Cabin storage assembly and vehicle

Abstract

The utility model provides a cabin storage assembly and a vehicle, and belongs to the technical field of storage, the cabin storage assembly comprises a storage structure, a carrier for installing the storage structure and a lifting component for supporting the lifting of the storage structure, and different assembly blocks outside the storage structure have multiple functions. During adjustment, the lifting assembly drives the storage structure to ascend to be separated from the carrier, so that a user twists the storage structure conveniently, and the assembly blocks, with different functions, of the storage structure are located on the uppermost layer. During use, the lifting assembly drives the storage structure to descend and be hidden in the carrier, and the upper surface of the storage structure in the carrier provides required functions. According to the scheme, adjustment and combination of different functions can be conveniently achieved through the storage structure and the lifting assembly, and the function range of the cabin storage assembly is expanded.

Description

TECHNICAL FIELD

[0001] The utility model relates to a storage technology field especially a cockpit storage assembly and vehicle. BACKGROUND

[0002] The storage structure is a common structure in the cockpit of a vehicle, for example, the vice-instrument panel position of the front row of the vehicle and the armrest box position of the rear row of the vehicle, which are respectively integrated with different storage functions such as a cup holder, a key box or a tissue box. At this time, the vice-instrument panel and the armrest box serve as the installation carrier of the storage structure.

[0003] However, in the related technical solution, although the movement of the storage movable block changes the storage mode of the storage structure, the movement range and movement mode of the storage movable block are limited, and each surface of the storage movable block cannot provide different storage or charging and other functions. SUMMARY

[0004] The utility model provides a cockpit storage assembly and vehicle can solve one of the above technical problems.

[0005] To solve the above technical problems, one or more embodiments of the utility model provide a cockpit storage assembly, which comprises a storage structure, a carrier for installing the storage structure, and a lifting assembly for lifting the storage structure. The storage structure comprises an internal structure and an external structure. The external structure of the storage structure is a plurality of assembly blocks, and the plurality of assembly blocks are mutually spliced. The plurality of mounting blocks have outward functional surfaces, and the functional surfaces participate in forming the external surface of the storage structure. According to the different functions of the functional surfaces of the assembly blocks, the plurality of assembly blocks are different in function. The carrier has a mounting groove for accommodating the storage structure, and the cockpit storage assembly has an adjustment state and a use state.

[0006] In the adjustment state, the lifting assembly lifts the storage structure to be higher than the mounting groove to avoid the side wall of the mounting groove hindering the twisting of the storage structure. At this time, the user can twist the storage structure to adjust the required type of assembly block to the uppermost layer of the storage structure, and the upper surface of the corresponding uppermost layer of the storage structure is the required functional surface.

[0007] In the use state, the lifting assembly lowers the storage structure, and at least part of the structure is accommodated in the mounting groove, so as to hide the storage structure in the interior of the carrier and reduce the space occupation of the storage structure. At this time, the upper surface of the storage structure provides the required function.

[0008] Compared with the storage movable block capable of only rotating and moving in one direction in the prior art, the storage structure in the scheme can preset different functions at different assembly blocks of multiple surfaces, and then the rotation of the storage structure can make the assembly blocks with different functions move to the uppermost layer of the storage structure, so as to provide the required functions. In addition, the storage structure is installed in the mounting groove of the carrier through the lifting assembly, so as to realize the hiding of the storage structure in the mounting groove in the use state, reduce the space occupation, and also make the storage structure separate from the mounting groove in the adjustment state, so as to avoid the influence of the limited space of the mounting groove on the rotation adjustment of the storage structure.

[0009] In summary, the combination of the storage structure, the lifting assembly and the carrier can make the storage structure provide more types of storage functions and reduce the adjustment difficulty of the storage assembly.

[0010] Further, the carrier is a secondary instrument panel of a vehicle, and the upper end of the storage structure is lower than the secondary instrument panel in the use state of the cabin storage assembly. The lower end of the storage structure is higher than the secondary instrument panel in the adjustment state of the cabin storage assembly. In use, the upper surface of the secondary instrument panel serves as the upper boundary surface of the storage assembly, and the mounting groove in the secondary instrument panel has at least two side wall surfaces perpendicular to the width direction of the vehicle and limiting the position of the storage structure.

[0011] In the scheme, when the carrier is the secondary instrument panel, no additional carrier needs to be arranged in the cabin, and the common functions of the assembly blocks in the storage structure can be arranged at positions easily reached by the driver and the copilot, so as to improve the convenience of use of the storage assembly. In addition, the storage assembly in the use state is not higher than the secondary instrument panel, which ensures the integrity of the overall cabin space and avoids the storage assembly from hindering the normal activities of the driver and the copilot. In the adjustment state, the lower end of the storage structure is higher than the secondary instrument panel, which can avoid the side walls of the secondary instrument panel from hindering the rotation of the storage structure, and the rising of the storage structure makes it closer to the driver or the copilot, reducing the difficulty of the driver or the copilot in rotating the storage structure.

[0012] Further, the assembly blocks in the uppermost layer of the storage structure can provide different functions respectively, or the assembly blocks in the uppermost layer can be combined to provide the required functions. This not only facilitates the provision of functions occupying a larger space by the combination of the assembly blocks in the uppermost layer, but also enables the provision of multiple different types of functions occupying a smaller space in the uppermost layer. This facilitates the diversification of the functions provided by the uppermost layer of the storage structure. Taking a two-stage storage structure as an example, the four assembly blocks in the uppermost layer have four upper surfaces, and the four assembly blocks can provide the same function, such as four decorative plates. The four assembly blocks can also be combined into two cup holders, so that the upper surface of the storage structure forms two cup holders. The upper surfaces of the four assembly blocks can also be combined into one cup holder with a larger size.

[0013] Further, the lifting assembly is arranged in the mounting groove, and the lifting assembly is arranged at the center of the mounting groove, and the lifting assembly is not higher than the mounting groove. In use, the lifting assembly is supported by the mounting groove, and the upper end of the lifting assembly is connected with the storage structure.

[0014] In the scheme, the lifting assembly arranged in the mounting groove can be hidden in the mounting groove, thereby avoiding exposure of the lifting assembly in the cabin interior, and maintaining the cleanliness of the cabin interior space.

[0015] Further, the guiding piece for guiding the lifting of the storage structure is further included, the lifting assembly includes a lead screw and a motor for driving the rotation of the lead screw, the storage structure has a vertical screw hole, and the lead screw is matched with the screw hole.

[0016] In the scheme, the guiding assembly can cooperate with the rotation of the lead screw, so that the lead screw cannot drive the synchronous rotation of the storage structure and cannot drive the lifting of the storage structure. The lead screw and the motor are used as the lifting assembly, the lead screw itself does not need to be lifted vertically, thereby reducing the vertical space occupation of the lifting assembly in the mounting groove, and facilitating the miniaturization of the entire storage assembly.

[0017] Further, the guiding piece includes a guiding rod arranged in the mounting groove, the guiding rod is matched with the vertical gap of the adjacent assembly block on the side surface of the storage structure, and the guiding rod can be lifted to be higher or lower than the upper end of the mounting groove.

[0018] This arrangement can avoid opening a guiding groove matched with the guiding rod on the storage structure, thereby facilitating the structural integrity of the storage structure. In addition, the guiding rod can be lifted to be higher or lower than the upper end of the mounting groove. In the use state, the guiding rod is lowered to be lower than the upper end of the mounting groove to be hidden by the mounting groove, thereby maintaining the cleanliness of the cabin space. In the adjustment state, the guiding rod is separated from the storage structure, thereby avoiding the guiding rod from hindering the rotation of the storage structure. When the adjustment state is converted to the use state, the lifting of the guiding rod is used to make the guiding rod contact the storage structure again, thereby avoiding the idle rotation of the storage structure driven by the lead screw.

[0019] Further, the storage structure has an inner layer and an outer layer, the inner layer has the screw hole, the outer layer includes the assembly block, and the lead screw is connected with the screw hole of the inner layer after penetrating through the outer layer from the lower end of the storage structure. The gap between the adjacent assembly blocks is greater than the outer diameter of the lead screw.

[0020] In the scheme, the storage structure can provide corresponding storage functions while reducing the difficulty of screwing the corresponding functional module to the uppermost layer of the storage structure, so that the driver or passenger can quickly adjust the function provided by the storage structure. In addition, the gap between adjacent assembly blocks is greater than the outer diameter of the lead screw. At this time, it is convenient to use the large gap between adjacent assembly blocks to realize the avoidance of the lead screw, so as to avoid the lead screw from hindering the mutual screwing of the assembly blocks in the storage structure.

[0021] Further, the inner layer of the storage structure includes a spherical shell and a ball fixed in the spherical shell, the surface of the spherical shell has a plurality of annular guide grooves penetrating through itself, and the assembly block is provided with a guide block matched with the guide groove.

[0022] This arrangement facilitates the use of the guide block and the guide groove to guide the rotation of the assembly block relative to the inner layer spherical shell. And it is convenient to use the gap space between the spherical shell and the ball in the inner layer to limit the radial movement of the guide block along the spherical shell, so as to avoid the assembly block from being separated from the inner layer when rotating relative to the inner layer.

[0023] Further, the spherical shell includes a plurality of shell plates, the guide grooves are between adjacent shell plates, and the shell plates are fixed with the ball through connecting columns.

[0024] This arrangement facilitates the combination of the spherical shell by a plurality of shell plates manufactured in multiple parts. Compared with machining the whole spherical shell, the scheme can greatly reduce the manufacturing difficulty of the spherical shell, and does not need to additionally machine the guide groove on the spherical shell.

[0025] Further, the plurality of assembly blocks are respectively provided with, but not limited to, one of the following modules: a cup holder module, a storage box module, a table plate module, a chessboard module and a decorative module.

[0026] This arrangement can facilitate the use of the storage assembly to store large-size objects such as water cups, and also facilitate the use of the storage box module to store small-size objects; and can also provide corresponding functions such as chess game, greatly enriching the functions of the cabin storage assembly mainly based on the storage structure. And it is convenient to block the assembly block with the decorative module above the mounting groove when used for a long time, so as to avoid the cabin or dust from entering the mounting groove of the carrier and the assembly block providing storage function.

[0027] One or more embodiments of the utility model also provide a vehicle, which comprises the cabin storage assembly, the carrier and the storage structure are installed in the cabin of the vehicle. In this embodiment, the vehicle is based on the above-mentioned cabin storage assembly, and the beneficial effects of the two are the same, which will not be repeated here.

[0028] The beneficial effects of one or more technical solutions above are:

[0029] The scheme sets the installation groove in the carrier, sets the storage structure capable of lifting in the installation groove, sets different functions on each assembly block of the storage structure respectively, and facilitates providing the required function by screwing the upper layer of the storage structure. That is, the scheme can provide more storage functions by cooperation of each block of the storage structure without affecting the original space layout of the cockpit. BRIEF DESCRIPTION OF DRAWINGS

[0030] Figure 1 It is the axial side schematic view of the storage structure and the lifting assembly cooperation in the embodiment of the utility model;

[0031] Figure 2 It is the axial side schematic view of the storage structure in the embodiment of the utility model;

[0032] Figure 3 It is the axial side schematic view after removing part of the assembly block in the embodiment of the utility model;

[0033] Figure 4 It is the schematic view of the single assembly block and the inner layer cooperation in the embodiment of the utility model;

[0034] Figure 5 It is Figure 4 It is the structure enlarged schematic view of part A in the embodiment of the utility model;

[0035] Figure 6 It is the schematic view of the split shell plate and the spherical shell cooperation in the embodiment of the utility model;

[0036] Figure 7 It is the schematic view of the storage structure descending to hide in the installation groove in the embodiment of the utility model;

[0037] Figure 8 It is the schematic view of the storage structure ascending to separate from the installation groove in the embodiment of the utility model.

[0038] In the drawing, 1, storage structure; 2, carrier; 3, installation groove; 4, assembly block; 5, sub side; 6, guide groove; 7, guide block; 8, screw; 9, motor; 11, vertical gap; 12, guide rod; 13, electric push rod; 14, cup holder; 15, inner layer; 16, outer layer; 17, spherical shell; 1701, split shell plate; 18, ball; 19, connecting column; 21, paper towel groove. DETAILED DESCRIPTION

[0039] In order to clearly illustrate the technical features of the scheme, the utility model is described in detail below through specific implementation mode, and combined with its drawings.

[0040] In order to clearly illustrate the technical features of the scheme, the utility model is described in detail below through specific implementation mode, and combined with its drawings.

[0041] One of the related technical solutions is a storage structure with horizontal and vertical cup holder switching function. The storage structure comprises a box body and a storage movable block installed in the inner cavity of the box body. The storage movable block can move forward and backward and rotate by 90 degrees to realize the position adjustment of the cup holder on the storage movable block. When the cup holder is horizontally placed, more storage space is left out. When the cup holder is vertically placed, the water cup is easier to take, and the storage movable block is integrated with a paper towel groove for storing paper towels. However, in the above technical solution, the movement range and mode of the storage movable block are limited, and each surface of the storage movable block cannot provide different storage or charging functions.

[0042] In some other technical solutions, a storage structure is used as a carrier for storing articles. The storage structure comprises a plurality of corner blocks. The outer surface of each corner block is provided with a warehouse door, and each corner block is provided with an inner cavity for storing articles. The inner cavity can be opened and closed by opening and closing the warehouse door to take and place the corresponding articles. In this technical solution, the storage structure is basically used as a storage cabinet. However, the storage structure cannot be placed in other carriers, otherwise it will affect the twisting range of the storage structure, and it will not be convenient to twist the required corner block to the position close to the user for taking, which will cause the failure of the storage structure. In addition, in this technical solution, the storage structure is only used to provide the storage function to the user, and the storage structure does not have a pre-stored corresponding functional module, so it cannot provide more abundant use functions to the user by using its own functional module.

[0043] It should be noted that the outer surface of the storage structure of the present application is composed of a plurality of side surfaces, but each side surface is formed by splicing and combining the outward surface of a single small block (assembly block in this embodiment). Therefore, the outer side surface of a single assembly block is defined as a sub-side surface.

[0044] As shown in Figures 1-8 In order to provide more abundant storage functions to the driver or passenger in the vehicle cabin by using the storage structure 1, and to facilitate the quick adjustment and combination of the functions of the storage structure 1, one or more embodiments of the present application provide a cabin storage assembly, which comprises a storage structure 1 and a carrier 2 for mounting the storage structure 1. The outer surface of the storage structure 1 is formed by splicing a plurality of assembly blocks 4, and the plurality of assembly blocks 4 are divided into a plurality of types with different functions. The carrier 2 has a mounting groove 3 for accommodating the storage structure 1. The storage structure 1 is supported by a lifting assembly. The cabin storage assembly has an adjustment state and a use state. In the adjustment state, the lifting assembly drives the storage structure 1 to rise above the mounting groove 3, and the storage structure 1 can be twisted to adjust the required type of assembly block 4 to the uppermost layer of the storage structure 1. In the use state, the lifting assembly drives the storage structure 1 to descend at least partially into the mounting groove 3, and the upper surface of the storage structure 1 provides the required function.

[0045] As a specific structural form, the specific structural form of the storage structure in the embodiment can be similar to a Rubik's Cube, and each module outside the Rubik's Cube can be combined by twisting to make each side of the Rubik's Cube reach the combination mode desired by the user.

[0046] Taking the storage structure similar to a Rubik's Cube as an example, the storage structure is preferably a cube, and the storage structure 1 has six different sides, each of which is composed of the same block, i.e., the assembly block 4 in the embodiment. For example, the storage structure 1 can be a structure similar to a two-order Rubik's Cube or a three-order Rubik's Cube. When the storage structure 1 in the embodiment is similar to a two-order Rubik's Cube, it has eight assembly blocks 4, which are respectively corner blocks of the storage structure 1, and the eight corner blocks can provide sixteen sub-sides 5. When the storage structure 1 in the embodiment is similar to a three-order Rubik's Cube, it has twenty-six assembly blocks 4, which are divided into six center blocks, eight corner blocks and twelve edge blocks; the twenty-six assembly blocks 4 can provide fifty-four sub-sides 5.

[0047] For the storage structure 1, the assembly block 4 can have a single function, i.e., the assembly block 4 has one or more sub-sides 5 that form the outer surface of the storage structure 1, and the sub-sides 5 can provide the same function. For example, a certain assembly block 4 provides a storage box function, and the assembly block 4 has two outward sub-sides 5, each of which is provided with a sub-compartment door that can be opened and closed to open and close the storage cavity inside the assembly block 4.

[0048] Alternatively, in other embodiments, each assembly block 4 can have multiple functions. For example, for the corner block at the edge corner of the storage structure 1, it has three outward sub-sides that participate in forming the outer surface of the storage structure 1. At this time, the three sub-sides are respectively provided with different functions, one of which is used to install a sub-compartment door that communicates with the storage cavity of the assembly block 4, another is used to install a cup holder 14 that supports a water cup, and the last one is used to paste a corresponding picture to provide a decorative function by using the storage structure 1.

[0049] Alternatively, in other embodiments, the storage structure 1 can be a non-cubic structure, where the storage structure 1 can be similar to a Rubik's Cube, for example, the storage structure 1 has eight sides or twelve sides. It can be known that the number of assembly blocks 4 in the storage structure 1 increases, and the number of sides of the storage structure 1 increases, and the number of assembly blocks 4 in the storage structure 1 and the combination thereof increase, which facilitates providing more functions by using the storage structure 1. However, the increase in the number of assembly blocks 4 in the storage structure 1 and the increase in the number of sides of the storage structure 1 will increase the difficulty of adjusting each assembly block 4 in the storage structure 1. Therefore, the designer of the storage assembly and the user of the vehicle cab should reasonably select the number of assembly blocks 4 of the storage structure 1 and the number of sides of the storage structure 1 according to individual needs, so as to balance the needs of convenient twisting adjustment and providing more functions.

[0050] In the present embodiment, the storage structure 1 is not convenient to be suspended in the cabin of the vehicle, and thus needs to be installed and hidden by using the carrier 2. Preferably, the carrier 2 here is the original structure in the vehicle cabin, and a corresponding mounting groove 3 is arranged at the carrier 2, so that the storage structure 1 is retracted and hidden inside the carrier 2 when in use. The bottom surface of the mounting groove 3 is used to support the bottom surface of the storage structure 1, and the opening of the mounting groove 3 faces upward, so that the upper end opening of the mounting groove 3 facilitates the exposure of the uppermost assembly block 4 of the storage structure 1, and the mounting groove 3 or even the carrier 2 does not affect the uppermost layer of the storage structure 1 to provide corresponding functions to the user. Preferably, the cross-sectional shape and size of the mounting groove 3 are adapted to the cross-sectional shape and size of the storage structure 1, respectively. For example, the storage structure 1 is a cube, and the inner space of the mounting groove 3 is generally in the form of a cuboid or a cube. For another example, the storage structure 1 is a regular dodecahedron, and in order to facilitate the lifting of the storage structure 1 in the mounting groove 3, the cross-sectional profile of the mounting groove 3 is generally the same as the profile of the largest cross section of the storage structure 1.

[0051] The above-mentioned storage structure 1 is supported by the lifting assembly, and the lifting assembly can drive the storage structure 1 to rise vertically to be higher than the mounting groove 3 and the carrier 2, at which time the storage structure 1 is completely exposed outside the carrier 2, which needs to occupy additional space, but facilitates the user to twist the storage structure 1 to provide the user with more operating space and better operating view. When the lifting assembly drives the storage structure 1 to descend to at least partially accommodate in the mounting groove 3 (generally, the storage structure 1 is completely accommodated in the mounting groove 3 to facilitate its own hiding), each side surface of the storage structure 1 is in contact with or has a small gap with the inner wall of the mounting groove 3; and except for the uppermost layer, the user's view cannot observe the condition of each side of the storage structure 1, which is not convenient for twisting the storage structure 1.

[0052] However, it should be noted that the storage structure 1 and the cabin storage assembly formed by the storage structure 1 are in use state most of the time, and only in the adjustment state for a short period of time. That is, in the case of using the original structure in the cabin as the carrier 2 to install the storage structure 1, the storage structure 1 will not occupy additional space in the cabin and affect the normal driving or riding of the cabin passengers.

[0053] In the adjustment state, the lifting assembly drives the storage structure 1 to rise above the mounting groove 3 to avoid the side wall of the mounting groove 3 hindering the twisting of the storage structure 1, at which time the user can twist the storage structure 1 to adjust the required type of assembly block 4 to the uppermost layer of the storage structure 1, and the upper surface of the corresponding uppermost layer of the storage structure 1 is the required functional surface.

[0054] Specifically, each function of the assembly block 4 is provided by its sub-side 5, and when adjusting the corresponding assembly block 4 to the uppermost layer of the storage structure 1, the sub-side 5 of the assembly block 4 also needs to be adjusted to the uppermost layer of the storage structure 1. For example, a certain assembly block 4 provides a storage box function, and the assembly block 4 is only provided with a storage box door at one of the sub-sides 5, and the sub-side 5 with the door needs to be adjusted to the uppermost end of the storage structure 1. In the use state, the lifting assembly drives the storage structure 1 to descend to hide the storage structure 1 inside the carrier 2 and reduce the space occupation of the storage structure 1, at which time the upper surface of the storage structure 1 provides the required function.

[0055] Compared with the above-mentioned storage mechanism with a storage movable block as the storage core, the storage movable block can only rotate and move in one direction. The storage structure 1 in this scheme can be pre-set with different functions at different assembly blocks 4 of multiple surfaces, and then use the twisting of the storage structure 1 to move the assembly blocks 4 with different functions to the uppermost layer of the storage structure 1 to provide the required function. In addition, the storage structure 1 is installed in the mounting groove 3 of the carrier 2 by the lifting assembly, which facilitates the hiding of the storage structure 1 in the mounting groove 3 in the use state to reduce the space occupation, and also enables the storage structure 1 to be separated from the mounting groove 3 in the adjustment state to avoid the limited space of the mounting groove 3 affecting the twisting adjustment of the storage structure 1. In summary, the combination of the storage structure 1, the lifting assembly and the carrier 2 enables the storage structure 1 to provide more types of storage functions and reduce the adjustment difficulty of the storage module.

[0056] In this embodiment, the carrier 2 is the auxiliary instrument panel of the vehicle, and in the use state, the upper end of the storage structure 1 is lower than the auxiliary instrument panel. In the adjustment state, the lower end of the storage structure 1 is higher than the auxiliary instrument panel.

[0057] Specifically, the sub-instrument panel is arranged between the main driver seat and the co-driver seat of the vehicle, and the sub-instrument panel is also provided with some control buttons, display areas, and operation handlebars of the vehicle. In addition, the sub-instrument panel itself is provided with an upward storage groove, which has a cover plate that can be opened and closed, and a cup holder and a paper towel box, a key box, and the like arranged in the groove. In the case of taking the sub-instrument panel as the carrier 2, the storage groove in the original position of the sub-instrument panel can be used as the mounting groove 3. Alternatively, the mounting groove 3 is part of the storage groove, and the remaining space of the other part of the storage groove is still used as a storage space for paper towels, keys, and the like.

[0058] In the present scheme, when the carrier 2 is the sub-instrument panel, there is no need to additionally arrange a corresponding carrier 2 in the cabin, and the common functions of the storage structure 1 can be arranged in positions easily reached by the driver and the co-driver, thereby improving the convenience of using the storage assembly. In addition, the storage assembly in the use state is not higher than the sub-instrument panel, ensuring the integrity of the overall cabin space and avoiding the storage assembly from hindering the normal activities of the driver and the co-driver. In the adjustment state, the lower end of the storage structure 1 is higher than the sub-instrument panel, which can avoid the side wall of the sub-instrument panel hindering the rotation of the storage structure 1, and the rising of the storage structure 1 makes it closer to the driver or the co-driver, thereby reducing the difficulty of twisting the storage structure 1.

[0059] In some other embodiments, the carrier 2 can be a handrest box in the rear row of the vehicle. The handrest box is arranged between adjacent seats in the rear row of the vehicle and is higher than the bottom surface of the rear row seats. The handrest box is also provided with a storage groove for articles and a cover plate rotatably arranged above the storage groove. The storage groove of the handrest box can be used as the mounting groove 3, or the mounting groove 3 is part of the structure of the storage groove.

[0060] In the present embodiment, the assembly blocks 4 on the uppermost layer of the storage structure 1 can provide different functions, respectively, or a plurality of assembly blocks 4 on the uppermost layer can be combined to provide the required functions.

[0061] Specifically, taking one of the storage structures as an example, when four cup holders 14 are required on the uppermost layer, the sub-sides 5 of the corresponding assembly blocks 4 are rotated to the top surface of the storage structure 1. At this time, the four sub-sides 5 of the four assembly blocks 4 are respectively provided with one cup holder 14. It can be seen that the area of the uppermost layer of the storage structure 1 is limited, and in the case of requiring multiple functions, each function occupies a smaller space. Therefore, when four cup holders 14 are required on the uppermost layer of the storage structure 1, the size of each cup holder 14 is relatively small. For example, when a single large cup holder function is required on the uppermost layer to hold a large-size thermos, the sub-sides 5 of the corresponding assembly blocks 4 are rotated to the top surface of the storage structure 1. At this time, the four sub-sides 5 each have part of the structure of a large cup holder, and the four sub-sides 5 together enclose a large cup holder.

[0062] That is, the functions provided by the adjacent assembly blocks 4 in the embodiment can be the same or different. It is convenient to provide a function occupying a relatively large space size by using the combination of the uppermost multiple assembly blocks 4, and a plurality of different types of functions occupying a relatively small space size can be provided on the uppermost layer, so as to facilitate the diversification of the functions provided by the uppermost layer of the storage structure 1.

[0063] In the embodiment, the lifting assembly is arranged in the mounting groove 3, and the lifting assembly is arranged at the center of the mounting groove 3. The lifting assembly is not higher than the mounting groove 3. As one of the specific structural forms, the lifting assembly is supported by the bottom surface of the mounting groove 3, and the upper end of the lifting assembly is connected with the storage structure 1. In other structural arrangements, the lifting assembly can be supported by the side surface of the mounting groove 3. At this time, the lifting assembly has a certain gap with the bottom surface of the mounting groove 3, and the shell of the lifting assembly is fixed with the side surface of the mounting groove 3 by means of adhesion or bolt connection. In the embodiment, the lifting assembly arranged in the mounting groove 3 can be hidden in the mounting groove 3, thereby avoiding the exposure of the lifting assembly in the cabin interior and maintaining the neatness of the cabin interior space.

[0064] The embodiment provides a specific structural form of the lifting assembly: the lifting assembly is a lead screw nut assembly and a motor 9 driving the rotation of the lead screw 8. As known, when the lead screw nut assembly is used, a corresponding guide member needs to be provided to avoid the synchronous rotation of the corresponding nut member driven by the lead screw 8. That is, in the embodiment, a guide member guiding the lifting of the storage structure 1 needs to be provided. The lifting assembly includes the lead screw 8 and the motor 9 driving the rotation of the lead screw 8. The storage structure 1 has a vertical screw hole. The lead screw 8 cooperates with the screw hole. At this time, the storage structure 1 realizes the nut function without the need for additional nut.

[0065] Specifically, the motor 9 is arranged at the lower part of the lead screw 8 and is arranged in the mounting groove 3. At this time, the lower end of the motor 9 is supported by the bottom wall of the mounting groove 3. Alternatively, the motor 9 is arranged below the mounting groove 3. The upper end of the shell of the motor 9 is attached to the lower end of the mounting groove 3. The output shaft of the motor 9 penetrates into the mounting groove 3 in the upward direction and is fixed coaxially with the lead screw 8 in the mounting groove 3. The output shaft of the motor 9 can be fixed with the lead screw 8 by welding or through a shaft coupling.

[0066] In the embodiment, the cooperation of the guide member with the lead screw 8 and the motor 9 in the lifting assembly can facilitate the lifting of the storage structure 1. The guide assembly can cooperate with the rotation of the lead screw 8 to avoid the synchronous rotation of the storage structure 1 driven by the lead screw 8 and to avoid the lifting of the storage structure 1. By using the lead screw 8 and the motor 9 as the lifting assembly, the lead screw 8 itself does not need to be lifted vertically, thereby reducing the vertical space occupation of the lifting assembly in the mounting groove 3 of the carrier 2 and facilitating the miniaturization of the entire storage assembly.

[0067] In this embodiment, the guide member includes a guide rod 12 arranged in the mounting groove 3, which is in abutment with the vertical gap 11 of the assembly block 4 adjacent to the side of the storage structure 1, and can be lifted to be higher or lower than the upper end of the mounting groove 3. This arrangement can avoid the need to open a guide groove 6 in the storage structure 1 to cooperate with the guide rod 12, thereby facilitating the maintenance of the structural integrity of the storage structure 1. In addition, the guide rod 12 can be lifted to be higher or lower than the upper end of the mounting groove 3. This makes it convenient for the guide rod 12 to be lowered to be lower than the upper end of the mounting groove 3 in the use state, so as to be hidden by the mounting groove 3 and maintain the neatness of the cabin space. In the adjustment state, it is convenient for the guide rod 12 to be separated from the storage structure 1, so as to avoid the guide rod 12 from interfering with the rotation of the storage structure 1. When switching from the adjustment state to the use state, it is convenient for the guide rod 12 to be lifted to make the guide rod 12 re-contact the storage structure 1, so as to avoid the idle rotation of the storage structure 1 driven by the lead screw 8.

[0068] Specifically, the guide rod 12 is controlled to be lifted by an electric push rod 13, which has a first height position and a second height position, and the first height position is higher than the second height position. When the storage structure 1 is arranged in the mounting groove 3, the guide rod 12 is in the second height position and is not higher than the mounting groove 3. When the storage structure 1 is lifted to be just higher than the mounting groove 3 at the lower end surface thereof, in order to continue to cooperate with the lead screw 8 to realize the guiding, the guide rod 12 is lifted to the first height position at this time. When the storage structure 1 needs to be rotated, the guide rod 12 is lowered to the second height position, which is not higher than the mounting groove 3, so as to be separated from the contact with the storage structure 1. When the storage structure 1 needs to be lowered, the guide rod 12 is lifted to the first height position, so as to re-realize the guiding of the storage structure 1.

[0069] Taking a specific storage structure as an example, the storage structure has four vertical side surfaces, and two vertical side surfaces (for example, two side surfaces in the vertical vehicle width direction) are respectively formed by the front and rear two pairs of assembly blocks 4 to form vertical gaps 11, and the inner gap surfaces of the vertical gaps 11 are in abutment with the outer side surfaces of the guide rods 12, so as to facilitate the realization of the guiding. At this time, it is equivalent to that the storage structure 1 is clamped between the left and right guide rods 12.

[0070] In some other embodiments, the lifting assembly can adopt an electric push rod, and at this time, the housing part of the electric push rod is arranged below the mounting groove 3, the telescopic rod of the electric push rod extends upward and is arranged in the mounting groove 3, and the upper end of the telescopic rod supports the storage structure 1. Alternatively, the lifting assembly can also adopt a pneumatic cylinder, and the cylinder body of the pneumatic cylinder is arranged below the mounting groove 3, and the piston rod of the pneumatic cylinder extends upward from below to the inside of the mounting groove 3 and supports the storage structure 1.

[0071] It is known that when the lifting assembly adopts the combination of the lead screw 8 and the motor 9, a connection relationship is needed between the lead screw 8 and the motor 9, that is, a nut needs to be arranged in the storage structure 1, or a wire hole connected with the lead screw 8 is formed in the storage structure 1 itself. When the lifting assembly adopts the electric push rod or the air cylinder, the upper end of the electric push rod or the air cylinder can be fixed with a supporting flat plate, at this time, the lifting assembly only provides a supporting function, and the entire lifting assembly can be completely taken out of the mounting groove 3.

[0072] In the embodiment, the storage structure 1 has an inner layer 15 and an outer layer 16, the inner layer 15 has the wire hole, and the outer layer 16 includes the assembly block 4. The lead screw 8 passes through the outer layer 16 from the lower end of the storage structure 1 and is connected with the wire hole of the inner layer 15. The gap between the adjacent assembly blocks 4 is greater than the outer diameter of the lead screw 8. That is, the storage structure can provide the corresponding storage function, reduce the difficulty of screwing the corresponding function module to the uppermost layer of the storage structure 1, and facilitate the driver or passenger to quickly adjust the function provided by the storage structure 1. In addition, the gap between the adjacent assembly blocks 4 is greater than the outer diameter of the lead screw 8. At this time, it is convenient to use the large gap between the adjacent assembly blocks 4 to realize the avoidance of the lead screw 8, so as to avoid the lead screw 8 from hindering the mutual screwing of the assembly blocks 4 in the storage structure 1.

[0073] In the embodiment, the inner layer 15 of the storage structure 1 includes a spherical shell 17 and a ball 18 fixed in the spherical shell 17. The surface of the spherical shell 17 has a plurality of annular guide grooves 6 penetrating through itself, and the assembly block 4 is provided with a guide block 7 matched with the guide groove 6. This arrangement facilitates the use of the cooperation of the guide block 7 and the guide groove 6 to guide the rotation of the assembly block 4 relative to the spherical shell 17 in the inner layer 15. And it is convenient to use the gap space between the spherical shell 17 and the ball 18 in the inner layer 15 to limit the radial position of the guide block 7 along the spherical shell 17, so as to avoid the assembly block 4 from being separated from the inner layer 15 when rotating relative to the inner layer 15.

[0074] Specifically, the spherical shell 7 includes a plurality of shell plates 1701, and the plurality of shell plates 1701 are fixedly connected with the ball 7 through the connecting column 19.

[0075] Specifically, the lead screw 8 passes through the center of the four assembly blocks 4 in the lowermost layer and the guide groove 6 on the spherical shell 17 and is fixed with the wire hole in the ball 18. At this time, the installation position of the lead screw 8 is in the center of the lowermost layer of the storage structure. In the embodiment, the plurality of assembly blocks 4 are respectively provided with but not limited to one of the following modules: a cup holder module, a wireless charging module, a storage box module, a table plate module, a chessboard module and a decoration module. Figure 1 The cup holder 14 and the paper towel groove 21 are shown, and the remaining wireless charging module and the like are arranged by the person skilled in the art, which will not be described here.

[0076] The storage structure 1 can store large-size objects such as a cup, and can also store small-size objects by using the storage box module; the storage structure 1 can also be used for charging and chess playing, and the functions of the storage structure 1 are greatly enriched. When the storage structure 1 is used for a long time, the assembly block 4 with the decoration module is blocked above the mounting groove 3, so that the mounting groove 3 and the assembly block 4 of the carrier 2 are prevented from being filled with dust and providing storage functions.

[0077] It is known that in other embodiments, the components supported by the inner layer 15 of the storage structure 1 and the specific screwing structure of the assembly of the outer layer 16 of the storage structure 1 and the inner layer 15 can be set by those skilled in the art according to the prior art, and will not be described here.

[0078] One or more embodiments of the utility model also provide a vehicle, which comprises the cockpit storage assembly, the carrier 2 and the storage structure 1 are installed in the cockpit of the vehicle. The vehicle can be a passenger car or a commercial vehicle, and the specific structure can be set by those skilled in the art, and will not be described here.

[0079] The specific embodiments described above cannot be used as a limitation on the protection scope of the utility model, and any alternative improvement or change made by those skilled in the art to the embodiments of the utility model falls within the protection scope of the utility model.

[0080] The parts not described in the utility model are known to those skilled in the art.

Claims

1. A cockpit storage assembly, comprising: The application relates to a carrier and a storage structure, wherein the storage structure is formed by a plurality of assembly blocks, the carrier has a mounting groove for accommodating the storage structure, the storage structure is supported by a lifting assembly, and the cockpit storage assembly has an adjusting state and a using state. In the adjusting state, the lifting assembly drives the storage structure to rise above the mounting groove, and the storage structure can be twisted to adjust the assembly blocks of a required type to the uppermost layer of the storage structure. In the using state, the lifting assembly drives the storage structure to descend to a state that at least part of the structure is accommodated in the mounting groove, and the upper surface of the storage structure provides a required function.

2. The cockpit storage assembly of claim 1, wherein, The carrier is a sub-instrument panel of a vehicle, the lower end of the storage structure is higher than the sub-instrument panel in the adjusting state of the cockpit storage assembly, and the upper end of the storage structure is lower than the sub-instrument panel in the using state of the cockpit storage assembly.

3. The cockpit storage assembly of claim 1, wherein, The lifting assembly is arranged in the center of the mounting groove and is supported by the mounting groove.

4. The cockpit storage assembly of any of claims 1-3, wherein, The application further relates to a guide for guiding the lifting of the storage structure, the lifting assembly comprises a lead screw and a motor for driving the rotation of the lead screw, the storage structure has a vertical lead hole, and the lead screw is matched with the lead hole.

5. The cockpit storage assembly of claim 4, wherein, The guide comprises a guide rod arranged in the mounting groove, the guide rod is matched with the vertical gap between the assembly blocks adjacent to the side surface of the storage structure, and the guide rod can be lifted to be higher or lower than the upper end of the mounting groove.

6. The cockpit storage assembly of claim 4, wherein, The storage structure has an inner layer and an outer layer, the inner layer has the lead hole, the outer layer comprises the assembly blocks, the lead screw passes through the outer layer from the lower end of the storage structure and is connected with the lead hole of the inner layer, and the gap between the adjacent assembly blocks is greater than the outer diameter of the lead screw.

7. The cockpit storage assembly of claim 6, wherein, The inner layer of the storage structure comprises a spherical shell and a ball fixed in the spherical shell, the surface of the spherical shell has a plurality of annular guide grooves penetrating the spherical shell, and the assembly blocks are provided with guide blocks matched with the guide grooves.

8. The cockpit storage assembly of claim 7, wherein, The spherical shell comprises a plurality of split shell plates, the guide grooves are arranged between the adjacent split shell plates, and the split shell plates are fixed with the ball through connecting columns.

9. The cockpit storage assembly of claim 1, wherein, The plurality of assembly blocks are respectively provided with but not limited to one of the following modules: a cup holder module, a storage box module, a table plate module, a chessboard module and a decorative module.

10. A vehicle characterized by comprising: The application further relates to a cockpit storage assembly comprising the carrier and the storage structure of any one of claims 1 to 9, and the carrier and the storage structure are mounted in the cockpit of the vehicle.

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