Top-to-top ground column

Abstract

The utility model discloses a top column, which comprises a body, an upper adjusting rod and a lower adjusting rod, the upper adjusting rod and the lower adjusting rod are respectively sleeved in two ends of the body, the body comprises a rod body and an electrified component, and the upper adjusting rod and the lower adjusting rod are respectively sleeved in two ends of the rod body. The top standing column is fixed through the upper adjusting rod and the lower adjusting rod; the electrified assembly is arranged on the rod body in a sleeving manner, can slide along the rod body and can rotate around the rod body, and the electrified assembly is electrically connected with a power supply and supplies power to a power utilization part on the electrified assembly. According to the utility model, the rod body is provided with the electrified assembly which can freely slide and rotate along the rod body, and the electricity utilization part in the electrified assembly is combined, so that a storage function, an illumination function, a charging power supply function and other functions of different heights and orientations can be simultaneously provided by only needing a smaller space, the aesthetic degree after storage is improved, the space utilization rate is optimized, and the cost is reduced. Diversified functions are achieved, and market popularization is better facilitated.

Description

Technical Field

[0001] The utility model relates to the technical field of furniture for hanging or placing articles, and particularly relates to a floor-to-ceiling column. Background Art

[0002] In order to store sundries, in real life, different storage racks, storage cabinets and other furniture are needed to hang or place articles, so as to realize the classified placement of various articles. However, in specific scenarios, due to the narrow space, it is difficult to place conventional storage racks or cabinets, and specific designs are needed to realize the function of hanging or placing articles. In the prior art, since the floor-to-ceiling column (the floor-to-ceiling column) occupies a small space and can be widely applied to different scenarios, it is generally used to hang or place articles for display or exhibition.

[0003] However, the floor-to-ceiling columns in the prior art often can only provide hooks or trays fixed on the column body to hang or place articles. For commonly used lamps or electrical appliances, corresponding electric energy cannot be provided, and they can only be powered by external power sources through the power cords of each lamp or electrical appliance itself. Therefore, although the floor-to-ceiling columns in the prior art can improve the space utilization rate, they have a single function, especially unable to provide functions such as lighting and power supply.

[0004] Therefore, the prior art still needs to be improved and developed. Summary of the Utility Model

[0005] In view of the above deficiencies of the prior art, the purpose of the present utility model is to provide a floor-to-ceiling column, aiming to solve the problem that the floor-to-ceiling column in the prior art can only hang and place articles and has a single function.

[0006] The technical solution of the present utility model is as follows:

[0007] A floor-to-ceiling column, comprising: a main body and an upper adjusting rod and a lower adjusting rod respectively sleeved inside the two ends of the main body, wherein the main body comprises:

[0008] a rod body, the upper adjusting rod and the lower adjusting rod are respectively sleeved inside the two ends of the rod body to fix the floor-to-ceiling column through the upper adjusting rod and the lower adjusting rod; and

[0009] a charged component, the charged component is sleeved on the rod body and can slide along the rod body and can be rotatably arranged around the rod body, and the charged component is electrically connected to a power source to supply power to an electrical part on the charged component.

[0010] In an embodiment, a conductive rail is axially extended along the rod body, and the charged component is electrically connected to the power source through the conductive rail to supply power to the electrical part.

[0011] In one embodiment, the charged component includes:

[0012] A sliding part sleeved on the rod body, and the charged component slides along the rod body through the sliding part;

[0013] A rotating part sleeved outside the sliding part, and the charged component rotates around the rod body through the rotating part;

[0014] A conductive part, one end of which is arranged on the side of the sliding part facing the rod body and abuts against the conductive rail, and the other end of the conductive part is electrically connected to the power-consuming part;

[0015] The power-consuming part is fixedly connected to the rotating part, and the power-consuming part is electrically connected to the conductive rail through the conductive part.

[0016] In one embodiment, the conductive part includes:

[0017] A fixed convex contact fixed on the side of the sliding part facing the rod body and abutting against the conductive rail;

[0018] A conductive wire fixed on the sliding part, one end of the conductive wire is connected to the fixed convex contact, and the other end passes through the sliding part and surrounds the outside of the sliding part for one week to form an annular structure; and

[0019] A movable convex contact fixed in the rotating part, and one end of the movable convex contact keeps abutting against the annular structure formed by the conductive wire when the rotating part rotates, and the other end of the movable convex contact is electrically connected to the power-consuming part.

[0020] In one embodiment, the conductive part further includes:

[0021] A voltage-conducting spring fixed in the power-consuming part, one end of the voltage-conducting spring abuts against the movable convex contact to ensure that the movable convex contact abuts against the conductive wire, and the other end of the voltage-conducting spring is connected to the power-consuming part to realize the electrical connection between the movable convex contact and the power-consuming part.

[0022] In one embodiment, the power-consuming part is pivotally connected to the rotating part, and the pivot axis is horizontally arranged, so that the power-consuming part can rotate relative to the rotating part in the vertical plane.

[0023] In one embodiment, the rotating part is provided with teeth facing the power-consuming part, and the power-consuming part is correspondingly provided with a plurality of tooth groove positions for the teeth, and the teeth are engaged with the tooth groove positions to control the angle of the power-consuming part relative to the rotating part in the vertical plane.

[0024] In one embodiment, a conductive groove is axially formed on the surface of the rod body, and the conductive rail is fixed at the bottom of the conductive groove;

[0025] Corresponding to the conductive groove, a boss is provided on the inner side of the sliding part of the charged component corresponding to the conductive groove, and the boss is clamped in the conductive groove to ensure that there is no relative rotation between the sliding part and the rod body when the charged component slides along the rod body.

[0026] In one embodiment, a locking groove is also axially formed on the surface of the rod body;

[0027] The charged component further includes a locking part, which is sleeved on the rod body and cooperates with the locking groove to enable the charged component to slide along the rod body or the charged component to be fixed on the rod body.

[0028] In one embodiment, the locking groove is provided with a first locking position and a second locking position along the circumferential direction of the rod body, and the depth of the second locking position is less than the depth of the first locking position;

[0029] The locking part is arranged below the rotating part and can rotate around the rod body. A clamping convex is provided on the inner side of the locking part corresponding to the locking groove. When the clamping convex is located at the first locking position, the charged component can slide along the rod body. When the locking part is rotated to make the clamping convex located at the second locking position, the charged component is fixed on the rod body.

[0030] In one embodiment, the body further includes a length adjuster, which is sleeved on the body and is respectively arranged at the joints of the two ends of the body with the upper adjusting rod and the lower adjusting rod to adjust the lengths of the upper adjusting rod and the lower adjusting rod extending out of the body.

[0031] In one embodiment, a plurality of jacks are axially arranged at fixed intervals on one side of the upper adjusting rod and the lower adjusting rod. The length adjuster includes:

[0032] A clamping part, which is arranged corresponding to the jack, and fixes the positions of the upper adjusting rod and the lower adjusting rod when the clamping part is clamped with the jack;

[0033] A pressing part, which is fixedly connected to the clamping part and is arranged on opposite sides of the body. When the pressing part is pressed, the clamping part is disengaged from the jack, and when the pressing part is released, the clamping part rebounds and is clamped with the jack.

[0034] In one embodiment, the lower adjusting rod includes:

[0035] A lower adjusting rod body, the lower adjusting rod body is sleeved in the main body, and the length of the lower adjusting rod body extending out of the main body is adjusted by the length adjuster;

[0036] A contact plate, the contact plate is arranged at the bottom of the lower adjusting rod to assist in fixedly placing the floor-standing column on the ground; and

[0037] A tensioning device, one end of the tensioning device is in contact with the contact plate, and the other end is threadedly connected to the lower adjusting rod body. Rotating the tensioning device adjusts the thread distance between the tensioning device and the lower adjusting rod body to realize the adjustment of the length of the lower adjusting rod extending out of the main body.

[0038] In one embodiment, an energizing part is provided on the length adjuster corresponding to the connection between the lower adjusting rod and the main body. The energizing part includes:

[0039] A conductive sheet, one end of the conductive sheet is in contact with the conductive rail;

[0040] A power cord connector, the power cord connector connects the power cord to be electrically connected to the power supply, and fixes the other end of the conductive sheet on the length adjuster. The power cord connector conducts the received power to the conductive rail through the conductive sheet to supply power to the charged component.

[0041] Compared with the prior art, the utility model discloses a floor-standing column, which includes a main body and an upper adjusting rod and a lower adjusting rod respectively sleeved inside both ends of the main body. The main body includes a rod body and a charged component. Among them, the upper adjusting rod and the lower adjusting rod are respectively sleeved inside both ends of the rod body to fix the floor-standing column through the upper adjusting rod and the lower adjusting rod; the charged component is sleeved on the rod body and can slide along the rod body and can be rotatably arranged around the rod body. The charged component is electrically connected to the power supply to supply power to the electrical part on the charged component. The utility model provides a charged component that can freely slide along the rod body on the rod body, and combines the electrical part in the charged component, so that functions such as storage function, lighting function, charging and power supply can be provided simultaneously with only a small space, without the need to prepare different power cords, improving the aesthetic degree after storage, and the charged component can be arbitrarily adjusted in height position and orientation angle, further optimizing the space utilization rate, realizing diversified functions, and being more conducive to market promotion. BRIEF DESCRIPTION OF THE DRAWINGS

[0042] Figure 1 It is a three-dimensional view of an embodiment of the floor-standing column described in the utility model.

[0043] Figure 2 It is a front view of the main body in an embodiment of the floor-standing column described in the utility model.

[0044] Figure 3 Partial sectional view of the part of the live component sleeved on the rod body in an embodiment of the floor-standing column described in the present invention.

[0045] Figure 4 Top view of the live component sleeved on the rod body in an embodiment of the floor-standing column described in the present invention.

[0046] Figure 5 Partial sectional view of the live component in an embodiment of the floor-standing column described in the present invention.

[0047] Figure 6 Explosion diagram of the live component in an embodiment of the floor-standing column described in the present invention.

[0048] Figure 7 Explosion diagram of the live component in another embodiment of the floor-standing column described in the present invention.

[0049] Figure 8 Top view of the locking part of the live component sleeved on the rod body in an embodiment of the floor-standing column described in the present invention.

[0050] Figure 9 Schematic diagram of the lower adjusting rod extending from the body in an embodiment of the floor-standing column described in the present invention.

[0051] Figure 10 Schematic diagram of further adjusting the length after the lower adjusting rod extends from the body in an embodiment of the floor-standing column described in the present invention.

[0052] Figure 11 Partial sectional view of the state where the length adjuster is clamped with the jack in an embodiment of the floor-standing column described in the present invention.

[0053] Figure 12 Partial sectional view of the state where the length adjuster is separated from the jack in an embodiment of the floor-standing column described in the present invention.

[0054] Figure 13 Explosion diagram of the length adjuster in an embodiment of the floor-standing column described in the present invention. Detailed implementation manners

[0055] The present invention provides a floor-standing column. To make the purpose, technical solution and effects of the present invention clearer and more definite, the present invention is further described in detail below. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not used to limit the present invention.

[0056] It should be noted that the orientation or positional relationship indicated by terms such as "center", "upper", "lower", "left", "right", "inner", "outer", "vertical", "horizontal", etc. is based on the orientation or positional relationship shown in the drawings. It is only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the structure referred to must have a specific orientation or must be constructed in a specific orientation, and should not be construed as a limitation to the present invention.

[0057] In addition, unless otherwise specifically defined in the text for articles, "a" and "the" can generally refer to a single or plural. If there are descriptions involving "first", "second", etc. in the embodiments of the present invention, such descriptions of "first", "second", etc. are only for descriptive purposes and should not be construed as indicating or implying their relative importance or implicitly indicating the quantity of the indicated technical features. Thus, the features defined with "first", "second" can explicitly or implicitly include at least one such feature. In addition, the technical solutions between various embodiments can be combined with each other, but it must be based on what can be achieved by those of ordinary skill in the art. When the combination of technical solutions results in contradictions or cannot be achieved, it should be considered that such a combination of technical solutions does not exist and is not within the scope of protection required by the present invention.

[0058] The present invention provides a floor-to-ceiling column, as Figure 1 shown. The floor-to-ceiling column includes a main body 10, an upper adjusting rod 20, and a lower adjusting rod 30. Among them, the upper adjusting rod 20 and the lower adjusting rod 30 are respectively sleeved inside both ends of the main body 10, and the upper adjusting rod 20 and the lower adjusting rod 30 can extend out of or retract into the main body 10 to adjust the height of the floor-to-ceiling column, so as to fix the floor-to-ceiling column in environments at different heights. Specifically, length adjusters 300 are respectively provided at the positions where the main body 10 is connected to the upper adjusting rod 20 and the lower adjusting rod 30 to adjust the lengths of the upper adjusting rod 20 and the lower adjusting rod 30 extending out of the main body 10, so as to fix the floor-to-ceiling column in environments at different heights.

[0059] Optionally, a plurality of jacks are provided at one side of the upper adjusting rod 20 and the lower adjusting rod 30 at fixed intervals along the axial direction. A buckle is provided on the length adjuster 300. By disengaging the buckle from the jacks, the upper adjusting rod 20 and the lower adjusting rod 30 can freely expand and contract within the body 10. By snapping the buckle into the corresponding jacks, the extended lengths of the upper adjusting rod 20 and the lower adjusting rod 30 relative to the body 10 are fixed. Through the setting of the length adjuster 300, the upper adjusting rod 20 and the lower adjusting rod 30 can freely expand and contract within the body 10, and the upper adjusting rod 20 and the lower adjusting rod 30 can be fixed relative to the body 10, so as to control the overall height of the floor-to-ceiling column of the present utility model.

[0060] Furthermore, a tensioning device is provided on the upper adjusting rod 20 or the lower adjusting rod 30 to provide the tension between the upper adjusting rod 20 or the lower adjusting rod 30 and the body 10, so as to ensure the fixation of the floor-to-ceiling column between the ceiling and the floor at a determined height. Optionally, abutting plates are respectively provided at the top end of the upper adjusting rod 20 and the bottom end of the lower adjusting rod 30 to ensure the abutment of the upper adjusting rod 20 against the ceiling and the abutment of the lower adjusting rod 30 against the floor, so as to increase the friction between the floor-to-ceiling column and the ceiling and the floor, and realize the fixation of the floor-to-ceiling column.

[0061] Specifically, as Figure 9 shown, the lower adjusting rod 30 includes a lower adjusting rod body 31, jacks 32, a tensioning device 33 and an abutting plate 34. Among them, the abutting plate 34 is a conical structure to increase the contact area with the floor and assist in the fixed placement of the floor-to-ceiling column on the ground. The lower adjusting rod body 31 is sleeved inside the body 10, and a plurality of jacks 32 are provided at fixed intervals along the axial direction on the lower adjusting rod body 31. The control of the extended length of the lower adjusting rod body 31 from the body 10 is realized through the cooperation of the length adjuster 300 and the jacks 32. Further, one end of the tensioning device 33 abuts against the abutting plate 34, and the other end is screwed to one end of the lower adjusting rod body 31 extending out of the body 10. As Figure 10As shown, rotating the tensioning device 33 can adjust the position of the tensioning device 33 on the thread of the lower adjusting rod body 31, thereby adjusting the thread distance between the tensioning device 33 and the lower adjusting rod body 31, and realizing the adjustment of the length of the lower adjusting rod 30 extending from the body. Through the cooperation of the jack 32 and the length adjuster 300, the length of the lower adjusting rod 30 extending from the body 10 can be adjusted on a large scale, and then the length of the lower adjusting rod 30 extending from the body 10 can be adjusted on a small scale through the thread distance between the tensioning device 33 and the lower adjusting rod body 31, so as to ensure that the length of the lower adjusting rod 30 extending from the body 10 can be accurately adjusted in any environment, so that the height of the floor-standing column can accurately match the current environment, which is beneficial to the application of the floor-standing column in different scenarios.

[0062] In one embodiment, the upper adjusting rod 20 is arranged in the same way as the lower adjusting rod 30, but no corresponding tensioning device is provided. Further, the jacks provided on the upper adjusting rod 20 are denser, that is, the distance between adjacent jacks is smaller than the distance between adjacent jacks on the lower adjusting rod 30, so as to realize more precise adjustment of the length of the upper adjusting rod 20 extending from the body 10.

[0063] Further, as Figure 11 and Figure 13 shown, the length adjuster 300 includes a clamping portion 310 and a pressing portion 320 fixedly connected to the clamping portion 310. The clamping portion 310 and the pressing portion 320 surround the body 10 and are symmetrically arranged relative to the body 10. Specifically, the length adjuster 300 is sleeved at the position where the body 10 is connected to the lower adjusting rod 30 or the upper adjusting rod 20. Taking the lower adjusting rod 30 as an example, the clamping portion 310 is a clamping convex formed by the inner side of the length adjuster 300 protruding towards the body 10 and the lower adjusting rod 30, and the clamping portion 310 is arranged corresponding to the jack 32, that is, the clamping portion 310 matches the size of the jack 32, and the clamping portion 310 can extend into the jack 32 to be clamped with the jack 32. As Figure 12 shown, when the pressing portion 320 is pressed, the clamping portion 310 disengages from the jack 32, and the lower adjusting rod 30 can freely expand and contract relative to the body 10 to adjust the length of the lower adjusting rod 30 extending from the body 10; when the pressing portion 320 is released, the clamping portion 310 extends into the jack 32 to be clamped with the jack 32, fixing the length of the lower adjusting rod 30 extending from the body 10, thereby fixing the height of the floor-standing column. The setting at the upper adjusting rod 20 is the same as that at the lower adjusting rod 30, and will not be repeated here.

[0064] Optionally, a resilience device is further provided on the length adjuster 300. The resilience device continuously provides a force for the clamping portion 310 to move towards the body 10, so as to ensure that when the pressing portion 320 is released, the clamping portion 310 moves towards the body 10 and is clamped into the corresponding jack. The utility model realizes the length of the upper adjusting rod 20 and the lower adjusting rod 30 extending out of the body 10 through the cooperation of the jacks on the upper adjusting rod 20 and the lower adjusting rod 30 and the length adjuster 300, and further adjusts the length of the lower adjusting rod 30 through the tensioning device 33 on the lower adjusting rod 30, so as to realize the precise adjustment of the height of the floor-to-ceiling column, so that the floor-to-ceiling column can be applied to scenes with different heights, and further expands the application range of the floor-to-ceiling column of the utility model.

[0065] As Figure 2 shown, the body 10 includes a rod body 100 and a charged component 200 sleeved on the rod body 100. The charged component 200 can slide along the rod body 100 and rotate around the rod body 100. By supplying power to the charged component 200, functions such as charging an object suspended or placed on the floor-to-ceiling column or illuminating the surrounding environment are provided. By adjusting the height of the charged component 200 on the rod body 100 and the direction after the charged component 200 rotates around the rod body 100, the object suspended or placed on the floor-to-ceiling column can be charged or the surrounding environment can be illuminated as needed, making the functions of the floor-to-ceiling column of the utility model more abundant, capable of being applied to different scenes, and conducive to market promotion.

[0066] Specifically, the rod body 100 is a hollow rod, and the upper adjusting rod 20 and the lower adjusting rod 30 are respectively sleeved inside the two ends of the rod body 100. By adjusting the lengths of the upper adjusting rod 20 and the lower adjusting rod 30 extending out of the rod body 100, the floor-to-ceiling column is fixed at a position with a determined height.

[0067] Further, as Figure 3As shown, a conductive rail 110 is fixedly arranged on the surface of the rod body 100 along the axial direction. The conductive rail 110 is a safety low-voltage conductive rail and is electrically connected to a power source (not shown in the figure) to supply power to the charged component 200. Optionally, one end of the conductive rail 110 is fixedly connected to the length adjuster 300, and a wire extends out from the length adjuster 300. One end of the wire is connected to the conductive rail 110, and the other end is connected to an external power source to supply power to the charged component 200 through the conductive rail 110. The conductive rail 110 connected to the power source supplies power to all the charged components 200 on the floor-to-ceiling column, avoiding the use of respective power cords to connect to the power source when hanging or placing electrical appliances on the floor-to-ceiling column of the present invention, thereby further optimizing the space utilization rate and avoiding the chaotic visual effect caused by the mixing of wires.

[0068] In one embodiment, as Figure 4 shown, a conductive groove 120 is axially formed on the surface of the rod body 100, and the conductive rail 110 is fixed at the bottom of the conductive groove 120. Through the conductive groove 120, it is ensured that the corresponding electrical connection components of the charged component 200 always correspond to and are electrically connected to the conductive rail 110 when the charged component 200 slides along the rod body 100, so as to realize continuous power supply to the charged component 200.

[0069] In one embodiment, as Figure 11 and Figure 12 shown, an energizing part 330 is arranged on the length adjuster 300 corresponding to the connection part of the lower adjusting rod 30 and the body 10. The energizing part 330 is arranged on one side of the body 10 and corresponds to the conductive rail 110 and the conductive groove 120. As Figure 13 shown, the energizing part 330 includes a power cord connector 331 and a conductive sheet 332. The power cord connector 331 fixes the conductive sheet 332 on the length adjuster 300 and extends downward to connect the power cord to be electrically connected to an external power source; one end of the conductive sheet 332 is connected to the power cord connector 331, and the other end abuts against the conductive rail 110 to conduct the power received at the power cord connector 331 to the conductive rail 110. Preferably, a pair of conductive sheets 332 are arranged in the energizing part 330. In the present invention, the charged component 200 is continuously powered by electrically connecting a pair of conductive sheets 332 to the conductive rail 110, ensuring that only one conductive rail 110 needs to be arranged on one side of the body 10. Optionally, the conductive sheet 332 is a conductive copper sheet. The present invention realizes power supply to the charged components on the floor-to-ceiling column through a simple structure, without providing different power cords for the charged components, which is easy to assemble and convenient for storage.

[0070] In one embodiment, a locking groove 130 is further provided on the surface of the rod body 100 along the axial direction. The locking groove 130 cooperates with the charged component 200 to achieve the free sliding of the charged component 200 on the rod body 100 and fix the charged component 200 at a specific position on the rod body. Optionally, by adjusting the friction force between the charged component 200 and the locking groove 130, the free sliding of the charged component 200 on the rod body 100 and the fixing of the charged component 200 at a specific position on the rod body are achieved, so that the charged component 200 can be fixed at different positions on the floor-to-ceiling column as required.

[0071] Specifically, as Figure 5 and Figure 6 shown, the charged component 200 includes a sliding part 210, a rotating part 220, a conductor 230, and a power-consuming part 240. The charged component 200 is sleeved on the rod body 100 and can slide along the rod body 100 and rotate around the rod body 100, so as to ensure that the charged component 200 can be fixed at different heights on the floor-to-ceiling column as required and adjust different orientations, so as to provide functions such as lighting or charging power supply for users in different directions at different heights.

[0072] In one embodiment, as Figure 6 shown, the sliding part 210 is a tubular structure corresponding to the rod body 100, and the inner diameter of the sliding part 210 is slightly larger than the outer diameter of the rod body 100 to ensure that the sliding part 210 can slide freely along the rod body 100, so as to ensure that the charged component 200 slides along the rod body 100 through the sliding part 210. Further, when the sliding part 210 slides along the rod body 100, the sliding part 210 does not rotate relative to the rod body 100, that is, the inner ring structure of the sliding part 210 corresponding to the conductive rail 110 always remains arranged corresponding to the conductive rail 110, so as to ensure that when the charged component 200 slides with the sliding part 210, the conductive rail 110 always maintains an electrical connection with the power-consuming part 240 to continuously supply power to the power-consuming part 240.

[0073] In one embodiment, as Figure 4As shown, a conductive groove 120 is formed in the rod body 100, and the conductive rail is fixed inside the conductive groove 120. At this time, a boss 211 is provided on the inner side of the sliding part 210 corresponding to the conductive groove 120. The boss 211 is arranged to match the opening of the conductive groove 120 to clamp the boss 211 in the conductive groove 120, and there is a gap between the surface of the boss 211 and the conductive rail 110. This not only avoids friction between the sliding part 210 and the conductive rail 110, which may affect the sliding, but also ensures that the positional correspondence between the sliding part 210 and the conductive rail 110 remains unchanged during the sliding process. Further, the boss 211 provides a positioning function for the sliding part 210. When assembling the floor-standing column, just clamp the boss 211 corresponding in the conductive groove 120, and the positional relationship between the sliding part 210 and the conductive rail 110 can be ensured, which is convenient, fast and easy to operate.

[0074] As Figure 3 and Figure 4 shown, the rotating part 220 is sleeved outside the sliding part 210, and the rotating part 220 can rotate around the rod body 100. Specifically, after the sliding part 210 is sleeved on the rod body 100, the rotating part 220 is sleeved outside the sliding part 210 and can slide along the rod body 100 with the sliding part 210. Among them, the corresponding relationship between the sliding part 210 and the conductive rail 110 remains unchanged during the sliding process, that is, the sliding part 210 does not rotate relative to the rod body 100 at any time; while the rotating part 220 can rotate freely around the rod body 100 with the rod body 100 as the rotation axis. Optionally, the inner diameter of the rotating part 220 is slightly larger than the outer diameter of the sliding part 210 to facilitate the free rotation of the rotating part 220; and clamping platforms extend inward from the top and bottom of the rotating part 220, and the clamping platforms abut against the top and bottom of the sliding part 210 to ensure that the rotating part 220 can slide along the rod body 100 with the sliding part 210; at the same time, there is a gap between the clamping platform and the rod body 100 to further ensure that the rotating part 220 can rotate around the rod body 100. Specifically, after the rotating part 220 rotates to the required angle, the position of the rotating part 220 is fixed by the friction force between the clamping platform and the sliding part 210, so as to ensure that the rotating part 220 can rotate 360° arbitrarily to the required position in the horizontal plane.

[0075] Further, the power-consuming part 240 is fixedly connected to the rotating part 220 so that the power-consuming part 240 can slide along the rod body 100 through the sliding part 210 with the rotating part 220, and can rotate arbitrarily around the rod body 100 in the horizontal plane and be fixed at a desired angle position with the rotating part 220, thereby providing functions such as lighting, charging, and power supply for users at different heights and from different angles. In one embodiment, as Figure 6 shown, the power-consuming part 240 is pivotally connected to the rotating part 220 through a pivot 242. The pivot 242 is fixed at one end of the power-consuming part 240, and the power-consuming part 240 and the rotating part 220 are fixedly connected through a shaft hole on the rotating part 220. Optionally, the pivot 242 is arranged in the horizontal direction so that the power-consuming part 240 can rotate relative to the rotating part 220 in the vertical plane. For example, it can rotate from the -90° direction to the 90° direction in the vertical plane.

[0076] In one embodiment, as Figure 3 shown, when the power-consuming part 240 is pivotally connected to the rotating part 220, a toothed lock 221 is provided on the rotating part 220, and a plurality of toothed lock slots 241 corresponding to the toothed lock 221 are provided on the power-consuming part 240, and the toothed lock slots 241 are engaged with the toothed lock 221. When the power-consuming part 240 rotates relative to the rotating part 220 in the vertical plane, the toothed lock 221 is inserted into different toothed lock slots 241 to fix the power-consuming part 240 at different angles in the vertical plane. Optionally, the toothed lock 221 is an elastic toothed lock, and it can retract towards the rotating part 220 when stressed and rebound away from the rotating part 220 when not stressed. When the power-consuming part 240 starts to rotate relative to the rotating part 220 in the vertical plane, the toothed lock slot 241 applies pressure to the toothed lock 221 to make the toothed lock 221 retract, and then after the power-consuming part 240 rotates in place, the toothed lock 221 rebounds and extends to engage with the corresponding toothed lock slot 241 to fix the position of the power-consuming part 240 in the vertical plane. The sliding part 210 drives the charged component 200 to slide along the rod body 100, thereby adjusting the height of the power-consuming part 240; then the rotating part 220 drives the power-consuming part 240 to rotate around the rod body 100, thereby adjusting the fixed direction of the power-consuming part 240 in the horizontal plane; finally, the pivot 242 enables the power-consuming part 240 to rotate relative to the rotating part 220, thereby determining the fixed angle of the power-consuming part 240 in the vertical plane. Through the coordinated use of multiple structures on the floor-standing column, functions such as lighting, charging, or power supply can be provided for users at different heights, different angles, and different directions. By staggering different item positions, the space utilization rate is optimized, the usage scenarios of the floor-standing column are expanded, which is conducive to further market promotion.

[0077] Optionally, the power-consuming part 240 includes lighting fixtures, charging devices, and live sockets, etc., to provide lighting, charging, and external power supply functions for the towering pillars, making the towering pillars of the utility model more functional. Optionally, the power-consuming part 240 includes LED lights, USB charging connectors, and wireless charging trays. In this way, by adjusting the height, angle, and direction of the power-consuming part 240, functions such as lighting in a specific direction can be provided to users. At the same time, adjacent power-consuming parts can be staggered to further improve space utilization. At the same time, the power-consuming parts are continuously powered, expanding the use scenarios of the towering pillars, so that the towering pillars of the utility model can have broader application prospects.

[0078] Furthermore, the live component 200 continuously supplies power to the power-consuming part 240 through the conductive part 230, wherein one end of the conductive part 230 is arranged on the side of the sliding part 210 facing the rod body 100 and maintains abutment with the conductive rail 110, and the other end of the conductive part 230 is electrically connected to the power-consuming part 240, thereby ensuring that the power-consuming part 240 always maintains electrical connection with the conductive rail 110 when the position of the power-consuming part 240 is adjusted, thereby achieving continuous power supply to the power-consuming part 240, and even if the specific position, angle or direction of the power-consuming part 240 is adjusted, it will not affect the working condition of the power-consuming part 240.

[0079] In one embodiment, Figure 5 As shown, the conductive part 230 includes a fixed convex contact 231, a conductive wire 232 and a movable convex contact 233, wherein the fixed convex contact 231 passes through the sliding part 210 and extends and protrudes toward the rod body 100 to abut against the conductive rail 110. In one embodiment, a boss 211 is provided inside the sliding part 210 to ensure that the sliding part 210 and the conductive rail 110 remain corresponding, that is, the sliding part 210 and the rod body 100 do not rotate relative to each other, and the fixed convex contact 231 is fixed on the surface of the boss 211 facing the conductive rail 110 and extends and protrudes from the conductive rail 110 to abut against the conductive rail 110. In this embodiment, since the sliding portion 210 ensures a corresponding relationship with the conductive rail 110 through the boss 211, the fixed convex contact 231 maintains an abutting relationship with the conductive rail 110. No matter how the height, angle or direction of the live component 200 is adjusted, the fixed convex contact 231 is always in abutment with the conductive rail 110, thereby ensuring continuous power supply to the power-consuming portion 240.

[0080] Further, one end of the conductive wire 232 passes through the sliding part 210 and is connected to the fixed convex contact 231, and the other end of the conductive wire 232 extends out from the outside of the sliding part 210 and forms a ring structure by surrounding the outside of the sliding part 210 for one week; the movable convex contact 233 is fixed in the rotating part 220 and abuts against the ring structure formed by the conductive wire 232. In this way, when the movable convex contact 233 rotates around the rod body 100 along with the rotating part 220, the movable convex contact 233 always abuts against the conductive wire 232. In this way, no matter how the height, angle or direction of the charged component 200 is adjusted, the conductive rail 110 can continuously supply power to the power-consuming part 240 through the conductive part 230, ensuring the continuous operation of the power-consuming part 240.

[0081] In one embodiment, as Figure 7 shown, a wire groove 212 is provided on the outer side wall of the sliding part 210 corresponding to the conductive wire 232. The wire groove 212 surrounds the outside of the sliding part 210 for one week to accommodate the ring structure formed by the conductive wire 232 surrounding. Fixing the conductive wire 232 in the wire groove 212 can ensure that the conductive wire 232 remains fixed during use. Even when the movable convex contact 233 rotates around the rod body 100 along with the rotating part 220 and keeps abutting against the conductive wire 232, it cannot move the conductive wire 232, thereby ensuring that the power transmitted from the conductive rail 110 can be stably transmitted to the power-consuming part 240 through the fixed convex contact 231, the conductive wire 232 and the movable convex contact 233. No matter how the height, angle or direction of the charged component 200 is adjusted, the conductive rail 110 can continuously supply power to the power-consuming part 240 through the conductive part 230, ensuring the continuous operation of the power-consuming part 240.

[0082] Further, as Figure 5 and Figure 7As shown, in the floor-to-ceiling column of the present utility model, the conductive part 230 may further include a conductive compression spring 234, which is fixed in the rotating part 220 and arranged corresponding to the movable convex contact 233. One end of the conductive compression spring 234 abuts against the movable convex contact 233 to apply pressure to the movable convex contact 233 to ensure that the movable convex contact 233 abuts against the conductive wire 232; the other end of the conductive compression spring 234 is connected to the power-consuming part 240 to transfer the electric energy received by the movable convex contact 233 from the conductive wire 232 to the power-consuming part 240. The conductive compression spring 234 can rotate synchronously with the rotating part 220 and the movable convex contact 233, so as to ensure that pressure is applied to the movable convex contact 233 during the rotation of the rotating part 220, so as to ensure that the movable convex contact 233 always abuts against the conductive wire 232. In this way, whether the charged component 200 slides along the rod body 100 through the sliding part 210 or rotates around the rod body 100 through the rotating part 220, the conductive rail 110, the fixed convex contact 231, the conductive wire 232, the movable convex contact 233, the conductive compression spring 234 and the power-consuming part 240 are kept electrically connected in sequence. In this way, no matter how the height or direction of the charged component 200 is adjusted, the conductive rail 110 can continuously supply power to the power-consuming part 240 through the conductive part 230, ensuring the continuous operation of the power-consuming part 240.

[0083] Optionally, the conductive compression spring 234 is an arc-shaped compression spring, and the tooth slot 241 matching the power-consuming part 240 is arranged around the pivot 242. When the power-consuming part 240 rotates around the rotating part 220 in the vertical plane through the pivot 242, the conductive compression spring 234 always applies pressure to the movable convex contact, so as to ensure that even if the angle of the charged component 200 in the vertical plane is adjusted, it will not affect the power supply of the conductive rail 110 to the power-consuming part 240 through the conductive part 230, ensuring the continuous operation of the power-consuming part 240.

[0084] In one embodiment, as Figure 7As shown, the charged component 200 further includes a locking portion 250. The locking portion 250 is sleeved on the rod body 100 and the locking portion 250 can rotate around the rod body 100. Further, the locking portion 250 is disposed below the rotating portion 220 and the sliding portion 210, and the top end of the locking portion 250 abuts against the bottom ends of the rotating portion 220 and the sliding portion 210, so that the components in the charged component 200 can slide synchronously along the rod body 100. Preferably, the middle sections of the rotating portion 220 and the sliding portion 210 are hollowed out, and the locking portion 250 is clamped in the hollowed-out portions of the rotating portion 220 and the sliding portion 210, that is, the top end of the locking portion 250 abuts against the bottom ends of the upper halves of the rotating portion 220 and the sliding portion 210, and the bottom end of the locking portion 250 abuts against the top ends of the lower halves of the rotating portion 220 and the sliding portion 210. Then, when the locking portion 250 can slide freely along the rod body 100, the components in the charged component 200 can slide synchronously along the rod body 100; when the locking portion 250 is fixed on the rod body 100, the components on the charged component 200 are fixed on the rod body 100 through the locking portion 250. The charged component 200 cooperates with a locking groove 130 formed on the rod body 100 through the locking portion 250 to realize the sliding of the charged component 200 along the rod body 100 or fixing the charged component 200 on the rod body 100, thereby realizing the adjustment of the position of the charged component 200 on the floor-to-ceiling column and fixing the charged component 200 at a specific height on the floor-to-ceiling column.

[0085] In one embodiment, the locking portion 250 protrudes toward the locking groove 130 to form a clamping protrusion 251, as Figure 8As shown, the locking portion 250 is provided with a first locking position 131 and a second locking position 132 along the circumferential direction of the rod body 100. Among them, the depth of the second locking position 132 is less than the depth of the first locking position 131. From the second locking position 132 to the first locking position 131, the depth of the locking groove 130 gradually increases, and the depth of the second locking position 132 is less than the height of the convex 251, and the depth of the first locking position 131 is greater than the height of the convex 251. In this way, when the convex 251 is located at the first locking position 131, there is a gap between the convex 251 and the locking groove 130, and the locking portion 250 can slide freely along the rod body 100; when the locking portion 250 is rotated to move the convex 251 from the first locking position 131 to the second locking position 132, the convex 251 gradually abuts against the bottom of the locking groove 130, and the friction force increases to fix the locking portion 250 on the rod body 100. Through the positional relationship between the locking portion 250 and the rotating portion 220 and the sliding portion 210, when the convex 251 is located at the first locking position 131, the locking portion 250 is separated from the rod body 100, and all components of the charged component 200 can slide freely along the rod body 100; when the convex 251 rotates with the locking portion 250 and moves toward the second locking position 132, the gap between the locking portion 250 and the locking groove 130 gradually increases until all components of the charged component 200 are fixed at a specific position on the rod body 100, realizing that the charged component 200 slides along the rod body 100 or the charged component 200 is fixed on the rod body 100, so as to realize adjusting the position of the charged component 200 on the floor-to-ceiling column to fix the charged component 200 at a specific height on the floor-to-ceiling column.

[0086] In another embodiment, the locking portion 250 is a tightening button. When the locking portion 250 is pressed, the locking portion 250 abuts against the bottom of the locking groove 130 to fix the charged component 200 on the rod body 100; when the locking portion 250 is lifted, the locking portion 250 is separated from the locking groove 130, and the charged component 200 can move freely along the rod body 100, so as to realize adjusting the position of the charged component 200 on the floor-to-ceiling column to fix the charged component 200 at a specific height on the floor-to-ceiling column.

[0087] In the present utility model, the charged component 200 slides along the floor-to-ceiling column through the sliding portion 210 and is fixed in the height direction through the locking portion 250; then, the orientation of the power-consuming portion 240 on the horizontal plane is adjusted through the rotating portion 220, and the angle of the power-consuming portion 240 on the vertical plane is determined through the rotation relationship between the power-consuming portion 240 and the rotating portion 220; finally, the conductive portion 230 ensures that the power-consuming portion 240 is always electrically connected to the conductive rail 110 on the rod body 100 at any time, so as to ensure the continuous working state of the power-consuming portion 240. In this way, no matter how the height, angle or direction of the charged component 200 is adjusted, the floor-to-ceiling column of the present utility model can provide corresponding functions such as lighting, charging or power supply.

[0088] Optionally, as Figure 1 and Figure 2 shown, the main body 10 may further be provided with a hook 400, a tray 500 and an object placing tray 600 sleeved on the rod body 100 to provide the functions of hanging or placing objects for the floor-to-ceiling column of the present utility model. Among them, the height position of the hook 400, the tray 500 and the object placing tray 600 on the floor-to-ceiling column is adjusted through a structure similar to the locking portion 250 in the charged component 200, or the two states of freely sliding and fixing the position of the hook 400, the tray 500 and the object placing tray 600 on the floor-to-ceiling column are switched through other conventional means, which will not be elaborated here. Further, the main body 10 of the floor-to-ceiling column of the present utility model is provided with hooks 400 with different hook lengths, trays 500 with different tray sizes and object placing trays 600 with different areas. By adjusting the height difference and orientation difference between them, the space is fully utilized and the space utilization rate is improved.

[0089] In summary, the present utility model provides a floor-to-ceiling column, including a main body and an upper adjusting rod and a lower adjusting rod respectively sleeved inside the two ends of the main body. The main body includes a rod body and a charged component. Among them, the upper adjusting rod and the lower adjusting rod are respectively sleeved inside the two ends of the rod body to fix the floor-to-ceiling column through the upper adjusting rod and the lower adjusting rod; the charged component is sleeved on the rod body and can slide along the rod body and can be rotatably arranged around the rod body. The charged component is electrically connected to a power source to supply power to the power-consuming portion on the charged component. The present utility model provides a storage function, a lighting function, a charging and power supply function, etc. with only a small space by arranging a charged component that can freely slide along the rod body on the rod body and combining the power-consuming portion in the charged component, without the need to prepare different power cords, improving the aesthetic degree after storage. Moreover, the charged component can be arbitrarily adjusted in height position and orientation angle, further optimizing the space utilization rate, realizing diversified functions, and being more conducive to market promotion.

[0090] It should be understood that the application of the present utility model is not limited to the above examples. For those of ordinary skill in the art, improvements or transformations can be made according to the above description, and all such improvements and transformations should fall within the protection scope of the appended claims of the present utility model.

Claims

1. A pillar that stands upright, characterized in that: include: A body and an upper adjustment rod and a lower adjustment rod respectively sleeved on both ends of the body, wherein the body comprises: A rod body, wherein the upper adjusting rod and the lower adjusting rod are respectively sleeved in two ends of the rod body, so as to fix the upright column through the upper adjusting rod and the lower adjusting rod; and A live component is sleeved on the rod body and can slide along the rod body and can be rotated around the rod body. The live component is electrically connected to a power source to supply power to the power-consuming part on the live component.

2. The vertical column according to claim 1, characterized in that: A conductive rail is provided along the axial extension of the rod body, and the live component is electrically connected to the power source through the conductive rail to supply power to the power-consuming part.

3. The vertical column according to claim 2, characterized in that: The live component comprises: A sliding part, wherein the sliding part is sleeved on the rod body, and the charged component slides along the rod body through the sliding part; A rotating part, wherein the rotating part is sleeved on the outside of the sliding part, and the charged component rotates around the rod body through the rotating part; A conductive part, one end of which is disposed on a side of the sliding part facing the rod body and abuts against the conductive rail, and the other end of which is electrically connected to the power-consuming part; The power-consuming part is fixedly connected to the rotating part, and the power-consuming part is electrically connected to the conductive rail through the conductive part.

4. The vertical column according to claim 3, characterized in that: The conductive part comprises: A fixed convex contact, the fixed convex contact is fixed to a side of the sliding portion facing the rod body and abuts against the conductive rail; A conductive wire, wherein the conductive wire is fixed to the sliding portion, one end of the conductive wire is connected to the fixed convex contact, and the other end of the conductive wire passes through the sliding portion and surrounds the outer side of the sliding portion to form a ring structure; and A movable convex contact is fixed in the rotating part, and when the rotating part rotates, one end of the movable convex contact is kept in contact with the annular structure formed by the conductive wire, and the other end of the movable convex contact is electrically connected to the power-consuming part.

5. The vertical column according to claim 4, characterized in that: The conductive part further includes: A conductive voltage spring is fixed in the power-consuming part, one end of the conductive voltage spring abuts against the movable convex contact to ensure that the movable convex contact abuts against the conductive wire, and the other end of the conductive voltage spring is connected to the power-consuming part to achieve electrical connection between the movable convex contact and the power-consuming part.

6. The vertical column according to claim 3, characterized in that: The power-consuming part is pivotally connected to the rotating part, and the pivot is arranged horizontally, so that the power-consuming part can rotate relative to the rotating part in a vertical plane.

7. The vertical column according to claim 6, characterized in that: The rotating part is provided with a latching tooth toward the power-consuming part, and the power-consuming part is provided with a plurality of latching tooth slots corresponding to the latching tooth, and the latching tooth is meshed with the latching tooth slots to control the angle of the power-consuming part relative to the rotating part in a vertical plane.

8. The vertical column according to claim 3, characterized in that: A conductive groove is formed on the surface of the rod body along the axial direction, and the conductive rail is fixed at the bottom of the conductive groove; Corresponding to the conductive groove, a boss is provided on the inner side of the sliding portion of the charged component corresponding to the conductive groove, and the boss is clamped in the conductive groove to ensure that no relative rotation occurs between the sliding portion and the rod body when the charged component slides along the rod body.

9. The vertical column according to claim 3, characterized in that: The rod body surface is also provided with a locking groove extending along the axial direction; The live component also includes a locking portion, which is sleeved on the rod body and cooperates with the locking groove to enable the live component to slide along the rod body or to be fixed on the rod body.

10. The vertical column according to claim 9, characterized in that: The locking groove is provided with a first locking position and a second locking position along the circumference of the rod body, and the depth of the second locking position is smaller than the depth of the first locking position; The locking portion is arranged below the rotating portion and can rotate around the rod body. A latching protrusion is provided on the inner side of the locking portion corresponding to the locking groove. When the latching protrusion is located at the first locking position, the charged component can slide along the rod body. When the locking portion is rotated so that the latching protrusion is located at the second locking position, the charged component is fixed on the rod body.

11. The vertical column according to claim 2, characterized in that: The body also includes a length adjuster, which is sleeved on the body and respectively arranged at the connection between the two ends of the body and the upper adjustment rod and the lower adjustment rod to adjust the length of the upper adjustment rod and the lower adjustment rod extending from the body.

12. The vertical pillar according to claim 11, characterized in that: One side of the upper adjusting rod and the lower adjusting rod is provided with a plurality of jacks at fixed intervals along the axial direction, and the length adjuster comprises: A clamping portion, the clamping portion is arranged corresponding to the jack, and the positions of the upper adjusting rod and the lower adjusting rod are fixed when the clamping portion is clamped with the jack; A pressing portion is fixedly connected to the clamping portion and is disposed on two opposite sides of the body. When the pressing portion is pressed, the clamping portion is separated from the jack. When the pressing portion is released, the clamping portion rebounds and clamps the jack.

13. The vertical column according to claim 11, characterized in that: The lower adjustment rod comprises: A lower adjusting rod body, wherein the lower adjusting rod body is sleeved in the main body, and the length of the lower adjusting rod body extending out of the main body is adjusted by the length adjuster; an abutment plate, the abutment plate being arranged at the bottom of the lower adjustment rod to assist the vertical column in being fixedly placed on the ground; and A tensioning device, one end of which is in contact with the abutment plate, and the other end is threadedly connected to the lower adjusting rod body. The tensioning device is rotated to adjust the thread distance between the tensioning device and the lower adjusting rod body, so as to adjust the length of the lower adjusting rod extending from the main body.

14. The vertical column according to claim 11, characterized in that: A power supply part is provided on the length adjuster corresponding to the connection between the lower adjustment rod and the body, and the power supply part includes: A conductive sheet, one end of which is in contact with the conductive rail; A power cord connector, wherein the power cord connector connects the power cord to the power supply and fixes the other end of the conductive sheet to the length adjuster. The power cord connector conducts the received power to the conductive rail through the conductive sheet to power the live component.

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