing dust and foreign objects from entering the movement gaps, protecting the internal mechanisms, and also enhancing the product's premium feel and craftsmanship. This decorative design perfectly hides the functional structure beneath an aesthetically pleasing exterior, balancing aesthetic value and practicality.

[0211] The outer surface of the support frame 141 is provided with at least two support protrusions 1412, which are located below the clearance notch 1410. A channel or gap is formed between the two support protrusions 1412, allowing the operating lever 145 to pass through. This effectively avoids collisions or friction between the operating lever 145 and the solid part of the support frame 141 during movement, ensuring the smoothness of the mechanism's movement.

[0212] It should be further explained that the support assembly 14 also includes a press buckle 17, which is disposed on the outer surface of the support frame 141 and located above the operating lever 145. The press buckle 17 is connected to the operating lever 145. When the user needs to retract the support seat 143, the user presses the press buckle 17 with their finger. The press buckle 17 transmits the applied pressing force to the operating lever 145, driving the operating lever 145 to rotate around its pivot point. The first end of the operating lever 145 then moves inward (towards the inside of the support frame 141), pushing the locking member 1423 to overcome the resistance of the first elastic member 1425 and slide from the second position (locked position) to the first position (unlocked position), thereby separating the locking hole 1424 on the locking member 1423 from the locking hook 1431 at the bottom of the support seat 143. Once the lock is released, the support seat 143 moves upward under the elastic force of the second elastic member 149 (reset mechanism) and retracts to the initial position. The push-button 17 is typically designed with elastic feedback, allowing users to clearly perceive the pressing process and unlocking status, thus improving the certainty of operation and user experience.

[0213] Furthermore, such as Figure 21 , Figure 22As shown, the island main body 10 has multiple mounting cavities, which are spaced apart along the height direction of the island main body 10. The multi-functional island device also includes drawers 60, which are multiple in number and are arranged one-to-one with the multiple mounting cavities. Each drawer 60 is movably disposed in the mounting cavity, and the pulling direction of at least one of the multiple drawers 60 is opposite to the pulling direction of the other drawers 60, so that the multiple drawers 60 can be pulled out to the open position in multiple directions of the island main body 10, and the multiple drawers 60 can be pushed to the closed position in multiple directions. When the flip table assembly 20 is in the first storage position, a flip table assembly 20 is provided on each side of the drawer 60 in the length direction. The lifting mechanism 52 is provided on one side of the end of the top drawer 60, and the drawer 60 at the top can be pulled out to the open position and the closed position from the side away from the lifting mechanism 52.

[0214] This vertically stacked layout makes full use of the vertical space of the island, allowing more storage units to be accommodated within a limited footprint.

[0215] In the multiple drawers 60, at least one drawer 60 is pulled out in the opposite direction to the other drawers 60. For example, if most drawers are pulled out towards the rear of the vehicle, then at least one drawer is pulled out towards the front of the vehicle, or vice versa. Through this reverse or different direction pull-out design, the multiple drawers 60 can be pulled out to the open position in multiple different directions along the island body 10, or pushed back to the closed position in the corresponding direction.

[0216] By setting up multiple mounting cavities spaced apart along the height direction and drawers 60 movably installed therein, and making the pulling direction of at least one drawer 60 opposite to that of the other drawers, the purpose of multiple drawers 60 being able to be independently pulled out to the open or closed position in multiple directions is achieved. This solves the technical problem of existing island drawers being able to only be pulled out in one direction, which leads to limited space utilization and inconvenience in retrieving items. It achieves the technical effects of improving the internal space utilization of the island, enhancing the convenience of retrieving items, and improving the flexibility of use.

[0217] Optionally, each drawer 60 is set independently so that each drawer 60 can be moved independently to the open position and the closed position.

[0218] The multiple mounting cavities formed inside the island main body 10 are structurally isolated from each other, or at least their movement trajectories do not interfere with each other. Each drawer 60 is individually housed in its corresponding mounting cavity and is not directly mechanically connected or synchronously transmitted with adjacent drawers 60. This independent arrangement allows the user to operate a particular drawer 60 (such as pulling it open or pushing it in) without considering the state of other drawers 60 (i.e., other drawers 60 can be in any position, such as open, closed, or in between), and will not cause or hinder the movement of other drawers by operating one drawer.

[0219] Furthermore, each drawer 60 is provided with a drive part 61 and a guide part 62. The guide part 62 is movably connected to the side wall of the island main body 10. One end of the drive part 61 is connected to the island main body 10, and the other end of the drive part 61 is connected to the drawer 60. The drive part 61 is used to drive the drawer 60 to move along the length direction of the guide part 62 to the open position and the closed position. The guide parts 62 are arranged parallel to each other.

[0220] The guide section 62 serves as a trajectory constraint mechanism for the movement of the drawer 60. One end of it is movably connected to or fixedly installed on the side wall (usually the inner side wall of the mounting cavity) of the island body 10, thereby establishing a stable sliding track inside the island body 10. The drawer 60 is slidably mounted on the guide section 62, ensuring that it maintains a stable posture during movement and does not deflect or wobble.

[0221] The drive unit 61 serves as a power source, with one end fixed to the island main body 10 (e.g., fixed to a non-moving part at the bottom, top, or side wall of the mounting cavity), and the other end connected to the drawer 60. When the drive unit 61 operates, it generates a force along the length of the guide 62 through extension and retraction, directly driving the drawer 60 to move linearly along the length of the guide 62, thereby pushing the drawer 60 from the closed position to the open position, or pulling it back from the open position to the closed position. Furthermore, the guides 62 corresponding to each drawer 60 are arranged parallel to each other, ensuring that the movement trajectory direction of all drawers is consistent (for drawers in the same direction), which is beneficial for the regularity of the structural layout and the uniformity of force distribution.

[0222] Taking a specific embodiment of a vehicle island as an example: Assume the island body 10 has two vertically arranged mounting cavities, accommodating an upper drawer and a lower drawer respectively. For the upper drawer, its bottom has a guide (such as a linear slide rail), which is fixed to the side wall of the island body 10 at the bottom of the mounting cavity. Simultaneously, a drive unit (such as a small push rod motor) is provided, with its base fixed to the rear side wall of the mounting cavity (on the island body 10), and the front end of the push rod (piston rod) connected to the back panel of the upper drawer. When the upper drawer needs to be opened, the control circuit drives the push rod motor to extend, pushing the upper drawer forward along the guide to the open position; when it needs to be closed, the push rod motor retracts, pushing the drawer back to the closed position. The lower drawer adopts the same structural configuration, with its guide and drive units also fixed to the island body 10 and connected to the lower drawer, and the guides are arranged parallel to each other (assuming both are in the front-to-back pulling direction).

[0223] The drawer 60 is rigidly constrained by the guide section 62, eliminating wobbling and jamming during the drawer's operation, ensuring smooth and stable opening and closing, and extending the lifespan of the drawer components. Power is provided by the drive section 61 (such as a push rod motor), enabling electric control of the drawer. Users can remotely control the drawer's opening and closing via buttons or a smart system, enhancing convenience and a sense of technology. Simultaneously, the controllable stroke of the drive section 61 allows for precise positioning of the drawer in the open or closed position, avoiding overshooting or undershooting issues that may occur with manual pushing and pulling. The drive section 61 directly connects the island body 10 and the drawer 60, and in conjunction with the parallel guide sections 62, results in a high degree of integration of the motion mechanism, a small footprint, and suitability for limited installation space within the vehicle. The parallel arrangement of the guide sections 62 also helps simplify the internal structural design of the island, facilitating standardized production and maintenance.

[0224] Furthermore, the drive unit 61 includes a push rod motor, the guide unit 62 is a slide rail, and the inner side wall of the island main body 10 is provided with a slide groove that cooperates with the slide rail. The length direction of the guide unit 62 is parallel to the axial direction of the push rod motor.

[0225] The drive unit 61 specifically adopts a push rod motor, which is a linear motion actuator that integrates a motor, lead screw, nut, push rod, limit switch and overload protection, and can convert rotary motion into linear push-pull motion.

[0226] The guide section 62 specifically adopts a slide rail, usually referring to a ball slide rail or a linear guide rail, to provide low-friction, high-precision sliding support.

[0227] Specifically, a groove is provided on the inner side wall of the island main body 10 (i.e., the inner wall of the mounting cavity). The shape and size of the groove match the slide rail (guide part 62). The slide rail can be inserted into or fixed in the groove, thereby firmly installing the guide part 62 on the island main body 10 and ensuring that the slide rail does not shift or deflect. In addition, a key structural feature is that the length direction of the guide part 62 (i.e., the extension direction of the slide rail, which is also the movement trajectory direction of the drawer 60) is parallel to the axial direction of the push rod motor (i.e., the direction of push rod extension and retraction). This means that the thrust direction of the push rod motor coincides with the guide direction of the slide rail, resulting in the shortest power transmission path, the highest efficiency, and no lateral component force due to angular deviation, thus avoiding the slide rail bearing additional bending moment or lateral load.

[0228] Specifically, the tea table 51 is located above each drawer 60.

[0229] In one specific embodiment, there are two drawers 60, which are separated by a partition in the island body 10. The lifting mechanism 52 includes: a fixed base 521, which is connected to the top of the partition; and a push rod motor assembly, one end of which is connected to the fixed base 521 and the other end of which is connected to the tea table 51. The push rod motor assembly drives the tea table 51 to be movably arranged in the vertical direction. The fixed base 521 and the push rod motor assembly are located on one side of the end of the uppermost drawer 60.

[0230] The island main body 10 has only two drawers 60 inside, namely an upper drawer and a lower drawer. These two drawers 60 are arranged vertically and are physically separated by a partition inside the island main body 10. This partition not only serves to divide the storage space, but also serves as the structural support base for the lifting mechanism 52. The two drawers 60 are arranged in opposite directions when pulled out.

[0231] The lifting mechanism 52 specifically includes a fixed base 521 and a push rod motor assembly. The fixed base 521 is securely connected to the top surface of the middle partition, thereby limiting the base position of the lifting mechanism 52 above the middle partition. One end of the push rod motor assembly is connected to the fixed base 521, and the other end is connected to the tea table 51. Crucially, both the fixed base 521 and the push rod motor assembly are located on one side of the end of the uppermost drawer 60 (e.g., on the left or right side of the upper drawer, rather than directly below or above the center). This lateral arrangement ensures that the vertical movement trajectory of the push rod motor assembly is offset from the pulling direction of the upper drawer, or at least does not directly obstruct the main opening area of ​​the drawer, thus achieving the coexistence of drawer storage and tea table lifting functions within a limited space.

[0232] Furthermore, the island main body 10 has a third storage location located below the vehicle's dashboard 40, and the island has a third working location on the side away from the dashboard 40, wherein there are one or more third working locations.

[0233] The third storage location is located below the dashboard 40 in the driver's cab. This means that when the island's functions are not needed (such as driving, charging, or simply saving space), the entire island body 10 can be moved and parked in the area below the dashboard 40. This layout makes full use of the unused space below the dashboard in the vehicle's driver's cab, allowing the island to be "hidden" when not in use, without occupying the main passageway or passenger space.

[0234] The island also features a third working position "away from the instrument panel 40." Here, "away from" means that, relative to the instrument panel 40, the island body 10 is moved to an area in front of or to the side of the instrument panel 40, creating a space available for user operation or use. This third working position is "one or more." This indicates that the island is not limited to a single work placement point but can be moved to multiple different positions according to actual needs. For example, it can be moved between the driver's and passenger's seats, or to the side of the passenger's seat. This multi-positional possibility gives the island great flexibility, enabling it to adapt to different usage scenarios.

[0235] Furthermore, such as Figure 2 , Figure 3 , Figure 4 As shown, the island has at least one of the following modes: charging mode, storage mode, tea break mode, and dining mode. When the island is in charging mode, it is located in the third storage position. When the island is in storage mode, it is located between the driver's seat and the passenger seat, and part of the island body 10 is located below the dashboard 40. When the island is in tea break mode, it is located between the driver's seat and the passenger seat, and the island body 10 is located outside the dashboard 40. When the island is in dining mode, it is located between the driver's seat and the passenger seat, and the island body 10 is located outside the dashboard 40, with the flip-up table assembly 20 on the island body 10 in the first working position.

[0236] In charging mode, the island main body 10 is located in the third storage position, below the dashboard 40. At this time, the island is fully retracted, and the flip-up table assembly 20 is in the first storage position (fitted against the side wall). The main function of this mode is to provide a charging interface for electronic devices. Placing the island below the dashboard makes the charging interface easily accessible, while the island itself does not occupy any activity space, achieving an "invisible" charging function.

[0237] In storage mode, the main island 10 is located between the driver's and passenger's seats, with part of its structure situated below the dashboard 40. This means the island has moved slightly outward from its purely folded-back state, but a portion remains hidden beneath the dashboard. This semi-extended configuration utilizes the space under the dashboard for concealed storage while also exposing part of the countertop or side for placing personal items (such as phones, keys, water bottles, cups, etc.). It strikes a balance between storage and work, providing convenient temporary storage space without obstructing the driver's view.

[0238] In tea break mode, the island main body 10 is completely moved out of the instrument panel 40's obstruction area, i.e., located outside the instrument panel 40, but still positioned between the driver and passenger seats. At this time, the tea table assembly 50 may be in a second working position. This layout allows the island to form an independent small table or storage platform located between the front seats, making it convenient for the driver and passengers to place drinks and snacks for simple tea breaks while maintaining the cabin's openness.

[0239] The dining mode is the most fully functional. First, the island main body 10 is located between the driver and passenger seats, and on the outside of the dashboard 40, ensuring ample operating space. Second, and a key feature of this mode, the flip-up table assembly 20 on the island main body 10 is in its first working position. This means that the flip-up table 25 has been unfolded and rotated to a horizontal position, flush with the top surface of the island main body 10, forming a large, stable working surface. This surface is specifically designed for placing tableware and food, supporting formal dining activities between the driver and passenger seats.

[0240] By defining four modes, this solution transforms a single island unit into a multifunctional living space hub.

[0241] The charging mode solves the energy replenishment needs of electronic devices and is neatly and safely stored under the dashboard.

[0242] The storage mode provides flexible temporary storage space, catering to the need to place items wherever needed while driving.

[0243] The tea break mode provides a relaxed, informal space for socializing or resting, enhancing the comfort of the ride.

[0244] The dining mode creates formal dining conditions by unfolding and flipping the table, meeting the dietary needs of long-distance travel or camping.

[0245] In different modes, the island's position changes between "under the dashboard," "between the driver and passenger seats," and "outside the dashboard," and the "folding" and "unfolding" of the flip-up table achieves dynamic allocation of interior space. By defining four working modes and their corresponding spatial positions and structural states in detail, a high degree of matching between the island's function and the vehicle's interior space layout is achieved. This ensures both driving convenience and safety while greatly enriching the in-vehicle living scenarios, reflecting the concepts of human-centered design and efficient space utilization.

[0246] Furthermore, such as Figure 24 As shown, a cleaning device 70 is installed at the bottom of the island main body 10, wherein the island main body 10 is freely movable inside the vehicle, and a dust suction port 72 is provided at the bottom of the cleaning device 70. The cleaning device 70 is used to clean the floor of the vehicle.

[0247] By setting up a freely movable island platform 10 and its bottom cleaning device 70, the movement of the island platform 10 inside the vehicle drives the cleaning device 70 to clean the vehicle floor. This achieves multi-functional utilization of the vehicle's interior space while conveniently cleaning the floor, solving the technical problems of inconvenient floor cleaning and low space utilization in the prior art, and achieving the technical effect of improving the cleanliness of the vehicle interior environment and the efficiency of space utilization.

[0248] Furthermore, a roller brush is installed at the suction port 72, which is used to scrub the floor.

[0249] The roller brush is installed above or around the suction port 72, with its axis typically parallel to the vehicle floor and in contact with or very close to the floor surface.

[0250] As the island main body 10 moves the cleaning device 70 across the vehicle floor, the roller brush rotates accordingly. The rotation of the roller brush can be driven by other power sources within the vehicle, or it can be passively rotated using the friction between the roller brush and the floor as the island main body 10 moves. With the rotation of the roller brush, its bristles physically scrub and agitate the floor surface, peeling or lifting stubborn stains and dust particles adhering to the floor. Simultaneously, the suction port 72 uses negative pressure airflow to quickly suck the foreign objects lifted or swept up by the roller brush into the cleaning main body 71. This synergistic effect of "mechanical scrubbing + negative pressure suction" makes the cleaning process more thorough.

[0251] Vacuuming alone is often insufficient to remove stubborn or embedded stains, while the introduction of a roller brush provides mechanical pre-scrubbing to the floor, significantly improving cleaning efficiency and quality. The roller brush allows the island to not only absorb loose dust but also effectively handle minor stains such as mud and shoe prints left from daily walking, achieving a deeper cleaning effect. Furthermore, since the roller brush is integrated into the bottom of the movable island, users only need to control the island's direction and speed to automatically complete complex scrubbing and cleaning actions, reducing the difficulty and labor intensity of cleaning the vehicle interior and further enhancing the convenience of vehicle interior maintenance and overall hygiene.

[0252] Furthermore, such as Figure 25 As shown, the cleaning device 70 includes: a cleaning body 71, which is connected to the bottom of the island main body 10, and a suction port 72 is provided at the bottom of the cleaning body 71 for sucking foreign objects on the floor into the cleaning body 71; a filter plate 73, which is disposed inside the cleaning body 71 and divides the cleaning body 71 into an upper cavity 710 and a lower cavity 711, wherein at least a portion of the filter plate 73 is provided with a filter screen; and a partition 74. 4 is located in the lower cavity 711, which is divided into an air intake cavity 7110 and an installation cavity 7111. The air intake cavity 7110 is connected to the upper cavity 710 through a filter screen and is connected to the dust suction port 72. The motor impeller assembly 75 is located in the installation cavity 7111. The air intake channel 751 of the motor impeller assembly 75 is connected to the upper cavity 710, and the exhaust channel of the motor impeller assembly 75 is connected to the external environment of the cleaning body 71.

[0253] The cleaning body 71 is directly connected to and fixed to the bottom of the island platform body 10, forming a rigid or semi-rigid connection structure to ensure that the cleaning body 71 can move synchronously with the island platform body 10 when it moves inside the vehicle, and maintain a stable relative position with the vehicle floor.

[0254] The suction port 72 is located on the bottom surface of the cleaning body 71, with its opening facing the vehicle floor. In terms of its working principle, when the island body 10 moves within the vehicle, the cleaning body 71 moves accordingly, causing the suction port 72 to approach or contact the floor surface. At this time, a negative pressure area is formed inside the cleaning body 71, driving outside air to carry dust, debris, and other foreign objects from the floor into the cleaning body 71 through the suction port 72. The position and shape of the suction port 72 are designed to maximize coverage of the cleaning path, ensuring that during the movement of the island body 10, foreign objects from the floor surface can be continuously and effectively sucked into the cleaning body 71 for storage or subsequent processing.

[0255] By integrating the vacuum port 72 into the bottom of the movable island body 10, "accompanying" cleaning is achieved. Users do not need to use a handheld vacuum cleaner or mop separately; they only need to push the island body 10 to move within the vehicle, and the island's displacement will drive the cleaning device 70 to complete the floor cleaning operation. This design not only simplifies the vehicle interior cleaning process and improves cleaning efficiency, but also, because the cleaning device 70 is part of the overall island structure, allows the vehicle to function as a multi-functional island for storage, office work, or rest, while also possessing an automatic cleaning function. This effectively solves the problems of difficult storage, inconvenient use, and numerous cleaning dead spots in existing technologies, improving the cleanliness of the vehicle interior and user convenience.

[0256] The cleaning body 71 is equipped with a filter plate 73, which divides the internal space of the cleaning body 71 into an upper cavity 710 and a lower cavity 711. At least a portion of the filter plate 73 is equipped with a filter screen, which serves to intercept larger particles or perform preliminary filtration.

[0257] Inside the lower cavity 711, a partition 74 is further provided. This partition 74 divides the lower cavity 711 into two independent spaces: an air intake cavity 7110 and a mounting cavity 7111. These two cavities are physically isolated from each other by the partition 74 to prevent airflow short-circuiting.

[0258] like Figure 25 As shown, the intake chamber 7110 and the mounting chamber 7111 have different spatial sizes.

[0259] The airflow path inside the cleaning body 71 is as follows: the air intake chamber 7110 is connected to the upper cavity 710 through the filter screen on the filter plate 73, and at the same time, the air intake chamber 7110 is directly connected to the dust suction port 72 at the bottom of the cleaning body 71. This means that the air drawn in from the floor first enters the air intake chamber 7110 through the dust suction port 72, and then passes through the filter screen into the upper cavity 710.

[0260] The motor impeller assembly 75 is installed within the mounting cavity 7111. This assembly has an intake passage 751 and an exhaust passage. The intake passage 751 communicates with the upper cavity 710, thereby creating a negative pressure within the upper cavity 710, driving air from the intake cavity 7110 through the filter screen into the upper cavity 710. The exhaust passage of the motor impeller assembly 75 is directly connected to the external environment of the cleaning body 71, used to discharge filtered clean air to the outside of the device.

[0261] The cleaning device operates on the following principle: When the motor impeller assembly 75 starts, it generates suction at the suction channel 751, reducing the air pressure inside the upper chamber 710. Since the upper chamber 710 is connected to the intake chamber 7110 via a filter, the air pressure inside the intake chamber 7110 decreases, creating negative pressure at the suction port 72. Air carrying foreign objects from the floor enters the intake chamber 7110 through the suction port 72, passes through the filter, and enters the upper chamber 710. During this process, the filter intercepts some impurities, and the air entering the upper chamber 710 is drawn in by the motor impeller assembly 75 and discharged through the exhaust channel. This structural design achieves efficient airflow and initial separation of foreign objects.

[0262] The combination of filter plate 73 and partition plate 74 creates a clear airflow path, ensuring the effectiveness of the vacuuming process. The upper cavity 710, serving as the main airflow channel, works with the filter screen to perform preliminary filtration of air before it enters the motor impeller assembly 75, protecting it from direct damage by dust and foreign objects and extending its service life. Simultaneously, the mounting cavity 7111 independently houses the motor impeller assembly 75, achieving spatial isolation between the power components and the airflow filtration components, which is beneficial for heat dissipation and maintenance. Furthermore, this compact internal structure design fully utilizes the space at the bottom of the island main body 10, enabling the cleaning device 70 to maintain a small size while possessing strong vacuuming capabilities and stable airflow circulation performance, thereby ensuring the efficiency and continuity of cleaning operations.

[0263] Furthermore, such as Figure 26 , Figure 27 As shown, the bottom of the island platform body 10 is provided with multiple rollers 31, each roller 31 is provided with a roller drive motor 32, and the island platform body 10 is provided with a battery 80. The battery 80 is electrically connected to the roller drive motor 32 and the motor impeller assembly 75. The battery 80 is used to supply power to the roller drive motor 32 and the motor impeller assembly 75.

[0264] Since each roller 31 has an independent roller drive motor 32, the system can precisely control the movement direction and posture of the island platform 10 by controlling the speed, direction, and torque of each roller drive motor 32. For example, by adjusting the rotation combinations of roller drive motors 32 in different positions, the island platform 10 can achieve various movement modes such as linear forward movement, backward movement, in-situ rotation, or lateral translation.

[0265] The island main body 10 integrates a storage battery 80, which serves as the power source for the entire cleaning island. This battery is electrically connected to each roller drive motor 32 and the motor impeller assembly 75 within the cleaning device 70. When the user needs to move the island main body 10 for cleaning, the control circuit activates the roller drive motors 32, driving the corresponding rollers 31 to rotate, thereby moving the island main body 10 and the cleaning device 70 at its base across the vehicle floor. Simultaneously, the storage battery 80 supplies power to the motor impeller assembly 75, activating it and generating suction. As the island main body 10 moves, the cleaning device 70 works synchronously to vacuum and clean the floor. To stop moving or cleaning, the power to the corresponding motor is simply disconnected.

[0266] By setting up an independent roller drive motor 32 and a unified battery 80 for power supply, the island main body 10 achieves electrified drive and automated operation of cleaning functions. Users can easily control the island's movement within the vehicle without relying on manual pushing, significantly reducing operational intensity. Simultaneously, since both the roller drive motor 32 and the motor impeller assembly 75 are powered by the same battery 80, the vehicle's electrical wiring is simplified, improving system integration and reliability. Furthermore, the battery 80 is located inside the island main body 10, occupying no additional interior space, and supports wireless mobile cleaning, allowing users to freely adjust the cleaning path as needed, flexibly covering every corner of the vehicle floor, significantly improving the convenience and efficiency of interior cleaning.

[0267] Optionally, a charging port 81 for charging the battery 80 is provided below the island main body 10.

[0268] When the battery 80 is low on power or needs to be recharged, the user can insert the charging plug into the charging port 81 located below the island main body 10. An external power source inputs electrical energy into the battery 80 through the charging port 81, thereby charging the battery 80, restoring its energy storage capacity, and ensuring continuous power support for the roller drive motor 32 and the motor impeller assembly 75.

[0269] The placement of charging port 81 enables the island main body 10 to have independent power supply capabilities, eliminating reliance on generator power while the vehicle is in motion and achieving autonomous cleaning operations even when offline. Positioning charging port 81 below the island main body 10 cleverly utilizes space typically overlooked within the vehicle (such as the space under the dashboard or seats), maintaining the overall aesthetic appeal of the island and avoiding the potential aesthetic disruption or operational inconvenience of placing charging ports on the roof or sides. Furthermore, this design allows users to easily charge and maintain the island main body 10 simply by parking it in a suitable charging location (such as the second storage location), greatly improving the ease of use and battery life of the equipment, ensuring the sustainability and efficiency of the cleaning function.

[0270] According to another aspect of the present invention, a vehicle is provided having a multi-functional island device, which is the multi-functional island device described above.

[0271] The technical solution of this embodiment has the following beneficial effects:

[0272] (1) By setting a flip-top table assembly 20 rotatably connected to the island main body 10, and a tea table assembly 50 including a tea table 51 and a lifting mechanism 52, dynamic transformation of the spatial structure is realized. Specifically, when the flip-top table assembly 20 is in the first storage position stored on one side of the island main body 10, the lifting mechanism 52 drives the tea table 51 to move to the second working position away from the island main body 10 to provide usable space. When the flip-top table assembly 20 is unfolded and rotated to the first working position at the top of the island main body 10, the tea table 51 is controlled to move to the second storage position close to the island main body to avoid interference. The effect of this technology is that by linking the flip-top table and the lifting tea table, the mutual exclusion and complementarity of the two functional components in the storage state and the working state are realized. This ensures that the tea table can be fully unfolded and used when the flip-top table is stored, and also ensures that the tea table can be properly stored when the flip-top table is unfolded to form a large working surface. This effectively improves the space utilization rate and the flexibility of function switching of the island device, and meets diverse usage needs.

[0273] (2) In this application, the cleaning device 70 is directly integrated into the bottom of the island main body 10, so that in non-cleaning states such as "storage mode" and "dining mode", the bottom structure of the island naturally becomes the carrier of the cleaning module; while in "cleaning mode", the island itself is transformed into a sweeping robot. This design does not require additional dedicated storage space for in-vehicle cleaning equipment, realizing "one item for two uses", and greatly optimizing the limited cabin space layout of vehicles, especially new energy vehicles.

[0274] (3) Traditional vehicle cleaning relies heavily on handheld devices, which are limited by operational flexibility and blind spots, making it difficult to thoroughly clean small or hidden corners such as the bottom of seats, pedal areas, and under the dashboard. This application utilizes the free movement of the island platform 10 within the vehicle (such as moving from the second storage position to the second working position, or moving between the driver and passenger seats), combined with the vacuuming and roller brush scrubbing functions of the bottom cleaning device 70, to actively drive into and cover all areas of the vehicle floor, including small crevices that are difficult for traditional cleaning tools to reach. Through the electric omnidirectional wheel drive of the island platform, flexible path planning can be achieved, ensuring a full-coverage, thorough cleaning of the passenger cabin floor.

[0275] (4) This application sets up multiple drawers 60, with at least one drawer having a pull-out direction opposite to that of the others. This design achieves strict functional separation in physical space. Lower drawer (opens forward): Opens towards the driver's side or in a direction that conforms to the driver's operating habits, suitable for storing items that the driver frequently uses daily (such as driver's license, mobile phone, tickets, etc.), quick to access, and meets the need for rapid response in driving scenarios. Upper drawer (opens backward): Located below the tea table 51, and opened in the opposite direction to the lower drawer (e.g., backward to the driver or side opening), this area is defined as a dedicated space for tableware and tea sets. Since this area is usually located on the passenger side or away from the driver's line of sight when the tea table is raised, the reverse opening design avoids interference with the driver's operating space, and also prevents items from sliding into the driving area when the drawer is pulled down, causing safety hazards. Through the drawer design with differentiated directions, the physical separation of "driving supplies" and "lifestyle and leisure supplies" is achieved, ensuring both the focus and safety of driving operations, and providing an independent and tidy tea break storage space, enhancing the sense of order and sophistication of the interior space.

[0276] (5) By switching between different third working positions, the island can have charging mode, storage mode, tea break mode and dining mode. Through automated movement, automatic charging, and convenient storage and dining support, the user's operating threshold is reduced and the comfort, technological feel and convenience of the cockpit are improved.

[0277] For ease of description, spatial relative terms such as "above," "on top of," "on the upper surface of," "above," etc., are used herein to describe the spatial positional relationship of a device or feature as shown in the figures to other devices or features. It should be understood that spatial relative terms are intended to encompass different orientations in use or operation beyond the orientation of the device as described in the figures. For example, if the device in the figures were inverted, a device described as "above" or "on top of" other devices or structures would subsequently be positioned as "below" or "under" other devices or structures. Thus, the exemplary term "above" can include both "above" and "below." The device may also be positioned in other different ways (rotated 90 degrees or in other orientations), and the spatial relative descriptions used herein will be interpreted accordingly.

[0278] In addition to the above, it should be noted that the terms "one embodiment," "another embodiment," and "embodiment" used in this specification refer to specific features, structures, or characteristics described in connection with that embodiment, which are included in at least one embodiment described in the general description of this application. The appearance of the same expression in multiple places in the specification does not necessarily refer to the same embodiment. Furthermore, when a specific feature, structure, or characteristic is described in connection with any embodiment, the intention is to suggest that implementing such a feature, structure, or characteristic in conjunction with other embodiments also falls within the scope of this invention.

[0279] In the above embodiments, the descriptions of each embodiment have different focuses. For parts not described in detail in a certain embodiment, please refer to the relevant descriptions in other embodiments.

[0280] The above description is merely a preferred embodiment of the present invention and is not intended to limit the invention. Various modifications and variations can be made to the present invention by those skilled in the art. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the scope of protection of the present invention.

Claims

1. A multifunctional island platform device, characterized in that, include: Main island platform (10); A flip table assembly (20), wherein there is at least one flip table assembly (20), the flip table assembly (20) is rotatably connected to the island body (10) so that the flip table assembly (20) has a first storage position stored on one side of the island body (10), and the flip table assembly (20) has a first working position that unfolds and rotates to the top of the island body (10); A tea table assembly (50) includes a tea table (51) and a lifting mechanism (52). A portion of the lifting mechanism (52) is connected to the island main body (10), and another portion of the lifting mechanism (52) is connected to the tea table (51). The lifting mechanism (52) drives the tea table (51) to be movably arranged in the vertical direction so that the tea table (51) has a second working position away from the island main body (10) and a second storage position close to the island main body (10). When the flip table assembly (20) is in the first storage position, the tea table (51) can be moved to the second working position, and when the flip table assembly (20) is in the first working position, the tea table (51) can be moved to the second storage position.

2. The multifunctional island platform device according to claim 1, characterized in that, When the flip table assembly (20) is in the first working position, the tea table (51) can be controlled to be in the second working position. At this time, at least part of the tea table (51) is above the flip table assembly (20).

3. The multifunctional island platform device according to claim 1 or 2, characterized in that, There are two flip tabletop assemblies (20). When the two flip tabletop assemblies (20) are in the first storage position, the plane on which the working surface of the two flip tabletop assemblies (20) is located is parallel to the vertical plane.

4. The multifunctional island platform device according to claim 3, characterized in that, During the process of the two flip table assemblies (20) rotating from the first storage position to the first working position, the two flip table assemblies (20) gradually rotate from one side of the side wall of the island body (10) to the top of the island body (10) in opposite directions, and when each flip table assembly (20) is in the first working position, the working surfaces of the two flip table assemblies (20) are set flush to form a large working surface.

5. The multifunctional island platform device according to claim 3, characterized in that, The flip table assembly (20) includes: The first drive motor (21) is connected to the island body (10) and is located inside the island body (10). The output end of the first drive motor (21) is provided with a first drive gear (22). A connecting rod (23) is provided with a first driven gear (24) at its first end. The first driven gear (24) meshes with the first driving gear (22), and the length direction of the connecting rod (23) is perpendicular to the rotation axis of the first driven gear (24). A flip table (25) is connected to the second end of the connecting rod (23) on the side of the flip table (25) facing the island body (10), and the surface of the flip table (25) away from the island body (10) forms the working surface; The support rod (26) has its first end connected to the surface of the flip table (25) facing the island body (10), and its second end connected to the top of the island body (10). The first drive motor (21) can drive the flip table (25) to the first storage position and the first working position through the first drive gear (22). When the flip table (25) is in the first storage position, the support rod (26) is located above the connecting rod (23).

6. The multifunctional island platform device according to claim 5, characterized in that, There are two connecting rods (23), which are arranged opposite to each other at both ends of the island body (10). The first end of one of the connecting rods (23) is connected to the first driven gear (24), the first end of the connecting rod (23) is connected to the first end of the flip table (25), the first end of the other connecting rod (23) is connected to the island body (10), the second end of the connecting rod (23) is connected to the second end of the flip table (25), and / or; There are two support rods (26). The first end of each support rod (26) is connected to the surface of the flip table (25) facing the island body (10), and the second end of each support rod (26) is connected to the top of the island body (10).

7. The multifunctional island platform device according to claim 6, characterized in that, The island main body (10) includes a first side wall (11) and a second side wall (12) arranged opposite to each other. A mounting platform (13) for connecting the first side wall (11) and the second side wall (12) is provided between the top of the first side wall (11) and the second side wall (12). The mounting platform (13) has a top mounting plate (131) and a side mounting plate (132). The side mounting plate (132) extends in a direction perpendicular to the first side wall (11) or the second side wall (12). The first side wall (11) and the second side wall (12) are respectively provided with a flip table assembly (20). The first drive motor (21) of each flip table assembly (20) is mounted on the side mounting plate (132). The support rod (26) of each flip table assembly (20) is connected to the top mounting plate (131).

8. The multifunctional island platform device according to claim 1, 2, 6, or 7, characterized in that, The tea table assembly (50) also includes a rotary drive mechanism (53), which drives the lifting mechanism (52) of the part to rotate the tea table (51) in the horizontal direction so that the tea table (51) has multiple second working positions in the horizontal direction.

9. The multifunctional island platform device according to claim 8, characterized in that, The lifting mechanism (52) includes: A fixed base (521) is connected to the island platform body (10); A push rod motor assembly, one end of which is connected to the fixed base (521) and the other end of which is connected to the tea table (51), the push rod motor assembly drives the tea table (51) to be movably set in the vertical direction.

10. The multifunctional island platform device according to claim 9, characterized in that, The push rod motor assembly includes: An outer rod (522) is connected to the fixed base (521), and the outer rod (522) extends vertically. An inner rod (523) is provided at one end inside the outer rod (522), and the other end of the inner rod (523) extends vertically away from the outer rod (522). A push rod motor (524) is installed inside the inner rod (523), and the output end of the push rod motor (524) is connected to the tea table (51). The push rod motor (524) drives the tea table (51) to be movably installed in the vertical direction.

11. The multifunctional island platform device according to claim 10, characterized in that, The rotary drive mechanism (53) includes: The second drive motor (531) is connected to the island body (10), and the output end of the second drive motor (531) is provided with a second drive gear (532). The second driven gear (533) is arranged circumferentially along the outer rod (522), meshes with the second drive gear (532), and is connected to the outer rod (522) by a limiting structure so that the second driven gear (533) and the outer rod (522) are arranged to rotate synchronously. The outer rod (522) is rotatably mounted relative to the fixed base (521). The second drive motor (531) drives the second driven gear (533) to rotate through the second drive gear (532), so as to drive the outer rod (522), the inner rod (523), the push rod motor (524) and the tea table (51) to rotate together in the circumferential direction.

12. The multifunctional island platform device according to claim 10, characterized in that, The tea table (51) includes: The tea table body (511) is connected to the output end of the push rod motor (524) on the side of the tea table body (511) facing the island main body (10). The tea table body (511) is provided with one or more limiting structures (512) for placing cups. When the tea table body (511) is in the initial position, the tea table body (511) is attached to the top surface of the island main body (10). When the tea table body (511) is in one of the multiple second working positions, one end of the tea table body (511) is rotated to the outside of the island main body (10). When the tea table body (511) is in another of the multiple second working positions, the projection of the side of the tea table body (511) facing the top surface of the island main body (10) is located on the top surface of the island main body (10).

13. The multifunctional island platform device according to claim 3, characterized in that, The island platform body (10) has multiple mounting cavities, which are spaced apart along the height direction of the island platform body (10). The multifunctional island platform device further includes: The drawers (60) are multiple, and the multiple drawers (60) are arranged one-to-one with the multiple mounting cavities. Each drawer (60) is movably disposed in the mounting cavity, and the pulling direction of at least one of the multiple drawers (60) is opposite to the pulling direction of the other drawers (60), so that the multiple drawers (60) can be pulled out to the open position in multiple directions of the island body (10), and the multiple drawers (60) can be pushed to the closed position in multiple directions; When the flip table assembly (20) is located in the first storage position, a flip table assembly (20) is provided on each side of the drawer (60) along its length. The lifting mechanism (52) is located on one side of the top end of the drawer (60), and the drawer (60) at the top can be pulled out from the side away from the lifting mechanism (52) to the open position and the closed position.

14. The multifunctional island platform device according to claim 13, characterized in that, Each of the drawers (60) is provided with a drive part (61) and a guide part (62). The guide part (62) is movably connected to the side wall of the island body (10). One end of the drive part (61) is connected to the island body (10), and the other end of the drive part (61) is connected to the drawer (60). The drive part (61) is used to drive the drawer (60) to move along the length direction of the guide part (62) to the open position and the closed position. The guide parts (62) are arranged parallel to each other.

15. The multifunctional island platform device according to claim 1, characterized in that, The island body (10) has a third storage location located below the dashboard (40) of the vehicle's cab, and the island has a third working location on a side away from the dashboard (40), wherein the third working location is one or more.

16. The multifunctional island platform device according to claim 15, characterized in that, The island has at least one of a charging mode, a storage mode, a tea break mode, and a dining mode, wherein when the island is in the charging mode, the island is located in the third storage position. The island is located in the storage mode, the island is located between the driver's seat and the passenger seat, and part of the island body (10) is located below the instrument panel (40); When the island is in the tea break mode, the island is located between the driver's seat and the passenger seat, and the main body (10) of the island is located outside the instrument panel (40); When the island is in the dining mode, the island is located between the driver's seat and the passenger seat, and the island body (10) is located outside the instrument panel (40), and the flip table assembly (20) on the island body (10) is located in the first working position.

17. The multifunctional island platform device according to claim 1 or 2, characterized in that, The multifunctional island platform device also includes: A cleaning device (70) is provided at the bottom of the island main body (10), wherein the island main body (10) is freely movable inside the vehicle, and a dust suction port (72) is provided at the bottom of the cleaning device (70). The cleaning device (70) is used to clean the floor of the vehicle.

18. A vehicle, characterized in that, The vehicle has a multi-functional island platform device, which is the multi-functional island platform device according to any one of claims 1-17.

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